Running: ./testmodel.py --libraries=/home/hudson/saved_omc/libraries/.openmodelica/libraries --ompython_omhome=/usr ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1.conf.json loadFile("/home/hudson/saved_omc/libraries/.openmodelica/libraries/SMArtInt main/package.mo", uses=false) [Timeout 180] "Notification: Performance of loadFile(/home/hudson/saved_omc/libraries/.openmodelica/libraries/SMArtInt main/package.mo): time 0.008827/0.008827, allocations: 1.787 MB / 20.88 MB, free: 3.648 MB / 18.57 MB " [Timeout remaining time 180] loadFile("/home/hudson/saved_omc/libraries/.openmodelica/libraries/ModelicaServices 4.1.0+maint.om/package.mo", uses=false) [Timeout 180] "Notification: Performance of loadFile(/home/hudson/saved_omc/libraries/.openmodelica/libraries/ModelicaServices 4.1.0+maint.om/package.mo): time 0.006743/0.006743, allocations: 78.73 kB / 24.59 MB, free: 7.219 MB / 18.57 MB " [Timeout remaining time 180] loadFile("/home/hudson/saved_omc/libraries/.openmodelica/libraries/Complex 4.1.0+maint.om/package.mo", uses=false) [Timeout 180] "Notification: Performance of loadFile(/home/hudson/saved_omc/libraries/.openmodelica/libraries/Complex 4.1.0+maint.om/package.mo): time 0.001564/0.001564, allocations: 167.7 kB / 28.4 MB, free: 4.32 MB / 18.57 MB " [Timeout remaining time 180] loadFile("/home/hudson/saved_omc/libraries/.openmodelica/libraries/Modelica 4.1.0+maint.om/package.mo", uses=false) [Timeout 180] "Notification: Performance of loadFile(/home/hudson/saved_omc/libraries/.openmodelica/libraries/Modelica 4.1.0+maint.om/package.mo): time 0.9491/0.9491, allocations: 177.2 MB / 209.3 MB, free: 2.531 MB / 186.7 MB " [Timeout remaining time 179] loadFile("/home/hudson/saved_omc/libraries/.openmodelica/libraries/ClaRa main/package.mo", uses=false) [Timeout 180] "Notification: Performance of loadFile(/home/hudson/saved_omc/libraries/.openmodelica/libraries/ClaRa main/package.mo): time 0.8314/0.8314, allocations: 102.4 MB / 368.7 MB, free: 0.9961 MB / 330.8 MB " [Timeout remaining time 179] Using package ClaRa with version 1.9.0 (/home/hudson/saved_omc/libraries/.openmodelica/libraries/ClaRa main/package.mo) Using package Modelica with version 4.1.0 (/home/hudson/saved_omc/libraries/.openmodelica/libraries/Modelica 4.1.0+maint.om/package.mo) Using package Complex with version 4.1.0 (/home/hudson/saved_omc/libraries/.openmodelica/libraries/Complex 4.1.0+maint.om/package.mo) Using package ModelicaServices with version 4.1.0 (/home/hudson/saved_omc/libraries/.openmodelica/libraries/ModelicaServices 4.1.0+maint.om/package.mo) Using package SMArtInt with version 1.0.0 (/home/hudson/saved_omc/libraries/.openmodelica/libraries/SMArtInt main/package.mo) Running command: setCommandLineOptions("--fmiFlags=s:cvode") Running command: "" <> buildModelFMU(ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1,fileNamePrefix="ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1",fmuType="me_cs",version="2.0",platforms={"static"}) "" <> buildModelFMU(ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1,fileNamePrefix="ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1",fmuType="me_cs",version="2.0",platforms={"static"}) [Timeout 800] Thread is still alive. "Notification: Performance of FrontEnd - loaded program: time 1.824e-06/1.824e-06, allocations: 0 / 0.5379 GB, free: 38.92 MB / 490.8 MB Notification: Performance of FrontEnd - Absyn->SCode: time 2.577e-05/2.759e-05, allocations: 7.984 kB / 0.5379 GB, free: 38.91 MB / 490.8 MB Notification: TILMedia requested package Modelica of version 4.0.0. Modelica 4.1.0 is used instead which states that it is fully compatible without conversion script needed. Notification: Automatically loaded package TILMedia 1.9.0 ClaRa due to usage. Notification: Performance of NFInst.instantiate(ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1): time 0.144/0.1441, allocations: 82.41 MB / 0.6183 GB, free: 8.551 MB / 0.5105 GB Notification: Performance of NFInst.instExpressions: time 0.03951/0.1836, allocations: 27.43 MB / 0.6451 GB, free: 13.03 MB / 0.5418 GB Notification: Performance of NFInst.updateImplicitVariability: time 0.007843/0.1914, allocations: 127.5 kB / 0.6453 GB, free: 12.91 MB / 0.5418 GB [/home/hudson/saved_omc/libraries/.openmodelica/libraries/ClaRa main/SimCenter.mo:71:5-72:35:writable] Warning: Connector cycleSumPort is not balanced: The number of potential variables (0) is not equal to the number of flow variables (4). Notification: Performance of NFTyping.typeComponents: time 0.009502/0.2009, allocations: 4.242 MB / 0.6494 GB, free: 8.645 MB / 0.5418 GB Notification: Performance of NFTyping.typeBindings: time 0.01448/0.2154, allocations: 6.293 MB / 0.6555 GB, free: 2.316 MB / 0.5418 GB Notification: Performance of NFTyping.typeClassSections: time 0.01535/0.2307, allocations: 6.984 MB / 0.6624 GB, free: 11.31 MB / 0.5574 GB Notification: Performance of NFFlatten.flatten: time 0.04982/0.2806, allocations: 63.77 MB / 0.7246 GB, free: 11.45 MB / 0.6199 GB Notification: Performance of NFFlatten.resolveConnections: time 0.04118/0.3217, allocations: 24.25 MB / 0.7483 GB, free: 3.055 MB / 0.6355 GB Notification: Performance of NFEvalConstants.evaluate: time 0.462/0.7838, allocations: 32.89 MB / 0.7804 GB, free: 55.81 MB / 0.6512 GB Notification: Performance of NFSimplifyModel.simplify: time 0.07984/0.8636, allocations: 69.29 MB / 0.8481 GB, free: 42.64 MB / 0.6512 GB Notification: Performance of NFPackage.collectConstants: time 0.07641/0.94, allocations: 20.42 MB / 0.868 GB, free: 42.64 MB / 0.6512 GB Notification: Performance of NFFlatten.collectFunctions: time 0.08384/1.024, allocations: 24.09 MB / 0.8916 GB, free: 24.33 MB / 0.6512 GB Notification: Performance of NFScalarize.scalarize: time 0.1179/1.142, allocations: 56.77 MB / 0.947 GB, free: 4.566 MB / 0.6824 GB Notification: Performance of NFVerifyModel.verify: time 0.1169/1.259, allocations: 48.63 MB / 0.9945 GB, free: 5.156 MB / 0.7293 GB Notification: Performance of NFConvertDAE.convert: time 1.016/2.275, allocations: 263.6 MB / 1.252 GB, free: 60.32 MB / 0.7919 GB Notification: Performance of FrontEnd - DAE generated: time 1.185e-05/2.275, allocations: 0 / 1.252 GB, free: 60.32 MB / 0.7919 GB Notification: Performance of FrontEnd: time 3.477e-06/2.275, allocations: 0.6875 kB / 1.252 GB, free: 60.32 MB / 0.7919 GB Notification: Performance of Transformations before backend: time 0.00545/2.28, allocations: 0 / 1.252 GB, free: 60.32 MB / 0.7919 GB Notification: Model statistics after passing the front-end and creating the data structures used by the back-end: * Number of equations: 11846 * Number of variables: 11846 Notification: Performance of Generate backend data structure: time 1.604/3.884, allocations: 142.7 MB / 1.391 GB, free: 122 MB / 0.8546 GB Notification: Performance of prepare preOptimizeDAE: time 7.73e-05/3.884, allocations: 12.72 kB / 1.391 GB, free: 122 MB / 0.8546 GB Notification: Performance of preOpt introduceOutputAliases (simulation): time 0.09446/3.979, allocations: 6.466 MB / 1.398 GB, free: 121.7 MB / 0.8546 GB Notification: Performance of preOpt normalInlineFunction (simulation): time 0.1039/4.083, allocations: 6.183 MB / 1.404 GB, free: 119 MB / 0.8546 GB Notification: Performance of preOpt evaluateParameters (simulation): time 0.1925/4.275, allocations: 66.04 MB / 1.468 GB, free: 101.7 MB / 0.8546 GB Notification: Performance of preOpt simplifyIfEquations (simulation): time 0.02645/4.302, allocations: 28.7 MB / 1.496 GB, free: 72.03 MB / 0.8546 GB Notification: Performance of preOpt expandDerOperator (simulation): time 0.08269/4.384, allocations: 4.368 MB / 1.5 GB, free: 67.72 MB / 0.8546 GB Notification: Performance of preOpt clockPartitioning (simulation): time 1.352/5.736, allocations: 315 MB / 1.808 GB, free: 307.1 MB / 1.073 GB Notification: Performance of preOpt findStateOrder (simulation): time 0.004487/5.74, allocations: 18.78 kB / 1.808 GB, free: 307.1 MB / 1.073 GB Notification: Performance of preOpt replaceEdgeChange (simulation): time 0.08989/5.83, allocations: 1.682 MB / 1.81 GB, free: 307.1 MB / 1.073 GB Notification: Performance of preOpt inlineArrayEqn (simulation): time 0.01149/5.842, allocations: 3.955 MB / 1.814 GB, free: 307 MB / 1.073 GB Notification: Performance of preOpt removeEqualRHS (simulation): time 2.458/8.3, allocations: 0.6547 GB / 2.468 GB, free: 138.5 MB / 1.073 GB Warning: The model contains alias variables with redundant start and/or conflicting nominal values. It is recommended to resolve the conflicts, because otherwise the system could be hard to solve. To print the conflicting alias sets and the chosen candidates please use -d=aliasConflicts. Notification: Performance of preOpt removeSimpleEquations (simulation): time 3.337/11.64, allocations: 0.9259 GB / 3.394 GB, free: 318.7 MB / 1.105 GB Notification: Performance of preOpt comSubExp (simulation): time 0.3326/11.97, allocations: 195.3 MB / 3.585 GB, free: 252.5 MB / 1.105 GB Notification: Performance of preOpt resolveLoops (simulation): time 0.2464/12.22, allocations: 148.6 MB / 3.73 GB, free: 103.4 MB / 1.105 GB Notification: Performance of preOpt evalFunc (simulation): time 0.01722/12.23, allocations: 1.928 MB / 3.732 GB, free: 101.4 MB / 1.105 GB Notification: Performance of preOpt encapsulateWhenConditions (simulation): time 0.001182/12.23, allocations: 0.9067 MB / 3.733 GB, free: 100.5 MB / 1.105 GB Notification: Performance of pre-optimization done (n=8230): time 9.956e-05/12.23, allocations: 0 / 3.733 GB, free: 100.5 MB / 1.105 GB Notification: Performance of matching and sorting (n=8230): time 1.65/13.88, allocations: 445.3 MB / 4.168 GB, free: 73.04 MB / 1.105 GB Notification: Performance of inlineWhenForInitialization (initialization): time 0.001346/13.89, allocations: 5.608 MB / 4.173 GB, free: 66.28 MB / 1.105 GB Notification: Performance of selectInitializationVariablesDAE (initialization): time 0.6841/14.57, allocations: 41.68 MB / 4.214 GB, free: 340.5 MB / 1.105 GB Notification: Performance of collectPreVariables (initialization): time 0.05361/14.62, allocations: 1.318 MB / 4.215 GB, free: 340.5 MB / 1.105 GB Notification: Performance of collectInitialEqns (initialization): time 0.01979/14.64, allocations: 15.33 MB / 4.23 GB, free: 336.1 MB / 1.105 GB Notification: Performance of collectInitialBindings (initialization): time 0.08509/14.73, allocations: 30.65 MB / 4.26 GB, free: 315.9 MB / 1.105 GB Notification: Performance of simplifyInitialFunctions (initialization): time 0.1878/14.92, allocations: 18.72 MB / 4.278 GB, free: 311.2 MB / 1.105 GB Notification: Performance of setup shared object (initialization): time 4.902e-05/14.92, allocations: 305.1 kB / 4.279 GB, free: 310.9 MB / 1.105 GB Notification: Performance of preBalanceInitialSystem (initialization): time 0.2356/15.15, allocations: 133.6 MB / 4.409 GB, free: 225.4 MB / 1.105 GB Notification: Performance of partitionIndependentBlocks (initialization): time 0.2491/15.4, allocations: 154.1 MB / 4.56 GB, free: 65.99 MB / 1.105 GB Notification: Performance of analyzeInitialSystem (initialization): time 91.59/107, allocations: 26.34 GB / 30.9 GB, free: 154.9 MB / 1.136 GB Notification: Performance of solveInitialSystemEqSystem (initialization): time 0.0008179/107, allocations: 94.31 kB / 30.9 GB, free: 154.9 MB / 1.136 GB Notification: Performance of matching and sorting (n=11237) (initialization): time 1.445/108.4, allocations: 324.4 MB / 31.22 GB, free: 274.7 MB / 1.136 GB Notification: Performance of prepare postOptimizeDAE: time 0.0003666/108.4, allocations: 151.7 kB / 31.22 GB, free: 274.6 MB / 1.136 GB Notification: Performance of postOpt simplifyComplexFunction (initialization): time 0.6615/109.1, allocations: 303.5 MB / 31.52 GB, free: 60.79 MB / 1.136 GB Notification: Performance of postOpt tearingSystem (initialization): time 0.7615/109.9, allocations: 28.96 MB / 31.54 GB, free: 326.1 MB / 1.136 GB Notification: Performance of postOpt solveSimpleEquations (initialization): time 0.1646/110, allocations: 28.27 MB / 31.57 GB, free: 325.4 MB / 1.136 GB Notification: Performance of postOpt calculateStrongComponentJacobians (initialization): time 1.099/111.1, allocations: 452 MB / 32.01 GB, free: 248.2 MB / 1.136 GB Notification: Performance of postOpt simplifyAllExpressions (initialization): time 0.1429/111.3, allocations: 15.44 MB / 32.03 GB, free: 246.4 MB / 1.136 GB Notification: Performance of postOpt collapseArrayExpressions (initialization): time 0.06696/111.3, allocations: 3.896 MB / 32.03 GB, free: 246.4 MB / 1.136 GB Warning: Assuming fixed start value for the following 1159 variables: millBox1.dryer.mass_fuel:VARIABLE(min = 0.0 start = millBox1.dryer.mass_fuel_start unit = \"kg\" fixed = true nominal = 1.0 ) type: Real millBox1.dryer.xi_bulk[1]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.dryer.xi_gas_out_start[1] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.dryer.xi_bulk[2]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.dryer.xi_gas_out_start[2] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.dryer.xi_bulk[3]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.dryer.xi_gas_out_start[3] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.dryer.xi_bulk[4]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.dryer.xi_gas_out_start[4] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.dryer.xi_bulk[5]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.dryer.xi_gas_out_start[5] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.dryer.xi_bulk[6]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.dryer.xi_gas_out_start[6] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.dryer.xi_bulk[7]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.dryer.xi_gas_out_start[7] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.dryer.xi_bulk[8]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.dryer.xi_gas_out_start[8] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.dryer.xi_bulk[9]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.dryer.xi_gas_out_start[9] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.dryer.T:VARIABLE(min = 0.0 start = millBox1.dryer.T_start unit = \"K\" fixed = true nominal = 300.0 ) \"Classifier Temperature (outlet temperature)\" type: Real millBox1.dryer.gasBulk.p:VARIABLE(min = 0.0 start = millBox1.dryer.p_start unit = \"Pa\" fixed = true nominal = 1e5 ) \"Pressure\" type: Real millBox1.grinderRingRoller.T:VARIABLE(min = 0.0 start = millBox1.grinderRingRoller.T_start unit = \"K\" fixed = true ) \"temperature in fuel controll volume\" type: Real millBox1.grinderRingRoller.xi[1]:VARIABLE(min = 0.0 start = millBox1.grinderRingRoller.xi_fuel_start[1] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.grinderRingRoller.xi[2]:VARIABLE(min = 0.0 start = millBox1.grinderRingRoller.xi_fuel_start[2] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.grinderRingRoller.xi[3]:VARIABLE(min = 0.0 start = millBox1.grinderRingRoller.xi_fuel_start[3] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.grinderRingRoller.xi[4]:VARIABLE(min = 0.0 start = millBox1.grinderRingRoller.xi_fuel_start[4] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.grinderRingRoller.xi[5]:VARIABLE(min = 0.0 start = millBox1.grinderRingRoller.xi_fuel_start[5] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.grinderRingRoller.xi[6]:VARIABLE(min = 0.0 start = millBox1.grinderRingRoller.xi_fuel_start[6] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.flowClassifier.classifying.w_prtcl_rel[1,1]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[1,1] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[1,2]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[1,2] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[1,3]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[1,3] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[1,4]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[1,4] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[1,5]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[1,5] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[1,6]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[1,6] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[1,7]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[1,7] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[1,8]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[1,8] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[1,9]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[1,9] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[1,10]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[1,10] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[1,11]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[1,11] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[1,12]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[1,12] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[1,13]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[1,13] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[1,14]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[1,14] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[1,15]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[1,15] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[1,16]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[1,16] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[1,17]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[1,17] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[1,18]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[1,18] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[1,19]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[1,19] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[1,20]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[1,20] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[1,21]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[1,21] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[2,1]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[2,1] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[2,2]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[2,2] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[2,3]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[2,3] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[2,4]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[2,4] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[2,5]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[2,5] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[2,6]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[2,6] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[2,7]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[2,7] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[2,8]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[2,8] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[2,9]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[2,9] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[2,10]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[2,10] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[2,11]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[2,11] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[2,12]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[2,12] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[2,13]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[2,13] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[2,14]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[2,14] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[2,15]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[2,15] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[2,16]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[2,16] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[2,17]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[2,17] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[2,18]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[2,18] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[2,19]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[2,19] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[2,20]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[2,20] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[2,21]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[2,21] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[3,1]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[3,1] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[3,2]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[3,2] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[3,3]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[3,3] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[3,4]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[3,4] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[3,5]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[3,5] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[3,6]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[3,6] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[3,7]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[3,7] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[3,8]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[3,8] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[3,9]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[3,9] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[3,10]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[3,10] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[3,11]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[3,11] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[3,12]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[3,12] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[3,13]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[3,13] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[3,14]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[3,14] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[3,15]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[3,15] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[3,16]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[3,16] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[3,17]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[3,17] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[3,18]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[3,18] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[3,19]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[3,19] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[3,20]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[3,20] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[3,21]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[3,21] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[4,1]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[4,1] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[4,2]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[4,2] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[4,3]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[4,3] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[4,4]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[4,4] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[4,5]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[4,5] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[4,6]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[4,6] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[4,7]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[4,7] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[4,8]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[4,8] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[4,9]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[4,9] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[4,10]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[4,10] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[4,11]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[4,11] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[4,12]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[4,12] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[4,13]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[4,13] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[4,14]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[4,14] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[4,15]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[4,15] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[4,16]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[4,16] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[4,17]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[4,17] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[4,18]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[4,18] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[4,19]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[4,19] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[4,20]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[4,20] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[4,21]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[4,21] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[5,1]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[5,1] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[5,2]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[5,2] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[5,3]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[5,3] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[5,4]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[5,4] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[5,5]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[5,5] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[5,6]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[5,6] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[5,7]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[5,7] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[5,8]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[5,8] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[5,9]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[5,9] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[5,10]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[5,10] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[5,11]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[5,11] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[5,12]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[5,12] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[5,13]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[5,13] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[5,14]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[5,14] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[5,15]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[5,15] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[5,16]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[5,16] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[5,17]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[5,17] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[5,18]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[5,18] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[5,19]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[5,19] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[5,20]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[5,20] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[5,21]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[5,21] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[6,1]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[6,1] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[6,2]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[6,2] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[6,3]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[6,3] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[6,4]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[6,4] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[6,5]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[6,5] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[6,6]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[6,6] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[6,7]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[6,7] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[6,8]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[6,8] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[6,9]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[6,9] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[6,10]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[6,10] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[6,11]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[6,11] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[6,12]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[6,12] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[6,13]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[6,13] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[6,14]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[6,14] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[6,15]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[6,15] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[6,16]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[6,16] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[6,17]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[6,17] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[6,18]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[6,18] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[6,19]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[6,19] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[6,20]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[6,20] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[6,21]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[6,21] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[7,1]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[7,1] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[7,2]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[7,2] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[7,3]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[7,3] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[7,4]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[7,4] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[7,5]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[7,5] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[7,6]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[7,6] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[7,7]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[7,7] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[7,8]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[7,8] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[7,9]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[7,9] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[7,10]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[7,10] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[7,11]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[7,11] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[7,12]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[7,12] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[7,13]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[7,13] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[7,14]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[7,14] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[7,15]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[7,15] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[7,16]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[7,16] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[7,17]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[7,17] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[7,18]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[7,18] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[7,19]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[7,19] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[7,20]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[7,20] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[7,21]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[7,21] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[8,1]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[8,1] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[8,2]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[8,2] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[8,3]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[8,3] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[8,4]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[8,4] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[8,5]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[8,5] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[8,6]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[8,6] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[8,7]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[8,7] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[8,8]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[8,8] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[8,9]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[8,9] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[8,10]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[8,10] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[8,11]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[8,11] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[8,12]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[8,12] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[8,13]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[8,13] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[8,14]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[8,14] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[8,15]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[8,15] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[8,16]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[8,16] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[8,17]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[8,17] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[8,18]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[8,18] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[8,19]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[8,19] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[8,20]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[8,20] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[8,21]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[8,21] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[9,1]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[9,1] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[9,2]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[9,2] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[9,3]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[9,3] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[9,4]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[9,4] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[9,5]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[9,5] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[9,6]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[9,6] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[9,7]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[9,7] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[9,8]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[9,8] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[9,9]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[9,9] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[9,10]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[9,10] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[9,11]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[9,11] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[9,12]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[9,12] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[9,13]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[9,13] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[9,14]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[9,14] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[9,15]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[9,15] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[9,16]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[9,16] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[9,17]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[9,17] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[9,18]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[9,18] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[9,19]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[9,19] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[9,20]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[9,20] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[9,21]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[9,21] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[10,1]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[10,1] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[10,2]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[10,2] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[10,3]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[10,3] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[10,4]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[10,4] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[10,5]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[10,5] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[10,6]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[10,6] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[10,7]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[10,7] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[10,8]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[10,8] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[10,9]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[10,9] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[10,10]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[10,10] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[10,11]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[10,11] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[10,12]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[10,12] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[10,13]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[10,13] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[10,14]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[10,14] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[10,15]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[10,15] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[10,16]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[10,16] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[10,17]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[10,17] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[10,18]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[10,18] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[10,19]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[10,19] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[10,20]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[10,20] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[10,21]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[10,21] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.T:VARIABLE(min = 0.0 start = millBox1.flowClassifier.T_start unit = \"K\" fixed = true nominal = 300.0 ) \"temperature in fuel controll volume\" type: Real millBox1.flowClassifier.xi_fuel[1]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.xi_fuel_start[1] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.flowClassifier.xi_fuel[2]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.xi_fuel_start[2] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.flowClassifier.xi_fuel[3]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.xi_fuel_start[3] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.flowClassifier.xi_fuel[4]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.xi_fuel_start[4] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.flowClassifier.xi_fuel[5]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.xi_fuel_start[5] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.flowClassifier.xi_fuel[6]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.xi_fuel_start[6] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.flowClassifier.classFraction[1]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.classFraction_start[1] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.flowClassifier.classFraction[2]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.classFraction_start[2] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.flowClassifier.classFraction[3]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.classFraction_start[3] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.flowClassifier.classFraction[4]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.classFraction_start[4] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.flowClassifier.classFraction[5]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.classFraction_start[5] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.flowClassifier.classFraction[6]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.classFraction_start[6] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.flowClassifier.classFraction[7]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.classFraction_start[7] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.flowClassifier.classFraction[8]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.classFraction_start[8] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.flowClassifier.classFraction[9]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.classFraction_start[9] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.flowClassifier.classFraction[10]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.classFraction_start[10] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.flowClassifier.classFraction[11]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.classFraction_start[11] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.flowClassifier.classFraction[12]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.classFraction_start[12] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.flowClassifier.classFraction[13]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.classFraction_start[13] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.flowClassifier.classFraction[14]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.classFraction_start[14] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.flowClassifier.classFraction[15]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.classFraction_start[15] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.flowClassifier.classFraction[16]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.classFraction_start[16] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.flowClassifier.classFraction[17]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.classFraction_start[17] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.flowClassifier.classFraction[18]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.classFraction_start[18] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.flowClassifier.classFraction[19]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.classFraction_start[19] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.flowClassifier.classFraction[20]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.classFraction_start[20] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.flowClassifier.mass_fuel_discrete[1,1]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[1,1] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[1,2]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[1,2] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[1,3]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[1,3] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[1,4]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[1,4] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[1,5]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[1,5] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[1,6]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[1,6] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[1,7]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[1,7] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[1,8]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[1,8] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[1,9]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[1,9] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[1,10]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[1,10] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[1,11]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[1,11] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[1,12]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[1,12] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[1,13]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[1,13] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[1,14]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[1,14] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[1,15]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[1,15] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[1,16]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[1,16] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[1,17]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[1,17] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[1,18]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[1,18] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[1,19]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[1,19] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[1,20]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[1,20] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[1,21]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[1,21] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[2,1]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[2,1] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[2,2]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[2,2] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[2,3]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[2,3] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[2,4]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[2,4] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[2,5]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[2,5] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[2,6]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[2,6] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[2,7]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[2,7] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[2,8]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[2,8] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[2,9]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[2,9] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[2,10]