Comparison Summary

Modelica410 with alias name: Modelica Standard Library - Version 4.1.0 Modelica400 with alias name: Modelica Standard Library - Version 4.0.0
Version: 4.1.0 Version: 4.0.0
Version date: 2025-05-23 Version date: 2020-06-04


block Blocks.Continuous.Integrator

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
k
unit="1"


block Blocks.Continuous.LimIntegrator

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
k
unit="1"


block Blocks.Continuous.Derivative

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
k
unit="1"


block Blocks.Continuous.FirstOrder

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
k
unit="1"


block Blocks.Continuous.SecondOrder

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
k
unit="1"


block Blocks.Continuous.PI

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
k
unit="1"


block Blocks.Continuous.PID

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
k
unit="1"


block Blocks.Continuous.LimPID

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
k
min=0

unit="1"


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
equation
assert(abs(k) >= Modelica410.Constants.small,
"Controller gain must be non-zero."); 		equation
if initType == Init.InitialOutput and (y_start < yMin or y_start > yMax) then
if initType == Init.InitialOutput and (y_start < yMin or y_start > yMax) then
Modelica410.Utilities.Streams.error("LimPID: Start value y_start (=" +
        String(y_start) + ") is outside of the limits of yMin (=" + String(yMin)
         + ") and yMax (=" + String(yMax) + ")");
...


block Blocks.Discrete.Sampler



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
when {sampleTrigger, initial()} then
y = if time>=startTime then u else pre(y); y = u;
end when;


block Blocks.Discrete.ZeroOrderHold



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
when {sampleTrigger, initial()} then
ySample = if time>=startTime then u else pre(ySample); ySample = u;
end when;
...


block Blocks.Math.Gain

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
k
unit="1"


block Blocks.Math.Mean

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
y0
Present


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
x = x0;
y_last = y0; y_last = 0;

...


block Blocks.Math.RectifiedMean

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
mean
final y0=y0
y0
Present


block Blocks.Math.ContinuousMean

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
t_eps
min=0
min=100*Modelica400.Constants.eps
mu
start=0
fixed=true
startTime
Present

actualStartTime
Present


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
t_0 = time;

mu = u;
equation
der(mu) = if time >= actualStartTime then u else 0; 		equation
der(mu) = noEvent(if time >= t_0 + t_eps then (u-mu)/(time-t_0) else 0);
y = noEvent(if time > actualStartTime+t_eps then mu/(time-actualStartTime) else u); y = noEvent(if time >= t_0 + t_eps then mu else u);


block Blocks.Math.RootMeanSquare

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
mean
final y0=y0^2
y0
Present


block Blocks.Math.Harmonic

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
mean1
final y0=y0Cos
mean2
final y0=y0Sin
y0Cos
Present

y0Sin
Present


block Blocks.Math.TotalHarmonicDistortion

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
harmonic
final y0Cos=0
final y0Sin=0
rootMeanSquare
final y0=0


block Blocks.Routing.Extractor



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
end when;
y = if not allowOutOfRange or index >= 1 and index <= nin then
k*u else outOfRangeValue; 		y = if not allowOutOfRange or index > 0 and index <= nin then
k*u else outOfRangeValue;
if not allowOutOfRange then
assert(index >= 1 and index <= nin,
        "The input index (=" + String(index) + ") is out of range.");
end if;


block Blocks.Sources.ContinuousClock



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
y = offset + smooth(0, (if time < startTime then 0 else time - startTime)); y = offset + (if time < startTime then 0 else time - startTime);


block Blocks.Sources.Sine

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
continuous
Present


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
if continuous then y = offset + (if time < startTime then 0 else amplitude*
Modelica400.Math.sin(2*pi*f*(time - startTime) + phase));
y = offset + amplitude*smooth(0, (if time < startTime then
        Modelica410.Math.sin(phase) else Modelica410.Math.sin(2*pi*f*(time -
        startTime) + phase)));
else
y = offset + (if time < startTime then 0 else amplitude*
        Modelica410.Math.sin(2*pi*f*(time - startTime) + phase));
end if;


block Blocks.Sources.Cosine

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
continuous
Present


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
if continuous then y = offset + (if time < startTime then 0 else amplitude*
Modelica400.Math.cos(2*pi*f*(time - startTime) + phase));
y = offset + smooth(0, amplitude*(if time < startTime then
        Modelica410.Math.cos(phase) else Modelica410.Math.cos(2*pi*f*(time -
        startTime) + phase)));
else
y = offset + (if time < startTime then 0 else amplitude*
        Modelica410.Math.cos(2*pi*f*(time - startTime) + phase));
end if;


block Blocks.Sources.Sinc

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
continuous
Present


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
if continuous then y = offset + (if time < startTime then 0 else amplitude*
(if noEvent(time - startTime < eps) then 1 else (sin(x))/x));
y = offset + amplitude*smooth(1, (if time < startTime then 1 else
        (if noEvent(time - startTime < eps) then 1 else (sin(x))/x)));
else
y = offset + (if time < startTime then 0 else amplitude*
        (if noEvent(time - startTime < eps) then 1 else (sin(x))/x));
end if;


block Blocks.Sources.Pulse



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
equation
when time >= (pre(count) + 1)*period + startTime then 		equation
when integer((time - startTime)/period) > pre(count) then
count = pre(count) + 1;
...


block Blocks.Sources.SawTooth



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
equation
when time >= (pre(count) + 1)*period + startTime then 		equation
when integer((time - startTime)/period) > pre(count) then
count = pre(count) + 1;
...


block Blocks.Sources.Trapezoid



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
equation
when time >= (pre(count) + 1)*period + startTime then 		equation
when integer((time - startTime)/period) > pre(count) then
count = pre(count) + 1;
...


block Blocks.Sources.LogFrequencySweep



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
y = if time < startTime then wMin else
if time < (startTime + max(duration,eps)) then
wMin * (wMax/wMin)^min(1, (time-startTime)/max(duration,eps))
 else
wMax; 		y = if time < startTime then wMin else
if time < (startTime + max(duration,eps)) then
10^(log10(wMin) + (log10(wMax) - log10(wMin))*min(1, (time-startTime)/max(duration,eps)))
 else
wMax;


block Blocks.Sources.TimeTable



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
if size(table, 1) > 1 then if noEvent(size(table, 1) > 1) then
assert(not (table[1, 1] > 0.0 or table[1, 1] < 0.0), "The first point in time has to be set to 0, but is table[1,1] = " + String(table[1, 1]));
...


block Blocks.Sources.CombiTimeTable

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
tableID
=Modelica410.Blocks.Types.ExternalCombiTimeTable(if tableOnFile then if isCsvExt then "Values" else tableName else "NoName", if tableOnFile and fileName <> "NoName" and not Modelica410.Utilities.Strings.isEmpty(fileName) then fileName else "NoName", table, startTime/timeScale, columns, smoothness, extrapolation, shiftTime/timeScale, if smoothness == Modelica410.Blocks.Types.Smoothness.LinearSegments then timeEvents elseif smoothness == Modelica410.Blocks.Types.Smoothness.ConstantSegments then Modelica410.Blocks.Types.TimeEvents.Always else Modelica410.Blocks.Types.TimeEvents.NoTimeEvents, if tableOnFile then verboseRead else false, delimiter, nHeaderLines)
=Modelica400.Blocks.Types.ExternalCombiTimeTable(if tableOnFile then tableName else "NoName", if tableOnFile and fileName <> "NoName" and not Modelica400.Utilities.Strings.isEmpty(fileName) then fileName else "NoName", table, startTime/timeScale, columns, smoothness, extrapolation, shiftTime/timeScale, if smoothness == Modelica400.Blocks.Types.Smoothness.LinearSegments then timeEvents elseif smoothness == Modelica400.Blocks.Types.Smoothness.ConstantSegments then Modelica400.Blocks.Types.TimeEvents.Always else Modelica400.Blocks.Types.TimeEvents.NoTimeEvents, if tableOnFile then verboseRead else false)
delimiter
Present

nHeaderLines
Present

isCsvExt
Present


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
if tableOnFile then
assert(tableName <> "NoName" or isCsvExt,
"tableOnFile = true and no table name given"); 		assert(tableName <> "NoName",
"tableOnFile = true and no table name given");
else
...
if verboseExtrapolation and (extrapolation == Modelica410.Blocks.Types.Extrapolation.LastTwoPoints
       or extrapolation == Modelica410.Blocks.Types.Extrapolation.HoldLastPoint)
       then
assert(noEvent(time >= t_min + shiftTime), "
Extrapolation warning: Time must be greater or equal
than the shifted minimum abscissa value defined in the table.
", level=AssertionLevel.warning); 		assert(noEvent(time >= t_min), "
Extrapolation warning: Time (=" + String(time) + ") must be greater or equal
than the minimum abscissa value t_min (=" + String(t_min) + ") defined in the table.
", level=AssertionLevel.warning);
assert(noEvent(time <= t_max + shiftTime), "
Extrapolation warning: Time must be less or equal
than the shifted maximum abscissa value defined in the table.
", level=AssertionLevel.warning); 		assert(noEvent(time <= t_max), "
Extrapolation warning: Time (=" + String(time) + ") must be less or equal
than the maximum abscissa value t_max (=" + String(t_max) + ") defined in the table.
", level=AssertionLevel.warning);
end if;
...


block Blocks.Tables.CombiTable1Ds

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
tableID
=Modelica410.Blocks.Types.ExternalCombiTable1D(if tableOnFile then if isCsvExt then "Values" else tableName else "NoName", if tableOnFile and fileName <> "NoName" and not Modelica410.Utilities.Strings.isEmpty(fileName) then fileName else "NoName", table, columns, smoothness, extrapolation, if tableOnFile then verboseRead else false, delimiter, nHeaderLines)
=Modelica400.Blocks.Types.ExternalCombiTable1D(if tableOnFile then tableName else "NoName", if tableOnFile and fileName <> "NoName" and not Modelica400.Utilities.Strings.isEmpty(fileName) then fileName else "NoName", table, columns, smoothness, extrapolation, if tableOnFile then verboseRead else false)
delimiter
Present

nHeaderLines
Present

isCsvExt
Present


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
if tableOnFile then
assert(tableName <> "NoName" or isCsvExt,
"tableOnFile = true and no table name given"); 		assert(tableName <> "NoName",
"tableOnFile = true and no table name given");
else
...


block Blocks.Tables.CombiTable1Dv

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
tableID
=Modelica410.Blocks.Types.ExternalCombiTable1D(if tableOnFile then if isCsvExt then "Values" else tableName else "NoName", if tableOnFile and fileName <> "NoName" and not Modelica410.Utilities.Strings.isEmpty(fileName) then fileName else "NoName", table, columns, smoothness, extrapolation, if tableOnFile then verboseRead else false, delimiter, nHeaderLines)
=Modelica400.Blocks.Types.ExternalCombiTable1D(if tableOnFile then tableName else "NoName", if tableOnFile and fileName <> "NoName" and not Modelica400.Utilities.Strings.isEmpty(fileName) then fileName else "NoName", table, columns, smoothness, extrapolation, if tableOnFile then verboseRead else false)
delimiter
Present

nHeaderLines
Present

isCsvExt
Present


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
if tableOnFile then
assert(tableName <> "NoName" or isCsvExt,
"tableOnFile = true and no table name given"); 		assert(tableName <> "NoName",
"tableOnFile = true and no table name given");
else
...


block Blocks.Tables.Internal.CombiTable2DBase

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
tableID
=Modelica410.Blocks.Types.ExternalCombiTable2D(if tableOnFile then if isCsvExt then "Values" else tableName else "NoName", if tableOnFile and fileName <> "NoName" and not Modelica410.Utilities.Strings.isEmpty(fileName) then fileName else "NoName", table, smoothness, extrapolation, if tableOnFile then verboseRead else false, delimiter, nHeaderLines)
=Modelica400.Blocks.Types.ExternalCombiTable2D(if tableOnFile then tableName else "NoName", if tableOnFile and fileName <> "NoName" and not Modelica400.Utilities.Strings.isEmpty(fileName) then fileName else "NoName", table, smoothness, extrapolation, if tableOnFile then verboseRead else false)
delimiter
Present

nHeaderLines
Present

isCsvExt
Present


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
if tableOnFile then
assert(tableName <> "NoName" or isCsvExt,
"tableOnFile = true and no table name given"); 		assert(tableName <> "NoName",
"tableOnFile = true and no table name given");
else
...


function Blocks.Tables.Internal.getTimeTableValue

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
nextTimeEvent
discrete
pre_nextTimeEvent
discrete


function Blocks.Tables.Internal.getTimeTableValueNoDer

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
nextTimeEvent
discrete
pre_nextTimeEvent
discrete


function Blocks.Tables.Internal.getTimeTableValueNoDer2

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
nextTimeEvent
discrete
pre_nextTimeEvent
discrete


function Blocks.Tables.Internal.getDerTimeTableValue

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
nextTimeEvent
discrete
pre_nextTimeEvent
discrete


function Blocks.Tables.Internal.getDerTimeTableValueNoDer

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
nextTimeEvent
discrete
pre_nextTimeEvent
discrete


function Blocks.Tables.Internal.getDer2TimeTableValue

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
nextTimeEvent
discrete
pre_nextTimeEvent
discrete


model ComplexBlocks.Examples.ShowTransferFunction

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
d
Units.SI.TranslationalDampingConstant
Real
b
={-m/oneUnitMass}
={1}
a
={m/oneUnitMass,d/oneUnitDampingConstant,c/oneUnitSpringConstant}
={1,2*d,1}
transferFunction
final b=b
final a=a

b=b

a=a
m
Present

c
Present

oneUnitMass
Present

oneUnitDampingConstant
Present

oneUnitSpringConstant
Present


block ComplexBlocks.ComplexMath.ComplexToPolar



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
len = sqrt(u.re^2 + u.im^2); len = (u.re^2 + u.im^2)^0.5;
phi = (if useConjugateInput then Modelica410.Math.atan2(-u.im, u.re) else
    Modelica410.Math.atan2(u.im, u.re));


block ComplexBlocks.ComplexMath.TransferFunction



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
bw = {b[i]*(w)^(size(b,1)-i)*powerOfJ(size(b,1)-i) for i in 1:size(b,1)}; bw = {b[i]*(j*w)^(i-1) for i in 1:size(b,1)};
aw = {a[i]*(w)^(size(a,1)-i)*powerOfJ(size(a,1)-i) for i in 1:size(a,1)}; aw = {a[i]*(j*w)^(i-1) for i in 1:size(a,1)};
bSum = Complex(sum(bw.re), sum(bw.im));
...


block ComplexBlocks.Sources.ComplexRampPhasor



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
assert(not useLogRamp or (magnitude1>eps and magnitude2>eps),
    "ComplexRampPhasor: magnitude1 and magnitude2 have to be greater than eps, if useLogRamp = true");
magnitude = if not useLogRamp then
magnitude1 + (if time < startTime then
0 else
if time < (startTime + duration) then
(time - startTime)*(magnitude2-magnitude1)/duration
 else
magnitude2-magnitude1)
else
if time < startTime then magnitude1 else
if time < (startTime + duration) then
10^(log10(magnitude1) + (log10(magnitude2) - log10(magnitude1))*min(1, (time-startTime)/duration))
 else
magnitude2; 		magnitude = if not useLogRamp then
magnitude1 + (if time < startTime then
0 else
if time < (startTime + max(duration,eps)) then
(time - startTime)*(magnitude2-magnitude1)/max(duration,eps)
 else
magnitude2-magnitude1)
else
if time < startTime then magnitude1 else
if time < (startTime + max(duration,eps)) then
10^(log10(magnitude1) + (log10(magnitude2) - log10(magnitude1))*min(1, (time-startTime)/max(duration,eps)))
 else
magnitude2;
y = magnitude*Modelica410.ComplexMath.exp(Complex(0, phi));


model Clocked.Examples.Elementary.RealSignals.SampleWithADeffects

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
sample1
redeclare Modelica410.Clocked.RealSignals.Sampler.Utilities.Internal.UniformNoise noise(noiseMax=0.2)

redeclare Modelica400.Clocked.RealSignals.Sampler.Utilities.Internal.UniformNoise noise(noiseMax=0.2)


model Clocked.ClockSignals.Clocks.Rotational.FixedRotationalClock

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
rotationalClock
useSolver=useSolver
solverMethod=solverMethod


block Clocked.ClockSignals.Clocks.Logical.PartialLogicalClock

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
clock
useSolver=useSolver
solverMethod=solverMethod


block Clocked.RealSignals.Sampler.Utilities.Internal.UniformNoise

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
noiseMax

Present
noiseMin

Present


block Clocked.RealSignals.Sampler.Utilities.Internal.UniformNoiseXorshift64star

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
noiseMax

Present
noiseMin

Present


block Clocked.RealSignals.Interfaces.PartialNoise

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
noiseMax
Present

noiseMin
Present


model StateGraph.Examples.Utilities.Tank

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
A
Units.SI.Area
Real
a
Units.SI.Area
Real
hmax
Units.SI.Height
Real


model Electrical.Analog.Examples.OpAmps.SignalGenerator

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
opAmp1
homotopyType=Modelica410.Blocks.Types.LimiterHomotopy.LowerLimit
homotopyType=Modelica400.Blocks.Types.LimiterHomotopy.UpperLimit


model Electrical.Analog.Examples.Utilities.SwitchedCapacitor



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
connect(IdealCommutingSwitch2.n1, n);

connect(p, p);
connect(Resistance.y, lessEqualThreshold.u);
...


model Electrical.Analog.Lines.OLine

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
v
Present

i
Present


model Electrical.Analog.Lines.M_OLine

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
useInternalGround
Present

refPin
Present



ground
Present


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
connect(s_last.n, n);
connect(s_first.refPin, refPin);
connect(s_first.refPin, ground.p);
for i in 1:N-1 loop
connect(s[i].refPin, refPin);
connect(s[i].refPin, ground.p);
end for;
if useHeatPort then
...


model Electrical.Analog.Lines.ULine

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
R
protected
C
protected


model Electrical.Analog.Lines.TLine1

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
es
protected
start=0
er
protected
start=0


model Electrical.Analog.Lines.TLine2

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
es
protected
start=0
er
protected
start=0


model Electrical.Analog.Lines.TLine3

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
es
protected
start=0
er
protected
start=0


model Electrical.Analog.Semiconductors.Thyristor

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
vRef
Present


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
iGK = Gate.i;
vGK = smooth(0,(if vGK < vRef then VGT/IGT*iGK else
vRef^2/VGT+iGK*(VGT-vRef)/IGT)); 		vGK = smooth(0,(if vGK < 0.65 then VGT/IGT*iGK else
0.65^2/VGT+iGK*(VGT-0.65)/IGT));
vContot = vConmain + smooth(0, if iGK < 0.95 * IGT then 0 else if iGK < 0.95*IGT + 1e-3 then 10000*(iGK-0.95*IGT)*vAK else 10* vAK);
...


model Electrical.Digital.Examples.Utilities.RS

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
TD1
final delayTime=delayTime
final y0=q0

delayTime=delayTime

y0=q0


model Electrical.Digital.Examples.Utilities.RSFF

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
RS1
final delayTime=delayTime
final q0=q0

delayTime=delayTime

q0=q0


model Electrical.Digital.Examples.Utilities.DFF

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
RSFF1
final delayTime=delayTime
final q0=q0
delayTime
Present

q0
Present

Tdel

Present
QInit

Present


model Electrical.Digital.Examples.Utilities.JKFF

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
RS1
final delayTime=delayTime
final q0=q0

delayTime=delayTime

q0=q0
RS2
final delayTime=delayTime
final q0=q0

delayTime=delayTime

q0=q0


model Electrical.Batteries.Examples.BatteryDischargeCharge

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
cellData1
Ri=cellData1.OCVmax/Isc
Ri=cellData1.OCVmax/1200
cellData2
Ri=cellData2.OCVmax/Isc
Ri=cellData2.OCVmax/1200
Isc
Present


model Electrical.Batteries.Examples.CCCVcharging

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
cellData
Ri=cellData.OCVmax/Isc
Ri=cellData.OCVmax/1200
Isc
Present


model Electrical.Batteries.Examples.CCCV_Cell

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
cellData
Ri=cellData.OCVmax/Isc
Ri=4.2/1200
Isc
Present


model Electrical.Batteries.Examples.CCCV_CellRC

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
cellData
Ri=cellData.OCVmax/Isc
Ri=4.2/1200
Isc
Present


model Electrical.Batteries.Examples.CCCV_Stack

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
cellDataOriginal
Ri=cellDataOriginal.OCVmax/Isc
Ri=4.2/1200
cellDataDegraded
Ri=2*cellDataDegraded.OCVmax/Isc
Ri=2*4.2/1200
Isc
Present


model Electrical.Batteries.Examples.CCCV_StackRC

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
cellDataOriginal
Ri=cellDataOriginal.OCVmax/Isc
Ri=4.2/1200
cellDataDegraded
Ri=2*cellDataDegraded.OCVmax/Isc
Ri=2*4.2/1200
Isc
Present


block Electrical.Batteries.Utilities.PulseSeries



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
on1 = oneTrue({time >= Tstart1[k] and time < Tstart1[k] + T1 for k in 1:n1});
on2 = oneTrue({time >= Tstart2[k] and time < Tstart2[k] + T2 for k in 1:n2}); on2 = oneTrue({time >= Tstart2[k] and time < Tstart2[k] + T2 for k in 1:n1});
y= offset + (if on1 then amplitude1 elseif on2 then amplitude2 else 0);


model Electrical.Machines.Examples.InductionMachines.IMC_Conveyor

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
gain
k=fNominal
k=fNominal/unitFrequency


model Electrical.Machines.Examples.InductionMachines.IMC_InverterDrive

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
rectifier
RonDiode=1e-4
GoffDiode=1e-4
inverter
RonTransistor=1e-4
GoffTransistor=1e-4
RonDiode=1e-4
GoffDiode=1e-4


model Electrical.Machines.Examples.SynchronousMachines.SMPM_NoLoad

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
speed
Present



ramp
Present



constantSpeed

Present


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
connect(potentialSensor.phi, toSpacePhasor.u);
connect(speed.flange, smpm.flange); connect(constantSpeed.flange, smpm.flange);
connect(smpm.flange, hallSensor.flange);
...
connect(toPolar.y[2], toDeg.u);
connect(ramp.y, speed.w_ref);


model Electrical.Machines.Examples.SynchronousMachines.SMPM_Braking

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
diodeBridge2mPulse
RonDiode=1e-4
GoffDiode=1e-4
gain
k=R/wNominal
k=unitK*R/wNominal


model Electrical.Machines.Examples.SynchronousMachines.SMEE_LoadDump

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
setPointGain
k=(smeeData.VsNominal/wNominal)
k=(smeeData.VsNominal/wNominal)/unitMagneticFlux


model Electrical.Machines.Examples.ControlledDCDrives.Utilities.PartialControlledDCPM

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
constantVoltage
Present



resistor
Present



ground
Present



source

Present


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
connect(tau2i.y, currentController.u);
connect(ground.p, constantVoltage.n); connect(source.pin_n, armatureInverter.pin_nBat);
connect(constantVoltage.n, armatureInverter.pin_nBat); connect(source.pin_p, armatureInverter.pin_pBat);
connect(constantVoltage.p, resistor.p);
connect(resistor.n, armatureInverter.pin_pBat);


block Electrical.Machines.Examples.ControlledDCDrives.Utilities.LimitedPI

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
k
unit="1"
KFF
unit="1"


model Electrical.Machines.Examples.ControlledDCDrives.Utilities.DcdcInverter

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
iDCFilter
y_start=0
y_start=VMax


model Electrical.Machines.Examples.ControlledDCDrives.Utilities.IdealDcDc

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
powerController
k=1/Ti/unitVoltage
k=1/Ti
unitVoltage
Present


model Electrical.Machines.BasicMachines.InductionMachines.IM_SquirrelCage

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
Lm
start=3*ZsRef*sqrt(1 - 0.0667)/(2*pi*fsNominal)
start=3*sqrt(1 - 0.0667)/(2*pi*fsNominal)
Lrsigma
start=3*ZsRef*(1 - sqrt(1 - 0.0667))/(2*pi*fsNominal)
start=3*(1 - sqrt(1 - 0.0667))/(2*pi*fsNominal)
Rr
start=0.04*ZsRef
start=0.04


model Electrical.Machines.BasicMachines.InductionMachines.IM_SlipRing

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
Lm
start=3*ZsRef*sqrt(1 - 0.0667)/(2*pi*fsNominal)
start=3*sqrt(1 - 0.0667)/(2*pi*fsNominal)
Lrsigma
start=3*ZsRef*(1 - sqrt(1 - 0.0667))/(2*pi*fsNominal)
start=3*(1 - sqrt(1 - 0.0667))/(2*pi*fsNominal)
Rr
start=0.04*ZsRef
start=0.04


model Electrical.Machines.BasicMachines.SynchronousMachines.SM_PermanentMagnet

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
Lmd
start=0.3*ZsRef/(2*pi*fsNominal)
start=0.3/(2*pi*fsNominal)
Lmq
start=0.3*ZsRef/(2*pi*fsNominal)
start=0.3/(2*pi*fsNominal)
Lrsigmad
start=0.05*ZsRef/(2*pi*fsNominal)
start=0.05/(2*pi*fsNominal)
Rrd
start=0.04*ZsRef
start=0.04


model Electrical.Machines.BasicMachines.SynchronousMachines.SM_ElectricalExcited

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
Lmd
start=1.5*ZsRef/(2*pi*fsNominal)
start=1.5/(2*pi*fsNominal)
Lmq
start=1.5*ZsRef/(2*pi*fsNominal)
start=1.5/(2*pi*fsNominal)
Lrsigmad
start=0.05*ZsRef/(2*pi*fsNominal)
start=0.05/(2*pi*fsNominal)
Rrd
start=0.04*ZsRef
start=0.04


model Electrical.Machines.BasicMachines.SynchronousMachines.SM_ReluctanceRotor

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
Lmd
start=2.9*ZsRef/(2*pi*fsNominal)
start=2.9/(2*pi*fsNominal)
Lmq
start=0.9*ZsRef/(2*pi*fsNominal)
start=0.9/(2*pi*fsNominal)
Lrsigmad
start=0.05*ZsRef/(2*pi*fsNominal)
start=0.05/(2*pi*fsNominal)
Rrd
start=0.04*ZsRef
start=0.04


model Electrical.Machines.Sensors.HallSensor



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
flange.tau=0;
y=mod((flange.phi - phi_support - phi0)*p, 2*pi); y=rem((flange.phi - phi_support - phi0)*p, 2*pi);


function Electrical.Machines.SpacePhasors.Functions.ToSpacePhasor

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
m
parameter
phi
parameter
TransformationMatrix
parameter
InverseTransformation

Present


function Electrical.Machines.SpacePhasors.Functions.FromSpacePhasor

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
phi
parameter
InverseTransformation
parameter
TransformationMatrix

Present


model Electrical.Machines.Interfaces.PartialBasicInductionMachine

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
Rs
start=0.03*ZsRef
start=0.03
Lssigma
start=3*ZsRef*(1 - sqrt(1 - 0.0667))/(2*pi*fsNominal)
start=3*(1 - sqrt(1 - 0.0667))/(2*pi*fsNominal)
ZsRef
Present


record Electrical.Machines.Utilities.ParameterRecords.InductionMachineData

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
statorCoreParameters
m=m

final m=m
ratioCommonStatorLeakage
Present


record Electrical.Machines.Utilities.ParameterRecords.IM_SlipRingData

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
rotorCoreParameters
m=m

final m=3
ratioCommonRotorLeakage
Present


record Electrical.Machines.Utilities.SynchronousMachineData

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
ratioCommonStatorLeakage
Present


model Electrical.Polyphase.Basic.Resistor

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
resistor
final T=T


model Electrical.Polyphase.Basic.Conductor

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
conductor
final T=T


model Electrical.Polyphase.Basic.VariableResistor

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
variableResistor
final T=T


model Electrical.Polyphase.Basic.VariableConductor

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
variableConductor
final T=T


function Electrical.Polyphase.Functions.factorY2D

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
mBasic
parameter


function Electrical.Polyphase.Functions.factorY2DC

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
mBasic
parameter


block Electrical.PowerConverters.DCAC.Control.SVPWM

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
t0
start=1
start=samplePeriod


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
uRef= min(sqrt(u[1]^2 + u[2]^2)/(2/3*uMax), cos(pi/6));
phiRef= if uRef < small then 0 else atan2(u[2], u[1]); phiRef= if noEvent(uRef < small) then 0 else atan2(u[2], u[1]);
phiPos = max(0, phiRef + (if phiRef < -2*pi*Modelica410.Constants.eps
 then 2*pi else 0)); 		phiPos= max(phiRef + (if phiRef < -eps then 2*pi else 0), 0);
ka= min(integer(phiPos/(pi/m)), 2*m-1); ka= integer(phiPos/(pi/m));
kb= mod(ka+1, 2*m); kb= if noEvent(ka >= 5) then 0 else ka + 1;
phiSec= phiPos - ka*pi/m;
...
fire_p= fill(true, m);
elseif time < T0 + samplePeriod * (t0/4) then elseif (time - T0)/samplePeriod < (t0/4) then
fire_p= fill(false, m);
elseif time < T0 + samplePeriod * (t0/4 + ta/2) then elseif (time - T0)/samplePeriod < (t0/4 + ta/2) then
fire_p= fire[ka + 1, :];
elseif time < T0 + samplePeriod * (t0/4 + ta/2 + tb/2) then elseif (time - T0)/samplePeriod < (t0/4 + ta/2 + tb/2) then
fire_p= fire[kb + 1, :];
elseif time < T0 + samplePeriod * (t0/4 + ta/2 + tb/2 + t0/2) then elseif (time - T0)/samplePeriod < (t0/4 + ta/2 + tb/2 + t0/4) then
fire_p= fill(true, m);
elseif time < T0 + samplePeriod * (t0/4 + ta/2 + tb/2 + t0/2 + tb/2) then elseif (time - T0)/samplePeriod < (t0/4 + ta/2 + tb/2 + t0/4 + tb/2) then
fire_p= fire[kb + 1, :];
elseif time < T0 + samplePeriod * (t0/4 + ta/2 + tb/2 + t0/2 + tb/2 + ta/2) then elseif (time - T0)/samplePeriod < (t0/4 + ta/2 + tb/2 + t0/4 + tb/2 + ta/2) then
fire_p= fire[ka + 1, :];
...


block Electrical.PowerConverters.DCAC.Control.IntersectivePWM

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
fromSpacePhasor
final m=m
zero
final k=0

k=0
sawTooth
each final nperiod=-1
each final amplitude=uMax
each final offset=-uMax/2
each final period=1/f
final startTime={startTime - 1.5 + (if refType == ReferenceType.Sawtooth1 then 0 else k)/m for k in 0:m - 1}/f

each nperiod=-1

each amplitude=uMax

each offset=-uMax/2

each period=1/f

startTime={startTime - 1.5 + (if refType == ReferenceType.Sawtooth1 then 0 else k)/m for k in 0:m - 1}/f
trapezoid
each final amplitude=uMax
each final width=0
each final nperiod=-1
each final offset=-uMax/2
each final rising=0.5/f
each final falling=0.5/f
each final period=1/f
final startTime={startTime - 1.25 + (if refType == ReferenceType.Triangle1 then 0 else k)/m for k in 0:m - 1}/f

each amplitude=uMax

each width=0

each nperiod=-1

each offset=-uMax/2

each rising=0.5/f

each falling=0.5/f

each period=1/f

startTime={startTime - 1.25 + (if refType == ReferenceType.Triangle1 then 0 else k)/m for k in 0:m - 1}/f


model Electrical.PowerConverters.DCDC.Control.SignalPWM

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
refType
Present

commonComparison
Present

triangle
Present



greaterEqual_p
Present



add
Present



constOne
Present



greaterEqual_n
Present



greaterEqual

Present


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
connect(limiter.y, zeroOrderHold.u);
connect(zeroOrderHold.y, add.u1); connect(zeroOrderHold.y, greaterEqual.u2);
connect(constOne.y, add.u2); connect(sawtooth.y, greaterEqual.u1);
connect(zeroOrderHold.y, greaterEqual_p.u1); connect(greaterEqual.y, inverse.u);
connect(add.y, greaterEqual_n.u1); connect(greaterEqual.y, fire);
connect(greaterEqual_p.y, fire); connect(inverse.y, notFire);
connect(greaterEqual_n.y, notFire);
connect(greaterEqual_p.y, inverse.u);
connect(inverse.y, notFire);
connect(triangle.y, greaterEqual_p.u2);
connect(triangle.y, greaterEqual_n.u2);
connect(greaterEqual_n.u2, sawtooth.y);
connect(greaterEqual_p.u2, sawtooth.y);


model Electrical.PowerConverters.DCDC.HBridge

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
not_p
Present



not_n
Present


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
connect(inverter_n.ac, dc_n2);

connect(andCondition_n.y, inverter_p.fire_n);
connect(andCondition_n.y, inverter_n.fire_p);
connect(andCondition_p.y, inverter_n.fire_n);
connect(andCondition_p.y, inverter_p.fire_p);
connect(andCondition_n.y, inverter_n.fire_p);
connect(not_p.y, inverter_p.fire_n);
connect(andCondition_p.y, not_p.u);
connect(andCondition_n.y, not_n.u);
connect(not_n.y, inverter_n.fire_n);


model Electrical.QuasiStatic.SinglePhase.Sensors.MultiSensor

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
i
redeclare final SI.Current re
redeclare final SI.Current im
redeclare final SI.Current im
v
redeclare final SI.Voltage re
redeclare final SI.Voltage im
redeclare final SI.Voltage im
apparentPower
redeclare final SI.ActivePower re
redeclare final SI.ReactivePower im
redeclare final SI.ReactivePower im


model Electrical.QuasiStatic.Polyphase.Sensors.VoltageSensor

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
v
redeclare each final SI.Voltage re
redeclare each final SI.Voltage im
redeclare each final SI.Voltage im


model Electrical.QuasiStatic.Polyphase.Sensors.CurrentSensor

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
i
redeclare each final SI.Current re
redeclare each final SI.Current im
redeclare each final SI.Current im


model Electrical.QuasiStatic.Polyphase.Sensors.MultiSensor

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
i
redeclare each final SI.Current re
redeclare each final SI.Current im
redeclare each final SI.Current im
v
redeclare each final SI.Voltage re
redeclare each final SI.Voltage im
redeclare each final SI.Voltage im
apparentPower
redeclare each final SI.ActivePower re
redeclare each final SI.ReactivePower im
redeclare each final SI.ReactivePower im
apparentPowerTotal
redeclare final SI.ActivePower re
redeclare final SI.ReactivePower im
redeclare final SI.ReactivePower im


model Electrical.QuasiStatic.Polyphase.Sources.FrequencySweepVoltageSource

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
m

Present


model Electrical.QuasiStatic.Polyphase.Sources.FrequencySweepCurrentSource

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
m

Present


function Electrical.Spice3.Internal.Jfet.jfetNoBypassCode



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
elseif (
    Modelica410.Electrical.Spice3.Internal.SpiceRoot.initJunctionVoltagesRevised())
     then
if int_f.m_off then if (int_f.m_off == true) then
int_f.m_vgs = 0;
...
elseif (
    Modelica410.Electrical.Spice3.Internal.SpiceRoot.initJunctionVoltagesRevised())
     then
if int_f.m_off then if (int_f.m_off == true) then
int_f.m_vgd = 0;
...


model Magnetic.FluxTubes.Examples.MovingCoilActuator.ArmatureStroke

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
pmSource
V=pmActuator.R*steadyStateCurrent
V=pmActuator.R*1.5
cSource
V=cActuator.R*steadyStateCurrent
V=cActuator.R*1.5
steadyStateCurrent
Present


model Magnetic.FluxTubes.Examples.MovingCoilActuator.Components.ConstantActuator



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
connect(electroTranslationalConverter.flange, armature.flange_a);

connect(p, p);


model Magnetic.FluxTubes.Shapes.FixedShape.GenericFluxTube



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
A = area;
G_m = mu_0*mu_r*A/l; G_m = (mu_0*mu_r*A)/l;


model Magnetic.FluxTubes.Shapes.FixedShape.Cuboid



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
A = a*b;
G_m = mu_0*mu_r*A/l; G_m = (mu_0*mu_r*A)/l;


model Magnetic.FluxTubes.Shapes.FixedShape.HollowCylinderAxialFlux

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
alpha
Present


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
A = (r_o^2 - r_i^2)*alpha/2; A = pi*(r_o^2 - r_i^2);
G_m = mu_0*mu_r*A/l; G_m = (mu_0*mu_r*A)/l;


model Magnetic.FluxTubes.Shapes.FixedShape.HollowCylinderRadialFlux

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
alpha
Present


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
A = l*alpha*(r_o + r_i)/2; A = l*pi*(r_o + r_i);
G_m = mu_0*mu_r*alpha*l/Modelica410.Math.log(r_o/r_i); G_m = 2*pi*mu_0*mu_r*l/Modelica400.Math.log(r_o/r_i);


model Magnetic.FluxTubes.Shapes.FixedShape.HollowCylinderCircumferentialFlux



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
A = (r_o - r_i)*l; A = l*(r_o - r_i) "Area at arithmetic mean radius for calculation of average flux density";
G_m = mu_0*mu_r*A/((r_o + r_i)/2*alpha);


model Magnetic.FluxTubes.Shapes.HysteresisAndMagnets.GenericHystTellinenSoft



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
hystR = Js*tanh(M*Hstat - H0) + mu0*Hstat - eps/2; hystR = Js*tanh((M*Hstat - H0)/unitH) + mu0*Hstat - eps/2;
hystF = Js*tanh(M*Hstat + H0) + mu0*Hstat + eps/2; hystF = Js*tanh((M*Hstat + H0)/unitH) + mu0*Hstat + eps/2;


model Magnetic.FluxTubes.Shapes.HysteresisAndMagnets.GenericHystTellinenHard

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
M
final unit="m/A"
H0
Real
Units.SI.MagneticFieldStrength


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
tanhR = tanh(M*H - H0); tanhR = tanh((M*H - H0)/unitH);
tanhF = tanh(M*H + H0); tanhF = tanh((M*H + H0)/unitH);
hystR = Br*tanhR + mu0*H - eps/2;
...


model Magnetic.FluxTubes.Shapes.HysteresisAndMagnets.GenericHystTellinenPermanentMagnet

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
M
final unit="m/A"
final unit="1"
=10/Hc
=unitH*10/Hc
H0
Real
Units.SI.MagneticFieldStrength


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
hystR = Br*tanh((M*H - H0)) + mu0*H - eps/2; hystR = Br*tanh((M*H - H0)/unitH) + mu0*H - eps/2;
hystF = Br*tanh((M*H + H0)) + mu0*H + eps/2; hystF = Br*tanh((M*H + H0)/unitH) + mu0*H + eps/2;


record Magnetic.FluxTubes.Material.SoftMagnetic.BaseData

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
label
Present


model Magnetic.FundamentalWave.Examples.Components.PolyphaseInductance

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
reluctance_m
R_m(d=R_mm, q=R_mm)
R_m(d=R_m, q=R_m)
R_ms
Present

R_mm
Present

ground_s
Present



star_s
Present



voltageSource_s
Present



resistor_s
Present



plugToPins_p
Present



plugToPins_n
Present



converter_s
Present



reluctance_s
Present



groundM_s
Present



R_m

Present


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
resistor_e.i = zeros(m);
resistor_s.i[1:m] = zeros(m);
resistor_m.i[1:2] = zeros(2);
...
connect(star_e.pin_n, ground_e.p);
connect(voltageSource_s.plug_n, star_s.plug_p); connect(star_m.pin_n, ground_m.p);
connect(star_s.pin_n, ground_s.p);
connect(star_m.pin_n, ground_m.p);
connect(converter_s.port_n, reluctance_s.port_n);
connect(plugToPins_n.pin_n, converter_s.pin_n);
connect(voltageSource_s.plug_n, plugToPins_n.plug_n);
connect(converter_s.port_n, groundM_s.port_p);
connect(voltageSource_s.plug_p, resistor_s.plug_p);
connect(resistor_s.plug_n, plugToPins_p.plug_p);
connect(plugToPins_p.pin_p, converter_s.pin_p);
connect(converter_s.port_p, reluctance_s.port_p);


model Magnetic.FundamentalWave.Examples.BasicMachines.InductionMachines.ComparisonPolyphase.IMC_DOL_Polyphase

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
fNominal
=aimcData3.fsNominal
=aimcData.fsNominal
aimcM
Jr=aimcDataM.Jr
Jr=aimcData.Jr
Js=aimcData3.Js
Js=aimcData.Js
p=aimcDataM.p
p=aimcData.p
fsNominal=aimcDataM.fsNominal
fsNominal=aimcData.fsNominal
TsRef=aimcDataM.TsRef
TsRef=aimcData.TsRef
alpha20s(displayUnit="1/K") = aimcDataM.alpha20s
alpha20s(displayUnit="1/K") = aimcData.alpha20s
frictionParameters=aimcDataM.frictionParameters
frictionParameters=aimcData.frictionParameters
statorCoreParameters=aimcDataM.statorCoreParameters
statorCoreParameters=aimcData.statorCoreParameters
strayLoadParameters=aimcDataM.strayLoadParameters
strayLoadParameters=aimcData.strayLoadParameters
TrRef=aimcDataM.TrRef
TrRef=aimcData.TrRef
alpha20r(displayUnit="1/K") = aimcData3.alpha20r
alpha20r(displayUnit="1/K") = aimcData.alpha20r
Rs=aimcDataM.Rs
Rs=aimcData.Rs*m/3
Lssigma=aimcDataM.Lssigma
Lssigma=aimcData.Lssigma*m/3
Lszero=aimcDataM.Lszero
Lszero=aimcData.Lszero*m/3
Lm=aimcDataM.Lm
Lm=aimcData.Lm*m/3
Lrsigma=aimcDataM.Lrsigma
Lrsigma=aimcData.Lrsigma*m/3
Rr=aimcDataM.Rr
Rr=aimcData.Rr*m/3
effectiveStatorTurns=aimcDataM.effectiveStatorTurns
effectiveStatorTurns=aimcData.effectiveStatorTurns
ratioCommonStatorLeakage=aimcDataM.ratioCommonStatorLeakage
aimc3
Jr=aimcData3.Jr
Jr=aimcData.Jr
Js=aimcData3.Js
Js=aimcData.Js
p=aimcData3.p
p=aimcData.p
fsNominal=aimcData3.fsNominal
fsNominal=aimcData.fsNominal
Rs=aimcData3.Rs
Rs=aimcData.Rs
TsRef=aimcData3.TsRef
TsRef=aimcData.TsRef
alpha20s(displayUnit="1/K") = aimcData3.alpha20s
alpha20s(displayUnit="1/K") = aimcData.alpha20s
Lssigma=aimcData3.Lssigma
Lssigma=aimcData.Lssigma
Lszero=aimcData3.Lszero
Lszero=aimcData.Lszero
frictionParameters=aimcData3.frictionParameters
frictionParameters=aimcData.frictionParameters
statorCoreParameters=aimcData3.statorCoreParameters
statorCoreParameters=aimcData.statorCoreParameters
strayLoadParameters=aimcData3.strayLoadParameters
strayLoadParameters=aimcData.strayLoadParameters
Lm=aimcData3.Lm
Lm=aimcData.Lm
Lrsigma=aimcData3.Lrsigma
Lrsigma=aimcData.Lrsigma
Rr=aimcData3.Rr
Rr=aimcData.Rr
TrRef=aimcData3.TrRef
TrRef=aimcData.TrRef
alpha20r(displayUnit="1/K") = aimcData3.alpha20r
alpha20r(displayUnit="1/K") = aimcData.alpha20r
effectiveStatorTurns=aimcData3.effectiveStatorTurns
effectiveStatorTurns=aimcData.effectiveStatorTurns
ratioCommonStatorLeakage=aimcData3.ratioCommonStatorLeakage
aimcData3
Present



aimcDataM
Present



aimcData

Present


model Magnetic.FundamentalWave.Examples.BasicMachines.InductionMachines.ComparisonPolyphase.IMS_Start_Polyphase

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
fNominal
=aimsData3.fsNominal
=aimsData.fsNominal
RStart
=0.16/aimsData3.turnsRatio^2
=0.16/aimsData.turnsRatio^2
aimsM
Jr=aimsData3.Jr
Jr=aimsData.Jr
Js=aimsData3.Js
Js=aimsData.Js
p=aimsData3.p
p=aimsData.p
fsNominal=aimsData3.fsNominal
fsNominal=aimsData.fsNominal
TsRef=aimsData3.TsRef
TsRef=aimsData.TsRef
alpha20s(displayUnit="1/K") = aimsData3.alpha20s
alpha20s(displayUnit="1/K") = aimsData.alpha20s
frictionParameters=aimsDataM.frictionParameters
frictionParameters=aimsData.frictionParameters
statorCoreParameters=aimsDataM.statorCoreParameters
statorCoreParameters=aimsData.statorCoreParameters
strayLoadParameters=aimsDataM.strayLoadParameters
strayLoadParameters=aimsData.strayLoadParameters
TrRef=aimsData3.TrRef
TrRef=aimsData.TrRef
alpha20r(displayUnit="1/K") = aimsData3.alpha20r
alpha20r(displayUnit="1/K") = aimsData.alpha20r
useTurnsRatio=aimsData3.useTurnsRatio
useTurnsRatio=aimsData.useTurnsRatio
VsNominal=aimsData3.VsNominal
VsNominal=aimsData.VsNominal
VrLockedRotor=aimsData3.VrLockedRotor
VrLockedRotor=aimsData.VrLockedRotor
rotorCoreParameters=aimsDataM.rotorCoreParameters
rotorCoreParameters=aimsData.rotorCoreParameters
TurnsRatio=aimsData3.turnsRatio
TurnsRatio=aimsData.turnsRatio
Rs=aimsData3.Rs*m/3
Rs=aimsData.Rs*m/3
Lssigma=aimsData3.Lssigma*m/3
Lssigma=aimsData.Lssigma*m/3
Lszero=aimsData3.Lszero*m/3
Lszero=aimsData.Lszero*m/3
Lm=aimsData3.Lm*m/3
Lm=aimsData.Lm*m/3
Lrsigma=aimsData3.Lrsigma*mr/3
Lrsigma=aimsData.Lrsigma*mr/3
Lrzero=aimsData3.Lrzero*mr/3
Lrzero=aimsData.Lrzero*mr/3
Rr=aimsData3.Rr*mr/3
Rr=aimsData.Rr*mr/3
effectiveStatorTurns=aimsData3.effectiveStatorTurns
effectiveStatorTurns=aimsData.effectiveStatorTurns
ratioCommonStatorLeakage=aimsData3.ratioCommonStatorLeakage
ratioCommonRotorLeakage=aimsData3.ratioCommonRotorLeakage
aims3
p=aimsData3.p
p=aimsData.p
fsNominal=aimsData3.fsNominal
fsNominal=aimsData.fsNominal
Rs=aimsData3.Rs
Rs=aimsData.Rs
TsRef=aimsData3.TsRef
TsRef=aimsData.TsRef
alpha20s(displayUnit="1/K") = aimsData3.alpha20s
alpha20s(displayUnit="1/K") = aimsData.alpha20s
Lszero=aimsData3.Lszero
Lszero=aimsData.Lszero
Lssigma=aimsData3.Lssigma
Lssigma=aimsData.Lssigma
Jr=aimsData3.Jr
Jr=aimsData.Jr
Js=aimsData3.Js
Js=aimsData.Js
frictionParameters=aimsData3.frictionParameters
frictionParameters=aimsData.frictionParameters
statorCoreParameters=aimsData3.statorCoreParameters
statorCoreParameters=aimsData.statorCoreParameters
strayLoadParameters=aimsData3.strayLoadParameters
strayLoadParameters=aimsData.strayLoadParameters
Lm=aimsData3.Lm
Lm=aimsData.Lm
Lrsigma=aimsData3.Lrsigma
Lrsigma=aimsData.Lrsigma
Lrzero=aimsData3.Lrzero
Lrzero=aimsData.Lrzero
Rr=aimsData3.Rr
Rr=aimsData.Rr
TrRef=aimsData3.TrRef
TrRef=aimsData.TrRef
alpha20r(displayUnit="1/K") = aimsData3.alpha20r
alpha20r(displayUnit="1/K") = aimsData.alpha20r
useTurnsRatio=aimsData3.useTurnsRatio
useTurnsRatio=aimsData.useTurnsRatio
VsNominal=aimsData3.VsNominal
VsNominal=aimsData.VsNominal
VrLockedRotor=aimsData3.VrLockedRotor
VrLockedRotor=aimsData.VrLockedRotor
rotorCoreParameters=aimsData3.rotorCoreParameters
rotorCoreParameters=aimsData.rotorCoreParameters
TurnsRatio=aimsData3.turnsRatio
TurnsRatio=aimsData.turnsRatio
effectiveStatorTurns=aimsData3.effectiveStatorTurns
effectiveStatorTurns=aimsData.effectiveStatorTurns
ratioCommonStatorLeakage=aimsData3.ratioCommonStatorLeakage
ratioCommonRotorLeakage=aimsData3.ratioCommonRotorLeakage
aimsData3
Present



aimsDataM
Present



aimsData

Present


model Magnetic.FundamentalWave.Examples.BasicMachines.InductionMachines.IMC_DOL

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
aimcM
ratioCommonStatorLeakage=aimcData.ratioCommonStatorLeakage


model Magnetic.FundamentalWave.Examples.BasicMachines.InductionMachines.IMC_YD

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
aimc
ratioCommonStatorLeakage=aimcData.ratioCommonStatorLeakage
stator(zeroInductor(i0(nominal=10)))


model Magnetic.FundamentalWave.Examples.BasicMachines.InductionMachines.IMC_Transformer

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
aimc
ratioCommonStatorLeakage=aimcData.ratioCommonStatorLeakage


model Magnetic.FundamentalWave.Examples.BasicMachines.InductionMachines.IMC_Inverter

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
aimc
ratioCommonStatorLeakage=aimcData.ratioCommonStatorLeakage


model Magnetic.FundamentalWave.Examples.BasicMachines.InductionMachines.IMC_Conveyor

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
aimc
ratioCommonStatorLeakage=aimcData.ratioCommonStatorLeakage
gain
k=fNominal
k=fNominal/unitFrequency


model Magnetic.FundamentalWave.Examples.BasicMachines.InductionMachines.IMC_Steinmetz

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
aimc
ratioCommonStatorLeakage=aimcData.ratioCommonStatorLeakage


model Magnetic.FundamentalWave.Examples.BasicMachines.InductionMachines.IMC_withLosses

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
aimc
ratioCommonStatorLeakage=aimcData.ratioCommonStatorLeakage


model Magnetic.FundamentalWave.Examples.BasicMachines.InductionMachines.IMC_Initialize

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
aimc
ratioCommonStatorLeakage=aimcData.ratioCommonStatorLeakage


model Magnetic.FundamentalWave.Examples.BasicMachines.InductionMachines.IMS_Start

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
aimsM
ratioCommonStatorLeakage=aimsData.ratioCommonStatorLeakage
ratioCommonRotorLeakage=aimsData.ratioCommonRotorLeakage


model Magnetic.FundamentalWave.Examples.BasicMachines.SynchronousMachines.ComparisonPolyphase.SMPM_Inverter_Polyphase

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
fsNominal
=smpmData3.fsNominal
=smpmData.fsNominal
smpmM
Jr=smpmDataM.Jr
Jr=smpmData.Jr
Js=smpmData3.Js
Js=smpmData.Js
p=smpmDataM.p
p=smpmData.p
fsNominal=smpmDataM.fsNominal
fsNominal=smpmData.fsNominal
TsRef=smpmDataM.TsRef
TsRef=smpmData.TsRef
alpha20s(displayUnit="1/K") = smpmDataM.alpha20s
alpha20s(displayUnit="1/K") = smpmData.alpha20s
useDamperCage=smpmData3.useDamperCage
useDamperCage=smpmData.useDamperCage
Lrsigmad=smpmData3.Lrsigmad
Lrsigmad=smpmData.Lrsigmad
Lrsigmaq=smpmData3.Lrsigmaq
Lrsigmaq=smpmData.Lrsigmaq
Rrd=smpmData3.Rrd
Rrd=smpmData.Rrd
Rrq=smpmData3.Rrq
Rrq=smpmData.Rrq
TrRef=smpmData3.TrRef
TrRef=smpmData.TrRef
alpha20r(displayUnit="1/K") = smpmData3.alpha20r
alpha20r(displayUnit="1/K") = smpmData.alpha20r
VsOpenCircuit=smpmDataM.VsOpenCircuit
VsOpenCircuit=smpmData.VsOpenCircuit
frictionParameters=smpmDataM.frictionParameters
frictionParameters=smpmData.frictionParameters
statorCoreParameters=smpmDataM.statorCoreParameters
statorCoreParameters=smpmData.statorCoreParameters
strayLoadParameters=smpmDataM.strayLoadParameters
strayLoadParameters=smpmData.strayLoadParameters
permanentMagnetLossParameters=smpmDataM.permanentMagnetLossParameters
permanentMagnetLossParameters=smpmData.permanentMagnetLossParameters
Rs=smpmDataM.Rs
Rs=smpmData.Rs*m/3
Lssigma=smpmDataM.Lssigma
Lssigma=smpmData.Lssigma*m/3
Lszero=smpmDataM.Lszero
Lszero=smpmData.Lszero*m/3
Lmd=smpmDataM.Lmd
Lmd=smpmData.Lmd*m/3
Lmq=smpmDataM.Lmq
Lmq=smpmData.Lmq*m/3
effectiveStatorTurns=smpmDataM.effectiveStatorTurns
effectiveStatorTurns=smpmData.effectiveStatorTurns
ratioCommonStatorLeakage=smpmDataM.ratioCommonStatorLeakage
smpm3
p=smpmData3.p
p=smpmData.p
fsNominal=smpmData3.fsNominal
fsNominal=smpmData.fsNominal
Rs=smpmData3.Rs
Rs=smpmData.Rs
TsRef=smpmData3.TsRef
TsRef=smpmData.TsRef
alpha20s(displayUnit="1/K") = smpmData3.alpha20s
alpha20s(displayUnit="1/K") = smpmData.alpha20s
Lszero=smpmData3.Lszero
Lszero=smpmData.Lszero
Lssigma=smpmData3.Lssigma
Lssigma=smpmData.Lssigma
Jr=smpmData3.Jr
Jr=smpmData.Jr
Js=smpmData3.Js
Js=smpmData.Js
frictionParameters=smpmData3.frictionParameters
frictionParameters=smpmData.frictionParameters
statorCoreParameters=smpmData3.statorCoreParameters
statorCoreParameters=smpmData.statorCoreParameters
strayLoadParameters=smpmData3.strayLoadParameters
strayLoadParameters=smpmData.strayLoadParameters
VsOpenCircuit=smpmData3.VsOpenCircuit
VsOpenCircuit=smpmData.VsOpenCircuit
Lmd=smpmData3.Lmd
Lmd=smpmData.Lmd
Lmq=smpmData3.Lmq
Lmq=smpmData.Lmq
useDamperCage=smpmData3.useDamperCage
useDamperCage=smpmData.useDamperCage
Lrsigmad=smpmData3.Lrsigmad
Lrsigmad=smpmData.Lrsigmad
Lrsigmaq=smpmData3.Lrsigmaq
Lrsigmaq=smpmData.Lrsigmaq
Rrd=smpmData3.Rrd
Rrd=smpmData.Rrd
Rrq=smpmData3.Rrq
Rrq=smpmData.Rrq
TrRef=smpmData3.TrRef
TrRef=smpmData.TrRef
alpha20r(displayUnit="1/K") = smpmData3.alpha20r
alpha20r(displayUnit="1/K") = smpmData.alpha20r
permanentMagnetLossParameters=smpmData3.permanentMagnetLossParameters
permanentMagnetLossParameters=smpmData.permanentMagnetLossParameters
effectiveStatorTurns=smpmData3.effectiveStatorTurns
effectiveStatorTurns=smpmData.effectiveStatorTurns
ratioCommonStatorLeakage=smpmData3.ratioCommonStatorLeakage
smpmData3
Present



smpmDataM
Present



smpmData

Present


model Magnetic.FundamentalWave.Examples.BasicMachines.SynchronousMachines.ComparisonPolyphase.SMEE_Generator_Polyphase

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
smeeM
ratioCommonStatorLeakage=smeeData.ratioCommonStatorLeakage
smee3
ratioCommonStatorLeakage=smeeData.ratioCommonStatorLeakage


model Magnetic.FundamentalWave.Examples.BasicMachines.SynchronousMachines.ComparisonPolyphase.SMR_Inverter_Polyphase