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[2,10] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[2,11]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[2,11] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[2,12]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[2,12] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[2,13]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[2,13] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[2,14]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[2,14] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[2,15]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[2,15] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[2,16]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[2,16] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[2,17]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[2,17] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[2,18]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[2,18] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[2,19]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[2,19] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[2,20]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[2,20] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[2,21]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[2,21] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[3,1]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[3,1] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[3,2]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[3,2] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[3,3]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[3,3] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[3,4]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[3,4] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[3,5]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[3,5] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[3,6]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[3,6] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[3,7]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[3,7] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[3,8]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[3,8] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[3,9]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[3,9] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[3,10]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[3,10] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[3,11]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[3,11] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[3,12]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[3,12] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[3,13]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[3,13] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[3,14]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[3,14] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[3,15]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[3,15] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[3,16]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[3,16] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[3,17]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[3,17] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[3,18]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[3,18] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[3,19]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[3,19] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[3,20]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[3,20] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[3,21]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[3,21] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[4,1]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[4,1] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[4,2]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[4,2] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[4,3]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[4,3] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[4,4]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[4,4] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[4,5]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[4,5] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[4,6]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[4,6] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[4,7]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[4,7] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[4,8]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[4,8] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[4,9]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[4,9] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[4,10]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[4,10] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[4,11]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[4,11] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[4,12]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[4,12] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[4,13]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[4,13] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[4,14]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[4,14] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[4,15]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[4,15] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[4,16]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[4,16] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[4,17]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[4,17] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[4,18]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[4,18] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[4,19]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[4,19] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[4,20]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[4,20] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[4,21]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[4,21] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[5,1]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[5,1] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[5,2]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[5,2] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[5,3]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[5,3] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[5,4]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[5,4] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[5,5]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[5,5] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[5,6]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[5,6] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[5,7]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[5,7] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[5,8]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[5,8] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[5,9]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[5,9] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[5,10]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[5,10] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[5,11]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[5,11] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[5,12]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[5,12] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[5,13]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[5,13] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[5,14]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[5,14] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[5,15]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[5,15] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[5,16]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[5,16] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[5,17]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[5,17] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[5,18]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[5,18] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[5,19]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[5,19] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[5,20]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[5,20] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[5,21]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[5,21] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[6,1]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[6,1] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[6,2]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[6,2] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[6,3]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[6,3] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[6,4]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[6,4] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[6,5]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[6,5] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[6,6]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[6,6] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[6,7]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[6,7] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[6,8]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[6,8] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[6,9]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[6,9] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[6,10]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[6,10] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[6,11]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[6,11] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[6,12]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[6,12] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[6,13]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[6,13] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[6,14]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[6,14] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[6,15]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[6,15] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[6,16]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[6,16] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[6,17]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[6,17] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[6,18]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[6,18] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[6,19]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[6,19] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[6,20]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[6,20] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[6,21]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[6,21] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[7,1]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[7,1] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[7,2]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[7,2] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[7,3]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[7,3] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[7,4]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[7,4] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[7,5]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[7,5] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[7,6]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[7,6] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[7,7]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[7,7] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[7,8]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[7,8] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[7,9]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[7,9] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[7,10]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[7,10] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[7,11]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[7,11] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[7,12]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[7,12] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[7,13]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[7,13] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[7,14]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[7,14] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[7,15]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[7,15] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[7,16]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[7,16] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[7,17]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[7,17] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[7,18]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[7,18] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[7,19]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[7,19] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[7,20]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[7,20] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[7,21]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[7,21] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[8,1]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[8,1] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[8,2]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[8,2] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[8,3]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[8,3] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[8,4]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[8,4] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[8,5]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[8,5] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[8,6]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[8,6] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[8,7]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[8,7] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[8,8]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[8,8] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[8,9]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[8,9] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[8,10]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[8,10] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[8,11]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[8,11] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[8,12]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[8,12] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[8,13]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[8,13] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[8,14]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[8,14] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[8,15]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[8,15] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[8,16]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[8,16] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[8,17]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[8,17] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[8,18]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[8,18] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[8,19]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[8,19] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[8,20]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[8,20] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[8,21]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[8,21] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[9,1]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[9,1] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[9,2]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[9,2] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[9,3]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[9,3] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[9,4]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[9,4] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[9,5]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[9,5] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[9,6]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[9,6] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[9,7]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[9,7] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[9,8]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[9,8] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[9,9]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[9,9] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[9,10]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[9,10] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[9,11]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[9,11] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[9,12]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[9,12] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[9,13]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[9,13] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[9,14]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[9,14] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[9,15]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[9,15] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[9,16]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[9,16] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[9,17]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[9,17] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[9,18]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[9,18] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[9,19]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[9,19] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[9,20]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[9,20] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[9,21]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[9,21] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[10,1]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[10,1] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[10,2]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[10,2] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[10,3]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[10,3] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[10,4]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[10,4] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[10,5]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[10,5] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[10,6]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[10,6] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[10,7]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[10,7] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[10,8]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[10,8] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[10,9]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[10,9] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[10,10]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[10,10] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[10,11]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[10,11] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[10,12]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[10,12] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[10,13]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[10,13] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[10,14]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[10,14] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[10,15]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[10,15] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[10,16]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[10,16] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[10,17]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[10,17] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[10,18]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[10,18] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[10,19]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[10,19] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[10,20]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[10,20] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[10,21]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[10,21] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.xi_gas[1]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.flowClassifier.xi_gas_start[1] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.flowClassifier.xi_gas[2]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.flowClassifier.xi_gas_start[2] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.flowClassifier.xi_gas[3]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.flowClassifier.xi_gas_start[3] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.flowClassifier.xi_gas[4]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.flowClassifier.xi_gas_start[4] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.flowClassifier.xi_gas[5]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.flowClassifier.xi_gas_start[5] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.flowClassifier.xi_gas[6]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.flowClassifier.xi_gas_start[6] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.flowClassifier.xi_gas[7]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.flowClassifier.xi_gas_start[7] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.flowClassifier.xi_gas[8]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.flowClassifier.xi_gas_start[8] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.flowClassifier.xi_gas[9]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.flowClassifier.xi_gas_start[9] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[1,1]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,1] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[1,2]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,2] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[1,3]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,3] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[1,4]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,4] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[1,5]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,5] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[1,6]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,6] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[1,7]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,7] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[1,8]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,8] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[1,9]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,9] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[1,10]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,10] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[1,11]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,11] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[1,12]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,12] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[1,13]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,13] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[1,14]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,14] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[1,15]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,15] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[1,16]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,16] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[1,17]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,17] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[1,18]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,18] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[1,19]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,19] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[1,20]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,20] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[1,21]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,21] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[2,1]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,1] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[2,2]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,2] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[2,3]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,3] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[2,4]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,4] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[2,5]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,5] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[2,6]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,6] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[2,7]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,7] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[2,8]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,8] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[2,9]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,9] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[2,10]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,10] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[2,11]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,11] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[2,12]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,12] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[2,13]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,13] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[2,14]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,14] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[2,15]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,15] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[2,16]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,16] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[2,17]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,17] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[2,18]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,18] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[2,19]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,19] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[2,20]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,20] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[2,21]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,21] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[3,1]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,1] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[3,2]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,2] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[3,3]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,3] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[3,4]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,4] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[3,5]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,5] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[3,6]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,6] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[3,7]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,7] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[3,8]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,8] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[3,9]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,9] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[3,10]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,10] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[3,11]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,11] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[3,12]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,12] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[3,13]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,13] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[3,14]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,14] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[3,15]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,15] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[3,16]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,16] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[3,17]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,17] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[3,18]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,18] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[3,19]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,19] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[3,20]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,20] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[3,21]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,21] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[4,1]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,1] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[4,2]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,2] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[4,3]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,3] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[4,4]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,4] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[4,5]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,5] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[4,6]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,6] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[4,7]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,7] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[4,8]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,8] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[4,9]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,9] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[4,10]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,10] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[4,11]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,11] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[4,12]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,12] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[4,13]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,13] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[4,14]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,14] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[4,15]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,15] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[4,16]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,16] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[4,17]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,17] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[4,18]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,18] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[4,19]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,19] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[4,20]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,20] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[4,21]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,21] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[5,1]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,1] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[5,2]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,2] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[5,3]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,3] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[5,4]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,4] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[5,5]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,5] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[5,6]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,6] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[5,7]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,7] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[5,8]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,8] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[5,9]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,9] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[5,10]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,10] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[5,11]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,11] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[5,12]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,12] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[5,13]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,13] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[5,14]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,14] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[5,15]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,15] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[5,16]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,16] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[5,17]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,17] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[5,18]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,18] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[5,19]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,19] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[5,20]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,20] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[5,21]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,21] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[6,1]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,1] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[6,2]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,2] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[6,3]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,3] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[6,4]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,4] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[6,5]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,5] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[6,6]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,6] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[6,7]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,7] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[6,8]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,8] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[6,9]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,9] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[6,10]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,10] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[6,11]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,11] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[6,12]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,12] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[6,13]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,13] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[6,14]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,14] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[6,15]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,15] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[6,16]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,16] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[6,17]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,17] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[6,18]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,18] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[6,19]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,19] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[6,20]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,20] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[6,21]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,21] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[7,1]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,1] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[7,2]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,2] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[7,3]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,3] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[7,4]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,4] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[7,5]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,5] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[7,6]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,6] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[7,7]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,7] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[7,8]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,8] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[7,9]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,9] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[7,10]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,10] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[7,11]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,11] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[7,12]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,12] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[7,13]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,13] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[7,14]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,14] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[7,15]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,15] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[7,16]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,16] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[7,17]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,17] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[7,18]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,18] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[7,19]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,19] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[7,20]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,20] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[7,21]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,21] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[8,1]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,1] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[8,2]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,2] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[8,3]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,3] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[8,4]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,4] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[8,5]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,5] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[8,6]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,6] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[8,7]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,7] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[8,8]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,8] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[8,9]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,9] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[8,10]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,10] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[8,11]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,11] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[8,12]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,12] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[8,13]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,13] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[8,14]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,14] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[8,15]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,15] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[8,16]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,16] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[8,17]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,17] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[8,18]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,18] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[8,19]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,19] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[8,20]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,20] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[8,21]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,21] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[9,1]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,1] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[9,2]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,2] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[9,3]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,3] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[9,4]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,4] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[9,5]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,5] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[9,6]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,6] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[9,7]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,7] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[9,8]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,8] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[9,9]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,9] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[9,10]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,10] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[9,11]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,11] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[9,12]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,12] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[9,13]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,13] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[9,14]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,14] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[9,15]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,15] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[9,16]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,16] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[9,17]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,17] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[9,18]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,18] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[9,19]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,19] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[9,20]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,20] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[9,21]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,21] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[10,1]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,1] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[10,2]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,2] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[10,3]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,3] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[10,4]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,4] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[10,5]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,5] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[10,6]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,6] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[10,7]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,7] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[10,8]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,8] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[10,9]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,9] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[10,10]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,10] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[10,11]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,11] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[10,12]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,12] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[10,13]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,13] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[10,14]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,14] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[10,15]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,15] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[10,16]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,16] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[10,17]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,17] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[10,18]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,18] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[10,19]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,19] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[10,20]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,20] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[10,21]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,21] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.T:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.T_start unit = \"K\" fixed = true nominal = 300.0 ) \"temperature in fuel controll volume\" type: Real