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
smrM
ratioCommonStatorLeakage=smrData.ratioCommonStatorLeakage
smr3
ratioCommonStatorLeakage=smrData.ratioCommonStatorLeakage


model Magnetic.FundamentalWave.Examples.BasicMachines.SynchronousMachines.SMPM_Inverter

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
smpmM
ratioCommonStatorLeakage=smpmData.ratioCommonStatorLeakage


model Magnetic.FundamentalWave.Examples.BasicMachines.SynchronousMachines.SMPM_CurrentSource

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
smpm
ratioCommonStatorLeakage=smpmData.ratioCommonStatorLeakage


model Magnetic.FundamentalWave.Examples.BasicMachines.SynchronousMachines.SMPM_VoltageSource

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
smpm
ratioCommonStatorLeakage=smpmData.ratioCommonStatorLeakage


model Magnetic.FundamentalWave.Examples.BasicMachines.SynchronousMachines.SMPM_Braking

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
smpm
ratioCommonStatorLeakage=smpmData.ratioCommonStatorLeakage
diodeBridge2mPulse
RonDiode=1e-4
GoffDiode=1e-4
gain
k=R/wNominal
k=unitK*R/wNominal


model Magnetic.FundamentalWave.Examples.BasicMachines.SynchronousMachines.SMEE_DOL

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
smee
ratioCommonStatorLeakage=smeeData.ratioCommonStatorLeakage


model Magnetic.FundamentalWave.Examples.BasicMachines.SynchronousMachines.SMEE_Generator

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
smeeM
ratioCommonStatorLeakage=smeeData.ratioCommonStatorLeakage


model Magnetic.FundamentalWave.Examples.BasicMachines.SynchronousMachines.SMEE_LoadDump

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
smee
ratioCommonStatorLeakage=smeeData.ratioCommonStatorLeakage
setPointGain
k=(smeeData.VsNominal/wNominal)
k=(smeeData.VsNominal/wNominal)/unitMagneticFlux


model Magnetic.FundamentalWave.Examples.BasicMachines.SynchronousMachines.SMEE_Rectifier

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
smee
ratioCommonStatorLeakage=smeeData.ratioCommonStatorLeakage


model Magnetic.FundamentalWave.Examples.BasicMachines.SynchronousMachines.SMR_Inverter

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
smrM
ratioCommonStatorLeakage=smrData.ratioCommonStatorLeakage


model Magnetic.FundamentalWave.Components.PolyphaseElectroMagneticConverter

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
useStrayPermeance
Present

Lsigma
Present

strayPermeance
Present


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
connect(singlePhaseElectroMagneticConverter[m].port_n, port_n);
connect(singlePhaseElectroMagneticConverter.port_p, strayPermeance.port_p);
connect(singlePhaseElectroMagneticConverter.port_n, strayPermeance.port_n);


model Magnetic.FundamentalWave.BasicMachines.InductionMachines.IM_SquirrelCage

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
Lm
start=3*ZsRef*sqrt(1 - 0.0667)/(2*pi*fsNominal)
start=3*sqrt(1 - 0.0667)/(2*pi*fsNominal)
Lrsigma
start=3*ZsRef*(1 - sqrt(1 - 0.0667))/(2*pi*fsNominal)
start=3*(1 - sqrt(1 - 0.0667))/(2*pi*fsNominal)
Rr
start=0.04*ZsRef
start=0.04


model Magnetic.FundamentalWave.BasicMachines.InductionMachines.IM_SlipRing

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
Lm
start=3*ZsRef*sqrt(1 - 0.0667)/(2*pi*fsNominal)
start=3*sqrt(1 - 0.0667)/(2*pi*fsNominal)
Lrsigma
start=3*ZsRef*(1 - sqrt(1 - 0.0667))/(2*pi*fsNominal)
start=3*(1 - sqrt(1 - 0.0667))/(2*pi*fsNominal)
Rr
start=0.04*ZsRef
start=0.04
rotor
final ratioCommonLeakage=ratioCommonRotorLeakage
ratioCommonRotorLeakage
Present


model Magnetic.FundamentalWave.BasicMachines.SynchronousMachines.SM_PermanentMagnet

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
Lmd
start=0.3*ZsRef/(2*pi*fsNominal)
start=0.3/(2*pi*fsNominal)
Lmq
start=0.3*ZsRef/(2*pi*fsNominal)
start=0.3/(2*pi*fsNominal)
Lrsigmad
start=0.05*ZsRef/(2*pi*fsNominal)
start=0.05/(2*pi*fsNominal)
Rrd
start=0.04*ZsRef
start=0.04


model Magnetic.FundamentalWave.BasicMachines.SynchronousMachines.SM_ElectricalExcited

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
Lmd
start=1.5*ZsRef/(2*pi*fsNominal)
start=1.5/(2*pi*fsNominal)
Lmq
start=1.5*ZsRef/(2*pi*fsNominal)
start=1.5/(2*pi*fsNominal)
Lrsigmad
start=0.05*ZsRef/(2*pi*fsNominal)
start=0.05/(2*pi*fsNominal)
Rrd
start=0.04*ZsRef
start=0.04


model Magnetic.FundamentalWave.BasicMachines.SynchronousMachines.SM_ReluctanceRotor

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
Lmd
start=2.9*ZsRef/(2*pi*fsNominal)
start=2.9/(2*pi*fsNominal)
Lmq
start=0.9*ZsRef/(2*pi*fsNominal)
start=0.9/(2*pi*fsNominal)
Lrsigmad
start=0.05*ZsRef/(2*pi*fsNominal)
start=0.05/(2*pi*fsNominal)
Rrd
start=0.04*ZsRef
start=0.04


model Magnetic.FundamentalWave.BasicMachines.Components.SymmetricPolyphaseWinding

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
electroMagneticConverter
m=m
final useStrayPermeance=ratioCommonLeakage < (1 - eps)
final Lsigma=(1 - ratioCommonLeakage)*Lsigma

final m=m
stray
final G_m(d=2/m*ratioCommonLeakage*Lsigma/effectiveTurns^2, q=2/m*ratioCommonLeakage*Lsigma/effectiveTurns^2)
final G_m(d=2*Lsigma/m/effectiveTurns^2, q=2*Lsigma/m/effectiveTurns^2)
ratioCommonLeakage
Present


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
connect(plug_p, resistor.plug_p);

connect(resistor.plug_n, zeroInductor.plug_p);
connect(electroMagneticConverter.plug_n, plug_n);
connect(electroMagneticConverter.port_p, port_p);
connect(resistor.heatPort, heatPortWinding);

connect(electroMagneticConverter.port_n, core.port_p);
connect(core.port_n, port_n);
...
connect(stray.port_n, core.port_n);
connect(short.plug_n, plug_n); connect(stray.port_p, electroMagneticConverter.port_p);
connect(plug_n, zeroInductor.plug_n); connect(zeroInductor.plug_n, electroMagneticConverter.plug_p);
connect(port_p, stray.port_p); connect(resistor.plug_n, short.plug_p);
connect(electroMagneticConverter.port_n, core.port_p); connect(electroMagneticConverter.plug_p, short.plug_n);
connect(zeroInductor.plug_p, electroMagneticConverter.plug_n);
connect(short.plug_p, electroMagneticConverter.plug_n);
connect(resistor.plug_n, electroMagneticConverter.plug_p);
connect(electroMagneticConverter.port_p, port_p);


model Magnetic.FundamentalWave.BaseClasses.Machine

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
Rs
start=ZsRef*0.03
start=0.03
Lssigma
start=3*ZsRef*(1 - sqrt(1 - 0.0667))/(2*pi*fsNominal)
start=3*(1 - sqrt(1 - 0.0667))/(2*pi*fsNominal)
statorCoreParameters
m=m

final m=m
stator
final ratioCommonLeakage=ratioCommonStatorLeakage
internalThermalPort
protected
internalSupport
protected
ratioCommonStatorLeakage
Present

ZsRef
Present


model Magnetic.QuasiStatic.FluxTubes.Shapes.FixedShape.GenericFluxTube



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
A=area;
G_m = mu_0*mu_r*A/l; G_m = (mu_0*mu_r*A)/l;


model Magnetic.QuasiStatic.FluxTubes.Shapes.FixedShape.Cuboid



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
A = a*b;
G_m = mu_0*mu_r*A/l; G_m = (mu_0*mu_r*A)/l;


model Magnetic.QuasiStatic.FluxTubes.Shapes.FixedShape.HollowCylinderAxialFlux

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
alpha
=2*pi
=2*Modelica400.Constants.pi


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
A = (r_o^2 - r_i^2)*alpha/2; A = pi*(r_o^2 - r_i^2)*alpha/(2*Modelica400.Constants.pi);
G_m = mu_0*mu_r*A/l; G_m = (mu_0*mu_r*A)/l;


model Magnetic.QuasiStatic.FluxTubes.Shapes.FixedShape.HollowCylinderRadialFlux

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
alpha
=2*pi
=2*Modelica400.Constants.pi


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
A = l*alpha*(r_o + r_i)/2; A = l*pi*(r_o + r_i);
G_m = mu_0*mu_r*alpha*l/Modelica410.Math.log(r_o/r_i); G_m = 2*pi*mu_0*mu_r*l/Modelica400.Math.log(r_o/r_i)*alpha/(2*Modelica400.Constants.pi);


model Magnetic.QuasiStatic.FluxTubes.Shapes.FixedShape.HollowCylinderCircumferentialFlux



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
A = (r_o - r_i)*l; A = l*(r_o - r_i) "Area at arithmetic mean radius for calculation of average flux density";
G_m = mu_0*mu_r*A/((r_o + r_i)/2*alpha);


model Magnetic.QuasiStatic.FundamentalWave.Examples.BasicMachines.InductionMachines.IMC_YD

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
imc
stator(zeroInductor(i0(nominal=10)))


model Magnetic.QuasiStatic.FundamentalWave.Examples.BasicMachines.InductionMachines.IMC_Conveyor

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
gainQS
k=fNominal
k=fNominal/unitFrequency
gain
k=fNominal
k=fNominal/unitFrequency


model Magnetic.QuasiStatic.FundamentalWave.BasicMachines.InductionMachines.IM_SquirrelCage

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
Lm
start=3*ZsRef*sqrt(1 - 0.0667)/(2*pi*fsNominal)
start=3*sqrt(1 - 0.0667)/(2*pi*fsNominal)
Lrsigma
start=3*ZsRef*(1 - sqrt(1 - 0.0667))/(2*pi*fsNominal)
start=3*(1 - sqrt(1 - 0.0667))/(2*pi*fsNominal)
Rr
start=0.04*ZsRef
start=0.04


model Magnetic.QuasiStatic.FundamentalWave.BasicMachines.InductionMachines.IM_SlipRing

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
Lm
start=3*ZsRef*sqrt(1 - 0.0667)/(2*pi*fsNominal)
start=3*sqrt(1 - 0.0667)/(2*pi*fsNominal)
Lrsigma
start=3*ZsRef*(1 - sqrt(1 - 0.0667))/(2*pi*fsNominal)
start=3*(1 - sqrt(1 - 0.0667))/(2*pi*fsNominal)
Rr
start=0.04*ZsRef
start=0.04


model Magnetic.QuasiStatic.FundamentalWave.BasicMachines.SynchronousMachines.SM_PermanentMagnet

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
Lmd
start=0.3*ZsRef/(2*pi*fsNominal)
start=0.3/(2*pi*fsNominal)
Lmq
start=0.3*ZsRef/(2*pi*fsNominal)
start=0.3/(2*pi*fsNominal)
Lrsigmad
start=0.05*ZsRef/(2*pi*fsNominal)
start=0.05/(2*pi*fsNominal)
Rrd
start=0.04*ZsRef
start=0.04


model Magnetic.QuasiStatic.FundamentalWave.BasicMachines.SynchronousMachines.SM_ElectricalExcited

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
Lmd
start=1.5*ZsRef/(2*pi*fsNominal)
start=1.5/(2*pi*fsNominal)
Lmq
start=1.5*ZsRef/(2*pi*fsNominal)
start=1.5/(2*pi*fsNominal)
Lrsigmad
start=0.05*ZsRef/(2*pi*fsNominal)
start=0.05/(2*pi*fsNominal)
Rrd
start=0.04*ZsRef
start=0.04


model Magnetic.QuasiStatic.FundamentalWave.BasicMachines.SynchronousMachines.SM_ReluctanceRotor

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
Lmd
start=2.9*ZsRef/(2*pi*fsNominal)
start=2.9/(2*pi*fsNominal)
Lmq
start=0.9*ZsRef/(2*pi*fsNominal)
start=0.9/(2*pi*fsNominal)
Lrsigmad
start=0.05*ZsRef/(2*pi*fsNominal)
start=0.05/(2*pi*fsNominal)
Rrd
start=0.04*ZsRef
start=0.04


model Magnetic.QuasiStatic.FundamentalWave.BaseClasses.Machine

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
internalThermalPort
protected
internalSupport
protected
ZsRef
Present


model Mechanics.MultiBody.World

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
ndim

Present
ndim2

Present
ndim_pointGravity

Present


model Mechanics.MultiBody.Examples.Loops.Utilities.GasForce2

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
dens

Present
R_air

Present


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
V = k0 + k1*(1 - x);

dens = press/(R_air*T);
press*V = k*T;
...


model Mechanics.MultiBody.Examples.Constraints.PrismaticConstraint

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
freeMotionScalarInit
r_rel_a_1(fixed=true, start=0)
v_rel_a_1(fixed=true, start=0)

v_rel_a_3(fixed=true, start=0)

angle_d_3(fixed=false)

r_rel_a_3(fixed=true, start=0)

angle_1(fixed=false)


model Mechanics.MultiBody.Examples.Systems.RobotR3.OneAxis

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
load
J=rg^2*mLoad
J=1.3*mLoad
rg
Present


model Mechanics.MultiBody.Forces.WorldForce

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
arrow
Mechanics.MultiBody.Visualizers.Advanced.Vector
Mechanics.MultiBody.Visualizers.Advanced.Arrow


model Mechanics.MultiBody.Forces.WorldTorque

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
arrow
Mechanics.MultiBody.Visualizers.Advanced.Vector
Mechanics.MultiBody.Visualizers.Advanced.DoubleArrow


model Mechanics.MultiBody.Forces.WorldForceAndTorque

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
forceArrow
Mechanics.MultiBody.Visualizers.Advanced.Vector
Mechanics.MultiBody.Visualizers.Advanced.Arrow
torqueArrow
Mechanics.MultiBody.Visualizers.Advanced.Vector
Mechanics.MultiBody.Visualizers.Advanced.DoubleArrow


model Mechanics.MultiBody.Forces.Force

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
forceArrow
Mechanics.MultiBody.Visualizers.Advanced.Vector
Mechanics.MultiBody.Visualizers.Advanced.Arrow


model Mechanics.MultiBody.Forces.Torque

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
torqueArrow
Mechanics.MultiBody.Visualizers.Advanced.Vector
Mechanics.MultiBody.Visualizers.Advanced.DoubleArrow


model Mechanics.MultiBody.Forces.ForceAndTorque

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
forceArrow
Mechanics.MultiBody.Visualizers.Advanced.Vector
Mechanics.MultiBody.Visualizers.Advanced.Arrow
torqueArrow
Mechanics.MultiBody.Visualizers.Advanced.Vector
Mechanics.MultiBody.Visualizers.Advanced.DoubleArrow


model Mechanics.MultiBody.Forces.Spring

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
lineForce
final animateLine=animation
final animateMass=showMass
final m=m
final lengthFraction=lengthFraction
final lineShapeType="spring"
final lineShapeHeight=coilWidth*2
final lineShapeWidth=width
final lineShapeExtra=numberOfWindings
final lineShapeColor=color
final specularCoefficient=specularCoefficient
final massDiameter=massDiameter
final massColor=massColor
final s_small=s_small
final fixedRotationAtFrame_a=fixedRotationAtFrame_a
final fixedRotationAtFrame_b=fixedRotationAtFrame_b

animateLine=animation

animateMass=showMass

m=m

lengthFraction=lengthFraction

lineShapeType="spring"

lineShapeHeight=coilWidth*2

lineShapeWidth=width

lineShapeExtra=numberOfWindings

lineShapeColor=color

specularCoefficient=specularCoefficient

massDiameter=massDiameter

massColor=massColor

s_small=s_small

fixedRotationAtFrame_a=fixedRotationAtFrame_a

fixedRotationAtFrame_b=fixedRotationAtFrame_b
spring
final s_rel0=s_unstretched
final c=c

s_rel0=s_unstretched

c=c


function Mechanics.MultiBody.Frames.from_nxy

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
n_x
each final unit="1"
n_y
each final unit="1"


function Mechanics.MultiBody.Frames.Quaternions.from_T

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
t
Present

paux

Present
paux4

Present
c1

Present
c2

Present
c3

Present
c4

Present
p4limit

Present
c4limit

Present


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
if T[3, 3] < 0 then c1 := 1 + T[1, 1] - T[2, 2] - T[3, 3];
if T[1, 1] > T[2, 2] then c2 = 1 + T[2, 2] - T[1, 1] - T[3, 3];
t = 1 + T[1, 1] - T[2, 2] - T[3, 3]; c3 = 1 + T[3, 3] - T[1, 1] - T[2, 2];
Q = {t, T[1, 2] + T[2, 1], T[3, 1] + T[1, 3], T[2, 3] - T[3, 2]}; c4 = 1 + T[1, 1] + T[2, 2] + T[3, 3];

if c4 > c4limit or (c4 > c1 and c4 > c2 and c4 > c3) then
paux = sqrt(c4)/2;
paux4 = 4*paux;
Q = {(T[2, 3] - T[3, 2])/paux4,(T[3, 1] - T[1, 3])/paux4,(T[1, 2] - T[
        2, 1])/paux4,paux};
elseif c1 > c2 and c1 > c3 and c1 > c4 then
paux = sqrt(c1)/2;
paux4 = 4*paux;
Q = {paux,(T[1, 2] + T[2, 1])/paux4,(T[1, 3] + T[3, 1])/paux4,(T[2, 3]
         - T[3, 2])/paux4};
elseif c2 > c1 and c2 > c3 and c2 > c4 then
paux = sqrt(c2)/2;
paux4 = 4*paux;
Q = {(T[1, 2] + T[2, 1])/paux4,paux,(T[2, 3] + T[3, 2])/paux4,(T[3, 1]
         - T[1, 3])/paux4};
else
t = 1 - T[1, 1] + T[2, 2] - T[3, 3]; paux = sqrt(c3)/2;
Q = {T[1, 2] + T[2, 1], t, T[2, 3] + T[3, 2], T[3, 1] - T[1, 3]}; paux4 = 4*paux;

Q = {(T[1, 3] + T[3, 1])/paux4,(T[2, 3] + T[3, 2])/paux4,paux,(T[1, 2]
         - T[2, 1])/paux4};
end if;
else if Q*Q_guess < 0 then
if T[1, 1] < -T[2, 2] then Q = -Q;
t = 1 - T[1, 1] - T[2, 2] + T[3, 3]; end if;
Q = {T[3, 1] + T[1, 3], T[2, 3] + T[3, 2], t, T[1, 2] - T[2, 1]};
else
t = 1 + T[1, 1] + T[2, 2] + T[3, 3];
Q = {T[2, 3] - T[3, 2], T[3, 1] - T[1, 3], T[1, 2] - T[2, 1], t};
end if;
end if;
Q = Q*0.5/sqrt(t);
if Q*Q_guess < 0 then
Q = -Q;
end if;


function Mechanics.MultiBody.Frames.TransformationMatrices.from_nxy

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
n_x
each final unit="1"
n_y
each final unit="1"


model Mechanics.MultiBody.Joints.FreeMotion

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
arrow
Mechanics.MultiBody.Visualizers.Advanced.Vector
Mechanics.MultiBody.Visualizers.Advanced.Arrow


model Mechanics.MultiBody.Joints.Constraints.Prismatic



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
r_rel_a = Frames.resolve2(frame_a.R, frame_b.r_0 - frame_a.r_0);
zeros(3) =
 Modelica410.Mechanics.MultiBody.Frames.Orientation.equalityConstraint(
frame_a.R, frame_b.R); 		ones(3)={R_rel.T[1,1], R_rel.T[2,2], R_rel.T[3,3]};
if x_locked then if x_locked and y_locked and z_locked then

r_rel_a=zeros(3);
elseif x_locked and y_locked and not z_locked then
r_rel_a[1]=0;
else
frame_a.f[1]=0;
end if;
if y_locked then
r_rel_a[2]=0;
else
frame_a.f[2]=0;
end if;
if z_locked then
r_rel_a[3]=0;
else
frame_a.f[3]=0;
end if; elseif x_locked and not y_locked and z_locked then
zeros(3) = frame_a.t + Frames.resolve1(R_rel, frame_b.t) + cross(r_rel_a,
Frames.resolve1(R_rel, frame_b.f)); 		r_rel_a[1]=0;
zeros(3) = Frames.resolve1(R_rel, frame_b.f) + frame_a.f; r_rel_a[3]=0;
P = frame_a.t*Frames.angularVelocity2(frame_a.R) + frame_b.t*
Frames.angularVelocity2(frame_b.R) + frame_b.f*Frames.resolve2(frame_b.R,
der(frame_b.r_0)) + frame_a.f*Frames.resolve2(frame_a.R, der(frame_a.r_0)); 		frame_a.f[2]=0;

elseif x_locked and not y_locked and not z_locked then
r_rel_a[1]=0;
frame_a.f[2]=0;
frame_a.f[3]=0;
elseif not x_locked and y_locked and z_locked then
r_rel_a[2]=0;
r_rel_a[3]=0;
frame_a.f[1]=0;
elseif not x_locked and y_locked and not z_locked then
r_rel_a[2]=0;
frame_a.f[1]=0;
frame_a.f[3]=0;
elseif not x_locked and not y_locked and z_locked then
r_rel_a[3]=0;
frame_a.f[1]=0;
frame_a.f[2]=0;
else
frame_a.f=zeros(3);
end if;
zeros(3) = frame_a.t + Frames.resolve1(R_rel, frame_b.t) + cross(r_rel_a,
    Frames.resolve1(R_rel, frame_b.f));
zeros(3) = Frames.resolve1(R_rel, frame_b.f) + frame_a.f;
P = frame_a.t*Frames.angularVelocity2(frame_a.R) + frame_b.t*
    Frames.angularVelocity2(frame_b.R) + frame_b.f*Frames.resolve2(frame_b.R,
    der(frame_b.r_0)) + frame_a.f*Frames.resolve2(frame_a.R, der(frame_a.r_0));


model Mechanics.MultiBody.Joints.Constraints.Revolute



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
r_rel_a = Frames.resolve2(frame_a.R, frame_b.r_0 - frame_a.r_0);
if x_locked then if x_locked and y_locked and z_locked then

r_rel_a=zeros(3);
elseif x_locked and y_locked and not z_locked then
r_rel_a[1]=0;
else
frame_a.f[1]=0;
end if;
if y_locked then
r_rel_a[2]=0;
else
frame_a.f[2]=0;
end if;
if z_locked then
r_rel_a[3]=0;
else
frame_a.f[3]=0;
end if; elseif x_locked and not y_locked and z_locked then
0 = ex_a*R_rel.T*e; r_rel_a[1]=0;
0 = ey_a*R_rel.T*e; r_rel_a[3]=0;
frame_a.t*n=0; frame_a.f[2]=0;
zeros(3) = frame_a.f + Frames.resolve1(R_rel, frame_b.f); elseif x_locked and not y_locked and not z_locked then
zeros(3) = frame_a.t + Frames.resolve1(R_rel, frame_b.t) - cross(r_rel_a,
frame_a.f); 		r_rel_a[1]=0;
P = frame_a.t*Frames.angularVelocity2(frame_a.R) + frame_b.t*
Frames.angularVelocity2(frame_b.R) + Frames.resolve1(frame_b.R, frame_b.f)
*der(frame_b.r_0) + Frames.resolve1(frame_a.R, frame_a.f)*der(frame_a.r_0); 		frame_a.f[2]=0;

frame_a.f[3]=0;
elseif not x_locked and y_locked and z_locked then
r_rel_a[2]=0;
r_rel_a[3]=0;
frame_a.f[1]=0;
elseif not x_locked and y_locked and not z_locked then
r_rel_a[2]=0;
frame_a.f[1]=0;
frame_a.f[3]=0;
elseif not x_locked and not y_locked and z_locked then
r_rel_a[3]=0;
frame_a.f[1]=0;
frame_a.f[2]=0;
else
frame_a.f=zeros(3);
end if;
0 = ex_a*R_rel.T*e;
0 = ey_a*R_rel.T*e;
frame_a.t*n=0;
zeros(3) = frame_a.f + Frames.resolve1(R_rel, frame_b.f);
zeros(3) = frame_a.t + Frames.resolve1(R_rel, frame_b.t) - cross(r_rel_a,
    frame_a.f);
P = frame_a.t*Frames.angularVelocity2(frame_a.R) + frame_b.t*
    Frames.angularVelocity2(frame_b.R) + Frames.resolve1(frame_b.R, frame_b.f)
    *der(frame_b.r_0) + Frames.resolve1(frame_a.R, frame_a.f)*der(frame_a.r_0);


model Mechanics.MultiBody.Joints.Constraints.Spherical



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
r_rel_a = MBS.Frames.resolve2(frame_a.R, frame_b.r_0 - frame_a.r_0);
if x_locked then if x_locked and y_locked and z_locked then

r_rel_a=zeros(3);
elseif x_locked and y_locked and not z_locked then
r_rel_a[1]=0;
else
frame_a.f[1]=0;
end if;
if y_locked then
r_rel_a[2]=0;
else
frame_a.f[2]=0;
end if;
if z_locked then
r_rel_a[3]=0;
else
frame_a.f[3]=0;
end if; elseif x_locked and not y_locked and z_locked then
frame_b.t = zeros(3); r_rel_a[1]=0;
frame_b.f = -MBS.Frames.resolve2(R_rel, frame_a.f); r_rel_a[3]=0;
zeros(3) = frame_a.t + MBS.Frames.resolve1(R_rel, frame_b.t) - cross(r_rel_a, frame_a.f); frame_a.f[2]=0;
P= frame_a.t*MBS.Frames.angularVelocity2(frame_a.R)+frame_b.t*MBS.Frames.angularVelocity2(frame_b.R) + MBS.Frames.resolve1(frame_b.R,frame_b.f)*der(frame_b.r_0)+MBS.Frames.resolve1(frame_a.R,frame_a.f)*der(frame_a.r_0); elseif x_locked and not y_locked and not z_locked then

r_rel_a[1]=0;
frame_a.f[2]=0;
frame_a.f[3]=0;
elseif not x_locked and y_locked and z_locked then
r_rel_a[2]=0;
r_rel_a[3]=0;
frame_a.f[1]=0;
elseif not x_locked and y_locked and not z_locked then
r_rel_a[2]=0;
frame_a.f[1]=0;
frame_a.f[3]=0;
elseif not x_locked and not y_locked and z_locked then
r_rel_a[3]=0;
frame_a.f[1]=0;
frame_a.f[2]=0;
else
frame_a.f=zeros(3);
end if;
frame_b.t = zeros(3);
frame_b.f = -MBS.Frames.resolve2(R_rel, frame_a.f);
zeros(3) = frame_a.t + MBS.Frames.resolve1(R_rel, frame_b.t) - cross(r_rel_a, frame_a.f);
P= frame_a.t*MBS.Frames.angularVelocity2(frame_a.R)+frame_b.t*MBS.Frames.angularVelocity2(frame_b.R) + MBS.Frames.resolve1(frame_b.R,frame_b.f)*der(frame_b.r_0)+MBS.Frames.resolve1(frame_a.R,frame_a.f)*der(frame_a.r_0);


model Mechanics.MultiBody.Joints.Constraints.Universal



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
r_rel_a = MBS.Frames.resolve2(frame_a.R, frame_b.r_0 - frame_a.r_0);
if x_locked then if x_locked and y_locked and z_locked then

r_rel_a=zeros(3);
elseif x_locked and y_locked and not z_locked then
r_rel_a[1]=0;
else
frame_a.f[1]=0;
end if;
if y_locked then
r_rel_a[2]=0;
else
frame_a.f[2]=0;
end if;
if z_locked then
r_rel_a[3]=0;
else
frame_a.f[3]=0;
end if; elseif x_locked and not y_locked and z_locked then
frame_a.t*n_a=0; r_rel_a[1]=0;
frame_b.t*n_b=0; r_rel_a[3]=0;
n_b*R_rel.T*n_a=0; frame_a.f[2]=0;
assert(abs(n_a*n_b) < Modelica410.Constants.eps,
"The two axes that constitute the Constraints.Universal joint must be different"); 		elseif x_locked and not y_locked and not z_locked then
zeros(3)=frame_a.f + MBS.Frames.resolve1(R_rel, frame_b.f); r_rel_a[1]=0;
zeros(3) = frame_a.t+MBS.Frames.resolve1(R_rel, frame_b.t)- cross(r_rel_a, frame_a.f); frame_a.f[2]=0;
P = frame_a.t*MBS.Frames.angularVelocity2(frame_a.R)+frame_b.t*MBS.Frames.angularVelocity2(frame_b.R) + MBS.Frames.resolve1(frame_b.R,frame_b.f)*der(frame_b.r_0)+MBS.Frames.resolve1(frame_a.R,frame_a.f)*der(frame_a.r_0); frame_a.f[3]=0;

elseif not x_locked and y_locked and z_locked then
r_rel_a[2]=0;
r_rel_a[3]=0;
frame_a.f[1]=0;
elseif not x_locked and y_locked and not z_locked then
r_rel_a[2]=0;
frame_a.f[1]=0;
frame_a.f[3]=0;
elseif not x_locked and not y_locked and z_locked then
r_rel_a[3]=0;
frame_a.f[1]=0;
frame_a.f[2]=0;
else
frame_a.f=zeros(3);
end if;
frame_a.t*n_a=0;
frame_b.t*n_b=0;
n_b*R_rel.T*n_a=0;
assert(abs(n_a*n_b) < Modelica400.Constants.eps,
    "The two axes that constitute the Constraints.Universal joint must be different");
zeros(3)=frame_a.f + MBS.Frames.resolve1(R_rel, frame_b.f);
zeros(3) = frame_a.t+MBS.Frames.resolve1(R_rel, frame_b.t)- cross(r_rel_a, frame_a.f);
P = frame_a.t*MBS.Frames.angularVelocity2(frame_a.R)+frame_b.t*MBS.Frames.angularVelocity2(frame_b.R) + MBS.Frames.resolve1(frame_b.R,frame_b.f)*der(frame_b.r_0)+MBS.Frames.resolve1(frame_a.R,frame_a.f)*der(frame_a.r_0);


model Mechanics.MultiBody.Sensors.AbsoluteSensor

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
w
each final unit="rad/s"
each final unit="1/s"
z
each final unit="rad/s2"
each final unit="1/s2"
arrow
Mechanics.MultiBody.Visualizers.Advanced.Vector
Mechanics.MultiBody.Visualizers.Advanced.Arrow


model Mechanics.MultiBody.Sensors.RelativeSensor

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
w_rel
each final unit="rad/s"
each final unit="1/s"
z_rel
each final unit="rad/s2"
each final unit="1/s2"
arrow
Mechanics.MultiBody.Visualizers.Advanced.Vector
Mechanics.MultiBody.Visualizers.Advanced.Arrow


model Mechanics.MultiBody.Sensors.RelativePosition

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
r_rel
each final quantity="Length"
each final unit="m"


model Mechanics.MultiBody.Sensors.Distance

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
arrow
Mechanics.MultiBody.Visualizers.Advanced.Vector
Mechanics.MultiBody.Visualizers.Advanced.Arrow


model Mechanics.MultiBody.Sensors.CutForce

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
forceArrow
Mechanics.MultiBody.Visualizers.Advanced.Vector
Mechanics.MultiBody.Visualizers.Advanced.Arrow


model Mechanics.MultiBody.Sensors.CutTorque

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
torque
each final quantity="Torque"
each final unit="N.m"
torqueArrow
Mechanics.MultiBody.Visualizers.Advanced.Vector
Mechanics.MultiBody.Visualizers.Advanced.DoubleArrow


model Mechanics.MultiBody.Sensors.CutForceAndTorque

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
torque
each final quantity="Torque"
each final unit="N.m"
forceArrow
Mechanics.MultiBody.Visualizers.Advanced.Vector
Mechanics.MultiBody.Visualizers.Advanced.Arrow
torqueArrow
Mechanics.MultiBody.Visualizers.Advanced.Vector
Mechanics.MultiBody.Visualizers.Advanced.DoubleArrow


model Mechanics.MultiBody.Sensors.Internal.BasicAbsoluteAngularVelocity



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
elseif resolveInFrame == ResolveInFrameA.frame_resolve then
w = Frames.resolve2(frame_resolve.R, Frames.angularVelocity1(frame_a.R)); w = Frames.resolveRelative(Frames.angularVelocity1(frame_a.R), frame_a.R, frame_resolve.R);
else
...


model Mechanics.MultiBody.Visualizers.SignalArrow

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
arrow
Mechanics.MultiBody.Visualizers.Advanced.Vector
Mechanics.MultiBody.Visualizers.Advanced.Arrow


model Mechanics.Rotational.Examples.EddyCurrentBrake

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
eddyCurrentTorque
useExcitationInput=true
ramp
Present


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
connect(eddyCurrentTorque.heatPort, heatCapacitor.port);
connect(ramp.y, eddyCurrentTorque.excitation);


model Mechanics.Rotational.Components.BearingFriction

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
smoothness
Present

tableID
Present

table_signs
Present


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
assert(size(tau_pos, 1) > 0 and size(tau_pos, 2) > 0, "Parameter tau_pos is an empty matrix"); tau0 = Modelica400.Math.Vectors.interpolate(
 tau_pos[:, 1],
 tau_pos[:, 2],
0,
1);
tau0 =
    if smoothness == Smoothness.ConstantSegments then getTable1DValueNoDer(tableID, 1, 0)
    elseif smoothness == Smoothness.LinearSegments then getTable1DValueNoDer2(tableID, 1, 0)
    else getTable1DValue(tableID, 1, 0);
tau0_max = peak*tau0;
...
flange_a.tau + flange_b.tau - tau = 0;
table_signs =
if startForward then { 1, 1}
 elseif startBackward then {-1,-1}
 elseif pre(mode) == Forward then { 1, 1}
 else {-1,-1}; 		tau = if locked then sa*unitTorque else (if startForward then
 Modelica400.Math.Vectors.interpolate(
 tau_pos[:, 1],
tau_pos[:, 2],
w,
1) else if startBackward then -Modelica400.Math.Vectors.interpolate(
 tau_pos[:, 1],
tau_pos[:, 2],
-w,
1) else if pre(mode) == Forward then Modelica400.Math.Vectors.interpolate(
 tau_pos[:, 1],
tau_pos[:, 2],
w,
1) else -Modelica400.Math.Vectors.interpolate(
 tau_pos[:, 1],
tau_pos[:, 2],
-w,
1));
tau = if locked then sa*unitTorque else table_signs[2]*(
    if smoothness == Smoothness.ConstantSegments then getTable1DValueNoDer(tableID, 1, table_signs[1]*w)
    elseif smoothness == Smoothness.LinearSegments then getTable1DValueNoDer2(tableID, 1, table_signs[1]*w)
    else getTable1DValue(tableID, 1, table_signs[1]*w));
lossPower = tau*w_relfric;


model Mechanics.Rotational.Components.Brake

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
mu0
parameter
protected
=if smoothness == Smoothness.ConstantSegments then getTable1DValueNoDer(tableID, 1, 0) elseif smoothness == Smoothness.LinearSegments then getTable1DValueNoDer2(tableID, 1, 0) else getTable1DValue(tableID, 1, 0)
smoothness
Present

mu
Present

tableID
Present

table_signs
Present


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
assert(size(mu_pos, 1) > 0 and size(mu_pos, 2) > 0, "Parameter mu_pos is an empty matrix"); mu0 = Modelica400.Math.Vectors.interpolate(
 mu_pos[:, 1],
 mu_pos[:, 2],
0,
1);
phi = flange_a.phi - phi_support;
...
free = fn <= 0;
table_signs =
if startForward then { 1, 1}
 elseif startBackward then {-1,-1}
 elseif pre(mode) == Forward then { 1, 1}
 else {-1,-1}; 		tau = if locked then sa*unitTorque else if free then 0 else cgeo*fn*(if
 startForward then Modelica400.Math.Vectors.interpolate(
 mu_pos[:, 1],
mu_pos[:, 2],
w,
1) else if startBackward then -Modelica400.Math.Vectors.interpolate(
 mu_pos[:, 1],
mu_pos[:, 2],
-w,
1) else if pre(mode) == Forward then Modelica400.Math.Vectors.interpolate(
 mu_pos[:, 1],
mu_pos[:, 2],
w,
1) else -Modelica400.Math.Vectors.interpolate(
 mu_pos[:, 1],
mu_pos[:, 2],
-w,
1));
mu = table_signs[2]*(
 if smoothness == Smoothness.ConstantSegments then getTable1DValueNoDer(tableID, 1, table_signs[1]*w)
elseif smoothness == Smoothness.LinearSegments then getTable1DValueNoDer2(tableID, 1, table_signs[1]*w)
else getTable1DValue(tableID, 1, table_signs[1]*w)); 		lossPower = tau*w_relfric;
tau = if locked then sa*unitTorque else if free then 0 else mu*cgeo*fn;
lossPower = tau*w_relfric;


model Mechanics.Rotational.Components.Clutch

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
mu0
parameter
protected
=if smoothness == Smoothness.ConstantSegments then getTable1DValueNoDer(tableID, 1, 0) elseif smoothness == Smoothness.LinearSegments then getTable1DValueNoDer2(tableID, 1, 0) else getTable1DValue(tableID, 1, 0)
smoothness
Present

mu
Present

tableID
Present

table_signs
Present


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
assert(size(mu_pos, 1) > 0 and size(mu_pos, 2) > 0, "Parameter mu_pos is an empty matrix"); mu0 = Modelica400.Math.Vectors.interpolate(
 mu_pos[:, 1],
 mu_pos[:, 2],
0,
1);
w_relfric = w_rel;
...
tau0_max = peak*tau0;
table_signs =
if startForward then { 1, 1}
 elseif startBackward then { 1,-1}
 elseif pre(mode) == Forward then { 1, 1}
 else {-1,-1}; 		tau = if locked then sa*unitTorque else if free then 0 else cgeo*fn*(if
 startForward then Modelica400.Math.Vectors.interpolate(
 mu_pos[:, 1],
mu_pos[:, 2],
w_rel,
1) else if startBackward then -Modelica400.Math.Vectors.interpolate(
 mu_pos[:, 1],
mu_pos[:, 2],
w_rel,
1) else if pre(mode) == Forward then Modelica400.Math.Vectors.interpolate(
 mu_pos[:, 1],
mu_pos[:, 2],
w_rel,
1) else -Modelica400.Math.Vectors.interpolate(
 mu_pos[:, 1],
mu_pos[:, 2],
-w_rel,
1));
mu = table_signs[2]*(
 if smoothness == Smoothness.ConstantSegments then getTable1DValueNoDer(tableID, 1, table_signs[1]*w_rel)
elseif smoothness == Smoothness.LinearSegments then getTable1DValueNoDer2(tableID, 1, table_signs[1]*w_rel)
else getTable1DValue(tableID, 1, table_signs[1]*w_rel)); 		lossPower = tau*w_relfric;
tau = if locked then sa*unitTorque elseif free then 0 else mu*cgeo*fn;
lossPower = tau*w_relfric;


model Mechanics.Rotational.Components.OneWayClutch

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
mu0
parameter
=if smoothness == Smoothness.ConstantSegments then getTable1DValueNoDer(tableID, 1, 0) elseif smoothness == Smoothness.LinearSegments then getTable1DValueNoDer2(tableID, 1, 0) else getTable1DValue(tableID, 1, 0)
tau0_max_low
parameter
=eps0*mu0*cgeo*fn_max
smoothness
Present

mu
Present

tableID
Present


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
assert(size(mu_pos, 1) > 0 and size(mu_pos, 2) > 0, "Parameter mu_pos is an empty matrix"); mu0 = Modelica400.Math.Vectors.interpolate(
 mu_pos[:, 1],
 mu_pos[:, 2],
0,
1);

tau0_max_low = eps0*mu0*cgeo*fn_max;
u = f_normalized;
...
locked = pre(stuck) and not startForward;
mu =
    if smoothness == Smoothness.ConstantSegments then getTable1DValueNoDer(tableID, 1, w_rel)
    elseif smoothness == Smoothness.LinearSegments then getTable1DValueNoDer2(tableID, 1, w_rel)
    else getTable1DValue(tableID, 1, w_rel);
a_rel = unitAngularAcceleration*(if locked then 0 else sa - tau0/unitTorque);
tau = if locked then sa*unitTorque elseif free then 0 else mu*cgeo*fn; tau = if locked then sa*unitTorque else (if free then 0 else cgeo*fn*
Modelica400.Math.Vectors.interpolate(
mu_pos[:, 1],
mu_pos[:, 2],
w_rel,
1));
stuck = locked or w_rel <= 0;
...


model Mechanics.Rotational.Components.LossyGear

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
eta_mf1_0
=if smoothness == Smoothness.ConstantSegments then getTable1DValueNoDer(tableID, 1, 0) elseif smoothness == Smoothness.LinearSegments then getTable1DValueNoDer2(tableID, 1, 0) else getTable1DValue(tableID, 1, 0)
=Modelica400.Math.Vectors.interpolate(lossTable[:, 1], lossTable[:, 2], 0, 1)
eta_mf2_0
=if smoothness == Smoothness.ConstantSegments then getTable1DValueNoDer(tableID, 2, 0) elseif smoothness == Smoothness.LinearSegments then getTable1DValueNoDer2(tableID, 2, 0) else getTable1DValue(tableID, 2, 0)
=Modelica400.Math.Vectors.interpolate(lossTable[:, 1], lossTable[:, 3], 0, 1)
tau_bf1_0
=abs(if smoothness == Smoothness.ConstantSegments then getTable1DValueNoDer(tableID, 3, 0) elseif smoothness == Smoothness.LinearSegments then getTable1DValueNoDer2(tableID, 3, 0) else getTable1DValue(tableID, 3, 0))
=abs(Modelica400.Math.Vectors.interpolate(lossTable[:, 1], lossTable[:, 4], 0, 1))
tau_bf2_0
=abs(if smoothness == Smoothness.ConstantSegments then getTable1DValueNoDer(tableID, 4, 0) elseif smoothness == Smoothness.LinearSegments then getTable1DValueNoDer2(tableID, 4, 0) else getTable1DValue(tableID, 4, 0))
=abs(Modelica400.Math.Vectors.interpolate(lossTable[:, 1], lossTable[:, 5], 0, 1))
smoothness
Present

tableID
Present


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
assert(abs(ratio) > 0,
    "Error in initialization of LossyGear: ratio may not be zero");
assert(size(lossTable, 1) > 0 and size(lossTable, 2) > 0, "Parameter lossTable is an empty matrix");
ideal = Modelica410.Math.Matrices.isEqual(
    lossTable,
    [0,1,1,0,0],
    Modelica410.Constants.eps);
...
else
for i in 1:size(interpolation_result,2) loop interpolation_result = [Modelica400.Math.Vectors.interpolate(
 lossTable[:, 1],
lossTable[:, 2],
noEvent(abs(w_a)),
1),Modelica400.Math.Vectors.interpolate(
lossTable[:, 1],
lossTable[:, 3],
noEvent(abs(w_a)),
1),Modelica400.Math.Vectors.interpolate(
lossTable[:, 1],
lossTable[:, 4],
noEvent(abs(w_a)),
1),Modelica400.Math.Vectors.interpolate(
lossTable[:, 1],
lossTable[:, 5],
noEvent(abs(w_a)),
1)];
interpolation_result[1, i] =
            if smoothness == Smoothness.ConstantSegments then getTable1DValueNoDer(tableID, i, noEvent(abs(w_a)))
            elseif smoothness == Smoothness.LinearSegments then getTable1DValueNoDer2(tableID, i, noEvent(abs(w_a)))
            else getTable1DValue(tableID, i, noEvent(abs(w_a)));
end for;
eta_mf1 = interpolation_result[1, 1];
...


model Mechanics.Rotational.Sources.EddyCurrentTorque

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
useExcitationInput
Present

constantExcitation
Present

excitation
Present



excitationInternal
Present


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
if not useExcitationInput then
excitationInternal = constantExcitation;
end if;
tau = flange.tau;
...
w_normalized = w/(w_nominal*linearTemperatureDependency(1, TRef, alpha20, TheatPort));
tau = 2*tau_nominal*excitationInternal^2*w_normalized/(1 + w_normalized*w_normalized); tau = 2*tau_nominal*w_normalized/(1 + w_normalized*w_normalized);
lossPower = tau*w;


model Mechanics.Rotational.Interfaces.PartialFriction



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
locked = not free and not (pre(mode) == Forward or startForward or pre(
    mode) == Backward or startBackward);
a_relfric/unitAngularAcceleration = if locked then 0 else if free then sa
else if startForward then sa - tau0_max/unitTorque
else if startBackward then sa + tau0_max/unitTorque
else if pre(mode) == Forward then sa - tau0_max/unitTorque
else if pre(mode) == Backward then sa + tau0_max/unitTorque
else sa - sign(w_relfric)*tau0_max/unitTorque; 		a_relfric/unitAngularAcceleration = if locked then 0 else if free then sa
else if startForward then sa - tau0_max/unitTorque else if
 startBackward then sa + tau0_max/unitTorque else if pre(mode) ==
Forward then sa - tau0_max/unitTorque else sa + tau0_max/unitTorque;
mode = if free then Free else (if (pre(mode) == Forward or pre(mode) ==
    Free or startForward) and w_relfric > 0 then Forward else if (pre(mode)
     == Backward or pre(mode) == Free or startBackward) and w_relfric < 0
     then Backward else Stuck);


model Mechanics.Translational.Examples.EddyCurrentBrake

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
eddyCurrentForce
useExcitationInput=true
ramp
Present


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
connect(eddyCurrentForce.heatPort, heatCapacitor.port);
connect(ramp.y, eddyCurrentForce.excitation);


model Mechanics.Translational.Components.ElastoGap

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
f_ref
Present

s_ref
Present

ratio
Present


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
contact = s_rel < s_rel0;
ratio = (s_rel - s_rel0)/s_ref; f_c = smooth(1, noEvent(if contact then -c*abs(s_rel - s_rel0)^n else 0));
f_c = smooth(1, noEvent(if contact then -f_ref*abs(ratio)^n else 0));
f_d2 = if contact then d*v_rel else 0;
f_d = smooth(0, noEvent(if contact then min(max(f_d2, f_c), -f_c) else 0)); f_d = smooth(0, noEvent(if contact then (if f_d2 < f_c then f_c else if
 f_d2 > -f_c then -f_c else f_d2) else 0));
f = f_c + f_d;
...


model Mechanics.Translational.Components.SupportFriction

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
smoothness
Present

tableID
Present

table_signs
Present


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
assert(size(f_pos, 1) > 0 and size(f_pos, 2) > 0, "Parameter f_pos is an empty matrix"); f0 = Modelica400.Math.Vectors.interpolate(
 f_pos[:, 1],
 f_pos[:, 2],
0,
1);
f0 =
    if smoothness == Smoothness.ConstantSegments then getTable1DValueNoDer(tableID, 1, 0)
    elseif smoothness == Smoothness.LinearSegments then getTable1DValueNoDer2(tableID, 1, 0)
    else getTable1DValue(tableID, 1, 0);
f0_max = peak*f0;
...
flange_a.f + flange_b.f - f = 0;
table_signs =
if startForward then { 1, 1}
 elseif startBackward then {-1,-1}
 elseif pre(mode) == Forward then { 1, 1}
 else {-1,-1}; 		f = if locked then sa*unitForce else (if startForward then
 Modelica400.Math.Vectors.interpolate(
 f_pos[:, 1],
f_pos[:, 2],
v,
1) else if startBackward then -Modelica400.Math.Vectors.interpolate(
 f_pos[:, 1],
f_pos[:, 2],
-v,
1) else if pre(mode) == Forward then Modelica400.Math.Vectors.interpolate(
 f_pos[:, 1],
f_pos[:, 2],
v,
1) else -Modelica400.Math.Vectors.interpolate(
 f_pos[:, 1],
f_pos[:, 2],
-v,
1));
f = if locked then sa*unitForce else table_signs[2]*(
    if smoothness == Smoothness.ConstantSegments then getTable1DValueNoDer(tableID, 1, table_signs[1]*v)
    elseif smoothness == Smoothness.LinearSegments then getTable1DValueNoDer2(tableID, 1, table_signs[1]*v)
    else getTable1DValue(tableID, 1, table_signs[1]*v));
lossPower = f*v_relfric;


model Mechanics.Translational.Components.Brake

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
mu0
parameter
protected
=if smoothness == Smoothness.ConstantSegments then getTable1DValueNoDer(tableID, 1, 0) elseif smoothness == Smoothness.LinearSegments then getTable1DValueNoDer2(tableID, 1, 0) else getTable1DValue(tableID, 1, 0)
smoothness
Present

mu
Present

tableID
Present

table_signs
Present


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
assert(size(mu_pos, 1) > 0 and size(mu_pos, 2) > 0, "Parameter mu_pos is an empty matrix"); mu0 = Modelica400.Math.Vectors.interpolate(
 mu_pos[:, 1],
 mu_pos[:, 2],
0,
1);
s = s_a;
...
free = fn <= 0;
table_signs =
if startForward then { 1, 1}
 elseif startBackward then {-1,-1}
 elseif pre(mode) == Forward then { 1, 1}
 else {-1,-1}; 		f = if locked then sa*unitForce else if free then 0 else cgeo*fn*(if
 startForward then Modelica400.Math.Vectors.interpolate(
 mu_pos[:, 1],
mu_pos[:, 2],
v,
1) else if startBackward then -Modelica400.Math.Vectors.interpolate(
 mu_pos[:, 1],
mu_pos[:, 2],
-v,
1) else if pre(mode) == Forward then Modelica400.Math.Vectors.interpolate(
 mu_pos[:, 1],
mu_pos[:, 2],
v,
1) else -Modelica400.Math.Vectors.interpolate(
 mu_pos[:, 1],
mu_pos[:, 2],
-v,
1));
mu = table_signs[2]*(
 if smoothness == Smoothness.ConstantSegments then getTable1DValueNoDer(tableID, 1, table_signs[1]*v)
elseif smoothness == Smoothness.LinearSegments then getTable1DValueNoDer2(tableID, 1, table_signs[1]*v)
else getTable1DValue(tableID, 1, table_signs[1]*v)); 		lossPower = f*v_relfric;
f = if locked then sa*unitForce else if free then 0 else mu*cgeo*fn;
lossPower = f*v_relfric;


model Mechanics.Translational.Sources.EddyCurrentForce

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
useExcitationInput
Present

constantExcitation
Present

excitation
Present



excitationInternal
Present


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
if not useExcitationInput then
excitationInternal = constantExcitation;
end if;
v = der(s);
v_normalized = v/(v_nominal*linearTemperatureDependency(1, TRef, alpha20, TheatPort));
f = 2*f_nominal*excitationInternal^2*v_normalized/(1 + v_normalized*v_normalized); f = 2*f_nominal*v_normalized/(1 + v_normalized*v_normalized);
lossPower = f*v;


model Mechanics.Translational.Interfaces.PartialFriction



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
locked = not free and not (pre(mode) == Forward or startForward or pre(
    mode) == Backward or startBackward);
a_relfric/unitAcceleration = if locked then 0 else if free then sa
else if startForward then sa - f0_max/unitForce
else if startBackward then sa + f0_max/unitForce
else if pre(mode) == Forward then sa - f0_max/unitForce
 else if pre(mode) == Backward then sa + f0_max/unitForce
else sa - sign(v_relfric)*f0_max/unitForce; 		a_relfric/unitAcceleration = if locked then 0 else if free then sa else
 if startForward then sa - f0_max/unitForce else if startBackward then
sa + f0_max/unitForce else if pre(mode) == Forward then sa - f0_max/
 unitForce else sa + f0_max/unitForce;
mode = if free then Free else (if (pre(mode) == Forward or pre(mode) ==
    Free or startForward) and v_relfric > 0 then Forward else if (pre(mode)
     == Backward or pre(mode) == Free or startBackward) and v_relfric < 0
     then Backward else Stuck);


model Fluid.Examples.Tanks.EmptyTanks

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
tank1
portsData={Modelica410.Fluid.Vessels.BaseClasses.VesselPortsData(diameter=0.1, height=0.001)}
portsData={Modelica400.Fluid.Vessels.BaseClasses.VesselPortsData(diameter=0.1)}
tank2
level_start=1.0e-3
level_start=1.0e-10


model Fluid.Examples.AST_BatchPlant.BaseClasses.TankWith3InletOutletArraysWithEvaporatorCondensor

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
heatTransfer
redeclare package Medium = Medium

redeclare final package Medium = Medium


model Fluid.Examples.AST_BatchPlant.BaseClasses.TankWithTopPorts

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
heatTransfer
redeclare package Medium = Medium

redeclare final package Medium = Medium


model Fluid.Examples.HeatExchanger.HeatExchangerSimulation

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
HEX
dT=1
dT=10


model Fluid.Examples.HeatExchanger.BaseClasses.BasicHX

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
pipe_1
redeclare package Medium = Medium_1
redeclare model HeatTransfer = HeatTransfer_1
redeclare model FlowModel = FlowModel_1

redeclare final package Medium = Medium_1

redeclare final model HeatTransfer = HeatTransfer_1

redeclare final model FlowModel = FlowModel_1
pipe_2
redeclare package Medium = Medium_2
redeclare model HeatTransfer = HeatTransfer_2
redeclare model FlowModel = FlowModel_2

redeclare final package Medium = Medium_2

redeclare final model HeatTransfer = HeatTransfer_2

redeclare final model FlowModel = FlowModel_2
port_b1
redeclare package Medium = Medium_1

redeclare final package Medium = Medium_1
port_a1
redeclare package Medium = Medium_1

redeclare final package Medium = Medium_1
port_b2
redeclare package Medium = Medium_2

redeclare final package Medium = Medium_2
port_a2
redeclare package Medium = Medium_2

redeclare final package Medium = Medium_2


model Fluid.Examples.HeatExchanger.BaseClasses.WallConstProps

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
dT
Units.SI.TemperatureDifference
Units.SI.Temperature


model Fluid.Examples.Explanatory.MomentumBalanceFittings

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
suddenExpansion1
m_flow_start=60


model Fluid.Vessels.OpenTank



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
end for;
assert(level > 0, "Fluid level is too low; the energy balance equation becomes singular when the tank is completely empty.");
initial equation

...


model Fluid.Vessels.BaseClasses.PartialLumpedVessel

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
heatTransfer
redeclare package Medium = Medium

redeclare final package Medium = Medium


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
assert(fluidLevel <= fluidLevel_max, "Vessel is overflowing (fluidLevel > fluidLevel_max = " + String(fluidLevel) + ")");

assert(fluidLevel > -1e-6*fluidLevel_max, "Fluid level (= " + String(fluidLevel) + ") is below zero meaning that the solution failed.");
connect(portsData_diameter, portsData_diameter_internal);
...