millBox1.centrifugalClassifier.xi_fuel[1]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.xi_fuel_start[1] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.centrifugalClassifier.xi_fuel[2]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.xi_fuel_start[2] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.centrifugalClassifier.xi_fuel[3]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.xi_fuel_start[3] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.centrifugalClassifier.xi_fuel[4]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.xi_fuel_start[4] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.centrifugalClassifier.xi_fuel[5]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.xi_fuel_start[5] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.centrifugalClassifier.xi_fuel[6]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.xi_fuel_start[6] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.centrifugalClassifier.classFraction[1]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.classFraction_start[1] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.centrifugalClassifier.classFraction[2]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.classFraction_start[2] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.centrifugalClassifier.classFraction[3]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.classFraction_start[3] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.centrifugalClassifier.classFraction[4]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.classFraction_start[4] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.centrifugalClassifier.classFraction[5]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.classFraction_start[5] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.centrifugalClassifier.classFraction[6]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.classFraction_start[6] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.centrifugalClassifier.classFraction[7]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.classFraction_start[7] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.centrifugalClassifier.classFraction[8]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.classFraction_start[8] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.centrifugalClassifier.classFraction[9]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.classFraction_start[9] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.centrifugalClassifier.classFraction[10]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.classFraction_start[10] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.centrifugalClassifier.classFraction[11]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.classFraction_start[11] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.centrifugalClassifier.classFraction[12]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.classFraction_start[12] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.centrifugalClassifier.classFraction[13]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.classFraction_start[13] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.centrifugalClassifier.classFraction[14]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.classFraction_start[14] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.centrifugalClassifier.classFraction[15]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.classFraction_start[15] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.centrifugalClassifier.classFraction[16]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.classFraction_start[16] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.centrifugalClassifier.classFraction[17]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.classFraction_start[17] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.centrifugalClassifier.classFraction[18]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.classFraction_start[18] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.centrifugalClassifier.classFraction[19]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.classFraction_start[19] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.centrifugalClassifier.classFraction[20]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.classFraction_start[20] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.centrifugalClassifier.mass_fuel_discrete[1,1]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[1,1] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[1,2]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[1,2] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[1,3]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[1,3] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[1,4]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[1,4] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[1,5]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[1,5] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[1,6]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[1,6] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[1,7]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[1,7] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[1,8]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[1,8] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[1,9]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[1,9] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[1,10]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[1,10] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[1,11]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[1,11] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[1,12]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[1,12] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[1,13]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[1,13] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[1,14]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[1,14] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[1,15]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[1,15] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[1,16]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[1,16] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[1,17]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[1,17] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[1,18]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[1,18] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[1,19]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[1,19] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[1,20]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[1,20] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[1,21]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[1,21] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[2,1]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[2,1] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[2,2]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[2,2] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[2,3]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[2,3] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[2,4]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[2,4] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[2,5]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[2,5] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[2,6]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[2,6] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[2,7]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[2,7] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[2,8]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[2,8] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[2,9]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[2,9] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[2,10]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[2,10] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[2,11]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[2,11] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[2,12]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[2,12] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[2,13]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[2,13] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[2,14]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[2,14] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[2,15]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[2,15] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[2,16]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[2,16] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[2,17]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[2,17] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[2,18]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[2,18] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[2,19]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[2,19] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[2,20]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[2,20] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[2,21]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[2,21] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[3,1]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[3,1] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[3,2]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[3,2] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[3,3]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[3,3] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[3,4]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[3,4] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[3,5]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[3,5] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[3,6]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[3,6] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[3,7]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[3,7] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[3,8]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[3,8] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[3,9]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[3,9] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[3,10]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[3,10] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[3,11]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[3,11] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[3,12]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[3,12] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[3,13]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[3,13] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[3,14]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[3,14] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[3,15]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[3,15] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[3,16]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[3,16] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[3,17]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[3,17] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[3,18]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[3,18] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[3,19]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[3,19] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[3,20]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[3,20] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[3,21]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[3,21] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[4,1]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[4,1] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[4,2]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[4,2] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[4,3]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[4,3] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[4,4]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[4,4] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[4,5]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[4,5] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[4,6]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[4,6] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[4,7]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[4,7] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[4,8]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[4,8] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[4,9]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[4,9] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[4,10]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[4,10] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[4,11]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[4,11] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[4,12]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[4,12] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[4,13]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[4,13] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[4,14]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[4,14] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[4,15]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[4,15] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[4,16]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[4,16] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[4,17]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[4,17] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[4,18]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[4,18] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[4,19]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[4,19] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[4,20]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[4,20] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[4,21]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[4,21] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[5,1]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[5,1] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[5,2]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[5,2] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[5,3]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[5,3] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[5,4]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[5,4] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[5,5]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[5,5] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[5,6]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[5,6] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[5,7]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[5,7] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[5,8]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[5,8] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[5,9]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[5,9] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[5,10]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[5,10] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[5,11]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[5,11] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[5,12]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[5,12] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[5,13]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[5,13] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[5,14]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[5,14] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[5,15]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[5,15] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[5,16]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[5,16] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[5,17]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[5,17] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[5,18]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[5,18] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[5,19]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[5,19] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[5,20]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[5,20] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[5,21]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[5,21] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[6,1]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[6,1] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[6,2]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[6,2] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[6,3]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[6,3] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[6,4]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[6,4] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[6,5]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[6,5] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[6,6]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[6,6] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[6,7]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[6,7] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[6,8]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[6,8] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[6,9]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[6,9] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[6,10]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[6,10] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[6,11]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[6,11] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[6,12]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[6,12] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[6,13]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[6,13] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[6,14]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[6,14] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[6,15]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[6,15] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[6,16]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[6,16] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[6,17]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[6,17] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[6,18]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[6,18] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[6,19]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[6,19] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[6,20]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[6,20] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[6,21]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[6,21] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[7,1]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[7,1] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[7,2]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[7,2] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[7,3]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[7,3] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[7,4]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[7,4] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[7,5]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[7,5] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[7,6]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[7,6] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[7,7]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[7,7] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[7,8]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[7,8] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[7,9]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[7,9] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[7,10]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[7,10] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[7,11]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[7,11] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[7,12]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[7,12] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[7,13]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[7,13] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[7,14]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[7,14] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[7,15]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[7,15] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[7,16]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[7,16] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[7,17]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[7,17] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[7,18]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[7,18] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[7,19]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[7,19] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[7,20]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[7,20] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[7,21]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[7,21] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[8,1]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[8,1] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[8,2]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[8,2] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[8,3]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[8,3] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[8,4]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[8,4] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[8,5]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[8,5] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[8,6]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[8,6] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[8,7]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[8,7] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[8,8]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[8,8] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[8,9]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[8,9] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[8,10]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[8,10] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[8,11]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[8,11] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[8,12]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[8,12] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[8,13]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[8,13] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[8,14]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[8,14] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[8,15]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[8,15] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[8,16]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[8,16] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[8,17]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[8,17] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[8,18]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[8,18] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[8,19]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[8,19] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[8,20]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[8,20] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[8,21]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[8,21] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[9,1]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[9,1] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[9,2]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[9,2] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[9,3]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[9,3] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[9,4]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[9,4] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[9,5]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[9,5] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[9,6]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[9,6] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[9,7]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[9,7] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[9,8]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[9,8] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[9,9]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[9,9] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[9,10]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[9,10] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[9,11]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[9,11] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[9,12]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[9,12] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[9,13]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[9,13] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[9,14]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[9,14] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[9,15]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[9,15] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[9,16]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[9,16] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[9,17]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[9,17] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[9,18]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[9,18] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[9,19]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[9,19] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[9,20]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[9,20] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[9,21]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[9,21] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[10,1]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[10,1] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[10,2]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[10,2] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[10,3]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[10,3] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[10,4]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[10,4] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[10,5]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[10,5] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[10,6]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[10,6] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[10,7]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[10,7] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[10,8]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[10,8] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[10,9]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[10,9] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[10,10]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[10,10] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[10,11]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[10,11] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[10,12]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[10,12] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[10,13]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[10,13] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[10,14]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[10,14] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[10,15]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[10,15] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[10,16]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[10,16] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[10,17]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[10,17] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[10,18]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[10,18] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[10,19]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[10,19] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[10,20]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[10,20] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[10,21]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[10,21] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.xi_gas[1]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.centrifugalClassifier.xi_gas_start[1] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.centrifugalClassifier.xi_gas[2]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.centrifugalClassifier.xi_gas_start[2] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.centrifugalClassifier.xi_gas[3]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.centrifugalClassifier.xi_gas_start[3] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.centrifugalClassifier.xi_gas[4]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.centrifugalClassifier.xi_gas_start[4] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.centrifugalClassifier.xi_gas[5]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.centrifugalClassifier.xi_gas_start[5] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.centrifugalClassifier.xi_gas[6]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.centrifugalClassifier.xi_gas_start[6] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.centrifugalClassifier.xi_gas[7]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.centrifugalClassifier.xi_gas_start[7] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.centrifugalClassifier.xi_gas[8]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.centrifugalClassifier.xi_gas_start[8] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.centrifugalClassifier.xi_gas[9]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.centrifugalClassifier.xi_gas_start[9] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.fuelJoin_distributed.mass:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.mass_fuel_start unit = \"kg\" fixed = true nominal = 1.0 ) \"accumulated particle/fuel mass in aerosol control volume\" type: Real millBox1.fuelJoin_distributed.T:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.T_start unit = \"K\" fixed = true ) \"temperature in fuel controll volume\" type: Real millBox1.fuelJoin_distributed.xi[1]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.xi_fuel_start[1] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.fuelJoin_distributed.xi[2]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.xi_fuel_start[2] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.fuelJoin_distributed.xi[3]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.xi_fuel_start[3] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.fuelJoin_distributed.xi[4]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.xi_fuel_start[4] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.fuelJoin_distributed.xi[5]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.xi_fuel_start[5] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.fuelJoin_distributed.xi[6]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.xi_fuel_start[6] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.fuelJoin_distributed.classFraction[1]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.classFraction_start[1] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.fuelJoin_distributed.classFraction[2]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.classFraction_start[2] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.fuelJoin_distributed.classFraction[3]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.classFraction_start[3] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.fuelJoin_distributed.classFraction[4]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.classFraction_start[4] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.fuelJoin_distributed.classFraction[5]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.classFraction_start[5] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.fuelJoin_distributed.classFraction[6]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.classFraction_start[6] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.fuelJoin_distributed.classFraction[7]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.classFraction_start[7] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.fuelJoin_distributed.classFraction[8]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.classFraction_start[8] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.fuelJoin_distributed.classFraction[9]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.classFraction_start[9] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.fuelJoin_distributed.classFraction[10]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.classFraction_start[10] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.fuelJoin_distributed.classFraction[11]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.classFraction_start[11] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.fuelJoin_distributed.classFraction[12]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.classFraction_start[12] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.fuelJoin_distributed.classFraction[13]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.classFraction_start[13] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.fuelJoin_distributed.classFraction[14]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.classFraction_start[14] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.fuelJoin_distributed.classFraction[15]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.classFraction_start[15] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.fuelJoin_distributed.classFraction[16]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.classFraction_start[16] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.fuelJoin_distributed.classFraction[17]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.classFraction_start[17] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.fuelJoin_distributed.classFraction[18]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.classFraction_start[18] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.fuelJoin_distributed.classFraction[19]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.classFraction_start[19] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.fuelJoin_distributed.classFraction[20]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.classFraction_start[20] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.grinderRingRoller.height[10,21]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[10,20]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[10,19]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[10,18]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[10,17]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[10,16]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[10,15]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[10,14]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[10,13]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[10,12]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[10,11]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[10,10]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[10,9]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[10,8]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[10,7]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[10,6]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[10,5]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[10,4]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[10,3]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[10,2]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[9,21]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[9,20]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[9,19]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[9,18]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[9,17]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[9,16]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[9,15]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[9,14]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[9,13]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[9,12]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[9,11]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[9,10]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[9,9]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[9,8]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[9,7]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[9,6]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[9,5]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[9,4]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[9,3]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[9,2]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[8,21]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[8,20]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[8,19]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[8,18]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[8,17]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[8,16]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[8,15]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[8,14]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[8,13]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[8,12]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[8,11]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[8,10]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[8,9]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[8,8]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[8,7]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[8,6]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[8,5]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[8,4]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[8,3]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[8,2]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[7,21]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[7,20]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[7,19]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[7,18]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[7,17]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[7,16]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[7,15]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[7,14]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[7,13]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[7,12]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[7,11]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[7,10]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[7,9]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[7,8]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[7,7]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[7,6]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[7,5]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[7,4]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[7,3]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[7,2]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[6,21]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[6,20]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[6,19]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[6,18]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[6,17]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[6,16]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[6,15]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[6,14]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[6,13]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[6,12]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[6,11]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[6,10]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[6,9]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[6,8]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[6,7]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[6,6]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[6,5]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[6,4]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[6,3]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[6,2]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[5,21]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[5,20]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[5,19]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[5,18]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[5,17]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[5,16]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[5,15]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[5,14]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[5,13]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[5,12]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[5,11]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[5,10]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[5,9]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[5,8]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[5,7]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[5,6]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[5,5]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[5,4]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[5,3]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[5,2]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[4,21]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[4,20]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[4,19]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[4,18]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[4,17]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[4,16]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[4,15]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[4,14]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[4,13]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[4,12]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[4,11]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[4,10]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[4,9]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[4,8]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[4,7]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[4,6]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[4,5]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[4,4]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[4,3]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[4,2]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[3,21]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[3,20]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[3,19]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[3,18]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[3,17]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[3,16]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[3,15]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[3,14]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[3,13]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[3,12]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[3,11]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[3,10]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[3,9]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[3,8]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[3,7]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[3,6]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[3,5]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[3,4]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[3,3]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[3,2]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[2,21]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[2,20]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[2,19]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[2,18]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[2,17]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[2,16]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[2,15]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[2,14]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[2,13]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[2,12]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[2,11]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[2,10]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[2,9]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[2,8]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[2,7]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[2,6]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[2,5]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[2,4]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[2,3]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[2,2]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[1,21]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[1,20]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[1,19]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[1,18]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[1,17]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[1,16]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[1,15]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[1,14]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[1,13]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[1,12]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[1,11]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[1,10]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[1,9]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[1,8]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[1,7]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[1,6]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[1,5]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[1,4]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[1,3]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[1,2]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] Notification: Performance of preBalanceInitialSystem (initialization_lambda0): time 0.3429/111.7, allocations: 160.4 MB / 32.19 GB, free: 180.4 MB / 1.136 GB Notification: Performance of partitionIndependentBlocks (initialization_lambda0): time 0.2634/111.9, allocations: 154.1 MB / 32.34 GB, free: 21.06 MB / 1.136 GB Notification: Performance of analyzeInitialSystem (initialization_lambda0): time 93.13/205.1, allocations: 26.34 GB / 58.68 GB, free: 281.4 MB / 1.245 GB Notification: Performance of solveInitialSystemEqSystem (initialization_lambda0): time 0.0006997/205.1, allocations: 95.44 kB / 58.68 GB, free: 281.4 MB / 1.245 GB Notification: Performance of matching and sorting (n=11237) (initialization_lambda0): time 0.7501/205.8, allocations: 322.9 MB / 59 GB, free: 142.3 MB / 1.245 GB Notification: Performance of prepare postOptimizeDAE: time 0.0006426/205.8, allocations: 148 kB / 59 GB, free: 142.1 MB / 1.245 GB Notification: Performance of postOpt simplifyComplexFunction (initialization): time 1.367/207.2, allocations: 303.5 MB / 59.29 GB, free: 302.9 MB / 1.245 GB Notification: Performance of postOpt tearingSystem (initialization): time 0.08749/207.3, allocations: 28.96 MB / 59.32 GB, free: 277.7 MB / 1.245 GB Notification: Performance of postOpt solveSimpleEquations (initialization): time 0.1497/207.4, allocations: 28.26 MB / 59.35 GB, free: 250.1 MB / 1.245 GB Notification: Performance of postOpt calculateStrongComponentJacobians (initialization): time 1.111/208.5, allocations: 452 MB / 59.79 GB, free: 151.9 MB / 1.245 GB Notification: Performance of postOpt simplifyAllExpressions (initialization): time 0.1417/208.7, allocations: 14.69 MB / 59.8 GB, free: 148.4 MB / 1.245 GB Notification: Performance of postOpt collapseArrayExpressions (initialization): time 0.05913/208.7, allocations: 3.901 MB / 59.81 GB, free: 148.4 MB / 1.245 GB Warning: Assuming fixed start value for the following 1159 variables: millBox1.dryer.mass_fuel:VARIABLE(min = 0.0 start = millBox1.dryer.mass_fuel_start unit = \"kg\" fixed = true nominal = 1.0 ) type: Real