model Fluid.Pipes.StaticPipe

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
flowModel
redeclare package Medium = Medium

redeclare final package Medium = Medium


model Fluid.Pipes.DynamicPipe

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
heatTransfer
redeclare package Medium = Medium

redeclare final package Medium = Medium


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
else

if modelStructure == ModelStructure.av_vb or modelStructure == ModelStructure.av_b then
Wb_flows[2:n-1] = {vs[i]*crossAreas[i]*((mediums[i+1].p - mediums[i-1].p)/2 + (flowModel.dps_fg[i-1]+flowModel.dps_fg[i])/2 - system.g*dheights[i]*mediums[i].d) for i in 2:n-1}*nParallel;
else
Wb_flows[2:n-1] = {vs[i]*crossAreas[i]*((mediums[i+1].p - mediums[i-1].p)/2 + (flowModel.dps_fg[i]+flowModel.dps_fg[i+1])/2 - system.g*dheights[i]*mediums[i].d) for i in 2:n-1}*nParallel;
end if;
if modelStructure == ModelStructure.av_vb then
Wb_flows[1] = vs[1]*crossAreas[1]*((mediums[2].p - mediums[1].p)/(if n==2 then 2 else 1.5) + flowModel.dps_fg[1]/(if n==2 then 2 else 1.5) - system.g*dheights[1]*mediums[1].d)*nParallel; Wb_flows[1] = vs[1]*crossAreas[1]*((mediums[2].p - mediums[1].p)/2 + flowModel.dps_fg[1]/2 - system.g*dheights[1]*mediums[1].d)*nParallel;
Wb_flows[2:n-1] = {vs[i]*crossAreas[i]*((mediums[i].p - mediums[i-1].p)/(if i==2 then 3 else 2) + (mediums[i+1].p - mediums[i].p)/(if i==n-1 then 3 else 2) + flowModel.dps_fg[i-1]/(if i==2 then 3 else 2) + flowModel.dps_fg[i]/(if i==n-1 then 3 else 2) - system.g*dheights[i]*mediums[i].d) for i in 2:n-1}*nParallel; Wb_flows[n] = vs[n]*crossAreas[n]*((mediums[n].p - mediums[n-1].p)/2 + flowModel.dps_fg[n-1]/2 - system.g*dheights[n]*mediums[n].d)*nParallel;
Wb_flows[n] = vs[n]*crossAreas[n]*((mediums[n].p - mediums[n-1].p)/(if n==2 then 2 else 1.5) + flowModel.dps_fg[n-1]/(if n==2 then 2 else 1.5) - system.g*dheights[n]*mediums[n].d)*nParallel;
elseif modelStructure == ModelStructure.av_b then
Wb_flows[1:n-1] = {vs[i]*crossAreas[i]*((mediums[i+1].p - mediums[i].p) + flowModel.dps_fg[i] - system.g*dheights[i]*mediums[i].d) for i in 1:n-1}*nParallel; Wb_flows[1] = vs[1]*crossAreas[1]*((mediums[2].p - mediums[1].p)/2 + flowModel.dps_fg[1]/2 - system.g*dheights[1]*mediums[1].d)*nParallel;
Wb_flows[n] = vs[n]*crossAreas[n]*((port_b.p - mediums[n].p) + flowModel.dps_fg[n] - system.g*dheights[n]*mediums[n].d)*nParallel; Wb_flows[n] = vs[n]*crossAreas[n]*((port_b.p - mediums[n-1].p)/1.5 + flowModel.dps_fg[n-1]/2+flowModel.dps_fg[n] - system.g*dheights[n]*mediums[n].d)*nParallel;
elseif modelStructure == ModelStructure.a_vb then
Wb_flows[1] = vs[1]*crossAreas[1]*((mediums[1].p - port_a.p) + flowModel.dps_fg[1] - system.g*dheights[1]*mediums[1].d)*nParallel; Wb_flows[1] = vs[1]*crossAreas[1]*((mediums[2].p - port_a.p)/1.5 + flowModel.dps_fg[1]+flowModel.dps_fg[2]/2 - system.g*dheights[1]*mediums[1].d)*nParallel;
Wb_flows[2:n] = {vs[i]*crossAreas[i]*((mediums[i].p - mediums[i-1].p) + flowModel.dps_fg[i] - system.g*dheights[i]*mediums[i].d) for i in 2:n}*nParallel; Wb_flows[n] = vs[n]*crossAreas[n]*((mediums[n].p - mediums[n-1].p)/2 + flowModel.dps_fg[n]/2 - system.g*dheights[n]*mediums[n].d)*nParallel;
elseif modelStructure == ModelStructure.a_v_b then
Wb_flows[1] = vs[1]*crossAreas[1]*(((mediums[1].p + mediums[2].p)/2 - port_a.p) + flowModel.dps_fg[1] + flowModel.dps_fg[2]/2 - system.g*dheights[1]*mediums[1].d)*nParallel; Wb_flows[1] = vs[1]*crossAreas[1]*((mediums[2].p - port_a.p)/1.5 + flowModel.dps_fg[1]+flowModel.dps_fg[2]/2 - system.g*dheights[1]*mediums[1].d)*nParallel;
Wb_flows[2:n-1] = {vs[i]*crossAreas[i]*((mediums[i+1].p - mediums[i-1].p)/2 + (flowModel.dps_fg[i] + flowModel.dps_fg[i+1])/2 - system.g*dheights[i]*mediums[i].d) for i in 2:n-1}*nParallel; Wb_flows[n] = vs[n]*crossAreas[n]*((port_b.p - mediums[n-1].p)/1.5 + flowModel.dps_fg[n]/2+flowModel.dps_fg[n+1] - system.g*dheights[n]*mediums[n].d)*nParallel;
Wb_flows[n] = vs[n]*crossAreas[n]*((port_b.p - (mediums[n-1].p + mediums[n].p)/2) + flowModel.dps_fg[n]/2 + flowModel.dps_fg[n+1] - system.g*dheights[n]*mediums[n].d)*nParallel;
else
...


model Fluid.Pipes.BaseClasses.PartialTwoPortFlow

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
flowModel
redeclare package Medium = Medium

redeclare final package Medium = Medium


function Fluid.Pipes.BaseClasses.WallFriction.NoFriction.massFlowRate_dp



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
assert(false, "Function cannot be used. Use instead
function pressureLoss_m_flow (option: from_dp=false) for WallFriction.NoFriction."); 		assert(false, "function massFlowRate_dp (option: from_dp=true)
cannot be used for WallFriction.NoFriction. Use instead
function pressureLoss_m_flow (option: from_dp=false)");


function Fluid.Pipes.BaseClasses.WallFriction.NoFriction.massFlowRate_dp_staticHead



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
assert(false, "Function cannot be used. Use instead
function pressureLoss_m_flow (option: from_dp=false) for WallFriction.NoFriction."); 		assert(false, "function massFlowRate_dp (option: from_dp=true)
cannot be used for WallFriction.NoFriction. Use instead
function pressureLoss_m_flow (option: from_dp=false)");


model Fluid.Machines.BaseClasses.PartialPump

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
heatTransfer
redeclare package Medium = Medium

redeclare final package Medium = Medium
monitoring
redeclare package Medium = Medium

redeclare final package Medium = Medium


function Fluid.Machines.BaseClasses.PumpCharacteristics.linearPower

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
c
=Modelica410.Math.Matrices.solve([ones(2), V_flow_nominal], W_nominal)
=Modelica400.Math.Matrices.solve([ones(3), V_flow_nominal], W_nominal)


model Fluid.Sources.FixedBoundary

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
X
quantity=Medium.substanceNames


model Fluid.Interfaces.PartialHeatTransfer

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
Ts
Media.Interfaces.Types.Temperature
Units.SI.Temperature


function Fluid.Dissipation.HeatTransfer.HeatExchanger.kc_flatTube



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
Nu = max(1e-3, kc*IN_con.D_h/IN_var.lambda);
else
assert(IN_con.geometry == TYP.LouverFin or IN_con.geometry == TYP.RectangularFin,
        "Unknown choice of geometry is selected");
end if;
...


function Fluid.Dissipation.HeatTransfer.HeatExchanger.kc_flatTube_KC



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
else
assert(IN_con.geometry == TYP.LouverFin or IN_con.geometry == TYP.RectangularFin,
        "Unknown choice of geometry is selected");
end if;
...


function Fluid.Dissipation.HeatTransfer.HeatExchanger.kc_roundTube



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
Nu = max(1e-3, kc*IN_con.D_c/IN_var.lambda);
else
assert(IN_con.geometry == TYP.PlainFin or IN_con.geometry == TYP.LouverFin or
        IN_con.geometry == TYP.SlitFin or IN_con.geometry == TYP.WavyFin,
        "Unknown choice of geometry is selected");
end if;
...


function Fluid.Dissipation.HeatTransfer.HeatExchanger.kc_roundTube_KC



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
else
assert(IN_con.geometry == TYP.PlainFin or IN_con.geometry == TYP.LouverFin or
        IN_con.geometry == TYP.SlitFin or IN_con.geometry == TYP.WavyFin,
        "Unknown choice of geometry is selected");
end if;
...


function Fluid.Dissipation.HeatTransfer.StraightPipe.kc_overall



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
else
assert(IN_con.roughness == TYP.Neglected or IN_con.roughness == TYP.Considered,
"Unknown choice of roughness is selected"); 		assert(false, "No choice of roughness is selected");
end if;
...


function Fluid.Dissipation.HeatTransfer.StraightPipe.kc_turbulent



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
else
assert(IN_con.roughness == TYP.Neglected or IN_con.roughness == TYP.Considered,
"Unknown choice of roughness is selected"); 		assert(false, "No choice of roughness is selected");
end if;
...


function Fluid.Dissipation.PressureLoss.General.dp_pressureLossCoefficient_DP



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
DP := 0.5*IN_var.zeta_TOT*
Modelica410.Fluid.Dissipation.Utilities.Functions.General.SmoothPower(
m_flow,
sqrt(IN_con.dp_smooth/(0.5*IN_var.zeta_TOT*IN_var.rho))*IN_var.rho
*IN_con.A_cross,
2)/(IN_var.rho*(IN_con.A_cross)^2); 		DP := 0.5*IN_var.zeta_TOT*
Modelica400.Fluid.Dissipation.Utilities.Functions.General.SmoothPower(
m_flow,
(IN_con.dp_smooth/(0.5*IN_var.zeta_TOT*IN_var.rho))^0.5*IN_var.rho
*IN_con.A_cross,
2)/(IN_var.rho*(IN_con.A_cross)^2);


function Fluid.Dissipation.PressureLoss.General.dp_pressureLossCoefficient_MFLOW



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
M_FLOW := IN_var.rho*IN_con.A_cross*
Modelica410.Fluid.Dissipation.Utilities.Functions.General.SmoothPower(
dp,
IN_con.dp_smooth,
0.5)/sqrt(0.5*IN_var.zeta_TOT*IN_var.rho); 		M_FLOW := IN_var.rho*IN_con.A_cross*
Modelica400.Fluid.Dissipation.Utilities.Functions.General.SmoothPower(
dp,
IN_con.dp_smooth,
0.5)/(0.5*IN_var.zeta_TOT*IN_var.rho)^0.5;


function Fluid.Dissipation.PressureLoss.General.dp_volumeFlowRate_MFLOW



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
assert(a+b>0, "Please provide non-zero factors for either a or b of function dp=a*V_flow^2 + b*V_flow");
M_FLOW = IN_var.rho*(if a > 0 and b <= 0 then
Modelica410.Fluid.Dissipation.Utilities.Functions.General.SmoothPower(
(1/a)*dp,
(1/a)*dp_min,
0.5) elseif a > 0 and b > 0 then sign(dp)*(-b/(2*a) + sqrt((b/(
2*a))^2 + (1/a)*abs(dp))) else dp/b); 		M_FLOW = IN_var.rho*(if a > 0 and b <= 0 then
Modelica400.Fluid.Dissipation.Utilities.Functions.General.SmoothPower(
(1/a)*dp,
(1/a)*dp_min,
0.5) elseif a > 0 and b > 0 then sign(dp)*(-b/(2*a) + sqrt((b/(
2*a))^2 + (1/a)*abs(dp))) else b*dp);


record Fluid.Dissipation.Utilities.Records.PressureLoss.Geometry

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
a_tri
=d_cir*(1 + sqrt(2))
=d_cir*(1 + 2^0.5)


function Fluid.Utilities.regFun3



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
theta0 = (y0d*mu + y1d*eta)/h0;
if abs(theta0 - c) < 1e-6*abs(c) then if abs(theta0 - c) < 1e-6 then
c = (1 - 1e-6)*theta0;
...


model Media.Examples.SimpleLiquidWater

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
pressureRate
Present


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
der(U) = H_flow_ext;
medium2.p = pressureRate*time; medium2.p = 1e5*time/10;
medium2.T = 330;
...


model Media.Examples.IdealGasH2O

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
p01
Present

pRate1
Present

T01
Present

Trate1
Present

p02
Present

pRate2
Present

T02
Present

Trate2
Present


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
state.p = p01 + pRate1*time; state.p = 100000.0;
state.T = T01 + Trate1*time; state.T = 200 + 1000*time;
state2.p = p02 + pRate2*time; state2.p = 2.0e5;
state2.T = T02 + Trate2*time; state2.T = 500.0;
m_flow_ext = time - 0.5;
...


model Media.Examples.MixtureGases

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
m1
Units.SI.Mass
Real
m2
Units.SI.Mass
Real


model Media.Examples.MoistAir

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
p01
Present

pRate1
Present

T01
Present

Trate1
Present

p02
Present

pRate2
Present

T02
Present

Trate2
Present


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
medium.X[Medium.Air] = 0.95;
m_flow_ext = time/unitTime - 0.5; m_flow_ext = time - 0.5;
state1.p = p01 + pRate1*time; state1.p = 1.e5*(1 + time);
state1.T = T01 + Trate1*time; state1.T = 300 + 10*time;
state1.X = {time,1 - time}/unitTime;
state2.p = p02 + pRate2*time; state2.p = 1.e5*(1 + time/2);
state2.T = T02 + Trate2*time; state2.T = 340 - 20*time;
state2.X = {0.5*time,1 - 0.5*time}/unitTime;
...


model Media.Examples.TwoPhaseWater.TestTwoPhaseStates

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
dp
Units.SI.PressureSlope
Real


model Media.Examples.ReferenceAir.MoistAir

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
p01
Present

pRate1
Present

T01
Present

Trate1
Present

p02
Present

pRate2
Present

T02
Present

Trate2
Present


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
m_flow_ext = time - 0.5;
state1.p = p01 + pRate1*time; state1.p = 1.e5*(1 + time);
state1.T = T01 + Trate1*time; state1.T = 300 + 10*time;
state1.X = {time,1 - time}/unitTime;
state2.p = p02 + pRate2*time; state2.p = 1.e5*(1 + time/2);
state2.T = T02 + Trate2*time; state2.T = 340 - 20*time;
state2.X = {0.5*time,1 - 0.5*time}/unitTime;
...


model Media.Examples.ReferenceAir.Inverse_sh_T



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
h2 = Medium.specificEnthalpy_pTX(
          p,
          Th,
          fill(0.0, 0));
s2 = Medium.specificEntropy_pTX(
p,
Ts,
fill(0.0, 0)); 		s2 = Medium.specificEntropy_pTX(
p,
Ts,
fill(0, 0));
assert(abs(h1 - h2) < 1e-3, "Inverse for h not correctly computed");
...


function Media.Interfaces.PartialPureSubstance.setState_pT



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
state := setState_pTX(
p,
T,
fill(0.0, 0)); 		state := setState_pTX(
p,
T,
fill(0, 0));


function Media.Interfaces.PartialPureSubstance.setState_ph



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
state := setState_phX(
p,
h,
fill(0.0, 0)); 		state := setState_phX(
p,
h,
fill(0, 0));


function Media.Interfaces.PartialPureSubstance.setState_ps



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
state := setState_psX(
p,
s,
fill(0.0, 0)); 		state := setState_psX(
p,
s,
fill(0, 0));


function Media.Interfaces.PartialPureSubstance.setState_dT



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
state := setState_dTX(
d,
T,
fill(0.0, 0)); 		state := setState_dTX(
d,
T,
fill(0, 0));


function Media.Interfaces.PartialPureSubstance.density_ph



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
d := density_phX(
p,
h,
fill(0.0, 0)); 		d := density_phX(
p,
h,
fill(0, 0));


function Media.Interfaces.PartialPureSubstance.temperature_ph



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
T := temperature_phX(
p,
h,
fill(0.0, 0)); 		T := temperature_phX(
p,
h,
fill(0, 0));


function Media.Interfaces.PartialPureSubstance.pressure_dT



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
p := pressure(setState_dTX(
d,
T,
fill(0.0, 0))); 		p := pressure(setState_dTX(
d,
T,
fill(0, 0)));


function Media.Interfaces.PartialPureSubstance.specificEnthalpy_dT



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
h := specificEnthalpy(setState_dTX(
d,
T,
fill(0.0, 0))); 		h := specificEnthalpy(setState_dTX(
d,
T,
fill(0, 0)));


function Media.Interfaces.PartialPureSubstance.specificEnthalpy_ps



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
h := specificEnthalpy_psX(
p,
s,
fill(0.0, 0)); 		h := specificEnthalpy_psX(
p,
s,
fill(0, 0));


function Media.Interfaces.PartialPureSubstance.temperature_ps



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
T := temperature_psX(
p,
s,
fill(0.0, 0)); 		T := temperature_psX(
p,
s,
fill(0, 0));


function Media.Interfaces.PartialPureSubstance.density_ps



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
d := density_psX(
p,
s,
fill(0.0, 0)); 		d := density_psX(
p,
s,
fill(0, 0));


function Media.Interfaces.PartialPureSubstance.specificEnthalpy_pT



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
h := specificEnthalpy_pTX(
p,
T,
fill(0.0, 0)); 		h := specificEnthalpy_pTX(
p,
T,
fill(0, 0));


function Media.Interfaces.PartialPureSubstance.density_pT



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
d := density(setState_pTX(
p,
T,
fill(0.0, 0))); 		d := density(setState_pTX(
p,
T,
fill(0, 0)));


function Media.Interfaces.PartialTwoPhaseMedium.setState_pT



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
state := setState_pTX(
p,
T,
fill(0.0, 0),
phase); 		state := setState_pTX(
p,
T,
fill(0, 0),
phase);


function Media.Interfaces.PartialTwoPhaseMedium.setState_ph



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
state := setState_phX(
p,
h,
fill(0.0, 0),
phase); 		state := setState_phX(
p,
h,
fill(0, 0),
phase);


function Media.Interfaces.PartialTwoPhaseMedium.setState_ps



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
state := setState_psX(
p,
s,
fill(0.0, 0),
phase); 		state := setState_psX(
p,
s,
fill(0, 0),
phase);


function Media.Interfaces.PartialTwoPhaseMedium.setState_dT



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
state := setState_dTX(
d,
T,
fill(0.0, 0),
phase); 		state := setState_dTX(
d,
T,
fill(0, 0),
phase);


function Media.Interfaces.PartialTwoPhaseMedium.density_ph



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
d := density_phX(
p,
h,
fill(0.0, 0),
phase); 		d := density_phX(
p,
h,
fill(0, 0),
phase);


function Media.Interfaces.PartialTwoPhaseMedium.temperature_ph



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
T := temperature_phX(
p,
h,
fill(0.0, 0),
phase); 		T := temperature_phX(
p,
h,
fill(0, 0),
phase);


function Media.Interfaces.PartialTwoPhaseMedium.pressure_dT



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
p := pressure(setState_dTX(
d,
T,
fill(0.0, 0),
phase)); 		p := pressure(setState_dTX(
d,
T,
fill(0, 0),
phase));


function Media.Interfaces.PartialTwoPhaseMedium.specificEnthalpy_dT



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
h := specificEnthalpy(setState_dTX(
d,
T,
fill(0.0, 0),
phase)); 		h := specificEnthalpy(setState_dTX(
d,
T,
fill(0, 0),
phase));


function Media.Interfaces.PartialTwoPhaseMedium.specificEnthalpy_ps



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
h := specificEnthalpy_psX(
p,
s,
fill(0.0, 0)); 		h := specificEnthalpy_psX(
p,
s,
fill(0, 0));


function Media.Interfaces.PartialTwoPhaseMedium.temperature_ps



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
T := temperature_psX(
p,
s,
fill(0.0, 0),
phase); 		T := temperature_psX(
p,
s,
fill(0, 0),
phase);


function Media.Interfaces.PartialTwoPhaseMedium.density_ps



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
d := density_psX(
p,
s,
fill(0.0, 0),
phase); 		d := density_psX(
p,
s,
fill(0, 0),
phase);


function Media.Interfaces.PartialTwoPhaseMedium.specificEnthalpy_pT



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
h := specificEnthalpy_pTX(
p,
T,
fill(0.0, 0),
phase); 		h := specificEnthalpy_pTX(
p,
T,
fill(0, 0),
phase);


function Media.Interfaces.PartialTwoPhaseMedium.density_pT



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
d := density(setState_pTX(
p,
T,
fill(0.0, 0),
phase)); 		d := density(setState_pTX(
p,
T,
fill(0, 0),
phase));


function Media.Air.MoistAir.saturationPressureLiquid_der

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
dTsat
Units.SI.TemperatureSlope
Real
psat_der
Units.SI.PressureSlope
Real


function Media.Air.MoistAir.sublimationPressureIce_der

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
dTsat
Units.SI.TemperatureSlope
Real
psat_der
Units.SI.PressureSlope
Real


function Media.Air.MoistAir.saturationPressure_der

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
Tsat
Units.SI.Temperature
Media.Interfaces.Types.Temperature
dTsat
Units.SI.TemperatureSlope
Real
psat_der
Units.SI.PressureSlope
Real


function Media.Air.MoistAir.h_pTX_der

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
dp
Units.SI.PressureSlope
Real
dT
Units.SI.TemperatureSlope
Real
dps
Units.SI.PressureSlope
Real


function Media.Air.MoistAir.specificInternalEnergy_pTX_der

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
dp
Units.SI.PressureSlope
Real
dT
Units.SI.TemperatureSlope
Real
dps
Units.SI.PressureSlope
Real


function Media.Air.MoistAir.s_pTX_der

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
dp
Units.SI.PressureSlope
Real
dT
Units.SI.TemperatureSlope
Real


function Media.Air.MoistAir.Utilities.spliceFunction

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
lim
Present

scaledXp
Present

scaledXt
Present

scaledX

Present


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
scaledX1 := x/deltax;
if scaledX1 <= -lim then scaledX = scaledX1*Modelica400.Math.asin(1);
y = 0.0; if scaledX1 <= -0.999999999 then
elseif scaledX1 >= lim then y = 0;
y = 1.0; elseif scaledX1 >= 0.999999999 then

y = 1;
else
scaledXp = scaledX1*0.5*Modelica410.Constants.pi; y = (Modelica400.Math.tanh(Modelica400.Math.tan(scaledX)) + 1)/2;
scaledXt = Modelica410.Math.tan(scaledXp);
y = 0.5*Modelica410.Math.tanh(scaledXt) + 0.5;
end if;
out = pos*y + (1.0 - y)*neg; out = pos*y + (1 - y)*neg;


function Media.Air.MoistAir.Utilities.spliceFunction_der

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
lim
Present

scaledXp
Present

scaledXt
Present

scaledX

Present


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
scaledX1 := x/deltax;
if scaledX1 <= -lim then scaledX = scaledX1*Modelica400.Math.asin(1);
y = 0.0;
elseif scaledX1 >= lim then
y = 1.0;
else
scaledXp = scaledX1*0.5*Modelica410.Constants.pi;
scaledXt = Modelica410.Math.tan(scaledXp);
y = 0.5*Modelica410.Math.tanh(scaledXt) + 0.5;
end if;
out = dpos*y + (1 - y)*dneg;
if (abs(scaledX1) < lim) then
dscaledX1 = (dx - scaledX1*ddeltax)/deltax;
out = out + (pos - neg)*dscaledX1*0.25*Modelica410.Constants.pi*(1 -
Modelica410.Math.tanh(scaledXt)^2)*(scaledXt^2 + 1); 		if scaledX1 <= -0.99999999999 then
end if; y = 0;
elseif scaledX1 >= 0.9999999999 then

y = 1;
else
y = (Modelica400.Math.tanh(Modelica400.Math.tan(scaledX)) + 1)/2;
end if;
out = dpos*y + (1 - y)*dneg;
if (abs(scaledX1) < 1) then
out = out + (pos - neg)*dscaledX1*Modelica400.Math.asin(1)/2/(
        Modelica400.Math.cosh(Modelica400.Math.tan(scaledX))*
        Modelica400.Math.cos(scaledX))^2;
end if;


function Media.Air.ReferenceMoistAir.Utilities.cp_pTX



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
if (T >= 773.15) then
cp = X[1]*
Modelica410.Media.Air.ReferenceMoistAir.Utilities.IF97_new.cp_pT(
pd, T) + (1 - X[1])*
 Modelica410.Media.Air.ReferenceAir.Air_Utilities.cp_pT(pl, T) +
Modelica410.Media.Air.ReferenceMoistAir.Utilities.cp_dis_pTX(p, T,
X); 		cp = X[1]*
Modelica400.Media.Air.ReferenceMoistAir.Utilities.IF97_new.cp_pT(
pd, T) + X[2]*
 Modelica400.Media.Air.ReferenceAir.Air_Utilities.cp_pT(pl, T) +
Modelica400.Media.Air.ReferenceMoistAir.Utilities.cp_dis_pTX(p, T,
X);
else
cp = X[1]*
Modelica410.Media.Air.ReferenceMoistAir.Utilities.IF97_new.cp_pT(
pd, T) + (1 - X[1])*
 Modelica410.Media.Air.ReferenceAir.Air_Utilities.cp_pT(pl, T); 		cp = X[1]*
Modelica400.Media.Air.ReferenceMoistAir.Utilities.IF97_new.cp_pT(
pd, T) + X[2]*
 Modelica400.Media.Air.ReferenceAir.Air_Utilities.cp_pT(pl, T);
end if;
...


function Media.Air.ReferenceMoistAir.Utilities.cv_pTX



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
if ((xw <= xws) or (xws == -1)) then
cv = X[1]*
Modelica410.Media.Air.ReferenceMoistAir.Utilities.IF97_new.cv_pT(pd,
T) + (1 - X[1])*
Modelica410.Media.Air.ReferenceAir.Air_Utilities.cv_pT(pl, T); 		cv = X[1]*
Modelica400.Media.Air.ReferenceMoistAir.Utilities.IF97_new.cv_pT(pd,
T) + X[2]*Modelica400.Media.Air.ReferenceAir.Air_Utilities.cv_pT(pl,
T);
else
...


function Media.Air.ReferenceMoistAir.Utilities.h_dis_pTX



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
else
massFraction = {X[1],(1 - X[1])*Xi_Air[1],(1 - X[1])*Xi_Air[2],(1 - X[1])*Xi_Air[3]}; massFraction = {X[1],X[2]*Xi_Air[1],X[2]*Xi_Air[2],X[2]*Xi_Air[3]};
for i in 1:4 loop
...


function Media.Air.ReferenceMoistAir.Utilities.cp_dis_pTX



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
else
massFraction = {X[1],(1 - X[1])*Xi_Air[1],(1 - X[1])*Xi_Air[2],(1 - X[1])*Xi_Air[3]}; massFraction = {X[1],X[2]*Xi_Air[1],X[2]*Xi_Air[2],X[2]*Xi_Air[3]};
for i in 1:4 loop
...


function Media.Air.ReferenceMoistAir.Utilities.s_dis_pTX



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
else
massFraction = {X[1],(1 - X[1])*Xi_Air[1],(1 - X[1])*Xi_Air[2],(1 - X[1])*Xi_Air[3]}; massFraction = {X[1],X[2]*Xi_Air[1],X[2]*Xi_Air[2],X[2]*Xi_Air[3]};
for i in 1:4 loop
...


function Media.Air.ReferenceMoistAir.Utilities.pd_pTX_der



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
pds_der = Modelica410.Media.Air.ReferenceMoistAir.Utilities.pds_pT_der(
            p,
            T,
            p_der,
            T_der);
pd_der = xw_der*Modelica410.Media.Air.ReferenceMoistAir.k_mair/(
Modelica410.Media.Air.ReferenceMoistAir.k_mair + xw)^2*p + xw/(
 Modelica410.Media.Air.ReferenceMoistAir.k_mair + xw)*p_der; 		pd_der = (xw_der*(Modelica400.Media.Air.ReferenceMoistAir.k_mair + xw)
 - xw*xw_der)*p + xw/(Modelica400.Media.Air.ReferenceMoistAir.k_mair
+ xw)*p_der;
xws = Modelica410.Media.Air.ReferenceMoistAir.Utilities.xws_pT(p, T);
...


function Media.Air.ReferenceMoistAir.Utilities.h_dis_pTX_der



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
else
massFraction = {X[1],(1 - X[1])*Xi_Air[1],(1 - X[1])*Xi_Air[2],(1 - X[1])*Xi_Air[3]}; massFraction = {X[1],X[2]*Xi_Air[1],X[2]*Xi_Air[2],X[2]*Xi_Air[3]};
massFraction_der = {X_der[1],-X_der[1]*Xi_Air[1],-X_der[1]*Xi_Air[2],
-X_der[1]*Xi_Air[3]}; 		massFraction_der = {X_der[1],X_der[2]*Xi_Air[1],X_der[2]*Xi_Air[2],
X_der[2]*Xi_Air[3]};
for i in 1:4 loop
...