millBox1.dryer.xi_bulk[1]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.dryer.xi_gas_out_start[1] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.dryer.xi_bulk[2]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.dryer.xi_gas_out_start[2] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.dryer.xi_bulk[3]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.dryer.xi_gas_out_start[3] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.dryer.xi_bulk[4]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.dryer.xi_gas_out_start[4] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.dryer.xi_bulk[5]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.dryer.xi_gas_out_start[5] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.dryer.xi_bulk[6]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.dryer.xi_gas_out_start[6] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.dryer.xi_bulk[7]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.dryer.xi_gas_out_start[7] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.dryer.xi_bulk[8]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.dryer.xi_gas_out_start[8] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.dryer.xi_bulk[9]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.dryer.xi_gas_out_start[9] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.dryer.T:VARIABLE(min = 0.0 start = millBox1.dryer.T_start unit = \"K\" fixed = true nominal = 300.0 ) \"Classifier Temperature (outlet temperature)\" type: Real millBox1.dryer.gasBulk.p:VARIABLE(min = 0.0 start = millBox1.dryer.p_start unit = \"Pa\" fixed = true nominal = 1e5 ) \"Pressure\" type: Real millBox1.grinderRingRoller.T:VARIABLE(min = 0.0 start = millBox1.grinderRingRoller.T_start unit = \"K\" fixed = true ) \"temperature in fuel controll volume\" type: Real millBox1.grinderRingRoller.xi[1]:VARIABLE(min = 0.0 start = millBox1.grinderRingRoller.xi_fuel_start[1] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.grinderRingRoller.xi[2]:VARIABLE(min = 0.0 start = millBox1.grinderRingRoller.xi_fuel_start[2] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.grinderRingRoller.xi[3]:VARIABLE(min = 0.0 start = millBox1.grinderRingRoller.xi_fuel_start[3] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.grinderRingRoller.xi[4]:VARIABLE(min = 0.0 start = millBox1.grinderRingRoller.xi_fuel_start[4] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.grinderRingRoller.xi[5]:VARIABLE(min = 0.0 start = millBox1.grinderRingRoller.xi_fuel_start[5] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.grinderRingRoller.xi[6]:VARIABLE(min = 0.0 start = millBox1.grinderRingRoller.xi_fuel_start[6] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.flowClassifier.classifying.w_prtcl_rel[1,1]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[1,1] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[1,2]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[1,2] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[1,3]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[1,3] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[1,4]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[1,4] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[1,5]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[1,5] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[1,6]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[1,6] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[1,7]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[1,7] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[1,8]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[1,8] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[1,9]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[1,9] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[1,10]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[1,10] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[1,11]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[1,11] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[1,12]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[1,12] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[1,13]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[1,13] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[1,14]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[1,14] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[1,15]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[1,15] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[1,16]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[1,16] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[1,17]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[1,17] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[1,18]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[1,18] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[1,19]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[1,19] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[1,20]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[1,20] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[1,21]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[1,21] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[2,1]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[2,1] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[2,2]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[2,2] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[2,3]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[2,3] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[2,4]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[2,4] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[2,5]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[2,5] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[2,6]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[2,6] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[2,7]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[2,7] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[2,8]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[2,8] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[2,9]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[2,9] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[2,10]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[2,10] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[2,11]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[2,11] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[2,12]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[2,12] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[2,13]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[2,13] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[2,14]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[2,14] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[2,15]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[2,15] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[2,16]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[2,16] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[2,17]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[2,17] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[2,18]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[2,18] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[2,19]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[2,19] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[2,20]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[2,20] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[2,21]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[2,21] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[3,1]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[3,1] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[3,2]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[3,2] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[3,3]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[3,3] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[3,4]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[3,4] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[3,5]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[3,5] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[3,6]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[3,6] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[3,7]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[3,7] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[3,8]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[3,8] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[3,9]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[3,9] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[3,10]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[3,10] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[3,11]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[3,11] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[3,12]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[3,12] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[3,13]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[3,13] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[3,14]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[3,14] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[3,15]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[3,15] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[3,16]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[3,16] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[3,17]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[3,17] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[3,18]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[3,18] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[3,19]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[3,19] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[3,20]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[3,20] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[3,21]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[3,21] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[4,1]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[4,1] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[4,2]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[4,2] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[4,3]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[4,3] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[4,4]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[4,4] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[4,5]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[4,5] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[4,6]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[4,6] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[4,7]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[4,7] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[4,8]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[4,8] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[4,9]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[4,9] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[4,10]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[4,10] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[4,11]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[4,11] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[4,12]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[4,12] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[4,13]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[4,13] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[4,14]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[4,14] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[4,15]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[4,15] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[4,16]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[4,16] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[4,17]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[4,17] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[4,18]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[4,18] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[4,19]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[4,19] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[4,20]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[4,20] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[4,21]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[4,21] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[5,1]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[5,1] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[5,2]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[5,2] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[5,3]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[5,3] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[5,4]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[5,4] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[5,5]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[5,5] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[5,6]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[5,6] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[5,7]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[5,7] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[5,8]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[5,8] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[5,9]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[5,9] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[5,10]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[5,10] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[5,11]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[5,11] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[5,12]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[5,12] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[5,13]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[5,13] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[5,14]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[5,14] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[5,15]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[5,15] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[5,16]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[5,16] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[5,17]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[5,17] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[5,18]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[5,18] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[5,19]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[5,19] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[5,20]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[5,20] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[5,21]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[5,21] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[6,1]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[6,1] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[6,2]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[6,2] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[6,3]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[6,3] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[6,4]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[6,4] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[6,5]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[6,5] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[6,6]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[6,6] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[6,7]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[6,7] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[6,8]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[6,8] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[6,9]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[6,9] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[6,10]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[6,10] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[6,11]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[6,11] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[6,12]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[6,12] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[6,13]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[6,13] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[6,14]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[6,14] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[6,15]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[6,15] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[6,16]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[6,16] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[6,17]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[6,17] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[6,18]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[6,18] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[6,19]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[6,19] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[6,20]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[6,20] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[6,21]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[6,21] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[7,1]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[7,1] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[7,2]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[7,2] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[7,3]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[7,3] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[7,4]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[7,4] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[7,5]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[7,5] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[7,6]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[7,6] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[7,7]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[7,7] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[7,8]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[7,8] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[7,9]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[7,9] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[7,10]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[7,10] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[7,11]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[7,11] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[7,12]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[7,12] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[7,13]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[7,13] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[7,14]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[7,14] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[7,15]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[7,15] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[7,16]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[7,16] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[7,17]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[7,17] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[7,18]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[7,18] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[7,19]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[7,19] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[7,20]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[7,20] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[7,21]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[7,21] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[8,1]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[8,1] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[8,2]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[8,2] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[8,3]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[8,3] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[8,4]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[8,4] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[8,5]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[8,5] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[8,6]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[8,6] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[8,7]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[8,7] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[8,8]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[8,8] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[8,9]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[8,9] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[8,10]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[8,10] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[8,11]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[8,11] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[8,12]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[8,12] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[8,13]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[8,13] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[8,14]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[8,14] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[8,15]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[8,15] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[8,16]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[8,16] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[8,17]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[8,17] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[8,18]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[8,18] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[8,19]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[8,19] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[8,20]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[8,20] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[8,21]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[8,21] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[9,1]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[9,1] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[9,2]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[9,2] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[9,3]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[9,3] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[9,4]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[9,4] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[9,5]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[9,5] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[9,6]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[9,6] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[9,7]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[9,7] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[9,8]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[9,8] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[9,9]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[9,9] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[9,10]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[9,10] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[9,11]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[9,11] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[9,12]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[9,12] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[9,13]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[9,13] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[9,14]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[9,14] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[9,15]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[9,15] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[9,16]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[9,16] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[9,17]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[9,17] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[9,18]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[9,18] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[9,19]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[9,19] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[9,20]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[9,20] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[9,21]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[9,21] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[10,1]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[10,1] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[10,2]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[10,2] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[10,3]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[10,3] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[10,4]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[10,4] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[10,5]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[10,5] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[10,6]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[10,6] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[10,7]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[10,7] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[10,8]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[10,8] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[10,9]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[10,9] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[10,10]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[10,10] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[10,11]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[10,11] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[10,12]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[10,12] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[10,13]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[10,13] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[10,14]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[10,14] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[10,15]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[10,15] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[10,16]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[10,16] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[10,17]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[10,17] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[10,18]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[10,18] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[10,19]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[10,19] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[10,20]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[10,20] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.classifying.w_prtcl_rel[10,21]:VARIABLE(start = millBox1.flowClassifier.classifying.w_prtcl_rel_start[10,21] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative velocity of particle (to gas)\" type: Real [10,21] millBox1.flowClassifier.T:VARIABLE(min = 0.0 start = millBox1.flowClassifier.T_start unit = \"K\" fixed = true nominal = 300.0 ) \"temperature in fuel controll volume\" type: Real millBox1.flowClassifier.xi_fuel[1]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.xi_fuel_start[1] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.flowClassifier.xi_fuel[2]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.xi_fuel_start[2] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.flowClassifier.xi_fuel[3]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.xi_fuel_start[3] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.flowClassifier.xi_fuel[4]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.xi_fuel_start[4] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.flowClassifier.xi_fuel[5]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.xi_fuel_start[5] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.flowClassifier.xi_fuel[6]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.xi_fuel_start[6] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.flowClassifier.classFraction[1]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.classFraction_start[1] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.flowClassifier.classFraction[2]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.classFraction_start[2] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.flowClassifier.classFraction[3]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.classFraction_start[3] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.flowClassifier.classFraction[4]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.classFraction_start[4] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.flowClassifier.classFraction[5]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.classFraction_start[5] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.flowClassifier.classFraction[6]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.classFraction_start[6] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.flowClassifier.classFraction[7]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.classFraction_start[7] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.flowClassifier.classFraction[8]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.classFraction_start[8] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.flowClassifier.classFraction[9]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.classFraction_start[9] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.flowClassifier.classFraction[10]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.classFraction_start[10] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.flowClassifier.classFraction[11]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.classFraction_start[11] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.flowClassifier.classFraction[12]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.classFraction_start[12] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.flowClassifier.classFraction[13]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.classFraction_start[13] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.flowClassifier.classFraction[14]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.classFraction_start[14] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.flowClassifier.classFraction[15]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.classFraction_start[15] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.flowClassifier.classFraction[16]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.classFraction_start[16] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.flowClassifier.classFraction[17]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.classFraction_start[17] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.flowClassifier.classFraction[18]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.classFraction_start[18] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.flowClassifier.classFraction[19]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.classFraction_start[19] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.flowClassifier.classFraction[20]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.classFraction_start[20] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.flowClassifier.mass_fuel_discrete[1,1]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[1,1] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[1,2]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[1,2] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[1,3]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[1,3] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[1,4]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[1,4] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[1,5]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[1,5] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[1,6]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[1,6] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[1,7]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[1,7] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[1,8]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[1,8] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[1,9]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[1,9] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[1,10]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[1,10] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[1,11]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[1,11] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[1,12]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[1,12] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[1,13]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[1,13] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[1,14]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[1,14] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[1,15]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[1,15] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[1,16]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[1,16] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[1,17]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[1,17] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[1,18]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[1,18] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[1,19]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[1,19] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[1,20]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[1,20] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[1,21]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[1,21] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[2,1]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[2,1] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[2,2]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[2,2] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[2,3]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[2,3] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[2,4]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[2,4] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[2,5]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[2,5] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[2,6]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[2,6] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[2,7]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[2,7] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[2,8]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[2,8] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[2,9]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[2,9] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[2,10]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[2,10] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[2,11]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[2,11] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[2,12]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[2,12] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[2,13]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[2,13] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[2,14]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[2,14] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[2,15]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[2,15] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[2,16]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[2,16] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[2,17]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[2,17] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[2,18]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[2,18] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[2,19]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[2,19] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[2,20]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[2,20] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[2,21]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[2,21] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[3,1]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[3,1] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[3,2]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[3,2] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[3,3]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[3,3] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[3,4]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[3,4] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[3,5]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[3,5] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[3,6]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[3,6] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[3,7]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[3,7] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[3,8]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[3,8] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[3,9]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[3,9] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[3,10]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[3,10] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[3,11]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[3,11] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[3,12]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[3,12] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[3,13]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[3,13] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[3,14]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[3,14] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[3,15]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[3,15] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[3,16]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[3,16] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[3,17]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[3,17] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[3,18]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[3,18] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[3,19]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[3,19] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[3,20]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[3,20] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[3,21]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[3,21] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[4,1]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[4,1] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[4,2]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[4,2] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[4,3]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[4,3] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[4,4]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[4,4] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[4,5]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[4,5] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[4,6]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[4,6] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[4,7]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[4,7] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[4,8]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[4,8] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[4,9]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[4,9] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[4,10]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[4,10] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[4,11]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[4,11] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[4,12]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[4,12] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[4,13]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[4,13] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[4,14]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[4,14] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[4,15]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[4,15] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[4,16]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[4,16] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[4,17]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[4,17] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[4,18]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[4,18] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[4,19]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[4,19] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[4,20]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[4,20] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[4,21]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[4,21] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[5,1]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[5,1] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[5,2]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[5,2] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[5,3]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[5,3] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[5,4]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[5,4] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[5,5]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[5,5] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[5,6]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[5,6] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[5,7]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[5,7] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[5,8]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[5,8] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[5,9]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[5,9] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[5,10]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[5,10] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[5,11]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[5,11] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[5,12]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[5,12] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[5,13]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[5,13] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[5,14]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[5,14] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[5,15]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[5,15] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[5,16]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[5,16] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[5,17]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[5,17] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[5,18]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[5,18] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[5,19]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[5,19] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[5,20]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[5,20] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[5,21]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[5,21] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[6,1]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[6,1] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[6,2]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[6,2] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[6,3]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[6,3] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[6,4]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[6,4] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[6,5]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[6,5] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[6,6]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[6,6] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[6,7]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[6,7] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[6,8]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[6,8] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[6,9]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[6,9] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[6,10]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[6,10] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[6,11]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[6,11] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[6,12]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[6,12] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[6,13]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[6,13] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[6,14]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[6,14] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[6,15]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[6,15] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[6,16]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[6,16] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[6,17]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[6,17] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[6,18]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[6,18] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[6,19]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[6,19] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[6,20]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[6,20] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[6,21]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[6,21] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[7,1]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[7,1] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[7,2]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[7,2] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[7,3]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[7,3] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[7,4]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[7,4] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[7,5]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[7,5] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[7,6]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[7,6] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[7,7]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[7,7] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[7,8]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[7,8] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[7,9]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[7,9] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[7,10]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[7,10] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[7,11]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[7,11] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[7,12]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[7,12] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[7,13]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