package Media.IdealGases.Common.FluidData

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
N2
iupacName="molecular nitrogen"
iupacName="unknown"
O2
iupacName="molecular oxygen"
iupacName="unknown"
CL2
iupacName="molecular chlorine"
iupacName="unknown"
F2
iupacName="molecular fluorine"
iupacName="unknown"
CO
iupacName="carbon monoxide"
iupacName="unknown"
H2
iupacName="molecular hydrogen"
iupacName="unknown"
N2O
iupacName="nitrous oxide"
iupacName="unknown"
NO
iupacName="nitric oxide"
iupacName="unknown"
NH3
iupacName="azane"
iupacName="unknown"
SO2
iupacName="sulfur dioxide"
iupacName="unknown"
SO3
iupacName="sulfur trioxide"
iupacName="unknown"
Ar
iupacName="argon"
iupacName="unknown"
He
iupacName="helium"
iupacName="unknown"
Ne
iupacName="neon"
iupacName="unknown"
CH4
iupacName="methane"
iupacName="unknown"
C2H6
iupacName="ethane"
iupacName="unknown"
C3H8
iupacName="propane"
iupacName="unknown"
C4H10_n_butane
iupacName="butane"
iupacName="unknown"
C5H12_n_pentane
iupacName="pentane"
iupacName="unknown"
C6H14_n_hexane
iupacName="hexane"
iupacName="unknown"
C7H16_n_heptane
iupacName="heptane"
iupacName="unknown"
C2H4
iupacName="ethene"
iupacName="unknown"
C3H6_propylene
iupacName="prop-1-ene"
iupacName="unknown"
C4H8_1_butene
iupacName="but-1-ene"
iupacName="unknown"
C5H10_1_pentene
iupacName="pent-1-ene"
iupacName="unknown"
C6H12_1_hexene
iupacName="hex-1-ene"
iupacName="unknown"
C7H14_1_heptene
iupacName="hept-1-ene"
iupacName="unknown"
C2H2_vinylidene
iupacName="acetylene"
iupacName="unknown"
C6H6
iupacName="benzene"
iupacName="unknown"
C8H18_n_octane
iupacName="octane"
iupacName="unknown"
C8H10_ethylbenz
iupacName="ethylbenzene"
iupacName="unknown"
CH3OH
iupacName="methanol"
iupacName="unknown"
C2H5OH
iupacName="ethanol"
iupacName="unknown"
C3H7OH
iupacName="propan-1-ol"
iupacName="unknown"
C4H9OH
iupacName="butan-1-ol"
iupacName="unknown"