[7,13] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[7,14]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[7,14] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[7,15]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[7,15] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[7,16]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[7,16] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[7,17]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[7,17] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[7,18]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[7,18] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[7,19]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[7,19] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[7,20]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[7,20] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[7,21]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[7,21] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[8,1]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[8,1] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[8,2]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[8,2] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[8,3]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[8,3] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[8,4]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[8,4] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[8,5]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[8,5] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[8,6]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[8,6] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[8,7]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[8,7] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[8,8]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[8,8] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[8,9]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[8,9] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[8,10]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[8,10] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[8,11]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[8,11] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[8,12]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[8,12] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[8,13]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[8,13] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[8,14]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[8,14] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[8,15]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[8,15] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[8,16]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[8,16] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[8,17]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[8,17] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[8,18]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[8,18] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[8,19]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[8,19] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[8,20]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[8,20] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[8,21]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[8,21] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[9,1]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[9,1] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[9,2]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[9,2] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[9,3]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[9,3] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[9,4]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[9,4] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[9,5]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[9,5] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[9,6]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[9,6] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[9,7]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[9,7] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[9,8]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[9,8] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[9,9]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[9,9] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[9,10]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[9,10] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[9,11]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[9,11] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[9,12]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[9,12] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[9,13]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[9,13] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[9,14]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[9,14] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[9,15]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[9,15] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[9,16]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[9,16] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[9,17]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[9,17] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[9,18]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[9,18] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[9,19]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[9,19] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[9,20]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[9,20] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[9,21]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[9,21] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[10,1]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[10,1] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[10,2]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[10,2] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[10,3]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[10,3] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[10,4]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[10,4] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[10,5]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[10,5] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[10,6]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[10,6] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[10,7]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[10,7] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[10,8]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[10,8] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[10,9]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[10,9] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[10,10]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[10,10] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[10,11]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[10,11] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[10,12]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[10,12] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[10,13]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[10,13] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[10,14]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[10,14] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[10,15]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[10,15] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[10,16]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[10,16] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[10,17]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[10,17] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[10,18]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[10,18] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[10,19]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[10,19] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[10,20]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[10,20] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.mass_fuel_discrete[10,21]:VARIABLE(min = 0.0 start = millBox1.flowClassifier.mass_fuel_discrete_start[10,21] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.flowClassifier.xi_gas[1]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.flowClassifier.xi_gas_start[1] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.flowClassifier.xi_gas[2]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.flowClassifier.xi_gas_start[2] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.flowClassifier.xi_gas[3]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.flowClassifier.xi_gas_start[3] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.flowClassifier.xi_gas[4]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.flowClassifier.xi_gas_start[4] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.flowClassifier.xi_gas[5]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.flowClassifier.xi_gas_start[5] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.flowClassifier.xi_gas[6]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.flowClassifier.xi_gas_start[6] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.flowClassifier.xi_gas[7]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.flowClassifier.xi_gas_start[7] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.flowClassifier.xi_gas[8]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.flowClassifier.xi_gas_start[8] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.flowClassifier.xi_gas[9]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.flowClassifier.xi_gas_start[9] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[1,1]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,1] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[1,2]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,2] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[1,3]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,3] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[1,4]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,4] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[1,5]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,5] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[1,6]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,6] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[1,7]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,7] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[1,8]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,8] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[1,9]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,9] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[1,10]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,10] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[1,11]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,11] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[1,12]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,12] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[1,13]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,13] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[1,14]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,14] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[1,15]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,15] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[1,16]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,16] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[1,17]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,17] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[1,18]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,18] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[1,19]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,19] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[1,20]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,20] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[1,21]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,21] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[2,1]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,1] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[2,2]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,2] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[2,3]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,3] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[2,4]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,4] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[2,5]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,5] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[2,6]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,6] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[2,7]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,7] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[2,8]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,8] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[2,9]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,9] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[2,10]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,10] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[2,11]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,11] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[2,12]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,12] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[2,13]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,13] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[2,14]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,14] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[2,15]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,15] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[2,16]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,16] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[2,17]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,17] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[2,18]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,18] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[2,19]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,19] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[2,20]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,20] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[2,21]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,21] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[3,1]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,1] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[3,2]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,2] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[3,3]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,3] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[3,4]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,4] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[3,5]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,5] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[3,6]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,6] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[3,7]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,7] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[3,8]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,8] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[3,9]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,9] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[3,10]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,10] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[3,11]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,11] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[3,12]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,12] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[3,13]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,13] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[3,14]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,14] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[3,15]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,15] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[3,16]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,16] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[3,17]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,17] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[3,18]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,18] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[3,19]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,19] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[3,20]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,20] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[3,21]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,21] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[4,1]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,1] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[4,2]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,2] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[4,3]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,3] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[4,4]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,4] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[4,5]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,5] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[4,6]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,6] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[4,7]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,7] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[4,8]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,8] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[4,9]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,9] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[4,10]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,10] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[4,11]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,11] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[4,12]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,12] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[4,13]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,13] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[4,14]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,14] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[4,15]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,15] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[4,16]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,16] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[4,17]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,17] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[4,18]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,18] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[4,19]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,19] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[4,20]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,20] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[4,21]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,21] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[5,1]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,1] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[5,2]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,2] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[5,3]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,3] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[5,4]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,4] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[5,5]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,5] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[5,6]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,6] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[5,7]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,7] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[5,8]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,8] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[5,9]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,9] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[5,10]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,10] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[5,11]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,11] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[5,12]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,12] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[5,13]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,13] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[5,14]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,14] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[5,15]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,15] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[5,16]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,16] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[5,17]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,17] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[5,18]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,18] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[5,19]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,19] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[5,20]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,20] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[5,21]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,21] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[6,1]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,1] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[6,2]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,2] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[6,3]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,3] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[6,4]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,4] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[6,5]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,5] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[6,6]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,6] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[6,7]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,7] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[6,8]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,8] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[6,9]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,9] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[6,10]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,10] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[6,11]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,11] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[6,12]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,12] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[6,13]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,13] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[6,14]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,14] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[6,15]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,15] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[6,16]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,16] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[6,17]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,17] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[6,18]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,18] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[6,19]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,19] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[6,20]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,20] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[6,21]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,21] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[7,1]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,1] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[7,2]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,2] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[7,3]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,3] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[7,4]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,4] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[7,5]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,5] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[7,6]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,6] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[7,7]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,7] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[7,8]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,8] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[7,9]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,9] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[7,10]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,10] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[7,11]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,11] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[7,12]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,12] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[7,13]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,13] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[7,14]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,14] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[7,15]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,15] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[7,16]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,16] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[7,17]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,17] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[7,18]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,18] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[7,19]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,19] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[7,20]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,20] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[7,21]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,21] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[8,1]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,1] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[8,2]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,2] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[8,3]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,3] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[8,4]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,4] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[8,5]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,5] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[8,6]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,6] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[8,7]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,7] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[8,8]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,8] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[8,9]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,9] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[8,10]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,10] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[8,11]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,11] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[8,12]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,12] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[8,13]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,13] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[8,14]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,14] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[8,15]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,15] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[8,16]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,16] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[8,17]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,17] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[8,18]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,18] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[8,19]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,19] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[8,20]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,20] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[8,21]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,21] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[9,1]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,1] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[9,2]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,2] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[9,3]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,3] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[9,4]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,4] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[9,5]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,5] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[9,6]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,6] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[9,7]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,7] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[9,8]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,8] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[9,9]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,9] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[9,10]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,10] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[9,11]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,11] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[9,12]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,12] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[9,13]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,13] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[9,14]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,14] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[9,15]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,15] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[9,16]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,16] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[9,17]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,17] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[9,18]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,18] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[9,19]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,19] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[9,20]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,20] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[9,21]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,21] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[10,1]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,1] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[10,2]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,2] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[10,3]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,3] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[10,4]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,4] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[10,5]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,5] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[10,6]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,6] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[10,7]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,7] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[10,8]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,8] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[10,9]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,9] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[10,10]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,10] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[10,11]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,11] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[10,12]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,12] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[10,13]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,13] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[10,14]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,14] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[10,15]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,15] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[10,16]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,16] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[10,17]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,17] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[10,18]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,18] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[10,19]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,19] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[10,20]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,20] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel[10,21]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,21] unit = \"m/s\" fixed = true nominal = 1.0 ) \"relative radial velocity of particle (to gas)\" type: Real [10,21] millBox1.centrifugalClassifier.T:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.T_start unit = \"K\" fixed = true nominal = 300.0 ) \"temperature in fuel controll volume\" type: Real millBox1.centrifugalClassifier.xi_fuel[1]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.xi_fuel_start[1] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.centrifugalClassifier.xi_fuel[2]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.xi_fuel_start[2] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.centrifugalClassifier.xi_fuel[3]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.xi_fuel_start[3] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.centrifugalClassifier.xi_fuel[4]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.xi_fuel_start[4] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.centrifugalClassifier.xi_fuel[5]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.xi_fuel_start[5] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.centrifugalClassifier.xi_fuel[6]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.xi_fuel_start[6] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.centrifugalClassifier.classFraction[1]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.classFraction_start[1] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.centrifugalClassifier.classFraction[2]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.classFraction_start[2] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.centrifugalClassifier.classFraction[3]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.classFraction_start[3] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.centrifugalClassifier.classFraction[4]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.classFraction_start[4] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.centrifugalClassifier.classFraction[5]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.classFraction_start[5] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.centrifugalClassifier.classFraction[6]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.classFraction_start[6] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.centrifugalClassifier.classFraction[7]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.classFraction_start[7] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.centrifugalClassifier.classFraction[8]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.classFraction_start[8] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.centrifugalClassifier.classFraction[9]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.classFraction_start[9] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.centrifugalClassifier.classFraction[10]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.classFraction_start[10] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.centrifugalClassifier.classFraction[11]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.classFraction_start[11] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.centrifugalClassifier.classFraction[12]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.classFraction_start[12] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.centrifugalClassifier.classFraction[13]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.classFraction_start[13] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.centrifugalClassifier.classFraction[14]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.classFraction_start[14] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.centrifugalClassifier.classFraction[15]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.classFraction_start[15] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.centrifugalClassifier.classFraction[16]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.classFraction_start[16] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.centrifugalClassifier.classFraction[17]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.classFraction_start[17] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.centrifugalClassifier.classFraction[18]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.classFraction_start[18] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.centrifugalClassifier.classFraction[19]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.classFraction_start[19] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.centrifugalClassifier.classFraction[20]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.classFraction_start[20] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.centrifugalClassifier.mass_fuel_discrete[1,1]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[1,1] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[1,2]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[1,2] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[1,3]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[1,3] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[1,4]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[1,4] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[1,5]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[1,5] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[1,6]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[1,6] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[1,7]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[1,7] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[1,8]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[1,8] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[1,9]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[1,9] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[1,10]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[1,10] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[1,11]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[1,11] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[1,12]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[1,12] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[1,13]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[1,13] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[1,14]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[1,14] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[1,15]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[1,15] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[1,16]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[1,16] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[1,17]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[1,17] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[1,18]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[1,18] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[1,19]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[1,19] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[1,20]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[1,20] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[1,21]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[1,21] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[2,1]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[2,1] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[2,2]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[2,2] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[2,3]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[2,3] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[2,4]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[2,4] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[2,5]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[2,5] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[2,6]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[2,6] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[2,7]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[2,7] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[2,8]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[2,8] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[2,9]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[2,9] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[2,10]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[2,10] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[2,11]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[2,11] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[2,12]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[2,12] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[2,13]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[2,13] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[2,14]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[2,14] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[2,15]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[2,15] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[2,16]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[2,16] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[2,17]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[2,17] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[2,18]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[2,18] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[2,19]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[2,19] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[2,20]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[2,20] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[2,21]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[2,21] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[3,1]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[3,1] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[3,2]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[3,2] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[3,3]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[3,3] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[3,4]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[3,4] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[3,5]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[3,5] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[3,6]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[3,6] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[3,7]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[3,7] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[3,8]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[3,8] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[3,9]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[3,9] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[3,10]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[3,10] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[3,11]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[3,11] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[3,12]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[3,12] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[3,13]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[3,13] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[3,14]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[3,14] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[3,15]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[3,15] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[3,16]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[3,16] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[3,17]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[3,17] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[3,18]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[3,18] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[3,19]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[3,19] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[3,20]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[3,20] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[3,21]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[3,21] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[4,1]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[4,1] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[4,2]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[4,2] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[4,3]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[4,3] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[4,4]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[4,4] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[4,5]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[4,5] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[4,6]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[4,6] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[4,7]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[4,7] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[4,8]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[4,8] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[4,9]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[4,9] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[4,10]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[4,10] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[4,11]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[4,11] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[4,12]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[4,12] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[4,13]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[4,13] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[4,14]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[4,14] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[4,15]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[4,15] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[4,16]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[4,16] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[4,17]