package Media.IdealGases.Common.SingleGasesData

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
Ag
R_s=R_NASA_2002/Ag.MM
R_s=77.07991789980736
Agplus
R_s=R_NASA_2002/Agplus.MM
R_s=77.08030991764042
Agminus
R_s=R_NASA_2002/Agminus.MM
R_s=77.07952588596174
Air
R_s=R_NASA_2002/Air.MM
R_s=287.0512249529787
AL
R_s=R_NASA_2002/AL.MM
R_s=308.1541163442944
ALplus
R_s=R_NASA_2002/ALplus.MM
R_s=308.1603819910326
ALminus
R_s=R_NASA_2002/ALminus.MM
R_s=308.1478509523426
ALBr
R_s=R_NASA_2002/ALBr.MM
R_s=77.7885591968485
ALBr2
R_s=R_NASA_2002/ALBr2.MM
R_s=44.51251440003026
ALBr3
R_s=R_NASA_2002/ALBr3.MM
R_s=31.17612845947546
ALC
R_s=R_NASA_2002/ALC.MM
R_s=213.2340287828567
ALC2
R_s=R_NASA_2002/ALC2.MM
R_s=163.019471544953
ALCL
R_s=R_NASA_2002/ALCL.MM
R_s=133.1710342759323
ALCLplus
R_s=R_NASA_2002/ALCLplus.MM
R_s=133.1722044338881
ALCL2
R_s=R_NASA_2002/ALCL2.MM
R_s=84.93902461823076
ALCL3
R_s=R_NASA_2002/ALCL3.MM
R_s=62.35517063835456
ALF
R_s=R_NASA_2002/ALF.MM
R_s=180.8282434254179
ALFplus
R_s=R_NASA_2002/ALFplus.MM
R_s=180.8304009653229
ALFCL
R_s=R_NASA_2002/ALFCL.MM
R_s=102.1020716859482
ALFCL2
R_s=R_NASA_2002/ALFCL2.MM
R_s=71.13320827671959
ALF2
R_s=R_NASA_2002/ALF2.MM
R_s=127.9575845887511
ALF2minus
R_s=R_NASA_2002/ALF2minus.MM
R_s=127.9565042759347
ALF2CL
R_s=R_NASA_2002/ALF2CL.MM
R_s=82.78762023621782
ALF3
R_s=R_NASA_2002/ALF3.MM
R_s=99.00921668940654
ALF4minus
R_s=R_NASA_2002/ALF4minus.MM
R_s=80.74207845584199
ALH
R_s=R_NASA_2002/ALH.MM
R_s=297.0570583702919
ALHCL
R_s=R_NASA_2002/ALHCL.MM
R_s=131.0552844420737
ALHCL2
R_s=R_NASA_2002/ALHCL2.MM
R_s=84.07332840840307
ALHF
R_s=R_NASA_2002/ALHF.MM
R_s=176.9492853829723
ALHFCL
R_s=R_NASA_2002/ALHFCL.MM
R_s=100.8537497292059
ALHF2
R_s=R_NASA_2002/ALHF2.MM
R_s=126.0030334425073
ALH2
R_s=R_NASA_2002/ALH2.MM
R_s=286.7314600217164
ALH2CL
R_s=R_NASA_2002/ALH2CL.MM
R_s=129.0057110257997
ALH2F
R_s=R_NASA_2002/ALH2F.MM
R_s=173.2332480645211
ALH3
R_s=R_NASA_2002/ALH3.MM
R_s=277.0995766822712
ALI
R_s=R_NASA_2002/ALI.MM
R_s=54.03007140194319
ALI2
R_s=R_NASA_2002/ALI2.MM
R_s=29.61094713475291
ALI3
R_s=R_NASA_2002/ALI3.MM
R_s=20.39385584930034
ALN
R_s=R_NASA_2002/ALN.MM
R_s=202.8501932676394
ALO
R_s=R_NASA_2002/ALO.MM
R_s=193.4455688240215
ALOplus
R_s=R_NASA_2002/ALOplus.MM
R_s=193.4480379556543
ALOminus
R_s=R_NASA_2002/ALOminus.MM
R_s=193.4430997554189
ALOCL
R_s=R_NASA_2002/ALOCL.MM
R_s=106.0060505950881
ALOCL2
R_s=R_NASA_2002/ALOCL2.MM
R_s=73.00637058132162
ALOF
R_s=R_NASA_2002/ALOF.MM
R_s=134.1490864378533
ALOF2
R_s=R_NASA_2002/ALOF2.MM
R_s=102.6760137813866
ALOF2minus
R_s=R_NASA_2002/ALOF2minus.MM
R_s=102.6753181868134
ALOH
R_s=R_NASA_2002/ALOH.MM
R_s=189.0130500714294
ALOHCL
R_s=R_NASA_2002/ALOHCL.MM
R_s=104.661070575396
ALOHCL2
R_s=R_NASA_2002/ALOHCL2.MM
R_s=72.36590651151568
ALOHF
R_s=R_NASA_2002/ALOHF.MM
R_s=132.0023954296348
ALOHF2
R_s=R_NASA_2002/ALOHF2.MM
R_s=101.4137048540635
ALO2
R_s=R_NASA_2002/ALO2.MM
R_s=140.9702331648218
ALO2minus
R_s=R_NASA_2002/ALO2minus.MM
R_s=140.9689219558121
AL_OH_2
R_s=R_NASA_2002/AL_OH_2.MM
R_s=136.3112709709314
AL_OH_2CL
R_s=R_NASA_2002/AL_OH_2CL.MM
R_s=86.20569634893255
AL_OH_2F
R_s=R_NASA_2002/AL_OH_2F.MM
R_s=103.9378882639174
AL_OH_3
R_s=R_NASA_2002/AL_OH_3.MM
R_s=106.5909326854039
ALS
R_s=R_NASA_2002/ALS.MM
R_s=140.8121844501705
ALS2
R_s=R_NASA_2002/ALS2.MM
R_s=91.25597243238283
AL2
R_s=R_NASA_2002/AL2.MM
R_s=154.0770581721472
AL2Br6
R_s=R_NASA_2002/AL2Br6.MM
R_s=15.58806422973773
AL2C2
R_s=R_NASA_2002/AL2C2.MM
R_s=106.6170143914284
AL2CL6
R_s=R_NASA_2002/AL2CL6.MM
R_s=31.17758531917728
AL2F6
R_s=R_NASA_2002/AL2F6.MM
R_s=49.50460834470327
AL2I6
R_s=R_NASA_2002/AL2I6.MM
R_s=10.19692792465017
AL2O
R_s=R_NASA_2002/AL2O.MM
R_s=118.8418774658576
AL2Oplus
R_s=R_NASA_2002/AL2Oplus.MM
R_s=118.842809353477
AL2O2
R_s=R_NASA_2002/AL2O2.MM
R_s=96.72278441201074
AL2O2plus
R_s=R_NASA_2002/AL2O2plus.MM
R_s=96.72340169097949
AL2O3
R_s=R_NASA_2002/AL2O3.MM
R_s=81.54538983996238
AL2S
R_s=R_NASA_2002/AL2S.MM
R_s=96.64835466040181
AL2S2
R_s=R_NASA_2002/AL2S2.MM
R_s=70.40609222508525
Ar
R_s=R_NASA_2002/Ar.MM
R_s=208.1323720837088
Arplus
R_s=R_NASA_2002/Arplus.MM
R_s=208.135230374171
B
R_s=R_NASA_2002/B.MM
R_s=769.0752011839794
Bplus
R_s=R_NASA_2002/Bplus.MM
R_s=769.1142295871198
Bminus
R_s=R_NASA_2002/Bminus.MM
R_s=769.0361767416002
BBr
R_s=R_NASA_2002/BBr.MM
R_s=91.65487515846331
BBr2
R_s=R_NASA_2002/BBr2.MM
R_s=48.73121985241972
BBr3
R_s=R_NASA_2002/BBr3.MM
R_s=33.18845774639455
BC
R_s=R_NASA_2002/BC.MM
R_s=364.323078473558
BC2
R_s=R_NASA_2002/BC2.MM
R_s=238.6993718491979
BCL
R_s=R_NASA_2002/BCL.MM
R_s=179.7179664533979
BCLplus
R_s=R_NASA_2002/BCLplus.MM
R_s=179.7200975800954
BCLOH
R_s=R_NASA_2002/BCLOH.MM
R_s=131.4097662543578
BCL_OH_2
R_s=R_NASA_2002/BCL_OH_2.MM
R_s=103.5701135095894
BCL2
R_s=R_NASA_2002/BCL2.MM
R_s=101.7471517554487
BCL2plus
R_s=R_NASA_2002/BCL2plus.MM
R_s=101.747834830723
BCL2OH
R_s=R_NASA_2002/BCL2OH.MM
R_s=84.2190689752902
BF
R_s=R_NASA_2002/BF.MM
R_s=278.9211157370638
BFCL
R_s=R_NASA_2002/BFCL.MM
R_s=127.4006409865091
BFCL2
R_s=R_NASA_2002/BFCL2.MM
R_s=82.5541251469666
BFOH
R_s=R_NASA_2002/BFOH.MM
R_s=177.5961212099008
BF_OH_2
R_s=R_NASA_2002/BF_OH_2.MM
R_s=130.2717028295677
BF2
R_s=R_NASA_2002/BF2.MM
R_s=170.3512739716162
BF2plus
R_s=R_NASA_2002/BF2plus.MM
R_s=170.3531887423513
BF2minus
R_s=R_NASA_2002/BF2minus.MM
R_s=170.3493592439245
BF2CL
R_s=R_NASA_2002/BF2CL.MM
R_s=98.67543826402306
BF2OH
R_s=R_NASA_2002/BF2OH.MM
R_s=126.3306769762044
BF3
R_s=R_NASA_2002/BF3.MM
R_s=122.6210998822739
BF4minus
R_s=R_NASA_2002/BF4minus.MM
R_s=95.783152359878
BH
R_s=R_NASA_2002/BH.MM
R_s=703.4871147497153
BHCL
R_s=R_NASA_2002/BHCL.MM
R_s=175.8859907166916
BHCL2
R_s=R_NASA_2002/BHCL2.MM
R_s=100.5074406823384
BHF
R_s=R_NASA_2002/BHF.MM
R_s=269.798468545465
BHFCL
R_s=R_NASA_2002/BHFCL.MM
R_s=125.4629386014708
BHF2
R_s=R_NASA_2002/BHF2.MM
R_s=166.904495081499
BH2
R_s=R_NASA_2002/BH2.MM
R_s=648.2068905298874
BH2CL
R_s=R_NASA_2002/BH2CL.MM
R_s=172.2140154449431
BH2F
R_s=R_NASA_2002/BH2F.MM
R_s=261.2536689068646
BH3
R_s=R_NASA_2002/BH3.MM
R_s=600.9815812565686
BH3NH3
R_s=R_NASA_2002/BH3NH3.MM
R_s=269.3789214698429
BH4
R_s=R_NASA_2002/BH4.MM
R_s=560.1702109311207
BI
R_s=R_NASA_2002/BI.MM
R_s=60.37427748676311
BI2
R_s=R_NASA_2002/BI2.MM
R_s=31.42042886110548
BI3
R_s=R_NASA_2002/BI3.MM
R_s=21.23615230018481
BN
R_s=R_NASA_2002/BN.MM
R_s=335.0218593987356
BO
R_s=R_NASA_2002/BO.MM
R_s=310.1211470175753
BOminus
R_s=R_NASA_2002/BOminus.MM
R_s=310.1148013837899
BOCL
R_s=R_NASA_2002/BOCL.MM
R_s=133.5370699319344
BOCL2
R_s=R_NASA_2002/BOCL2.MM
R_s=85.08778465027366
BOF
R_s=R_NASA_2002/BOF.MM
R_s=181.5038031816557
BOF2
R_s=R_NASA_2002/BOF2.MM
R_s=128.2954853613317
BOH
R_s=R_NASA_2002/BOH.MM
R_s=298.8845488264217
BO2
R_s=R_NASA_2002/BO2.MM
R_s=194.2188938046896
BO2minus
R_s=R_NASA_2002/BO2minus.MM
R_s=194.2164049558802
B_OH_2
R_s=R_NASA_2002/B_OH_2.MM
R_s=185.4845704515805
BS
R_s=R_NASA_2002/BS.MM
R_s=193.9190222968561
BS2
R_s=R_NASA_2002/BS2.MM
R_s=110.9469048985202
B2
R_s=R_NASA_2002/B2.MM
R_s=384.5376005919897
B2C
R_s=R_NASA_2002/B2C.MM
R_s=247.2139316795856
B2CL4
R_s=R_NASA_2002/B2CL4.MM
R_s=50.87357587772434
B2F4
R_s=R_NASA_2002/B2F4.MM
R_s=85.17563698580808
B2H
R_s=R_NASA_2002/B2H.MM
R_s=367.4102538495462
B2H2
R_s=R_NASA_2002/B2H2.MM
R_s=351.7435573748576
B2H3
R_s=R_NASA_2002/B2H3.MM
R_s=337.3583025437985
B2H3_db
R_s=R_NASA_2002/B2H3_db.MM
R_s=337.3583025437985
B2H4
R_s=R_NASA_2002/B2H4.MM
R_s=324.1034452649437
B2H4_db
R_s=R_NASA_2002/B2H4_db.MM
R_s=324.1034452649437
B2H5
R_s=R_NASA_2002/B2H5.MM
R_s=311.8507822081863
B2H5_db
R_s=R_NASA_2002/B2H5_db.MM
R_s=311.8507822081863
B2H6
R_s=R_NASA_2002/B2H6.MM
R_s=300.4907906282843
B2O
R_s=R_NASA_2002/B2O.MM
R_s=221.0037903958917
B2O2
R_s=R_NASA_2002/B2O2.MM
R_s=155.0605735087876
B2O3
R_s=R_NASA_2002/B2O3.MM
R_s=119.4261435617824
B2_OH_4
R_s=R_NASA_2002/B2_OH_4.MM
R_s=92.74228522579023
B2S
R_s=R_NASA_2002/B2S.MM
R_s=154.8693724737832
B2S2
R_s=R_NASA_2002/B2S2.MM
R_s=96.95951114842804
B2S3
R_s=R_NASA_2002/B2S3.MM
R_s=70.57107208637125
B3H7_C2v
R_s=R_NASA_2002/B3H7_C2v.MM
R_s=210.5538360710869
B3H7_Cs
R_s=R_NASA_2002/B3H7_Cs.MM
R_s=210.5538360710869
B3H9
R_s=R_NASA_2002/B3H9.MM
R_s=200.3271937521895
B3N3H6
R_s=R_NASA_2002/B3N3H6.MM
R_s=103.2844170128126
B3O3CL3
R_s=R_NASA_2002/B3O3CL3.MM
R_s=44.51235664397812
B3O3FCL2
R_s=R_NASA_2002/B3O3FCL2.MM
R_s=48.81229668842362
B3O3F2CL
R_s=R_NASA_2002/B3O3F2CL.MM
R_s=54.03182754333741
B3O3F3
R_s=R_NASA_2002/B3O3F3.MM
R_s=60.50126772721858
B4H4
R_s=R_NASA_2002/B4H4.MM
R_s=175.8717786874288
B4H10
R_s=R_NASA_2002/B4H10.MM
R_s=155.9253911040931
B4H12
R_s=R_NASA_2002/B4H12.MM
R_s=150.2453953141421
B5H9
R_s=R_NASA_2002/B5H9.MM
R_s=131.7113616065276
Ba
R_s=R_NASA_2002/Ba.MM
R_s=60.54506397139674
Baplus
R_s=R_NASA_2002/Baplus.MM
R_s=60.54530584047409
BaBr
R_s=R_NASA_2002/BaBr.MM
R_s=38.27479503385797
BaBr2
R_s=R_NASA_2002/BaBr2.MM
R_s=27.98213606609791
BaCL
R_s=R_NASA_2002/BaCL.MM
R_s=48.12172705174211
BaCLplus
R_s=R_NASA_2002/BaCLplus.MM
R_s=48.12187984525572
BaCL2
R_s=R_NASA_2002/BaCL2.MM
R_s=39.92869525963705
BaF
R_s=R_NASA_2002/BaF.MM
R_s=53.18695381429856
BaFplus
R_s=R_NASA_2002/BaFplus.MM
R_s=53.18714046640156
BaF2
R_s=R_NASA_2002/BaF2.MM
R_s=47.42351977592018
BaH
R_s=R_NASA_2002/BaH.MM
R_s=60.10391879303957
BaI
R_s=R_NASA_2002/BaI.MM
R_s=31.46662280613282
BaI2
R_s=R_NASA_2002/BaI2.MM
R_s=21.25724370918203
BaO
R_s=R_NASA_2002/BaO.MM
R_s=54.22726940696449
BaOplus
R_s=R_NASA_2002/BaOplus.MM
R_s=54.22746343217109
BaOH
R_s=R_NASA_2002/BaOH.MM
R_s=53.87311728549849
BaOHplus
R_s=R_NASA_2002/BaOHplus.MM
R_s=53.87330878466322
Ba_OH_2
R_s=R_NASA_2002/Ba_OH_2.MM
R_s=48.52568271771352
BaS
R_s=R_NASA_2002/BaS.MM
R_s=49.08420704637764
Ba2
R_s=R_NASA_2002/Ba2.MM
R_s=30.27253198569837
Be
R_s=R_NASA_2002/Be.MM
R_s=922.581456965694
Beplus
R_s=R_NASA_2002/Beplus.MM
R_s=922.6376208335329
Beplusplus
R_s=R_NASA_2002/Beplusplus.MM
R_s=922.6937915399486
BeBr
R_s=R_NASA_2002/BeBr.MM
R_s=93.50909826515043
BeBr2
R_s=R_NASA_2002/BeBr2.MM
R_s=49.25046224627338
BeCL
R_s=R_NASA_2002/BeCL.MM
R_s=186.9883721604918
BeCL2
R_s=R_NASA_2002/BeCL2.MM
R_s=104.0373015492269
BeF
R_s=R_NASA_2002/BeF.MM
R_s=296.8332128955307
BeF2
R_s=R_NASA_2002/BeF2.MM
R_s=176.8698345357289
BeH
R_s=R_NASA_2002/BeH.MM
R_s=829.7775216708938
BeHplus
R_s=R_NASA_2002/BeHplus.MM
R_s=829.822954338555
BeH2
R_s=R_NASA_2002/BeH2.MM
R_s=753.9377272271411
BeI
R_s=R_NASA_2002/BeI.MM
R_s=61.17331377468009
BeI2
R_s=R_NASA_2002/BeI2.MM
R_s=31.63547867359002
BeN
R_s=R_NASA_2002/BeN.MM
R_s=361.2022512648529
BeO
R_s=R_NASA_2002/BeO.MM
R_s=332.4248742042786
BeOH
R_s=R_NASA_2002/BeOH.MM
R_s=319.5474536388486
BeOHplus
R_s=R_NASA_2002/BeOHplus.MM
R_s=319.5541911734304
Be_OH_2
R_s=R_NASA_2002/Be_OH_2.MM
R_s=193.2390979383995
BeS
R_s=R_NASA_2002/BeS.MM
R_s=202.4109638290182
Be2
R_s=R_NASA_2002/Be2.MM
R_s=461.290728482847
Be2CL4
R_s=R_NASA_2002/Be2CL4.MM
R_s=52.01865077461346
Be2F4
R_s=R_NASA_2002/Be2F4.MM
R_s=88.43491726786446
Be2O
R_s=R_NASA_2002/Be2O.MM
R_s=244.3724921205073
Be2OF2
R_s=R_NASA_2002/Be2OF2.MM
R_s=115.4457949141708
Be2O2
R_s=R_NASA_2002/Be2O2.MM
R_s=166.2124371021393
Be3O3
R_s=R_NASA_2002/Be3O3.MM
R_s=110.8082914014262
Be4O4
R_s=R_NASA_2002/Be4O4.MM
R_s=83.10621855106966
Br
R_s=R_NASA_2002/Br.MM
R_s=104.0557669203044
Brplus
R_s=R_NASA_2002/Brplus.MM
R_s=104.0564813449348
Brminus
R_s=R_NASA_2002/Brminus.MM
R_s=104.055052505484
BrCL
R_s=R_NASA_2002/BrCL.MM
R_s=72.07600752446753
BrF
R_s=R_NASA_2002/BrF.MM
R_s=84.06744154827575
BrF3
R_s=R_NASA_2002/BrF3.MM
R_s=60.73425861474075
BrF5
R_s=R_NASA_2002/BrF5.MM
R_s=47.53951628034798
BrO
R_s=R_NASA_2002/BrO.MM
R_s=86.6963215068496
OBrO
R_s=R_NASA_2002/OBrO.MM
R_s=74.300839657274
BrOO
R_s=R_NASA_2002/BrOO.MM
R_s=74.300839657274
BrO3
R_s=R_NASA_2002/BrO3.MM
R_s=65.00648151478239
Br2
R_s=R_NASA_2002/Br2.MM
R_s=52.02788346015218
BrBrO
R_s=R_NASA_2002/BrBrO.MM
R_s=47.29307185021791
BrOBr
R_s=R_NASA_2002/BrOBr.MM
R_s=47.29307185021791
C
R_s=R_NASA_2002/C.MM
R_s=692.2554055966764
Cplus
R_s=R_NASA_2002/Cplus.MM
R_s=692.2870264566357
Cminus
R_s=R_NASA_2002/Cminus.MM
R_s=692.22378762521
CBr
R_s=R_NASA_2002/CBr.MM
R_s=90.45856647522105
CBr2
R_s=R_NASA_2002/CBr2.MM
R_s=48.39096093731357
CBr3
R_s=R_NASA_2002/CBr3.MM
R_s=33.03028292641069
CBr4
R_s=R_NASA_2002/CBr4.MM
R_s=25.0717810116013
CCL
R_s=R_NASA_2002/CCL.MM
R_s=175.1753866639137
CCL2
R_s=R_NASA_2002/CCL2.MM
R_s=100.2749988844225
CCL2Br2
R_s=R_NASA_2002/CCL2Br2.MM
R_s=34.25474210082452
CCL3
R_s=R_NASA_2002/CCL3.MM
R_s=70.24155674974254
CCL3Br
R_s=R_NASA_2002/CCL3Br.MM
R_s=41.93431604897675
CCL4
R_s=R_NASA_2002/CCL4.MM
R_s=54.05230827439643
CF
R_s=R_NASA_2002/CF.MM
R_s=268.1300373756052
CFplus
R_s=R_NASA_2002/CFplus.MM
R_s=268.1347811032766
CFBr3
R_s=R_NASA_2002/CFBr3.MM
R_s=30.71231574384335
CFCL
R_s=R_NASA_2002/CFCL.MM
R_s=125.1009462487188
CFCLBr2
R_s=R_NASA_2002/CFCLBr2.MM
R_s=36.74578250689551
CFCL2
R_s=R_NASA_2002/CFCL2.MM
R_s=81.58233410884678
CFCL2Br
R_s=R_NASA_2002/CFCL2Br.MM
R_s=45.72936426187367
CFCL3
R_s=R_NASA_2002/CFCL3.MM
R_s=60.52694771430753
CF2
R_s=R_NASA_2002/CF2.MM
R_s=166.2644790462898
CF2plus
R_s=R_NASA_2002/CF2plus.MM
R_s=166.2663030463333
CF2Br2
R_s=R_NASA_2002/CF2Br2.MM
R_s=39.62753822469625
CF2CL
R_s=R_NASA_2002/CF2CL.MM
R_s=97.29022621377774
CF2CLBr
R_s=R_NASA_2002/CF2CLBr.MM
R_s=50.27966509262958
CF2CL2
R_s=R_NASA_2002/CF2CL2.MM
R_s=68.76379858255437
CF3
R_s=R_NASA_2002/CF3.MM
R_s=120.489274733073
CF3plus
R_s=R_NASA_2002/CF3plus.MM
R_s=120.4902326356934
CF3Br
R_s=R_NASA_2002/CF3Br.MM
R_s=55.83558557206995
CF3CL
R_s=R_NASA_2002/CF3CL.MM
R_s=79.59562311954289
CF4
R_s=R_NASA_2002/CF4.MM
R_s=94.47800608244737
CHplus
R_s=R_NASA_2002/CHplus.MM
R_s=638.6859443927395
CHBr3
R_s=R_NASA_2002/CHBr3.MM
R_s=32.89855159627658
CHCL
R_s=R_NASA_2002/CHCL.MM
R_s=171.5327147998293
CHCLBr2
R_s=R_NASA_2002/CHCLBr2.MM
R_s=39.91975403836881
CHCL2
R_s=R_NASA_2002/CHCL2.MM
R_s=99.0706900857722
CHCL2Br
R_s=R_NASA_2002/CHCL2Br.MM
R_s=50.75102863577455
CHCL3
R_s=R_NASA_2002/CHCL3.MM
R_s=69.64848693607949
CHF
R_s=R_NASA_2002/CHF.MM
R_s=259.6889396707313
CHFBr2
R_s=R_NASA_2002/CHFBr2.MM
R_s=43.34403819907494
CHFCL
R_s=R_NASA_2002/CHFCL.MM
R_s=123.2320538961801
CHFCLBr
R_s=R_NASA_2002/CHFCLBr.MM
R_s=56.41747908562503
CHFCL2
R_s=R_NASA_2002/CHFCL2.MM
R_s=80.78338670809922
CHF2
R_s=R_NASA_2002/CHF2.MM
R_s=162.9795010477454
CHF2Br
R_s=R_NASA_2002/CHF2Br.MM
R_s=63.50830398867315
CHF2CL
R_s=R_NASA_2002/CHF2CL.MM
R_s=96.15613956491762
CHF3
R_s=R_NASA_2002/CHF3.MM
R_s=118.7546756463453
CHI3
R_s=R_NASA_2002/CHI3.MM
R_s=21.11708203586678
CH2
R_s=R_NASA_2002/CH2.MM
R_s=592.7654495964092
CH2Br2
R_s=R_NASA_2002/CH2Br2.MM
R_s=47.82979312861688
CH2CL
R_s=R_NASA_2002/CH2CL.MM
R_s=168.0384514177364
CH2CLBr
R_s=R_NASA_2002/CH2CLBr.MM
R_s=64.26218844771493
CH2CL2
R_s=R_NASA_2002/CH2CL2.MM
R_s=97.89496563038588
CH2F
R_s=R_NASA_2002/CH2F.MM
R_s=251.7630955221803
CH2FBr
R_s=R_NASA_2002/CH2FBr.MM
R_s=73.62566955265032
CH2FCL
R_s=R_NASA_2002/CH2FCL.MM
R_s=121.4181786825755
CH2F2
R_s=R_NASA_2002/CH2F2.MM
R_s=159.8218142908129
CH2I2
R_s=R_NASA_2002/CH2I2.MM
R_s=31.0432014394506
CH3
R_s=R_NASA_2002/CH3.MM
R_s=553.0254374599256
CH3Br
R_s=R_NASA_2002/CH3Br.MM
R_s=87.57743432275962
CH3CL
R_s=R_NASA_2002/CH3CL.MM
R_s=164.6837079737725
CH3F
R_s=R_NASA_2002/CH3F.MM
R_s=244.3067247305985
CH3I
R_s=R_NASA_2002/CH3I.MM
R_s=58.57778754097095
CH2OH
R_s=R_NASA_2002/CH2OH.MM
R_s=267.9156226477351
CH2OHplus
R_s=R_NASA_2002/CH2OHplus.MM
R_s=267.9203587915685
CH3O
R_s=R_NASA_2002/CH3O.MM
R_s=267.9156226477351
CH4
R_s=R_NASA_2002/CH4.MM
R_s=518.2791167938085
CH3OH
R_s=R_NASA_2002/CH3OH.MM
R_s=259.4878075117987
CH3OOH
R_s=R_NASA_2002/CH3OOH.MM
R_s=173.069399095694
CI
R_s=R_NASA_2002/CI.MM
R_s=59.85287279999731
CI2
R_s=R_NASA_2002/CI2.MM
R_s=31.27862185051489
CI3
R_s=R_NASA_2002/CI3.MM
R_s=21.17127975667193
CI4
R_s=R_NASA_2002/CI4.MM
R_s=16.0007981085259
CN
R_s=R_NASA_2002/CN.MM
R_s=319.5735161853222
CNplus
R_s=R_NASA_2002/CNplus.MM
R_s=319.5802548189978
CNminus
R_s=R_NASA_2002/CNminus.MM
R_s=319.5667778358206
CNN
R_s=R_NASA_2002/CNN.MM
R_s=207.7366386751982
CO
R_s=R_NASA_2002/CO.MM
R_s=296.8383547363272
COplus
R_s=R_NASA_2002/COplus.MM
R_s=296.8441686645506
COCL
R_s=R_NASA_2002/COCL.MM
R_s=131.0126987178376
COCL2
R_s=R_NASA_2002/COCL2.MM
R_s=84.05580082514373
COFCL
R_s=R_NASA_2002/COFCL.MM
R_s=100.8285281901095
COF2
R_s=R_NASA_2002/COF2.MM
R_s=125.9636673413314
COHCL
R_s=R_NASA_2002/COHCL.MM
R_s=128.9644466724905
COHF
R_s=R_NASA_2002/COHF.MM
R_s=173.1588482172291
COS
R_s=R_NASA_2002/COS.MM
R_s=138.4013010382005
CO2
R_s=R_NASA_2002/CO2.MM
R_s=188.9244822140674
CO2plus
R_s=R_NASA_2002/CO2plus.MM
R_s=188.9268372797449
COOH
R_s=R_NASA_2002/COOH.MM
R_s=184.694465078423
CP
R_s=R_NASA_2002/CP.MM
R_s=193.429714054109
CS
R_s=R_NASA_2002/CS.MM
R_s=188.6407249346012
CS2
R_s=R_NASA_2002/CS2.MM
R_s=109.1987859318341
C2
R_s=R_NASA_2002/C2.MM
R_s=346.1277027983382
C2plus
R_s=R_NASA_2002/C2plus.MM
R_s=346.1356078327848
C2minus
R_s=R_NASA_2002/C2minus.MM
R_s=346.1197981249531
C2CL
R_s=R_NASA_2002/C2CL.MM
R_s=139.7991740984356
C2CL2
R_s=R_NASA_2002/C2CL2.MM
R_s=87.58824694396103
C2CL3
R_s=R_NASA_2002/C2CL3.MM
R_s=63.77087353620636
C2CL4
R_s=R_NASA_2002/C2CL4.MM
R_s=50.13786224870682
C2CL6
R_s=R_NASA_2002/C2CL6.MM
R_s=35.12104541061496
C2F
R_s=R_NASA_2002/C2F.MM
R_s=193.2708051067979
C2FCL
R_s=R_NASA_2002/C2FCL.MM
R_s=105.9535490125068
C2FCL3
R_s=R_NASA_2002/C2FCL3.MM
R_s=55.66032008482446
C2F2
R_s=R_NASA_2002/C2F2.MM
R_s=134.0650186878026
C2F2CL2
R_s=R_NASA_2002/C2F2CL2.MM
R_s=62.55047312435939
C2F3
R_s=R_NASA_2002/C2F3.MM
R_s=102.6267581555277
C2F3CL
R_s=R_NASA_2002/C2F3CL.MM
R_s=71.38748063597872
C2F4
R_s=R_NASA_2002/C2F4.MM
R_s=83.13223952314488
C2F6
R_s=R_NASA_2002/C2F6.MM
R_s=60.24463736653651
C2H
R_s=R_NASA_2002/C2H.MM
R_s=332.1890229626511
C2HCL
R_s=R_NASA_2002/C2HCL.MM
R_s=137.4700985614903
C2HCL3
R_s=R_NASA_2002/C2HCL3.MM
R_s=63.28209149976589
C2HF
R_s=R_NASA_2002/C2HF.MM
R_s=188.8462000477917
C2HFCL2
R_s=R_NASA_2002/C2HFCL2.MM
R_s=72.34143575687527
C2HF2CL
R_s=R_NASA_2002/C2HF2CL.MM
R_s=84.42875780247421
C2HF3
R_s=R_NASA_2002/C2HF3.MM
R_s=101.3656526070093
C2H2_vinylidene
R_s=R_NASA_2002/C2H2_vinylidene.MM
R_s=319.3295152181795
C2H2CL2
R_s=R_NASA_2002/C2H2CL2.MM
R_s=85.76635739991467
C2H2FCL
R_s=R_NASA_2002/C2H2FCL.MM
R_s=103.2998884991077
C2H2F2
R_s=R_NASA_2002/C2H2F2.MM
R_s=129.8444698353657
CH2CO_ketene
R_s=R_NASA_2002/CH2CO_ketene.MM
R_s=197.7908816776206
O_CH_2O
R_s=R_NASA_2002/O_CH_2O.MM
R_s=143.2638455250596
HO_CO_2OH
R_s=R_NASA_2002/HO_CO_2OH.MM
R_s=92.34723253921148
C2H3_vinyl
R_s=R_NASA_2002/C2H3_vinyl.MM
R_s=307.4285215649937
CH2BrminusCOOH
R_s=R_NASA_2002/CH2BrminusCOOH.MM
R_s=59.83872242296076
C2H3CL
R_s=R_NASA_2002/C2H3CL.MM
R_s=133.0359794373957
CH2CLminusCOOH
R_s=R_NASA_2002/CH2CLminusCOOH.MM
R_s=87.98688462414359
C2H3F
R_s=R_NASA_2002/C2H3F.MM
R_s=180.5781435549581
CH3CN
R_s=R_NASA_2002/CH3CN.MM
R_s=202.5355208721054
CH3CO_acetyl
R_s=R_NASA_2002/CH3CO_acetyl.MM
R_s=193.1593774088376
C2H4
R_s=R_NASA_2002/C2H4.MM
R_s=296.3827247982046
C2H4O_ethylen_o
R_s=R_NASA_2002/C2H4O_ethylen_o.MM
R_s=188.7398144398419
CH3CHO_ethanal
R_s=R_NASA_2002/CH3CHO_ethanal.MM
R_s=188.7398144398419
CH3COOH
R_s=R_NASA_2002/CH3COOH.MM
R_s=138.4546316223484
OHCH2COOH
R_s=R_NASA_2002/OHCH2COOH.MM
R_s=109.3270652885103
C2H5
R_s=R_NASA_2002/C2H5.MM
R_s=286.1031413126138
C2H5Br
R_s=R_NASA_2002/C2H5Br.MM
R_s=76.30399091085127
C2H6
R_s=R_NASA_2002/C2H6.MM
R_s=276.5127187299628
CH3N2CH3
R_s=R_NASA_2002/CH3N2CH3.MM
R_s=143.1494957856454
C2H5OH
R_s=R_NASA_2002/C2H5OH.MM
R_s=180.4808671619877
CH3OCH3
R_s=R_NASA_2002/CH3OCH3.MM
R_s=180.4808671619877
CH3O2CH3
R_s=R_NASA_2002/CH3O2CH3.MM
R_s=133.9578113238676
CCN
R_s=R_NASA_2002/CCN.MM
R_s=218.6402160507625
CNC
R_s=R_NASA_2002/CNC.MM
R_s=218.6402160507625
OCCN
R_s=R_NASA_2002/OCCN.MM
R_s=153.8932181624409
C2N2
R_s=R_NASA_2002/C2N2.MM
R_s=159.7867580926611
C2O
R_s=R_NASA_2002/C2O.MM
R_s=207.7537680406189
C3
R_s=R_NASA_2002/C3.MM
R_s=230.7518018655588
C3H3_1_propynl
R_s=R_NASA_2002/C3H3_1_propynl.MM
R_s=212.8863434787863
C3H3_2_propynl
R_s=R_NASA_2002/C3H3_2_propynl.MM
R_s=212.8863434787863
C3H4_allene
R_s=R_NASA_2002/C3H4_allene.MM
R_s=207.5304775925235
C3H4_propyne
R_s=R_NASA_2002/C3H4_propyne.MM
R_s=207.5304775925235
C3H4_cyclo
R_s=R_NASA_2002/C3H4_cyclo.MM
R_s=207.5304775925235
C3H5_allyl
R_s=R_NASA_2002/C3H5_allyl.MM
R_s=202.437487521852
C3H6_propylene
R_s=R_NASA_2002/C3H6_propylene.MM
R_s=197.588483198803
C3H6_cyclo
R_s=R_NASA_2002/C3H6_cyclo.MM
R_s=197.588483198803
C3H6O_propylox
R_s=R_NASA_2002/C3H6O_propylox.MM
R_s=143.1576294001599
C3H6O_acetone
R_s=R_NASA_2002/C3H6O_acetone.MM
R_s=143.1576294001599
C3H6O_propanal
R_s=R_NASA_2002/C3H6O_propanal.MM
R_s=143.1576294001599
C3H7_n_propyl
R_s=R_NASA_2002/C3H7_n_propyl.MM
R_s=192.9663421191394
C3H7_i_propyl
R_s=R_NASA_2002/C3H7_i_propyl.MM
R_s=192.9663421191394
C3H8
R_s=R_NASA_2002/C3H8.MM
R_s=188.5555073270316
C3H8O_1propanol
R_s=R_NASA_2002/C3H8O_1propanol.MM
R_s=138.3554244594644
C3H8O_2propanol
R_s=R_NASA_2002/C3H8O_2propanol.MM
R_s=138.3554244594644
CNCOCN
R_s=R_NASA_2002/CNCOCN.MM
R_s=103.8724976881748
C3O2
R_s=R_NASA_2002/C3O2.MM
R_s=122.2161106203211
C4
R_s=R_NASA_2002/C4.MM
R_s=173.0638513991691
C4H2_butadiyne
R_s=R_NASA_2002/C4H2_butadiyne.MM
R_s=166.0945114813255
C4H4_1_3minuscyclo
R_s=R_NASA_2002/C4H4_1_3minuscyclo.MM
R_s=159.6647576090898
C4H6_butadiene
R_s=R_NASA_2002/C4H6_butadiene.MM
R_s=153.7142607824969
C4H6_1butyne
R_s=R_NASA_2002/C4H6_1butyne.MM
R_s=153.7142607824969
C4H6_2butyne
R_s=R_NASA_2002/C4H6_2butyne.MM
R_s=153.7142607824969
C4H6_cyclo
R_s=R_NASA_2002/C4H6_cyclo.MM
R_s=153.7142607824969
C4H8_1_butene
R_s=R_NASA_2002/C4H8_1_butene.MM
R_s=148.1913623991023
C4H8_cis2_buten
R_s=R_NASA_2002/C4H8_cis2_buten.MM
R_s=148.1913623991023
C4H8_isobutene
R_s=R_NASA_2002/C4H8_isobutene.MM
R_s=148.1913623991023
C4H8_cyclo
R_s=R_NASA_2002/C4H8_cyclo.MM
R_s=148.1913623991023
C4H9_n_butyl
R_s=R_NASA_2002/C4H9_n_butyl.MM
R_s=145.5761135660341
C4H9_i_butyl
R_s=R_NASA_2002/C4H9_i_butyl.MM
R_s=145.5761135660341
C4H9_s_butyl
R_s=R_NASA_2002/C4H9_s_butyl.MM
R_s=145.5761135660341
C4H9_t_butyl
R_s=R_NASA_2002/C4H9_t_butyl.MM
R_s=145.5761135660341
C4H10_n_butane
R_s=R_NASA_2002/C4H10_n_butane.MM
R_s=143.0515706563069
C4H10_isobutane
R_s=R_NASA_2002/C4H10_isobutane.MM
R_s=143.0515706563069
C4N2
R_s=R_NASA_2002/C4N2.MM
R_s=109.3201080253812
C5
R_s=R_NASA_2002/C5.MM
R_s=138.4510811193353
C5H6_1_3cyclo
R_s=R_NASA_2002/C5H6_1_3cyclo.MM
R_s=125.78409389006
C5H8_cyclo
R_s=R_NASA_2002/C5H8_cyclo.MM
R_s=122.0615934167408
C5H10_1_pentene
R_s=R_NASA_2002/C5H10_1_pentene.MM
R_s=118.5530899192818
C5H10_cyclo
R_s=R_NASA_2002/C5H10_cyclo.MM
R_s=118.5530899192818
C5H11_pentyl
R_s=R_NASA_2002/C5H11_pentyl.MM
R_s=116.873402113329
C5H11_t_pentyl
R_s=R_NASA_2002/C5H11_t_pentyl.MM
R_s=116.873402113329
C5H12_n_pentane
R_s=R_NASA_2002/C5H12_n_pentane.MM
R_s=115.2406457877736
C5H12_i_pentane
R_s=R_NASA_2002/C5H12_i_pentane.MM
R_s=115.2406457877736
CH3C_CH3_2CH3
R_s=R_NASA_2002/CH3C_CH3_2CH3.MM
R_s=115.2406457877736
C6D5_phenyl
R_s=R_NASA_2002/C6D5_phenyl.MM
R_s=101.2296993560944
C6D6
R_s=R_NASA_2002/C6D6.MM
R_s=98.80676627971884
C6H2
R_s=R_NASA_2002/C6H2.MM
R_s=112.2362718830757
C6H5_phenyl
R_s=R_NASA_2002/C6H5_phenyl.MM
R_s=107.8346490903833
C6H5O_phenoxy
R_s=R_NASA_2002/C6H5O_phenoxy.MM
R_s=89.30373037260763
C6H6
R_s=R_NASA_2002/C6H6.MM
R_s=106.4431717393932
C6H5OH_phenol
R_s=R_NASA_2002/C6H5OH_phenol.MM