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[4,17] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[4,18]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[4,18] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[4,19]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[4,19] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[4,20]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[4,20] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[4,21]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[4,21] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[5,1]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[5,1] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[5,2]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[5,2] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[5,3]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[5,3] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[5,4]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[5,4] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[5,5]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[5,5] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[5,6]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[5,6] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[5,7]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[5,7] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[5,8]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[5,8] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[5,9]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[5,9] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[5,10]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[5,10] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[5,11]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[5,11] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[5,12]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[5,12] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[5,13]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[5,13] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[5,14]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[5,14] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[5,15]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[5,15] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[5,16]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[5,16] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[5,17]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[5,17] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[5,18]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[5,18] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[5,19]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[5,19] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[5,20]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[5,20] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[5,21]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[5,21] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[6,1]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[6,1] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[6,2]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[6,2] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[6,3]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[6,3] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[6,4]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[6,4] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[6,5]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[6,5] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[6,6]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[6,6] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[6,7]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[6,7] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[6,8]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[6,8] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[6,9]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[6,9] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[6,10]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[6,10] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[6,11]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[6,11] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[6,12]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[6,12] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[6,13]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[6,13] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[6,14]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[6,14] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[6,15]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[6,15] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[6,16]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[6,16] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[6,17]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[6,17] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[6,18]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[6,18] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[6,19]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[6,19] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[6,20]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[6,20] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[6,21]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[6,21] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[7,1]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[7,1] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[7,2]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[7,2] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[7,3]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[7,3] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[7,4]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[7,4] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[7,5]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[7,5] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[7,6]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[7,6] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[7,7]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[7,7] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[7,8]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[7,8] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[7,9]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[7,9] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[7,10]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[7,10] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[7,11]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[7,11] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[7,12]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[7,12] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[7,13]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[7,13] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[7,14]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[7,14] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[7,15]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[7,15] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[7,16]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[7,16] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[7,17]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[7,17] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[7,18]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[7,18] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[7,19]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[7,19] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[7,20]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[7,20] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[7,21]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[7,21] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[8,1]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[8,1] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[8,2]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[8,2] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[8,3]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[8,3] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[8,4]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[8,4] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[8,5]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[8,5] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[8,6]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[8,6] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[8,7]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[8,7] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[8,8]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[8,8] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[8,9]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[8,9] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[8,10]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[8,10] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[8,11]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[8,11] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[8,12]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[8,12] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[8,13]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[8,13] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[8,14]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[8,14] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[8,15]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[8,15] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[8,16]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[8,16] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[8,17]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[8,17] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[8,18]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[8,18] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[8,19]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[8,19] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[8,20]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[8,20] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[8,21]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[8,21] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[9,1]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[9,1] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[9,2]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[9,2] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[9,3]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[9,3] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[9,4]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[9,4] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[9,5]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[9,5] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[9,6]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[9,6] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[9,7]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[9,7] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[9,8]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[9,8] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[9,9]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[9,9] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[9,10]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[9,10] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[9,11]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[9,11] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[9,12]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[9,12] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[9,13]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[9,13] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[9,14]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[9,14] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[9,15]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[9,15] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[9,16]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[9,16] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[9,17]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[9,17] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[9,18]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[9,18] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[9,19]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[9,19] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[9,20]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[9,20] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[9,21]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[9,21] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[10,1]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[10,1] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[10,2]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[10,2] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[10,3]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[10,3] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[10,4]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[10,4] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[10,5]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[10,5] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[10,6]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[10,6] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[10,7]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[10,7] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[10,8]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[10,8] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[10,9]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[10,9] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[10,10]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[10,10] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[10,11]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[10,11] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[10,12]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[10,12] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[10,13]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[10,13] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[10,14]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[10,14] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[10,15]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[10,15] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[10,16]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[10,16] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[10,17]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[10,17] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[10,18]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[10,18] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[10,19]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[10,19] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[10,20]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[10,20] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.mass_fuel_discrete[10,21]:VARIABLE(min = 0.0 start = millBox1.centrifugalClassifier.mass_fuel_discrete_start[10,21] unit = \"kg\" fixed = true nominal = 1.0 ) \"mass of each particle class in each ring element\" type: Real [10,21] millBox1.centrifugalClassifier.xi_gas[1]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.centrifugalClassifier.xi_gas_start[1] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.centrifugalClassifier.xi_gas[2]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.centrifugalClassifier.xi_gas_start[2] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.centrifugalClassifier.xi_gas[3]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.centrifugalClassifier.xi_gas_start[3] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.centrifugalClassifier.xi_gas[4]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.centrifugalClassifier.xi_gas_start[4] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.centrifugalClassifier.xi_gas[5]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.centrifugalClassifier.xi_gas_start[5] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.centrifugalClassifier.xi_gas[6]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.centrifugalClassifier.xi_gas_start[6] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.centrifugalClassifier.xi_gas[7]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.centrifugalClassifier.xi_gas_start[7] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.centrifugalClassifier.xi_gas[8]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.centrifugalClassifier.xi_gas_start[8] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.centrifugalClassifier.xi_gas[9]:VARIABLE(min = 0.0 max = 1.0 start = millBox1.centrifugalClassifier.xi_gas_start[9] unit = \"kg/kg\" fixed = true nominal = 1.0 ) type: Real [9] millBox1.fuelJoin_distributed.mass:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.mass_fuel_start unit = \"kg\" fixed = true nominal = 1.0 ) \"accumulated particle/fuel mass in aerosol control volume\" type: Real millBox1.fuelJoin_distributed.T:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.T_start unit = \"K\" fixed = true ) \"temperature in fuel controll volume\" type: Real millBox1.fuelJoin_distributed.xi[1]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.xi_fuel_start[1] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.fuelJoin_distributed.xi[2]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.xi_fuel_start[2] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.fuelJoin_distributed.xi[3]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.xi_fuel_start[3] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.fuelJoin_distributed.xi[4]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.xi_fuel_start[4] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.fuelJoin_distributed.xi[5]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.xi_fuel_start[5] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.fuelJoin_distributed.xi[6]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.xi_fuel_start[6] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"composition in fuel control volume\" type: Real [6] millBox1.fuelJoin_distributed.classFraction[1]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.classFraction_start[1] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.fuelJoin_distributed.classFraction[2]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.classFraction_start[2] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.fuelJoin_distributed.classFraction[3]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.classFraction_start[3] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.fuelJoin_distributed.classFraction[4]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.classFraction_start[4] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.fuelJoin_distributed.classFraction[5]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.classFraction_start[5] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.fuelJoin_distributed.classFraction[6]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.classFraction_start[6] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.fuelJoin_distributed.classFraction[7]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.classFraction_start[7] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.fuelJoin_distributed.classFraction[8]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.classFraction_start[8] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.fuelJoin_distributed.classFraction[9]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.classFraction_start[9] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.fuelJoin_distributed.classFraction[10]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.classFraction_start[10] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.fuelJoin_distributed.classFraction[11]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.classFraction_start[11] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.fuelJoin_distributed.classFraction[12]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.classFraction_start[12] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.fuelJoin_distributed.classFraction[13]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.classFraction_start[13] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.fuelJoin_distributed.classFraction[14]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.classFraction_start[14] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.fuelJoin_distributed.classFraction[15]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.classFraction_start[15] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.fuelJoin_distributed.classFraction[16]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.classFraction_start[16] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.fuelJoin_distributed.classFraction[17]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.classFraction_start[17] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.fuelJoin_distributed.classFraction[18]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.classFraction_start[18] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.fuelJoin_distributed.classFraction[19]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.classFraction_start[19] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.fuelJoin_distributed.classFraction[20]:VARIABLE(min = 0.0 start = millBox1.fuelJoin_distributed.classFraction_start[20] unit = \"kg/kg\" fixed = true nominal = 1.0 ) \"total class fraction of ALL inlets\" type: Real [20] millBox1.grinderRingRoller.height[10,21]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[10,20]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[10,19]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[10,18]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[10,17]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[10,16]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[10,15]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[10,14]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[10,13]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[10,12]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[10,11]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[10,10]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[10,9]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[10,8]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[10,7]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[10,6]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[10,5]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[10,4]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[10,3]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[10,2]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[9,21]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[9,20]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[9,19]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[9,18]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[9,17]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[9,16]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[9,15]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[9,14]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[9,13]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[9,12]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[9,11]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[9,10]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[9,9]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[9,8]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[9,7]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[9,6]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[9,5]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[9,4]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[9,3]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[9,2]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[8,21]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[8,20]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[8,19]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[8,18]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[8,17]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[8,16]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[8,15]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[8,14]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[8,13]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[8,12]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[8,11]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[8,10]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[8,9]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[8,8]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[8,7]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[8,6]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[8,5]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[8,4]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[8,3]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[8,2]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[7,21]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[7,20]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[7,19]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[7,18]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[7,17]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[7,16]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[7,15]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[7,14]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[7,13]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[7,12]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[7,11]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[7,10]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[7,9]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[7,8]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[7,7]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[7,6]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[7,5]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[7,4]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[7,3]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[7,2]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[6,21]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[6,20]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[6,19]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[6,18]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[6,17]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[6,16]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[6,15]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[6,14]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[6,13]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[6,12]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[6,11]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[6,10]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[6,9]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[6,8]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[6,7]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[6,6]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[6,5]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[6,4]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[6,3]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[6,2]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[5,21]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[5,20]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[5,19]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[5,18]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[5,17]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[5,16]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[5,15]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[5,14]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[5,13]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[5,12]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[5,11]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[5,10]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[5,9]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[5,8]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[5,7]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[5,6]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[5,5]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[5,4]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[5,3]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[5,2]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[4,21]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[4,20]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[4,19]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[4,18]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[4,17]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[4,16]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[4,15]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[4,14]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[4,13]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[4,12]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[4,11]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[4,10]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[4,9]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[4,8]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[4,7]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[4,6]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[4,5]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[4,4]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[4,3]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[4,2]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[3,21]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[3,20]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[3,19]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[3,18]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[3,17]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[3,16]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[3,15]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[3,14]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[3,13]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[3,12]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[3,11]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[3,10]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[3,9]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[3,8]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[3,7]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[3,6]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[3,5]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[3,4]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[3,3]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[3,2]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[2,21]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[2,20]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[2,19]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[2,18]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[2,17]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[2,16]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[2,15]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[2,14]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[2,13]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[2,12]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[2,11]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[2,10]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[2,9]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[2,8]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[2,7]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[2,6]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[2,5]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[2,4]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[2,3]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[2,2]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[1,21]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[1,20]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[1,19]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[1,18]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[1,17]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[1,16]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[1,15]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[1,14]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[1,13]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[1,12]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[1,11]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[1,10]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[1,9]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[1,8]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[1,7]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[1,6]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[1,5]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[1,4]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[1,3]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] millBox1.grinderRingRoller.height[1,2]:VARIABLE(unit = \"m\" fixed = true nominal = 1.0 ) type: Real [10,21] Notification: Model statistics after passing the back-end for initialization: * Number of independent subsystems: 1525 * Number of states: 0 () * Number of discrete variables: 0 () * Number of discrete states: 0 () * Number of clocked states: 0 () * Top-level inputs: 0 Notification: Strong component statistics for initialization (10600): * Single equations (assignments): 10387 * Array equations: 0 * Algorithm blocks: 0 * Record equations: 0 * When equations: 0 * If-equations: 0 * Equation systems (not torn): 0 * Torn equation systems: 213 * Mixed (continuous/discrete) equation systems: 0 Notification: Torn system details for strict tearing set: * Linear torn systems (#iteration vars, #inner vars, density): 1 system {(1,1,100.0%)} * Non-linear torn systems (#iteration vars, #inner vars): 212 systems {(1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3), (1,3)} Notification: Performance of prepare postOptimizeDAE: time 0.1223/208.9, allocations: 13.8 MB / 59.82 GB, free: 144.7 MB / 1.245 GB Notification: Performance of postOpt lateInlineFunction (simulation): time 0.0708/208.9, allocations: 5.421 MB / 59.83 GB, free: 141.8 MB / 1.245 GB Notification: Performance of postOpt wrapFunctionCalls (simulation): time 1.514/210.4, allocations: 332.5 MB / 60.15 GB, free: 265.3 MB / 1.245 GB Notification: Performance of postOpt inlineArrayEqn (simulation): time 0.0008565/210.4, allocations: 0.8557 MB / 60.15 GB, free: 265.3 MB / 1.245 GB Notification: Performance of postOpt constantLinearSystem (simulation): time 0.0003777/210.4, allocations: 0 / 60.15 GB, free: 265.3 MB / 1.245 GB Notification: Performance of postOpt simplifysemiLinear (simulation): time 0.003302/210.4, allocations: 439.8 kB / 60.15 GB, free: 265.3 MB / 1.245 GB Notification: Performance of postOpt removeSimpleEquations (simulation): time 3.97/214.4, allocations: 1.521 GB / 61.67 GB, free: 210.6 MB / 1.277 GB Notification: Performance of postOpt simplifyComplexFunction (simulation): time 1.237/215.7, allocations: 227.2 MB / 61.9 GB, free: 247.7 MB / 1.277 GB Notification: Performance of postOpt solveSimpleEquations (simulation): time 0.1393/215.8, allocations: 25.41 MB / 61.92 GB, free: 247.6 MB / 1.277 GB Notification: Performance of postOpt tearingSystem (simulation): time 0.07376/215.9, allocations: 28.51 MB / 61.95 GB, free: 245.9 MB / 1.277 GB Notification: Performance of postOpt inputDerivativesUsed (simulation): time 0.05702/215.9, allocations: 3.742 MB / 61.95 GB, free: 245.9 MB / 1.277 GB Notification: Performance of postOpt calculateStrongComponentJacobians (simulation): time 0.3453/216.3, allocations: 421.2 MB / 62.36 GB, free: 67.33 MB / 1.386 GB Notification: Performance of postOpt calculateStateSetsJacobians (simulation): time 4.953e-05/216.3, allocations: 152.6 kB / 62.36 GB, free: 67.29 MB / 1.386 GB Notification: Performance of postOpt symbolicJacobian (simulation): time 1.726/218, allocations: 493.5 MB / 62.85 GB, free: 76.74 MB / 1.386 GB Notification: Performance of postOpt removeConstants (simulation): time 1.406/219.4, allocations: 261.5 MB / 63.1 GB, free: 297.9 MB / 1.386 GB Notification: Performance of postOpt simplifyTimeIndepFuncCalls (simulation): time 0.06975/219.5, allocations: 2.987 MB / 63.1 GB, free: 295.1 MB / 1.386 GB Notification: Performance of postOpt simplifyAllExpressions (simulation): time 0.1144/219.6, allocations: 9.229 MB / 63.11 GB, free: 289.4 MB / 1.386 GB Notification: Performance of postOpt findZeroCrossings (simulation): time 0.07474/219.7, allocations: 10.57 MB / 63.12 GB, free: 283.1 MB / 1.386 GB Notification: Performance of postOpt collapseArrayExpressions (simulation): time 0.05476/219.7, allocations: 4.275 MB / 63.13 GB, free: 279.3 MB / 1.386 GB Notification: Performance of sorting global known variables: time 0.05696/219.8, allocations: 28.6 MB / 63.15 GB, free: 255.2 MB / 1.386 GB Notification: Performance of sort global known variables: time 2.7e-07/219.8, allocations: 3.75 kB / 63.15 GB, free: 255.2 MB / 1.386 GB Notification: Performance of remove unused functions: time 0.316/220.1, allocations: 44.97 MB / 63.2 GB, free: 211.1 MB / 1.386 GB Notification: Model statistics after passing the back-end for simulation: * Number of independent subsystems: 430 * Number of states: 1186 (millBox1.dryer.cylindricalThickWall_L4_1.U[1],millBox1.dryer.mass_fuel,millBox1.dryer.xi_bulk[1],millBox1.dryer.xi_bulk[2],millBox1.dryer.xi_bulk[3],millBox1.dryer.xi_bulk[4],millBox1.dryer.xi_bulk[5],millBox1.dryer.xi_bulk[6],millBox1.dryer.xi_bulk[7],millBox1.dryer.xi_bulk[8],millBox1.dryer.xi_bulk[9],millBox1.dryer.T,millBox1.dryer.gasBulk.p,millBox1.grinderRingRoller.T,millBox1.grinderRingRoller.xi[1],millBox1.grinderRingRoller.xi[2],millBox1.grinderRingRoller.xi[3],millBox1.grinderRingRoller.xi[4],millBox1.grinderRingRoller.xi[5],millBox1.grinderRingRoller.xi[6],millBox1.grinderRingRoller.height[1,1],millBox1.grinderRingRoller.height[1,2],millBox1.grinderRingRoller.height[1,3],millBox1.grinderRingRoller.height[1,4],millBox1.grinderRingRoller.height[1,5],millBox1.grinderRingRoller.height[1,6],millBox1.grinderRingRoller.height[1,7],millBox1.grinderRingRoller.height[1,8],millBox1.grinderRingRoller.height[1,9],millBox1.grinderRingRoller.height[1,10],millBox1.grinderRingRoller.height[1,11],millBox1.grinderRingRoller.height[1,12],millBox1.grinderRingRoller.height[1,13],millBox1.grinderRingRoller.height[1,14],millBox1.grinderRingRoller.height[1,15],millBox1.grinderRingRoller.height[1,16],millBox1.grinderRingRoller.height[1,17],millBox1.grinderRingRoller.height[1,18],millBox1.grinderRingRoller.height[1,19],millBox1.grinderRingRoller.height[1,20],millBox1.grinderRingRoller.height[1,21],millBox1.grinderRingRoller.height[2,1],millBox1.grinderRingRoller.height[2,2],millBox1.grinderRingRoller.height[2,3],millBox1.grinderRingRoller.height[2,4],millBox1.grinderRingRoller.height[2,5],millBox1.grinderRingRoller.height[2,6],millBox1.grinderRingRoller.height[2,7],millBox1.grinderRingRoller.height[2,8],millBox1.grinderRingRoller.height[2,9],millBox1.grinderRingRoller.height[2,10],millBox1.grinderRingRoller.height[2,11],millBox1.grinderRingRoller.height[2,12],millBox1.grinderRingRoller.height[2,13],millBox1.grinderRingRoller.height[2,14],millBox1.grinderRingRoller.height[2,15],millBox1.grinderRingRoller.height[2,16],millBox1.grinderRingRoller.height[2,17],millBox1.grinderRingRoller.height[2,18],millBox1.grinderRingRoller.height[2,19],millBox1.grinderRingRoller.height[2,20],millBox1.grinderRingRoller.height[2,21],millBox1.grinderRingRoller.height[3,1],millBox1.grinderRingRoller.height[3,2],millBox1.grinderRingRoller.height[3,3],millBox1.grinderRingRoller.height[3,4],millBox1.grinderRingRoller.height[3,5],millBox1.grinderRingRoller.height[3,6],millBox1.grinderRingRoller.height[3,7],millBox1.grinderRingRoller.height[3,8],millBox1.grinderRingRoller.height[3,9],millBox1.grinderRingRoller.height[3,10],millBox1.grinderRingRoller.height[3,11],millBox1.grinderRingRoller.height[3,12],millBox1.grinderRingRoller.height[3,13],millBox1.grinderRingRoller.height[3,14],millBox1.grinderRingRoller.height[3,15],millBox1.grinderRingRoller.height[3,16],millBox1.grinderRingRoller.height[3,17],millBox1.grinderRingRoller.height[3,18],millBox1.grinderRingRoller.height[3,19],millBox1.grinderRingRoller.height[3,20],millBox1.grinderRingRoller.height[3,21],millBox1.grinderRingRoller.height[4,1],millBox1.grinderRingRoller.height[4,2],millBox1.grinderRingRoller.height[4,3],millBox1.grinderRingRoller.height[4,4],millBox1.grinderRingRoller.height[4,5],millBox1.grinderRingRoller.height[4,6],millBox1.grinderRingRoller.height[4,7],millBox1.grinderRingRoller.height[4,8],millBox1.grinderRingRoller.height[4,9],millBox1.grinderRingRoller.height[4,10],millBox1.grinderRingRoller.height[4,11],millBox1.grinderRingRoller.height[4,12],millBox1.grinderRingRoller.height[4,13],millBox1.grinderRingRoller.height[4,14],millBox1.grinderRingRoller.height[4,15],millBox1.grinderRingRoller.height[4,16],millBox1.grinderRingRoller.height[4,17],millBox1.grinderRingRoller.height[4,18],millBox1.grinderRingRoller.height[4,19],millBox1.grinderRingRoller.height[4,20],millBox1.grinderRingRoller.height[4,21],millBox1.grinderRingRoller.height[5,1],millBox1.grinderRingRoller.height[5,2],millBox1.grinderRingRoller.height[5,3],millBox1.grinderRingRoller.height[5,4],millBox1.grinderRingRoller.height[5,5],millBox1.grinderRingRoller.height[5,6],millBox1.grinderRingRoller.height[5,7],millBox1.grinderRingRoller.height[5,8],millBox1.grinderRingRoller.height[5,9],millBox1.grinderRingRoller.height[5,10],millBox1.grinderRingRoller.height[5,11],millBox1.grinderRingRoller.height[5,12],millBox1.grinderRingRoller.height[5,13],millBox1.grinderRingRoller.height[5,14],millBox1.grinderRingRoller.height[5,15],millBox1.grinderRingRoller.height[5,16],millBox1.grinderRingRoller.height[5,17],millBox1.grinderRingRoller.height[5,18],millBox1.grinderRingRoller.height[5,19],millBox1.grinderRingRoller.height[5,20],millBox1.grinderRingRoller.height[5,21],millBox1.grinderRingRoller.height[6,1],millBox1.grinderRingRoller.height[6,2],millBox1.grinderRingRoller.height[6,3],millBox1.grinderRingRoller.height[6,4],millBox1.grinderRingRoller.height[6,5],millBox1.grinderRingRoller.height[6,6],millBox1.grinderRingRoller.height[6,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[7,21],millBox1.centrifugalClassifier.mass_fuel_discrete[8,1],millBox1.centrifugalClassifier.mass_fuel_discrete[8,2],millBox1.centrifugalClassifier.mass_fuel_discrete[8,3],millBox1.centrifugalClassifier.mass_fuel_discrete[8,4],millBox1.centrifugalClassifier.mass_fuel_discrete[8,5],millBox1.centrifugalClassifier.mass_fuel_discrete[8,6],millBox1.centrifugalClassifier.mass_fuel_discrete[8,7],millBox1.centrifugalClassifier.mass_fuel_discrete[8,8],millBox1.centrifugalClassifier.mass_fuel_discrete[8,9],millBox1.centrifugalClassifier.mass_fuel_discrete[8,10],millBox1.centrifugalClassifier.mass_fuel_discrete[8,11],millBox1.centrifugalClassifier.mass_fuel_discrete[8,12],millBox1.centrifugalClassifier.mass_fuel_discrete[8,13],millBox1.centrifugalClassifier.mass_fuel_discrete[8,14],millBox1.centrifugalClassifier.mass_fuel_discrete[8,15],millBox1.centrifugalClassifier.mass_fuel_discrete[8,16],millBox1.centrifugalClassifier.mass_fuel_discrete[8,17],millBox1.centrifugalClassifier.mass_fuel_discrete[8,18],millBox1.centrifugalClassifier.mass_fuel_discrete[8,19],millBox1.centrifugalClassifier.mass_fuel_discrete[8,20],millBox1.centrifugalClassifier.mass_fuel_discrete[8,21],millBox1.centrifugalClassifier.mass_fuel_discrete[9,1],millBox1.centrifugalClassifier.mass_fuel_discrete[9,2],millBox1.centrifugalClassifier.mass_fuel_discrete[9,3],millBox1.centrifugalClassifier.mass_fuel_discrete[9,4],millBox1.centrifugalClassifier.mass_fuel_discrete[9,5],millBox1.centrifugalClassifier.mass_fuel_discrete[9,6],millBox1.centrifugalClassifier.mass_fuel_discrete[9,7],millBox1.centrifugalClassifier.mass_fuel_discrete[9,8],millBox1.centrifugalClassifier.mass_fuel_discrete[9,9],millBox1.centrifugalClassifier.mass_fuel_discrete[9,10],millBox1.centrifugalClassifier.mass_fuel_discrete[9,11],millBox1.centrifugalClassifier.mass_fuel_discrete[9,12],millBox1.centrifugalClassifier.mass_fuel_discrete[9,13],millBox1.centrifugalClassifier.mass_fuel_discrete[9,14],millBox1.centrifugalClassifier.mass_fuel_discrete[9,15],millBox1.centrifugalClassifier.mass_fuel_discrete[9,16],millBox1.centrifugalClassifier.mass_fuel_discrete[9,17],millBox1.centrifugalClassifier.mass_fuel_discrete[9,18],millBox1.centrifugalClassifier.mass_fuel_discrete[9,19],millBox1.centrifugalClassifier.mass_fuel_discrete[9,20],millBox1.centrifugalClassifier.mass_fuel_discrete[9,21],millBox1.centrifugalClassifier.mass_fuel_discrete[10,1],millBox1.centrifugalClassifier.mass_fuel_discrete[10,2],millBox1.centrifugalClassifier.mass_fuel_discrete[10,3],millBox1.centrifugalClassifier.mass_fuel_discrete[10,4],millBox1.centrifugalClassifier.mass_fuel_discrete[10,5],millBox1.centrifugalClassifier.mass_fuel_discrete[10,6],millBox1.centrifugalClassifier.mass_fuel_discrete[10,7],millBox1.centrifugalClassifier.mass_fuel_discrete[10,8],millBox1.centrifugalClassifier.mass_fuel_discrete[10,9],millBox1.centrifugalClassifier.mass_fuel_discrete[10,10],millBox1.centrifugalClassifier.mass_fuel_discrete[10,11],millBox1.centrifugalClassifier.mass_fuel_discrete[10,12],millBox1.centrifugalClassifier.mass_fuel_discrete[10,13],millBox1.centrifugalClassifier.mass_fuel_discrete[10,14],millBox1.centrifugalClassifier.mass_fuel_discrete[10,15],millBox1.centrifugalClassifier.mass_fuel_discrete[10,16],millBox1.centrifugalClassifier.mass_fuel_discrete[10,17],millBox1.centrifugalClassifier.mass_fuel_discrete[10,18],millBox1.centrifugalClassifier.mass_fuel_discrete[10,19],millBox1.centrifugalClassifier.mass_fuel_discrete[10,20],millBox1.centrifugalClassifier.mass_fuel_discrete[10,21],millBox1.centrifugalClassifier.xi_gas[1],millBox1.centrifugalClassifier.xi_gas[2],millBox1.centrifugalClassifier.xi_gas[3],millBox1.centrifugalClassifier.xi_gas[4],millBox1.centrifugalClassifier.xi_gas[5],millBox1.centrifugalClassifier.xi_gas[6],millBox1.centrifugalClassifier.xi_gas[7],millBox1.centrifugalClassifier.xi_gas[8],millBox1.centrifugalClassifier.xi_gas[9],millBox1.centrifugalClassifier.gasBulk.p,millBox1.fuelJoin_distributed.mass,millBox1.fuelJoin_distributed.T,millBox1.fuelJoin_distributed.xi[1],millBox1.fuelJoin_distributed.xi[2],millBox1.fuelJoin_distributed.xi[3],millBox1.fuelJoin_distributed.xi[4],millBox1.fuelJoin_distributed.xi[5],millBox1.fuelJoin_distributed.xi[6],millBox1.fuelJoin_distributed.classFraction[1],millBox1.fuelJoin_distributed.classFraction[2],millBox1.fuelJoin_distributed.classFraction[3],millBox1.fuelJoin_distributed.classFraction[4],millBox1.fuelJoin_distributed.classFraction[5],millBox1.fuelJoin_distributed.classFraction[6],millBox1.fuelJoin_distributed.classFraction[7],millBox1.fuelJoin_distributed.classFraction[8],millBox1.fuelJoin_distributed.classFraction[9],millBox1.fuelJoin_distributed.classFraction[10],millBox1.fuelJoin_distributed.classFraction[11],millBox1.fuelJoin_distributed.classFraction[12],millBox1.fuelJoin_distributed.classFraction[13],millBox1.fuelJoin_distributed.classFraction[14],millBox1.fuelJoin_distributed.classFraction[15],millBox1.fuelJoin_distributed.classFraction[16],millBox1.fuelJoin_distributed.classFraction[17],millBox1.fuelJoin_distributed.classFraction[18],millBox1.fuelJoin_distributed.classFraction[19],millBox1.fuelJoin_distributed.classFraction[20],firstOrder.y,firstOrder1.y,firstOrder2.y) * Number of discrete variables: 0 () * Number of discrete states: 0 () * Number of clocked states: 0 () * Top-level inputs: 0 Notification: Strong component statistics for simulation (8470): * Single equations (assignments): 8257 * Array equations: 0 * Algorithm blocks: 0 * Record equations: 2 * When equations: 0 * If-equations: 0 * Equation systems (not torn): 211 * Torn equation systems: 0 * Mixed (continuous/discrete) equation systems: 0 Notification: Equation system details (not torn): * Constant Jacobian (size): 0 systems * Linear Jacobian (size,density): 1 system {(2,100.0%)} * Non-linear Jacobian (size): 210 systems {5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5, 5} * Without analytic Jacobian (size): 0 systems Notification: Performance of Backend phase and start with SimCode phase: time 1.769/221.9, allocations: 480.6 MB / 63.67 GB, free: 284.2 MB / 1.386 GB Notification: Performance of simCode: created initialization part: time 1.46/223.3, allocations: 478 MB / 64.13 GB, free: 358.5 MB / 1.386 GB Notification: Performance of simCode: created event and clocks part: time 0.0001558/223.3, allocations: 24.94 kB / 64.13 GB, free: 358.5 MB / 1.386 GB Notification: Performance of simCode: created simulation system equations: time 0.2876/223.6, allocations: 135.8 MB / 64.27 GB, free: 246.3 MB / 1.386 GB Notification: Performance of simCode: created of all other equations (e.g. parameter, nominal, assert, etc): time 0.1624/223.8, allocations: 15.22 MB / 64.28 GB, free: 234.8 MB / 1.386 GB Notification: Performance of simCode: created linear, non-linear and system jacobian parts: time 9.471/233.2, allocations: 1.437 GB / 65.72 GB, free: 408.4 MB / 1.386 GB Notification: Performance of simCode: some other stuff during SimCode phase: time 0.08808/233.3, allocations: 31.8 MB / 65.75 GB, free: 405.9 MB / 1.386 GB Notification: Performance of simCode: alias equations: time 0.3472/233.7, allocations: 90.99 MB / 65.84 GB, free: 402.9 MB / 1.386 GB Notification: Performance of simCode: all other stuff during SimCode phase: time 0.1684/233.8, allocations: 28.78 MB / 65.87 GB, free: 402.7 MB / 1.386 GB Notification: Performance of SimCode: time 2.394e-06/233.8, allocations: 0 / 65.87 GB, free: 402.7 MB / 1.386 GB Notification: Performance of buildModelFMU: Generate the FMI files: time 7.517/241.4, allocations: 2.815 GB / 68.68 GB, free: 260.9 MB / 1.386 GB Error: Error building simulator. Build log: cmd: cd '282.fmutmp/sources/' && mkdir build_cmake_static && cd build_cmake_static && cmake -DCMAKE_BUILD_TYPE=Release -DCMAKE_C_COMPILER='clang' .. && cmake --build . --parallel -j1 --target install && cd .. && rm -rf build_cmake_static CMake Warning (deprecated) at CMakeLists.txt:1 (cmake_minimum_required): Compatibility with CMake < 3.10 will be removed from a future version of CMake. Update the VERSION argument value. Or, use the ... syntax to tell CMake that the project requires at least but has been updated to work with policies introduced by or earlier. This warning is for project developers. Use -Wno-author or -Wno-deprecated to suppress it. -- The C compiler identification is Clang 21.1.8 -- Detecting C compiler ABI info -- Detecting C compiler ABI info - done -- Check for working C compiler: /usr/bin/clang - skipped -- Detecting C compile features -- Detecting C compile features - done -- FMI2 include directory: /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/fmi -- Performing Test CMAKE_HAVE_LIBC_PTHREAD -- Performing Test CMAKE_HAVE_LIBC_PTHREAD - Success -- Found Threads: TRUE -- Building for FMI platform linux64 -- Install directory: /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/../binaries/linux64 -- Linking /home/hudson/saved_omc/libraries/.openmodelica/libraries/TILMedia main/Resources/Library/linux64/libTILMedia190ClaRa.so -- Linking /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelica/OMCompiler/build/lib/x86_64-linux-gnu/omc/libModelicaExternalC.a -- Linking /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelica/OMCompiler/build/lib/x86_64-linux-gnu/omc/libModelicaStandardTables.a -- Linking /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelica/OMCompiler/build/lib/x86_64-linux-gnu/omc/libModelicaIO.a -- Linking /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelica/OMCompiler/build/lib/x86_64-linux-gnu/omc/libModelicaMatIO.a -- Linking /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelica/OMCompiler/build/lib/x86_64-linux-gnu/omc/libzlib.a -- CVODE_DIRECTORY: /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelica/OMCompiler/build/bin/../lib/x86_64-linux-gnu/omc -- SUNDIALS_CVODE_LIBRARY: /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelica/OMCompiler/build/lib/x86_64-linux-gnu/omc/libsundials_cvode.so -- SUNDIALS_NVECSERIAL_LIBRARY: /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelica/OMCompiler/build/lib/x86_64-linux-gnu/omc/libsundials_nvecserial.so -- CVODE: /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelica/OMCompiler/build/lib/x86_64-linux-gnu/omc/libsundials_nvecserial.so /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelica/OMCompiler/build/lib/x86_64-linux-gnu/omc/libsundials_cvode.so -- Not using FMI2_FUNCTION_PREFIX -- Installing dynamic dependencies from list: /home/hudson/saved_omc/libraries/.openmodelica/libraries/TILMedia main/Resources/Library/linux64/libTILMedia190ClaRa.so;/var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelica/OMCompiler/build/lib/x86_64-linux-gnu/omc/libModelicaExternalC.a;/var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelica/OMCompiler/build/lib/x86_64-linux-gnu/omc/libModelicaStandardTables.a;/var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelica/OMCompiler/build/lib/x86_64-linux-gnu/omc/libModelicaIO.a;/var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelica/OMCompiler/build/lib/x86_64-linux-gnu/omc/libModelicaMatIO.a;/var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelica/OMCompiler/build/lib/x86_64-linux-gnu/omc/libzlib.a;/var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelica/OMCompiler/build/lib/x86_64-linux-gnu/omc/libsundials_cvode.so;/var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelica/OMCompiler/build/lib/x86_64-linux-gnu/omc/libsundials_nvecserial.so CMake Warning (policy) at CMakeLists.txt:293 (install): Policy CMP0177 is not set: install() DESTINATION paths are normalized. Run \"cmake --help-policy CMP0177\" for policy details. Use the cmake_policy command to set the policy and suppress this warning. This warning is for project developers. Use -Wno-author or -Wno-policy to suppress it. CMake Warning (policy) at CMakeLists.txt:293 (install): Policy CMP0177 is not set: install() DESTINATION paths are normalized. Run \"cmake --help-policy CMP0177\" for policy details. Use the cmake_policy command to set the policy and suppress this warning. This warning is for project developers. Use -Wno-author or -Wno-policy to suppress it. CMake Warning (policy) at CMakeLists.txt:293 (install): Policy CMP0177 is not set: install() DESTINATION paths are normalized. Run \"cmake --help-policy CMP0177\" for policy details. Use the cmake_policy command to set the policy and suppress this warning. This warning is for project developers. Use -Wno-author or -Wno-policy to suppress it. CMake Warning (policy) at CMakeLists.txt:293 (install): Policy CMP0177 is not set: install() DESTINATION paths are normalized. Run \"cmake --help-policy CMP0177\" for policy details. Use the cmake_policy command to set the policy and suppress this warning. This warning is for project developers. Use -Wno-author or -Wno-policy to suppress it. -- Configuring done (0.2s) -- Generating done (0.0s) -- Build files have been written to: /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/build_cmake_static [ 0%] Building C object CMakeFiles/282.dir/external_solvers/F77_aloc.c.o [ 1%] Building C object CMakeFiles/282.dir/external_solvers/dgemm.c.o [ 1%] Building C object CMakeFiles/282.dir/external_solvers/dgemv.c.o [ 2%] Building C object CMakeFiles/282.dir/external_solvers/dger.c.o [ 3%] Building C object CMakeFiles/282.dir/external_solvers/dgesv.c.o [ 3%] Building C object CMakeFiles/282.dir/external_solvers/dgetf2.c.o [ 4%] Building C object CMakeFiles/282.dir/external_solvers/dgetrf.c.o [ 5%] Building C object CMakeFiles/282.dir/external_solvers/dgetri.c.o [ 5%] Building C object CMakeFiles/282.dir/external_solvers/dgetrs.c.o [ 6%] Building C object 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CMakeFiles/282.dir/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_16dae.c.o [ 96%] Building C object CMakeFiles/282.dir/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_17inl.c.o [ 96%] Building C object CMakeFiles/282.dir/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_18spd.c.o [ 97%] Building C object CMakeFiles/282.dir/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_FMU.c.o [ 98%] Building C object CMakeFiles/282.dir/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_functions.c.o /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_functions.c:503:22: warning: equality comparison with extraneous parentheses [-Wparentheses-equality] 503 | if((_fuelType._N_c == _fuelType._N_e)) | ~~~~~~~~~~~~~~~^~~~~~~~~~~~~~~~~ /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_functions.c:503:22: note: remove extraneous parentheses around the comparison to silence this warning 503 | if((_fuelType._N_c == _fuelType._N_e)) | ~ ^ ~ /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_functions.c:503:22: note: use '=' to turn this equality comparison into an assignment 503 | if((_fuelType._N_c == _fuelType._N_e)) | ^~ | = /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_functions.c:1121:82: warning: passing 'const double *' to parameter of type 'double *' discards qualifiers [-Wincompatible-pointer-types-discards-qualifiers] 1121 | _phi_ext = TILMedia_MoistAir_phi_pThumRatioxidg(_p_ext, _T_ext, _humRatio_ext, _xi_dryGas_c89, _gasPointer_ext); | ^~~~~~~~~~~~~~ /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_includes.h:102:76: note: passing argument to parameter here 102 | double TILMedia_MoistAir_phi_pThumRatioxidg(double, double, double, double*, void*); | ^ /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_functions.c:1153:81: warning: passing 'const double *' to parameter of type 'double *' discards qualifiers [-Wincompatible-pointer-types-discards-qualifiers] 1153 | _humRatio_s_ext = TILMedia_Gas_saturationHumidityRatio_pTxidg(_p_ext, _T_ext, _xi_dryGas_c89, _gasPointer_ext); | ^~~~~~~~~~~~~~ /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_includes.h:101:75: note: passing argument to parameter here 101 | double TILMedia_Gas_saturationHumidityRatio_pTxidg(double, double, double*, void*); | ^ /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_functions.c:1192:57: warning: passing 'const double *' to parameter of type 'double *' discards qualifiers [-Wincompatible-pointer-types-discards-qualifiers] 1192 | TILMedia_Gas_transportProperties_pTxi(_p_ext, _T_ext, _xi_c89, _gasPointer_ext, &_Pr_ext, &_lambda_ext, &_eta_ext, &_sigma_ext); | ^~~~~~~ /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_includes.h:100:67: note: passing argument to parameter here 100 | void TILMedia_Gas_transportProperties_pTxi(double, double, double*, void*, double*, double*, double*, double*); | ^ /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_functions.c:1236:104: warning: passing 'const double *' to parameter of type 'double *' discards qualifiers [-Wincompatible-pointer-types-discards-qualifiers] 1236 | _drhodxi_ph_ext = TILMedia_GasObjectFunctions_densityDerivativeWRTmassFraction_phxin(_p_ext, _h_ext, _xi_c89, _compNo_ext, _gasPointer_ext); | ^~~~~~~ /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_includes.h:99:96: note: passing argument to parameter here 99 | double TILMedia_GasObjectFunctions_densityDerivativeWRTmassFraction_phxin(double,double,double*,int, void*); | ^ /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_functions.c:1268:99: warning: passing 'const double *' to parameter of type 'double *' discards qualifiers [-Wincompatible-pointer-types-discards-qualifiers] 1268 | _drhodp_hxi_ext = TILMedia_GasObjectFunctions_densityDerivativeWRTpressure_phxi(_p_ext, _h_ext, _xi_c89, _gasPointer_ext); | ^~~~~~~ /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_includes.h:98:91: note: passing argument to parameter here 98 | double TILMedia_GasObjectFunctions_densityDerivativeWRTpressure_phxi(double,double,double*,void*); | ^ /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_functions.c:1298:107: warning: passing 'const double *' to parameter of type 'double *' discards qualifiers [-Wincompatible-pointer-types-discards-qualifiers] 1298 | _drhodh_pxi_ext = TILMedia_GasObjectFunctions_densityDerivativeWRTspecificEnthalpy_phxi(_p_ext, _h_ext, _xi_c89, _gasPointer_ext); | ^~~~~~~ /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_includes.h:97:99: note: passing argument to parameter here 97 | double TILMedia_GasObjectFunctions_densityDerivativeWRTspecificEnthalpy_phxi(double,double,double*,void*); | ^ /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_functions.c:1328:69: warning: passing 'const double *' to parameter of type 'double *' discards qualifiers [-Wincompatible-pointer-types-discards-qualifiers] 1328 | _d_ext = TILMedia_GasObjectFunctions_density_pTxi(_p_ext, _T_ext, _xi_c89, _gasPointer_ext); | ^~~~~~~ /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_includes.h:96:70: note: passing argument to parameter here 96 | double TILMedia_GasObjectFunctions_density_pTxi(double,double,double*,void*); | ^ /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_functions.c:1358:86: warning: passing 'const double *' to parameter of type 'double *' discards qualifiers [-Wincompatible-pointer-types-discards-qualifiers] 1358 | _xi_gas_ext = TILMedia_GasObjectFunctions_gaseousMassFraction_pTxi(_p_ext, _T_ext, _xi_c89, _gasPointer_ext); | ^~~~~~~ /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_includes.h:95:82: note: passing argument to parameter here 95 | double TILMedia_GasObjectFunctions_gaseousMassFraction_pTxi(double,double,double*,void*); | ^ /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_functions.c:1388:100: warning: passing 'const double *' to parameter of type 'double *' discards qualifiers [-Wincompatible-pointer-types-discards-qualifiers] 1388 | _beta_ext = TILMedia_GasObjectFunctions_isobaricThermalExpansionCoefficient_phxi(_p_ext, _h_ext, _xi_c89, _gasPointer_ext); | ^~~~~~~ /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_includes.h:94:98: note: passing argument to parameter here 94 | double TILMedia_GasObjectFunctions_isobaricThermalExpansionCoefficient_phxi(double,double,double*,void*); | ^ /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_functions.c:1418:91: warning: passing 'const double *' to parameter of type 'double *' discards qualifiers [-Wincompatible-pointer-types-discards-qualifiers] 1418 | _kappa_ext = TILMedia_GasObjectFunctions_isothermalCompressibility_pTxi(_p_ext, _T_ext, _xi_c89, _gasPointer_ext); | ^~~~~~~ /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_includes.h:93:88: note: passing argument to parameter here 93 | double TILMedia_GasObjectFunctions_isothermalCompressibility_pTxi(double,double,double*,void*); | ^ /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_functions.c:1474:80: warning: passing 'const double *' to parameter of type 'double *' discards qualifiers [-Wincompatible-pointer-types-discards-qualifiers] 1474 | _p_i_ext = TILMedia_GasObjectFunctions_partialPressure_pTxin(_p_ext, _T_ext, _xi_c89, _compNo_ext, _gasPointer_ext); | ^~~~~~~ /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_includes.h:91:79: note: passing argument to parameter here 91 | double TILMedia_GasObjectFunctions_partialPressure_pTxin(double,double,double*,int, void*); | ^ /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_functions.c:1506:74: warning: passing 'const double *' to parameter of type 'double *' discards qualifiers [-Wincompatible-pointer-types-discards-qualifiers] 1506 | _xi_s_ext = TILMedia_Gas_saturationMassFraction_pTxidg(_p_ext, _T_ext, _xi_dryGas_c89, _gasPointer_ext); | ^~~~~~~~~~~~~~ /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_includes.h:90:74: note: passing argument to parameter here 90 | double TILMedia_Gas_saturationMassFraction_pTxidg(double, double, double*, void*); | ^ /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_functions.c:1636:78: warning: passing 'const double *' to parameter of type 'double *' discards qualifiers [-Wincompatible-pointer-types-discards-qualifiers] 1636 | _h_ext = TILMedia_GasObjectFunctions_specificEnthalpy_pTxi(_p_ext, _T_ext, _xi_c89, _gasPointer_ext); | ^~~~~~~ /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_includes.h:85:79: note: passing argument to parameter here 85 | double TILMedia_GasObjectFunctions_specificEnthalpy_pTxi(double,double,double*,void*); | ^ /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_functions.c:1666:77: warning: passing 'const double *' to parameter of type 'double *' discards qualifiers [-Wincompatible-pointer-types-discards-qualifiers] 1666 | _s_ext = TILMedia_GasObjectFunctions_specificEntropy_pTxi(_p_ext, _T_ext, _xi_c89, _gasPointer_ext); | ^~~~~~~ /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_includes.h:84:78: note: passing argument to parameter here 84 | double TILMedia_GasObjectFunctions_specificEntropy_pTxi(double,double,double*,void*); | ^ /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_functions.c:1696:91: warning: passing 'const double *' to parameter of type 'double *' discards qualifiers [-Wincompatible-pointer-types-discards-qualifiers] 1696 | _cp_ext = TILMedia_GasObjectFunctions_specificIsobaricHeatCapacity_phxi(_p_ext, _h_ext, _xi_c89, _gasPointer_ext); | ^~~~~~~ /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_includes.h:83:91: note: passing argument to parameter here 83 | double TILMedia_GasObjectFunctions_specificIsobaricHeatCapacity_phxi(double,double,double*,void*); | ^ /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_functions.c:1726:92: warning: passing 'const double *' to parameter of type 'double *' discards qualifiers [-Wincompatible-pointer-types-discards-qualifiers] 1726 | _cv_ext = TILMedia_GasObjectFunctions_specificIsochoricHeatCapacity_phxi(_p_ext, _h_ext, _xi_c89, _gasPointer_ext); | ^~~~~~~ /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_includes.h:82:92: note: passing argument to parameter here 82 | double TILMedia_GasObjectFunctions_specificIsochoricHeatCapacity_phxi(double,double,double*,void*); | ^ /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_functions.c:1756:74: warning: passing 'const double *' to parameter of type 'double *' discards qualifiers [-Wincompatible-pointer-types-discards-qualifiers] 1756 | _w_ext = TILMedia_GasObjectFunctions_speedOfSound_phxi(_p_ext, _h_ext, _xi_c89, _gasPointer_ext); | ^~~~~~~ /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_includes.h:81:75: note: passing argument to parameter here 81 | double TILMedia_GasObjectFunctions_speedOfSound_phxi(double,double,double*,void*); | ^ /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_functions.c:1788:125: warning: passing 'const double *' to parameter of type 'double *' discards qualifiers [-Wincompatible-pointer-types-discards-qualifiers] 1788 | _externalObject_ext = TILMedia_createExternalObject(MMC_STRINGDATA(_objectType), MMC_STRINGDATA(_mediumName), _flags_ext, _xi_c89, _nc_ext, _condensingIndex_ext, MMC_STRINGDATA(_instanceName)); | ^~~~~~~ /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_includes.h:48:105: note: passing argument to parameter 'xi' here 48 | void* TILMedia_createExternalObject(const char* objectType, const char* mixtureName, int flags, double* xi, int _nc, int condensingIndex, const char* instanceName) { | ^ /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_functions.c:1832:83: warning: passing 'const double *' to parameter of type 'double *' discards qualifiers [-Wincompatible-pointer-types-discards-qualifiers] 1832 | _h_ext = TILMedia_VLEFluidObjectFunctions_specificEnthalpy_pTxi(_p_ext, _T_ext, _xi_c89, _vleFluidPointer_ext); | ^~~~~~~ /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_includes.h:8:84: note: passing argument to parameter here 8 | double TILMedia_VLEFluidObjectFunctions_specificEnthalpy_pTxi(double,double,double*,void*); | ^ /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_functions.c:1862:82: warning: passing 'const double *' to parameter of type 'double *' discards qualifiers [-Wincompatible-pointer-types-discards-qualifiers] 1862 | _s_ext = TILMedia_VLEFluidObjectFunctions_specificEntropy_pTxi(_p_ext, _T_ext, _xi_c89, _vleFluidPointer_ext); | ^~~~~~~ /var/lib/jenkins/ws/OpenModelicaLibraryTestingWork/OpenModelicaLibraryTesting/ClaRa_dev_ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1/282.fmutmp/sources/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_includes.h:7:83: note: passing argument to parameter here 7 | double TILMedia_VLEFluidObjectFunctions_specificEntropy_pTxi(double,double,double*,void*); | ^ 21 warnings generated. [ 98%] Building C object CMakeFiles/282.dir/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_init_fmu.c.o gmake[2]: *** [CMakeFiles/282.dir/build.make:2207: CMakeFiles/282.dir/ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1_init_fmu.c.o] Interrupt gmake[1]: *** [CMakeFiles/Makefile2:88: CMakeFiles/282.dir/all] Interrupt gmake: *** [Makefile:136: all] Interrupt User interrupt CMake Error: Generator: build tool execution failed, command was: /usr/bin/gmake -f Makefile -j1 install " [Timeout remaining time 0] Timeout error for cmd: "" <> buildModelFMU(ClaRa.Components.Mills.PhysicalMills.Check.TestMillBox_1,fileNamePrefix="ClaRa_dev_ClaRa_Components_Mills_PhysicalMills_Check_TestMillBox_1",fmuType="me_cs",version="2.0",platforms={"static"}) OMC output: Created ZeroMQ Server. Dumped server port in file: /tmp/openmodelica.hudson.port.7d6108d3c5fd4e59ba3e1bb837364897 Nonlinear iteration variables with predefined start attribute in NLSJac2. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[10,21]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,21] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac3. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[10,20]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,20] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac4. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[10,19]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,19] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac5. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[10,18]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,18] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac6. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[10,17]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,17] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac7. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[10,16]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,16] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac8. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[10,15]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,15] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac9. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[10,14]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,14] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac10. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[10,13]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,13] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac11. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[10,12]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,12] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac12. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[10,11]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,11] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac13. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[10,10]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,10] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac14. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[10,9]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,9] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac15. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[10,8]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,8] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac16. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[10,7]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,7] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac17. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[10,6]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,6] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac18. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[10,5]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,5] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac19. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[10,4]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,4] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac20. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[10,3]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,3] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac21. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[10,2]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,2] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac22. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[10,1]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,1] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac23. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[9,21]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,21] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac24. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[9,20]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,20] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac25. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[9,19]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,19] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac26. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[9,18]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,18] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac27. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[9,17]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,17] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac28. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[9,16]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,16] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac29. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[9,15]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,15] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac30. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[9,14]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,14] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac31. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[9,13]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,13] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac32. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[9,12]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,12] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac33. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[9,11]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,11] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac34. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[9,10]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,10] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac35. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[9,9]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,9] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac36. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[9,8]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,8] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac37. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[9,7]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,7] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac38. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[9,6]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,6] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac39. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[9,5]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,5] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac40. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[9,4]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,4] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac41. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[9,3]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,3] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac42. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[9,2]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,2] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac43. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[9,1]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,1] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac44. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[8,21]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,21] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac45. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[8,20]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,20] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac46. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[8,19]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,19] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac47. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[8,18]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,18] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac48. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[8,17]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,17] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac49. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[8,16]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,16] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac50. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[8,15]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,15] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac51. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[8,14]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,14] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac52. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[8,13]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,13] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac53. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[8,12]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,12] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac54. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[8,11]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,11] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac55. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[8,10]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,10] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac56. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[8,9]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,9] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac57. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[8,8]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,8] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac58. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[8,7]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,7] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac59. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[8,6]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,6] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac60. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[8,5]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,5] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac61. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[8,4]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,4] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac62. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[8,3]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,3] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac63. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[8,2]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,2] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac64. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[8,1]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,1] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac65. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[7,21]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,21] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac66. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[7,20]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,20] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac67. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[7,19]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,19] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac68. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[7,18]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,18] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac69. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[7,17]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,17] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac70. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[7,16]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,16] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac71. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[7,15]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,15] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac72. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[7,14]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,14] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac73. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[7,13]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,13] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac74. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[7,12]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,12] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac75. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[7,11]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,11] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac76. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[7,10]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,10] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac77. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[7,9]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,9] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac78. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[7,8]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,8] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac79. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[7,7]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,7] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac80. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[7,6]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,6] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac81. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[7,5]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,5] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac82. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[7,4]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,4] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac83. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[7,3]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,3] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac84. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[7,2]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,2] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac85. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[7,1]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,1] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac86. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[6,21]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,21] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac87. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[6,20]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,20] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac88. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[6,19]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,19] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac89. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[6,18]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,18] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac90. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[6,17]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,17] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac91. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[6,16]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,16] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac92. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[6,15]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,15] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac93. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[6,14]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,14] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac94. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[6,13]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,13] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac95. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[6,12]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,12] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac96. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[6,11]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,11] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac97. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[6,10]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,10] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac98. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[6,9]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,9] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac99. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[6,8]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,8] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac100. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[6,7]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,7] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac101. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[6,6]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,6] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac102. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[6,5]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,5] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac103. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[6,4]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,4] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac104. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[6,3]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,3] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac105. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[6,2]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,2] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac106. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[6,1]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,1] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac107. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[5,21]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,21] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac108. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[5,20]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,20] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac109. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[5,19]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,19] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac110. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[5,18]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,18] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac111. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[5,17]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,17] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac112. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[5,16]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,16] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac113. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[5,15]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,15] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac114. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[5,14]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,14] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac115. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[5,13]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,13] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac116. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[5,12]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,12] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac117. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[5,11]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,11] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac118. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[5,10]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,10] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac119. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[5,9]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,9] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac120. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[5,8]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,8] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac121. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[5,7]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,7] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac122. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[5,6]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,6] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac123. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[5,5]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,5] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac124. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[5,4]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,4] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac125. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[5,3]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,3] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac126. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[5,2]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,2] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac127. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[5,1]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,1] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac128. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[4,21]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,21] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac129. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[4,20]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,20] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac130. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[4,19]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,19] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac131. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[4,18]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,18] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac132. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[4,17]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,17] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac133. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[4,16]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,16] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac134. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[4,15]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,15] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac135. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[4,14]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,14] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac136. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[4,13]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,13] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac137. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[4,12]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,12] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac138. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[4,11]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,11] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac139. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[4,10]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,10] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac140. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[4,9]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,9] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac141. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[4,8]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,8] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac142. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[4,7]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,7] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac143. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[4,6]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,6] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac144. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[4,5]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,5] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac145. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[4,4]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,4] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac146. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[4,3]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,3] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac147. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[4,2]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,2] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac148. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[4,1]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,1] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac149. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[3,21]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,21] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac150. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[3,20]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,20] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac151. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[3,19]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,19] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac152. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[3,18]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,18] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac153. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[3,17]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,17] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac154. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[3,16]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,16] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac155. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[3,15]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,15] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac156. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[3,14]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,14] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac157. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[3,13]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,13] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac158. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[3,12]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,12] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac159. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[3,11]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,11] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac160. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[3,10]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,10] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac161. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[3,9]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,9] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac162. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[3,8]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,8] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac163. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[3,7]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,7] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac164. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[3,6]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,6] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac165. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[3,5]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,5] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac166. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[3,4]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,4] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac167. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[3,3]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,3] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac168. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[3,2]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,2] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac169. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[3,1]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,1] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac170. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[2,21]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,21] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac171. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[2,20]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,20] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac172. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[2,19]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,19] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac173. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[2,18]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,18] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac174. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[2,17]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,17] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac175. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[2,16]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,16] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac176. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[2,15]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,15] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac177. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[2,14]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,14] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac178. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[2,13]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,13] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac179. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[2,12]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,12] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac180. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[2,11]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,11] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac181. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[2,10]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,10] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac182. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[2,9]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,9] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac183. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[2,8]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,8] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac184. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[2,7]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,7] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac185. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[2,6]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,6] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac186. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[2,5]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,5] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac187. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[2,4]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,4] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac188. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[2,3]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,3] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac189. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[2,2]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,2] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac190. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[2,1]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,1] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac191. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[1,21]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,21] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac192. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[1,20]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,20] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac193. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[1,19]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,19] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac194. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[1,18]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,18] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac195. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[1,17]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,17] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac196. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[1,16]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,16] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac197. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[1,15]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,15] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac198. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[1,14]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,14] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac199. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[1,13]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,13] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac200. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[1,12]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,12] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac201. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[1,11]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,11] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac202. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[1,10]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,10] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac203. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[1,9]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,9] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac204. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[1,8]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,8] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac205. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[1,7]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,7] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac206. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[1,6]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,6] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac207. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[1,5]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,5] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac208. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[1,4]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,4] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac209. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[1,3]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,3] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac210. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[1,2]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,2] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac211. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[1,1]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,1] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac215. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[10,21]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,21] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac216. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[10,20]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,20] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac217. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[10,19]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,19] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac218. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[10,18]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,18] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac219. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[10,17]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,17] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac220. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[10,16]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,16] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac221. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[10,15]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,15] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac222. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[10,14]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,14] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac223. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[10,13]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,13] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac224. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[10,12]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,12] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac225. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[10,11]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,11] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac226. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[10,10]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,10] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac227. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[10,9]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,9] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac228. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[10,8]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,8] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac229. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[10,7]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,7] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac230. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[10,6]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,6] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac231. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[10,5]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,5] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac232. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[10,4]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,4] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac233. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[10,3]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,3] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac234. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[10,2]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,2] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac235. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[10,1]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[10,1] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac236. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[9,21]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,21] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac237. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[9,20]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,20] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac238. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[9,19]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,19] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac239. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[9,18]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,18] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac240. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[9,17]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,17] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac241. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[9,16]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,16] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac242. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[9,15]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,15] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac243. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[9,14]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,14] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac244. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[9,13]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,13] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac245. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[9,12]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,12] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac246. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[9,11]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,11] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac247. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[9,10]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,10] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac248. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[9,9]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,9] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac249. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[9,8]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,8] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac250. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[9,7]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,7] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac251. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[9,6]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,6] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac252. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[9,5]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,5] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac253. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[9,4]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,4] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac254. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[9,3]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,3] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac255. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[9,2]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,2] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac256. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[9,1]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[9,1] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac257. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[8,21]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,21] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac258. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[8,20]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,20] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac259. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[8,19]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,19] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac260. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[8,18]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,18] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac261. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[8,17]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,17] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac262. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[8,16]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,16] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac263. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[8,15]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,15] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac264. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[8,14]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,14] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac265. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[8,13]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,13] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac266. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[8,12]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,12] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac267. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[8,11]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,11] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac268. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[8,10]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,10] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac269. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[8,9]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,9] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac270. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[8,8]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,8] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac271. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[8,7]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,7] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac272. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[8,6]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,6] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac273. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[8,5]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,5] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac274. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[8,4]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,4] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac275. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[8,3]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,3] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac276. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[8,2]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,2] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac277. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[8,1]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[8,1] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac278. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[7,21]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,21] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac279. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[7,20]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,20] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac280. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[7,19]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,19] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac281. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[7,18]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,18] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac282. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[7,17]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,17] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac283. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[7,16]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,16] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac284. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[7,15]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,15] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac285. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[7,14]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,14] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac286. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[7,13]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,13] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac287. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[7,12]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,12] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac288. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[7,11]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,11] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac289. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[7,10]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,10] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac290. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[7,9]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,9] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac291. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[7,8]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,8] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac292. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[7,7]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,7] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac293. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[7,6]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,6] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac294. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[7,5]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,5] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac295. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[7,4]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,4] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac296. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[7,3]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,3] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac297. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[7,2]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,2] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac298. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[7,1]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[7,1] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac299. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[6,21]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,21] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac300. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[6,20]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,20] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac301. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[6,19]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,19] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac302. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[6,18]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,18] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac303. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[6,17]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,17] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac304. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[6,16]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,16] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac305. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[6,15]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,15] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac306. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[6,14]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,14] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac307. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[6,13]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,13] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac308. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[6,12]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,12] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac309. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[6,11]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,11] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac310. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[6,10]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,10] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac311. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[6,9]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,9] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac312. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[6,8]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,8] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac313. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[6,7]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,7] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac314. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[6,6]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,6] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac315. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[6,5]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,5] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac316. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[6,4]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,4] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac317. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[6,3]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,3] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac318. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[6,2]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,2] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac319. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[6,1]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[6,1] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac320. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[5,21]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,21] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac321. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[5,20]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,20] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac322. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[5,19]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,19] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac323. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[5,18]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,18] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac324. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[5,17]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,17] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac325. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[5,16]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,16] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac326. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[5,15]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,15] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac327. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[5,14]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,14] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac328. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[5,13]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,13] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac329. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[5,12]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,12] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac330. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[5,11]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,11] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac331. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[5,10]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,10] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac332. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[5,9]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,9] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac333. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[5,8]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,8] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac334. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[5,7]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,7] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac335. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[5,6]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,6] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac336. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[5,5]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,5] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac337. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[5,4]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,4] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac338. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[5,3]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,3] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac339. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[5,2]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,2] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac340. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[5,1]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[5,1] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac341. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[4,21]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,21] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac342. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[4,20]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,20] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac343. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[4,19]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,19] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac344. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[4,18]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,18] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac345. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[4,17]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,17] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac346. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[4,16]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,16] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac347. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[4,15]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,15] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac348. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[4,14]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,14] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac349. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[4,13]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,13] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac350. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[4,12]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,12] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac351. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[4,11]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,11] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac352. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[4,10]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,10] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac353. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[4,9]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,9] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac354. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[4,8]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,8] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac355. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[4,7]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,7] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac356. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[4,6]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,6] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac357. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[4,5]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,5] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac358. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[4,4]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,4] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac359. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[4,3]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,3] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac360. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[4,2]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,2] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac361. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[4,1]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[4,1] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac362. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[3,21]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,21] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac363. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[3,20]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,20] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac364. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[3,19]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,19] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac365. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[3,18]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,18] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac366. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[3,17]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,17] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac367. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[3,16]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,16] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac368. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[3,15]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,15] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac369. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[3,14]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,14] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac370. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[3,13]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,13] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac371. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[3,12]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,12] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac372. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[3,11]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,11] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac373. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[3,10]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,10] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac374. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[3,9]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,9] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac375. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[3,8]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,8] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac376. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[3,7]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,7] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac377. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[3,6]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,6] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac378. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[3,5]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,5] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac379. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[3,4]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,4] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac380. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[3,3]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,3] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac381. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[3,2]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,2] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac382. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[3,1]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[3,1] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac383. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[2,21]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,21] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac384. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[2,20]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,20] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac385. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[2,19]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,19] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac386. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[2,18]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,18] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac387. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[2,17]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,17] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac388. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[2,16]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,16] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac389. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[2,15]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,15] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac390. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[2,14]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,14] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac391. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[2,13]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,13] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac392. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[2,12]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,12] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac393. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[2,11]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,11] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac394. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[2,10]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,10] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac395. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[2,9]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,9] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac396. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[2,8]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,8] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac397. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[2,7]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,7] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac398. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[2,6]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,6] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac399. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[2,5]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,5] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac400. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[2,4]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,4] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac401. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[2,3]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,3] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac402. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[2,2]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,2] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac403. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[2,1]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[2,1] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac404. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[1,21]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,21] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac405. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[1,20]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,20] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac406. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[1,19]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,19] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac407. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[1,18]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,18] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac408. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[1,17]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,17] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac409. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[1,16]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,16] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac410. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[1,15]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,15] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac411. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[1,14]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,14] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac412. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[1,13]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,13] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac413. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[1,12]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,12] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac414. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[1,11]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,11] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac415. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[1,10]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,10] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac416. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[1,9]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,9] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac417. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[1,8]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,8] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac418. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[1,7]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,7] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac419. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[1,6]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,6] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac420. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[1,5]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,5] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac421. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[1,4]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,4] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac422. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[1,3]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,3] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac423. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[1,2]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,2] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops") Nonlinear iteration variables with predefined start attribute in NLSJac424. (1) ======================================== 1: millBox1.centrifugalClassifier.w_prtcl_return_eff[1,1]:VARIABLE(start = millBox1.centrifugalClassifier.classifying.w_prtcl_r_rel_start[1,1] unit = "m/s" nominal = 1.0 ) type: Real [10,21] Info: Only non-linear iteration variables in non-linear eqation systems require start values. All other start values have no influence on convergence and are ignored. Use "-d=dumpLoops" to show all loops. In OMEdit Tools->Options->Simulation->Additional Translation Flags, in OMNotebook call setCommandLineOptions("-d=dumpLoops")[Calling sys.exit(0), Time elapsed: 868.419993176125]