R_s=88.34727924103434
C6H10_cyclo
R_s=R_NASA_2002/C6H10_cyclo.MM
R_s=101.218743760926
C6H12_1_hexene
R_s=R_NASA_2002/C6H12_1_hexene.MM
R_s=98.79424159940152
C6H12_cyclo
R_s=R_NASA_2002/C6H12_cyclo.MM
R_s=98.79424159940152
C6H13_n_hexyl
R_s=R_NASA_2002/C6H13_n_hexyl.MM
R_s=97.62503079229123
C6H14_n_hexane
R_s=R_NASA_2002/C6H14_n_hexane.MM
R_s=96.48317105956971
C7H7_benzyl
R_s=R_NASA_2002/C7H7_benzyl.MM
R_s=91.23700434805129
C7H8
R_s=R_NASA_2002/C7H8.MM
R_s=90.23892530390688
C7H8O_cresol_mx
R_s=R_NASA_2002/C7H8O_cresol_mx.MM
R_s=76.88773455947235
C7H14_1_heptene
R_s=R_NASA_2002/C7H14_1_heptene.MM
R_s=84.68077851377274
C7H15_n_heptyl
R_s=R_NASA_2002/C7H15_n_heptyl.MM
R_s=83.82031171240196
C7H16_n_heptane
R_s=R_NASA_2002/C7H16_n_heptane.MM
R_s=82.97715593131233
C7H16_2_methylh
R_s=R_NASA_2002/C7H16_2_methylh.MM
R_s=82.97715593131233
C8H8_styrene
R_s=R_NASA_2002/C8H8_styrene.MM
R_s=79.83237880454487
C8H10_ethylbenz
R_s=R_NASA_2002/C8H10_ethylbenz.MM
R_s=78.31650732350586
C8H16_1_octene
R_s=R_NASA_2002/C8H16_1_octene.MM
R_s=74.09568119955115
C8H17_n_octyl
R_s=R_NASA_2002/C8H17_n_octyl.MM
R_s=73.43604846398067
C8H18_n_octane
R_s=R_NASA_2002/C8H18_n_octane.MM
R_s=72.78805678301707
C8H18_isooctane
R_s=R_NASA_2002/C8H18_isooctane.MM
R_s=72.78805678301707
C9H19_n_nonyl
R_s=R_NASA_2002/C9H19_n_nonyl.MM
R_s=65.34112038335474
C10H8_naphthale
R_s=R_NASA_2002/C10H8_naphthale.MM
R_s=64.87039297336079
C10H21_n_decyl
R_s=R_NASA_2002/C10H21_n_decyl.MM
R_s=58.85362700810497
C12H9_o_bipheny
R_s=R_NASA_2002/C12H9_o_bipheny.MM
R_s=54.27206003974155
C12H10_biphenyl
R_s=R_NASA_2002/C12H10_biphenyl.MM
R_s=53.91732454519163
Ca
R_s=R_NASA_2002/Ca.MM
R_s=207.4572583462249
Caplus
R_s=R_NASA_2002/Caplus.MM
R_s=207.4600981239042
CaBr
R_s=R_NASA_2002/CaBr.MM
R_s=69.29766131586405
CaBr2
R_s=R_NASA_2002/CaBr2.MM
R_s=41.59606975976306
CaCL
R_s=R_NASA_2002/CaCL.MM
R_s=110.0802584369332
CaCLplus
R_s=R_NASA_2002/CaCLplus.MM
R_s=110.0810579823968
CaCL2
R_s=R_NASA_2002/CaCL2.MM
R_s=74.91595184891516
CaF
R_s=R_NASA_2002/CaF.MM
R_s=140.7409989374573
CaFplus
R_s=R_NASA_2002/CaFplus.MM
R_s=140.7423059098666
CaF2
R_s=R_NASA_2002/CaF2.MM
R_s=106.4936614431362
CaH
R_s=R_NASA_2002/CaH.MM
R_s=202.367817311713
CaI
R_s=R_NASA_2002/CaI.MM
R_s=49.79248420507854
CaI2
R_s=R_NASA_2002/CaI2.MM
R_s=28.29139668472509
CaO
R_s=R_NASA_2002/CaO.MM
R_s=148.2677870229362
CaOplus
R_s=R_NASA_2002/CaOplus.MM
R_s=148.2692375271269
CaOH
R_s=R_NASA_2002/CaOH.MM
R_s=145.6498638704788
CaOHplus
R_s=R_NASA_2002/CaOHplus.MM
R_s=145.6512636043372
Ca_OH_2
R_s=R_NASA_2002/Ca_OH_2.MM
R_s=112.2171852873995
CaS
R_s=R_NASA_2002/CaS.MM
R_s=115.2498787131115
Ca2
R_s=R_NASA_2002/Ca2.MM
R_s=103.7286291731124
Cd
R_s=R_NASA_2002/Cd.MM
R_s=73.96493225751928
Cdplus
R_s=R_NASA_2002/Cdplus.MM
R_s=73.96529323073246
CL
R_s=R_NASA_2002/CL.MM
R_s=234.5209714269596
CLplus
R_s=R_NASA_2002/CLplus.MM
R_s=234.5246004624662
CLminus
R_s=R_NASA_2002/CLminus.MM
R_s=234.5173425037629
CLCN
R_s=R_NASA_2002/CLCN.MM
R_s=135.2597673026367
CLF
R_s=R_NASA_2002/CLF.MM
R_s=152.6952752615198
CLF3
R_s=R_NASA_2002/CLF3.MM
R_s=89.93653891161999
CLF5
R_s=R_NASA_2002/CLF5.MM
R_s=63.73928460402045
CLO
R_s=R_NASA_2002/CLO.MM
R_s=161.5954163459819
CLO2
R_s=R_NASA_2002/CLO2.MM
R_s=123.2653835776065
CL2
R_s=R_NASA_2002/CL2.MM
R_s=117.2604857134798
CL2O
R_s=R_NASA_2002/CL2O.MM
R_s=95.67267396502405
Co
R_s=R_NASA_2002/Co.MM
R_s=141.0829888755405
Coplus
R_s=R_NASA_2002/Coplus.MM
R_s=141.0843022073838
Cominus
R_s=R_NASA_2002/Cominus.MM
R_s=141.0816755681481
Cr
R_s=R_NASA_2002/Cr.MM
R_s=159.9056852340849
Crplus
R_s=R_NASA_2002/Crplus.MM
R_s=159.9073723833997
Crminus
R_s=R_NASA_2002/Crminus.MM
R_s=159.9039981203712
CrN
R_s=R_NASA_2002/CrN.MM
R_s=125.9715042392141
CrO
R_s=R_NASA_2002/CrO.MM
R_s=122.2797391003817
CrO2
R_s=R_NASA_2002/CrO2.MM
R_s=98.9878194985648
CrO3
R_s=R_NASA_2002/CrO3.MM
R_s=83.1494595191926
CrO3minus
R_s=R_NASA_2002/CrO3minus.MM
R_s=83.14900333775795
Cs
R_s=R_NASA_2002/Cs.MM
R_s=62.559300615588
Csplus
R_s=R_NASA_2002/Csplus.MM
R_s=62.55955884558522
Csminus
R_s=R_NASA_2002/Csminus.MM
R_s=62.5590423877226
CsBO2
R_s=R_NASA_2002/CsBO2.MM
R_s=47.31787366207544
CsBr
R_s=R_NASA_2002/CsBr.MM
R_s=39.07003189942927
CsCL
R_s=R_NASA_2002/CsCL.MM
R_s=49.38553425741328
CsF
R_s=R_NASA_2002/CsF.MM
R_s=54.73509608115722
CsH
R_s=R_NASA_2002/CsH.MM
R_s=62.08842894650043
CsI
R_s=R_NASA_2002/CsI.MM
R_s=32.0021344835486
CsLi
R_s=R_NASA_2002/CsLi.MM
R_s=59.45429433496524
CsNO2
R_s=R_NASA_2002/CsNO2.MM
R_s=46.4726837569193
CsNO3
R_s=R_NASA_2002/CsNO3.MM
R_s=42.65792965843015
CsNa
R_s=R_NASA_2002/CsNa.MM
R_s=53.33371991777555
CsO
R_s=R_NASA_2002/CsO.MM
R_s=55.83748279522124
CsOH
R_s=R_NASA_2002/CsOH.MM
R_s=55.46205897442107
CsRb
R_s=R_NASA_2002/CsRb.MM
R_s=38.07459017988696
Cs2
R_s=R_NASA_2002/Cs2.MM
R_s=31.279650307794
Cs2Br2
R_s=R_NASA_2002/Cs2Br2.MM
R_s=19.53501594971464
Cs2CO3
R_s=R_NASA_2002/Cs2CO3.MM
R_s=25.51862102917011
Cs2CL2
R_s=R_NASA_2002/Cs2CL2.MM
R_s=24.69276712870664
Cs2F2
R_s=R_NASA_2002/Cs2F2.MM
R_s=27.36754804057861
Cs2I2
R_s=R_NASA_2002/Cs2I2.MM
R_s=16.0010672417743
Cs2O
R_s=R_NASA_2002/Cs2O.MM
R_s=29.503790315684
Cs2Oplus
R_s=R_NASA_2002/Cs2Oplus.MM
R_s=29.50384775081279
Cs2O2
R_s=R_NASA_2002/Cs2O2.MM
R_s=27.91874139761062
Cs2O2H2
R_s=R_NASA_2002/Cs2O2H2.MM
R_s=27.73102948721054
Cs2SO4
R_s=R_NASA_2002/Cs2SO4.MM
R_s=22.97618366639171
Cu
R_s=R_NASA_2002/Cu.MM
R_s=130.8417839045731
Cuplus
R_s=R_NASA_2002/Cuplus.MM
R_s=130.842913486645
Cuminus
R_s=R_NASA_2002/Cuminus.MM
R_s=130.8406543420047
CuCL
R_s=R_NASA_2002/CuCL.MM
R_s=83.98541399408076
CuF
R_s=R_NASA_2002/CuF.MM
R_s=100.7272652981032
CuF2
R_s=R_NASA_2002/CuF2.MM
R_s=81.88144778318831
CuO
R_s=R_NASA_2002/CuO.MM
R_s=104.5248625313343
Cu2
R_s=R_NASA_2002/Cu2.MM
R_s=65.42089195228652
Cu3CL3
R_s=R_NASA_2002/Cu3CL3.MM
R_s=27.99513799802692
D
R_s=R_NASA_2002/D.MM
R_s=4128.128565484767
Dplus
R_s=R_NASA_2002/Dplus.MM
R_s=4129.253289234842
Dminus
R_s=R_NASA_2002/Dminus.MM
R_s=4127.004454271128
DBr
R_s=R_NASA_2002/DBr.MM
R_s=101.4973711182908
DCL
R_s=R_NASA_2002/DCL.MM
R_s=221.9139339893436
DF
R_s=R_NASA_2002/DF.MM
R_s=395.6916093945809
DOCL
R_s=R_NASA_2002/DOCL.MM
R_s=155.5080599811822
DO2
R_s=R_NASA_2002/DO2.MM
R_s=244.4505323303493
DO2minus
R_s=R_NASA_2002/DO2minus.MM
R_s=244.4465896088767
D2
R_s=R_NASA_2002/D2.MM
R_s=2064.064282742384
D2plus
R_s=R_NASA_2002/D2plus.MM
R_s=2064.345425380731
D2minus
R_s=R_NASA_2002/D2minus.MM
R_s=2063.783216671086
D2O
R_s=R_NASA_2002/D2O.MM
R_s=415.1506091292798
D2O2
R_s=R_NASA_2002/D2O2.MM
R_s=230.7844415816536
D2S
R_s=R_NASA_2002/D2S.MM
R_s=230.3611505368158
eminus
R_s=R_NASA_2002/eminus.MM
R_s=15156355.44527048
F
R_s=R_NASA_2002/F.MM
R_s=437.6405697085111
Fplus
R_s=R_NASA_2002/Fplus.MM
R_s=437.653207431117
Fminus
R_s=R_NASA_2002/Fminus.MM
R_s=437.6279327157407
FCN
R_s=R_NASA_2002/FCN.MM
R_s=184.7011806733685
FCO
R_s=R_NASA_2002/FCO.MM
R_s=176.8716601042511
FO
R_s=R_NASA_2002/FO.MM
R_s=237.5712541866057
FO2_FOO
R_s=R_NASA_2002/FO2_FOO.MM
R_s=163.0378036103753
FO2_OFO
R_s=R_NASA_2002/FO2_OFO.MM
R_s=163.0378036103753
F2
R_s=R_NASA_2002/F2.MM
R_s=218.8202848542556
F2O
R_s=R_NASA_2002/F2O.MM
R_s=153.9825212609751
F2O2
R_s=R_NASA_2002/F2O2.MM
R_s=118.7856270933028
FS2F
R_s=R_NASA_2002/FS2F.MM
R_s=81.41321845936034
Fe
R_s=R_NASA_2002/Fe.MM
R_s=148.8848061599069
Feplus
R_s=R_NASA_2002/Feplus.MM
R_s=148.8862687618774
Fe_CO_5
R_s=R_NASA_2002/Fe_CO_5.MM
R_s=42.44340477448436
FeCL
R_s=R_NASA_2002/FeCL.MM
R_s=91.06959626716905
FeCL2
R_s=R_NASA_2002/FeCL2.MM
R_s=65.59689469905563
FeCL3
R_s=R_NASA_2002/FeCL3.MM
R_s=51.25935242040887
FeO
R_s=R_NASA_2002/FeO.MM
R_s=115.7288807478384
Fe_OH_2
R_s=R_NASA_2002/Fe_OH_2.MM
R_s=92.52728253650581
Fe2CL4
R_s=R_NASA_2002/Fe2CL4.MM
R_s=32.79844734952781
Fe2CL6
R_s=R_NASA_2002/Fe2CL6.MM
R_s=25.62967621020443
Ga
R_s=R_NASA_2002/Ga.MM
R_s=119.2500609554953
Gaplus
R_s=R_NASA_2002/Gaplus.MM
R_s=119.2509992555999
GaBr
R_s=R_NASA_2002/GaBr.MM
R_s=55.56799240778737
GaBr2
R_s=R_NASA_2002/GaBr2.MM
R_s=36.22374319808653
GaBr3
R_s=R_NASA_2002/GaBr3.MM
R_s=26.86984988769855
GaCL
R_s=R_NASA_2002/GaCL.MM
R_s=79.05293983418271
GaCL2
R_s=R_NASA_2002/GaCL2.MM
R_s=59.12345248846255
GaCL3
R_s=R_NASA_2002/GaCL3.MM
R_s=47.21931827216866
GaF
R_s=R_NASA_2002/GaF.MM
R_s=93.71438796179906
GaF2
R_s=R_NASA_2002/GaF2.MM
R_s=77.18610233224483
GaF3
R_s=R_NASA_2002/GaF3.MM
R_s=65.61386896362842
GaH
R_s=R_NASA_2002/GaH.MM
R_s=117.5507069466347
GaI
R_s=R_NASA_2002/GaI.MM
R_s=42.28540396720764
GaI2
R_s=R_NASA_2002/GaI2.MM
R_s=25.69907626430948
GaI3
R_s=R_NASA_2002/GaI3.MM
R_s=18.45870319408682
GaO
R_s=R_NASA_2002/GaO.MM
R_s=96.9929913301541
GaOH
R_s=R_NASA_2002/GaOH.MM
R_s=95.86578353088434
Ga2Br2
R_s=R_NASA_2002/Ga2Br2.MM
R_s=27.78399620389368
Ga2Br4
R_s=R_NASA_2002/Ga2Br4.MM
R_s=18.11187159904327
Ga2Br6
R_s=R_NASA_2002/Ga2Br6.MM
R_s=13.43492494384927
Ga2CL2
R_s=R_NASA_2002/Ga2CL2.MM
R_s=39.52646991709135
Ga2CL4
R_s=R_NASA_2002/Ga2CL4.MM
R_s=29.56172624423128
Ga2CL6
R_s=R_NASA_2002/Ga2CL6.MM
R_s=23.60965913608433
Ga2F2
R_s=R_NASA_2002/Ga2F2.MM
R_s=46.85719398089953
Ga2F4
R_s=R_NASA_2002/Ga2F4.MM
R_s=38.59305116612241
Ga2F6
R_s=R_NASA_2002/Ga2F6.MM
R_s=32.80693448181421
Ga2I2
R_s=R_NASA_2002/Ga2I2.MM
R_s=21.14270198360382
Ga2I4
R_s=R_NASA_2002/Ga2I4.MM
R_s=12.84953813215474
Ga2I6
R_s=R_NASA_2002/Ga2I6.MM
R_s=9.22935159704341
Ga2O
R_s=R_NASA_2002/Ga2O.MM
R_s=53.4880543264709
Ge
R_s=R_NASA_2002/Ge.MM
R_s=114.4613436123348
Geplus
R_s=R_NASA_2002/Geplus.MM
R_s=114.4622080667311
Geminus
R_s=R_NASA_2002/Geminus.MM
R_s=114.4604791709957
GeBr
R_s=R_NASA_2002/GeBr.MM
R_s=54.50540172015943
GeBr2
R_s=R_NASA_2002/GeBr2.MM
R_s=35.76916987885463
GeBr3
R_s=R_NASA_2002/GeBr3.MM
R_s=26.61891711914763
GeBr4
R_s=R_NASA_2002/GeBr4.MM
R_s=21.19654511339533
GeCL
R_s=R_NASA_2002/GeCL.MM
R_s=76.91961551626839
GeCL2
R_s=R_NASA_2002/GeCL2.MM
R_s=57.9220040962479
GeCL3
R_s=R_NASA_2002/GeCL3.MM
R_s=46.44982374203208
GeCL4
R_s=R_NASA_2002/GeCL4.MM
R_s=38.77078320556581
GeF
R_s=R_NASA_2002/GeF.MM
R_s=90.73130597718665
GeF2
R_s=R_NASA_2002/GeF2.MM
R_s=75.15104846699552
GeF3
R_s=R_NASA_2002/GeF3.MM
R_s=64.13745174366579
GeF4
R_s=R_NASA_2002/GeF4.MM
R_s=55.93937900969867
GeH4
R_s=R_NASA_2002/GeH4.MM
R_s=108.4424304333173
GeI
R_s=R_NASA_2002/GeI.MM
R_s=41.66726344257999
GeO
R_s=R_NASA_2002/GeO.MM
R_s=93.80108619868818
GeO2
R_s=R_NASA_2002/GeO2.MM
R_s=79.45878584234529
GeS
R_s=R_NASA_2002/GeS.MM
R_s=79.40854782484124
GeS2
R_s=R_NASA_2002/GeS2.MM
R_s=60.79163559260072
Ge2
R_s=R_NASA_2002/Ge2.MM
R_s=57.23067180616741
H
R_s=R_NASA_2002/H.MM
R_s=8248.975137408972
Hplus
R_s=R_NASA_2002/Hplus.MM
R_s=8253.46732163884
Hminus
R_s=R_NASA_2002/Hminus.MM
R_s=8244.487840516989
HALO
R_s=R_NASA_2002/HALO.MM
R_s=189.0130500714294
HALO2
R_s=R_NASA_2002/HALO2.MM
R_s=138.6016114681605
HBO
R_s=R_NASA_2002/HBO.MM
R_s=298.8845488264217
HBOplus
R_s=R_NASA_2002/HBOplus.MM
R_s=298.8904431859389
HBO2
R_s=R_NASA_2002/HBO2.MM
R_s=189.7512742555869
HBS
R_s=R_NASA_2002/HBS.MM
R_s=189.4650298036138
HBSplus
R_s=R_NASA_2002/HBSplus.MM
R_s=189.4673983652048
HCN
R_s=R_NASA_2002/HCN.MM
R_s=307.6546678043644
HCO
R_s=R_NASA_2002/HCO.MM
R_s=286.5276910501192
HCOplus
R_s=R_NASA_2002/HCOplus.MM
R_s=286.5331080963119
HCCN
R_s=R_NASA_2002/HCCN.MM
R_s=212.9947607390504
HCCO
R_s=R_NASA_2002/HCCO.MM
R_s=202.6499473296036
HCL
R_s=R_NASA_2002/HCL.MM
R_s=228.0377850927595
HD
R_s=R_NASA_2002/HD.MM
R_s=2751.276123892388
HDplus
R_s=R_NASA_2002/HDplus.MM
R_s=2751.775661664527
HDO
R_s=R_NASA_2002/HDO.MM
R_s=437.1104987729112
HDO2
R_s=R_NASA_2002/HDO2.MM
R_s=237.4149656367485
HF
R_s=R_NASA_2002/HF.MM
R_s=415.5917909075958
HI
R_s=R_NASA_2002/HI.MM
R_s=65.00129268145288
HNC
R_s=R_NASA_2002/HNC.MM
R_s=307.6546678043644
HNCO
R_s=R_NASA_2002/HNCO.MM
R_s=193.2486285797427
HNO
R_s=R_NASA_2002/HNO.MM
R_s=268.0873565649622
HNO2
R_s=R_NASA_2002/HNO2.MM
R_s=176.8530871172158
HNO3
R_s=R_NASA_2002/HNO3.MM
R_s=131.9488535987269
HOCL
R_s=R_NASA_2002/HOCL.MM
R_s=158.4906235834537
HOF
R_s=R_NASA_2002/HOF.MM
R_s=230.9207160039958
HO2
R_s=R_NASA_2002/HO2.MM
R_s=251.9022478439252
HO2minus
R_s=R_NASA_2002/HO2minus.MM
R_s=251.8980610846054
HPO
R_s=R_NASA_2002/HPO.MM
R_s=173.2863945743971
HSO3F
R_s=R_NASA_2002/HSO3F.MM
R_s=83.08693868405707
H2
R_s=R_NASA_2002/H2.MM
R_s=4124.487568704486
H2plus
R_s=R_NASA_2002/H2plus.MM
R_s=4125.610309053885
H2minus
R_s=R_NASA_2002/H2minus.MM
R_s=4123.365439272186
HBOH
R_s=R_NASA_2002/HBOH.MM
R_s=288.4337486488024
HCOOH
R_s=R_NASA_2002/HCOOH.MM
R_s=180.6497197850404
H2F2
R_s=R_NASA_2002/H2F2.MM
R_s=207.7958954537979
H2O
R_s=R_NASA_2002/H2O.MM
R_s=461.5233290850878
H2Oplus
R_s=R_NASA_2002/H2Oplus.MM
R_s=461.5373837880259
H2O2
R_s=R_NASA_2002/H2O2.MM
R_s=244.4377545224592
H2S
R_s=R_NASA_2002/H2S.MM
R_s=243.9629493135154
H2SO4
R_s=R_NASA_2002/H2SO4.MM
R_s=84.77366288710837
H2BOH
R_s=R_NASA_2002/H2BOH.MM
R_s=278.689102647899
HB_OH_2
R_s=R_NASA_2002/HB_OH_2.MM
R_s=181.4055272090662
H3BO3
R_s=R_NASA_2002/H3BO3.MM
R_s=134.4665358412059
H3B3O3
R_s=R_NASA_2002/H3B3O3.MM
R_s=99.62818294214057
H3B3O6
R_s=R_NASA_2002/H3B3O6.MM
R_s=63.25042475186231
H3F3
R_s=R_NASA_2002/H3F3.MM
R_s=138.5305969691986
H3Oplus
R_s=R_NASA_2002/H3Oplus.MM
R_s=437.0822491314233
H4F4
R_s=R_NASA_2002/H4F4.MM
R_s=103.897947726899
H5F5
R_s=R_NASA_2002/H5F5.MM
R_s=83.11835818151914
H6F6
R_s=R_NASA_2002/H6F6.MM
R_s=69.26529848459929
H7F7
R_s=R_NASA_2002/H7F7.MM
R_s=59.37025584394225
He
R_s=R_NASA_2002/He.MM
R_s=2077.26673798694
Heplus
R_s=R_NASA_2002/Heplus.MM
R_s=2077.551488943151
Hg
R_s=R_NASA_2002/Hg.MM
R_s=41.45008225734085
Hgplus
R_s=R_NASA_2002/Hgplus.MM
R_s=41.45019562080521
HgBr2
R_s=R_NASA_2002/HgBr2.MM
R_s=23.07025011237576
I
R_s=R_NASA_2002/I.MM
R_s=65.51756608730962
Iplus
R_s=R_NASA_2002/Iplus.MM
R_s=65.5178493168297
Iminus
R_s=R_NASA_2002/Iminus.MM
R_s=65.51728286023828
IF5
R_s=R_NASA_2002/IF5.MM
R_s=37.47004808359156
IF7
R_s=R_NASA_2002/IF7.MM
R_s=31.99186836728072
I2
R_s=R_NASA_2002/I2.MM
R_s=32.75878304365481
In
R_s=R_NASA_2002/In.MM
R_s=72.41436011775157
Inplus
R_s=R_NASA_2002/Inplus.MM
R_s=72.4147061149626
InBr
R_s=R_NASA_2002/InBr.MM
R_s=42.69919166812174
InBr2
R_s=R_NASA_2002/InBr2.MM
R_s=30.27561847749303
InBr3
R_s=R_NASA_2002/InBr3.MM
R_s=23.45209714269597
InCL
R_s=R_NASA_2002/InCL.MM
R_s=55.32985073633636
InCL2
R_s=R_NASA_2002/InCL2.MM
R_s=44.76789214102647
InCL3
R_s=R_NASA_2002/InCL3.MM
R_s=37.59193767887258
InF
R_s=R_NASA_2002/InF.MM
R_s=62.13342909518585
InF2
R_s=R_NASA_2002/InF2.MM
R_s=54.40881152731022
InF3
R_s=R_NASA_2002/InF3.MM
R_s=48.39250730113827
InH
R_s=R_NASA_2002/InH.MM
R_s=71.78419618265131
InI
R_s=R_NASA_2002/InI.MM
R_s=34.39676915431156
InI2
R_s=R_NASA_2002/InI2.MM
R_s=22.55524786115741
InI3
R_s=R_NASA_2002/InI3.MM
R_s=16.7789000499484
InO
R_s=R_NASA_2002/InO.MM
R_s=63.55784475153917
InOH
R_s=R_NASA_2002/InOH.MM
R_s=63.07187980702344
In2Br2
R_s=R_NASA_2002/In2Br2.MM
R_s=21.34959583406087
In2Br4
R_s=R_NASA_2002/In2Br4.MM
R_s=15.13780923874652
In2Br6
R_s=R_NASA_2002/In2Br6.MM
R_s=11.72604857134799
In2CL2
R_s=R_NASA_2002/In2CL2.MM
R_s=27.66492536816818
In2CL4
R_s=R_NASA_2002/In2CL4.MM
R_s=22.38394607051324
In2CL6
R_s=R_NASA_2002/In2CL6.MM
R_s=18.79596883943629
In2F2
R_s=R_NASA_2002/In2F2.MM
R_s=31.06671454759293
In2F4
R_s=R_NASA_2002/In2F4.MM
R_s=27.20440576365511
In2F6
R_s=R_NASA_2002/In2F6.MM
R_s=24.19625365056914
In2I2
R_s=R_NASA_2002/In2I2.MM
R_s=17.19838457715578
In2I4
R_s=R_NASA_2002/In2I4.MM
R_s=11.2776239305787
In2I6
R_s=R_NASA_2002/In2I6.MM
R_s=8.389450024974199
In2O
R_s=R_NASA_2002/In2O.MM
R_s=33.84883449209683
K
R_s=R_NASA_2002/K.MM
R_s=212.6555886061542
Kplus
R_s=R_NASA_2002/Kplus.MM
R_s=212.6585724825086
Kminus
R_s=R_NASA_2002/Kminus.MM
R_s=212.6526048135341
KALF4
R_s=R_NASA_2002/KALF4.MM
R_s=58.5223484977814
KBO2
R_s=R_NASA_2002/KBO2.MM
R_s=101.5097652124759
KBr
R_s=R_NASA_2002/KBr.MM
R_s=69.86816221199086
KCN
R_s=R_NASA_2002/KCN.MM
R_s=127.6876697939207
KCL
R_s=R_NASA_2002/KCL.MM
R_s=111.5268546624942
KF
R_s=R_NASA_2002/KF.MM
R_s=143.1143514525623
KH
R_s=R_NASA_2002/KH.MM
R_s=207.3111815019309
KI
R_s=R_NASA_2002/KI.MM
R_s=50.08634494472592
KLi
R_s=R_NASA_2002/KLi.MM
R_s=180.5951002730276
KNO2
R_s=R_NASA_2002/KNO2.MM
R_s=97.69801113463794
KNO3
R_s=R_NASA_2002/KNO3.MM
R_s=82.23747616297011
KNa
R_s=R_NASA_2002/KNa.MM
R_s=133.9141641864532
KO
R_s=R_NASA_2002/KO.MM
R_s=150.9041575238168
KOH
R_s=R_NASA_2002/KOH.MM
R_s=148.1931584774721
K2
R_s=R_NASA_2002/K2.MM
R_s=106.3277943030771
K2plus
R_s=R_NASA_2002/K2plus.MM
R_s=106.3285402669322
K2Br2
R_s=R_NASA_2002/K2Br2.MM
R_s=34.93408110599543
K2CO3
R_s=R_NASA_2002/K2CO3.MM
R_s=60.16021070073188
K2C2N2
R_s=R_NASA_2002/K2C2N2.MM
R_s=63.84383489696034
K2CL2
R_s=R_NASA_2002/K2CL2.MM
R_s=55.76342733124707
K2F2
R_s=R_NASA_2002/K2F2.MM
R_s=71.55717572628115
K2I2
R_s=R_NASA_2002/K2I2.MM
R_s=25.04317247236296
K2O
R_s=R_NASA_2002/K2O.MM
R_s=88.26778207142554
K2Oplus
R_s=R_NASA_2002/K2Oplus.MM
R_s=88.26829614832124
K2O2
R_s=R_NASA_2002/K2O2.MM
R_s=75.45207876190838
K2O2H2
R_s=R_NASA_2002/K2O2H2.MM
R_s=74.09657923873607
K2SO4
R_s=R_NASA_2002/K2SO4.MM
R_s=47.71324555604525
Kr
R_s=R_NASA_2002/Kr.MM
R_s=99.21804295942721
Krplus
R_s=R_NASA_2002/Krplus.MM
R_s=99.21869249850485
Li
R_s=R_NASA_2002/Li.MM
R_s=1197.878115545311
Liplus
R_s=R_NASA_2002/Liplus.MM
R_s=1197.972800443499
Liminus
R_s=R_NASA_2002/Liminus.MM
R_s=1197.783445613274
LiALF4
R_s=R_NASA_2002/LiALF4.MM
R_s=75.64376972342085
LiBO2
R_s=R_NASA_2002/LiBO2.MM
R_s=167.1223779316112
LiBr
R_s=R_NASA_2002/LiBr.MM
R_s=95.73921354136679
LiCL
R_s=R_NASA_2002/LiCL.MM
R_s=196.1237911025145
LiF
R_s=R_NASA_2002/LiF.MM
R_s=320.5344369680795
LiH
R_s=R_NASA_2002/LiH.MM
R_s=1045.984999257763
LiI
R_s=R_NASA_2002/LiI.MM
R_s=62.11993577369485
LiN
R_s=R_NASA_2002/LiN.MM
R_s=396.9157473135476
LiNO2
R_s=R_NASA_2002/LiNO2.MM
R_s=157.0353470012182
LiNO3
R_s=R_NASA_2002/LiNO3.MM
R_s=120.5941470051156
LiO
R_s=R_NASA_2002/LiO.MM
R_s=362.4379696953846
LiOF
R_s=R_NASA_2002/LiOF.MM
R_s=198.2524861367527
LiOH
R_s=R_NASA_2002/LiOH.MM
R_s=347.1836461316316
LiON
R_s=R_NASA_2002/LiON.MM
R_s=225.0372018372214
Li2
R_s=R_NASA_2002/Li2.MM
R_s=598.9390577726553
Li2plus
R_s=R_NASA_2002/Li2plus.MM
R_s=598.9627280617069
Li2Br2
R_s=R_NASA_2002/Li2Br2.MM
R_s=47.8696067706834
Li2F2
R_s=R_NASA_2002/Li2F2.MM
R_s=160.2672184840397
Li2I2
R_s=R_NASA_2002/Li2I2.MM
R_s=31.05996788684742
Li2O
R_s=R_NASA_2002/Li2O.MM
R_s=278.2490780217794
Li2Oplus
R_s=R_NASA_2002/Li2Oplus.MM
R_s=278.2541865590885
Li2O2
R_s=R_NASA_2002/Li2O2.MM
R_s=181.2189848476923
Li2O2H2
R_s=R_NASA_2002/Li2O2H2.MM
R_s=173.5918230658158
Li2SO4
R_s=R_NASA_2002/Li2SO4.MM
R_s=75.62419618607918
Li3plus
R_s=R_NASA_2002/Li3plus.MM
R_s=399.303225171653
Li3Br3
R_s=R_NASA_2002/Li3Br3.MM
R_s=31.9130711804556
Li3CL3
R_s=R_NASA_2002/Li3CL3.MM
R_s=65.37459703417152
Li3F3
R_s=R_NASA_2002/Li3F3.MM
R_s=106.8448123226932
Li3I3
R_s=R_NASA_2002/Li3I3.MM
R_s=20.70664525789828
Mg
R_s=R_NASA_2002/Mg.MM
R_s=342.0889528903518
Mgplus
R_s=R_NASA_2002/Mgplus.MM
R_s=342.0966745211126
MgBr
R_s=R_NASA_2002/MgBr.MM
R_s=79.78650596397624
MgBr2
R_s=R_NASA_2002/MgBr2.MM
R_s=45.15961393274782
MgCL
R_s=R_NASA_2002/MgCL.MM
R_s=139.1357140466548
MgCLplus
R_s=R_NASA_2002/MgCLplus.MM
R_s=139.1369913744347
MgCL2
R_s=R_NASA_2002/MgCL2.MM
R_s=87.32680047473507
MgF
R_s=R_NASA_2002/MgF.MM
R_s=192.0050477695481
MgFplus
R_s=R_NASA_2002/MgFplus.MM
R_s=192.0074802643611
MgF2
R_s=R_NASA_2002/MgF2.MM
R_s=133.4547500375527
MgF2plus
R_s=R_NASA_2002/MgF2plus.MM
R_s=133.4559251867945
MgH
R_s=R_NASA_2002/MgH.MM
R_s=328.4672582481529
MgI
R_s=R_NASA_2002/MgI.MM
R_s=54.98645025341336
MgI2
R_s=R_NASA_2002/MgI2.MM
R_s=29.89591963639075
MgN
R_s=R_NASA_2002/MgN.MM
R_s=217.0217453153997
MgO
R_s=R_NASA_2002/MgO.MM
R_s=206.2919185002134
MgOH
R_s=R_NASA_2002/MgOH.MM
R_s=201.2588006392279
MgOHplus
R_s=R_NASA_2002/MgOHplus.MM
R_s=201.261473255793
Mg_OH_2
R_s=R_NASA_2002/Mg_OH_2.MM
R_s=142.5671745798331
MgS
R_s=R_NASA_2002/MgS.MM
R_s=147.4981727869434
Mg2
R_s=R_NASA_2002/Mg2.MM
R_s=171.0444764451759
Mg2F4
R_s=R_NASA_2002/Mg2F4.MM
R_s=66.72737501877634
Mn
R_s=R_NASA_2002/Mn.MM
R_s=151.3426878337088
Mnplus
R_s=R_NASA_2002/Mnplus.MM
R_s=151.344199125594
Mo
R_s=R_NASA_2002/Mo.MM
R_s=86.66324786324788
Moplus
R_s=R_NASA_2002/Moplus.MM
R_s=86.66374342015469
Mominus
R_s=R_NASA_2002/Mominus.MM
R_s=86.66275231200837
MoO
R_s=R_NASA_2002/MoO.MM
R_s=74.27654605974304
MoO2
R_s=R_NASA_2002/MoO2.MM
R_s=64.98788483243551
MoO3
R_s=R_NASA_2002/MoO3.MM
R_s=57.76417934919292
MoO3minus
R_s=R_NASA_2002/MoO3minus.MM
R_s=57.763959190069
Mo2O6
R_s=R_NASA_2002/Mo2O6.MM
R_s=28.88208967459646
Mo3O9
R_s=R_NASA_2002/Mo3O9.MM
R_s=19.25472644973097
Mo4O12
R_s=R_NASA_2002/Mo4O12.MM
R_s=14.44104483729823
Mo5O15
R_s=R_NASA_2002/Mo5O15.MM
R_s=11.55283586983858
N
R_s=R_NASA_2002/N.MM
R_s=593.6067739010616
Nplus
R_s=R_NASA_2002/Nplus.MM
R_s=593.6300245904811
Nminus
R_s=R_NASA_2002/Nminus.MM
R_s=593.583525032889
NCO
R_s=R_NASA_2002/NCO.MM
R_s=197.8844652615144
ND
R_s=R_NASA_2002/ND.MM
R_s=518.9797614376608
ND2
R_s=R_NASA_2002/ND2.MM
R_s=461.0211398962811
ND3
R_s=R_NASA_2002/ND3.MM
R_s=414.7074423540001
NF
R_s=R_NASA_2002/NF.MM
R_s=251.9147402635602
NF2
R_s=R_NASA_2002/NF2.MM
R_s=159.8829112799979
NF3
R_s=R_NASA_2002/NF3.MM
R_s=117.1020898851994
NH
R_s=R_NASA_2002/NH.MM
R_s=553.7576658514623
NHplus
R_s=R_NASA_2002/NHplus.MM
R_s=553.7778996070318
NHF
R_s=R_NASA_2002/NHF.MM
R_s=244.4495175309689
NHF2
R_s=R_NASA_2002/NHF2.MM
R_s=156.8429568448825
NH2
R_s=R_NASA_2002/NH2.MM
R_s=518.9221710860547
NH2F
R_s=R_NASA_2002/NH2F.MM
R_s=237.4140084108204
NH3
R_s=R_NASA_2002/NH3.MM
R_s=488.2101075011215
NH2OH
R_s=R_NASA_2002/NH2OH.MM
R_s=251.7254658806319
NH4plus
R_s=R_NASA_2002/NH4plus.MM
R_s=460.944275399867
NO
R_s=R_NASA_2002/NO.MM
R_s=277.0927244793559
NOCL
R_s=R_NASA_2002/NOCL.MM
R_s=127.0178172324398
NOF
R_s=R_NASA_2002/NOF.MM
R_s=169.667509250456
NOF3
R_s=R_NASA_2002/NOF3.MM
R_s=95.56720511710552
NO2
R_s=R_NASA_2002/NO2.MM
R_s=180.7277825477389
NO2minus
R_s=R_NASA_2002/NO2minus.MM
R_s=180.7256274558646
NO2CL
R_s=R_NASA_2002/NO2CL.MM
R_s=102.0700356623311
NO2F
R_s=R_NASA_2002/NO2F.MM
R_s=127.9072731127937
NO3
R_s=R_NASA_2002/NO3.MM
R_s=134.0937893618085
NO3minus
R_s=R_NASA_2002/NO3minus.MM
R_s=134.0926029523154
NO3F
R_s=R_NASA_2002/NO3F.MM
R_s=102.6436166371052
N2
R_s=R_NASA_2002/N2.MM
R_s=296.8033869505308
N2plus
R_s=R_NASA_2002/N2plus.MM
R_s=296.809199509051
N2minus
R_s=R_NASA_2002/N2minus.MM
R_s=296.7975746196665
NCN
R_s=R_NASA_2002/NCN.MM
R_s=207.7366386751982
N2D2_cis
R_s=R_NASA_2002/N2D2_cis.MM
R_s=259.4898807188304
N2F2
R_s=R_NASA_2002/N2F2.MM
R_s=125.9573701317801
N2F4
R_s=R_NASA_2002/N2F4.MM
R_s=79.94145563999894
N2H2
R_s=R_NASA_2002/N2H2.MM
R_s=276.8788329257312
NH2NO2
R_s=R_NASA_2002/NH2NO2.MM
R_s=134.0436782824811
N2H4
R_s=R_NASA_2002/N2H4.MM
R_s=259.4610855430274
N2O
R_s=R_NASA_2002/N2O.MM
R_s=188.9103169986913
N2Oplus
R_s=R_NASA_2002/N2Oplus.MM
R_s=188.9126717112227
N2O3
R_s=R_NASA_2002/N2O3.MM
R_s=109.384251877345
N2O4
R_s=R_NASA_2002/N2O4.MM
R_s=90.36389127386944
N2O5
R_s=R_NASA_2002/N2O5.MM
R_s=76.97843911327057
N3
R_s=R_NASA_2002/N3.MM
R_s=197.8689246336872
N3H
R_s=R_NASA_2002/N3H.MM
R_s=193.2338075357372
Na
R_s=R_NASA_2002/Na.MM
R_s=361.6596425279592
Naplus
R_s=R_NASA_2002/Naplus.MM
R_s=361.6682729411619
Naminus
R_s=R_NASA_2002/Naminus.MM
R_s=361.6510125266381
NaALF4
R_s=R_NASA_2002/NaALF4.MM
R_s=66.00624957484196
NaBO2
R_s=R_NASA_2002/NaBO2.MM
R_s=126.360582599552
NaBr
R_s=R_NASA_2002/NaBr.MM
R_s=80.80636952072025
NaCN
R_s=R_NASA_2002/NaCN.MM
R_s=169.6582765338215
NaCL
R_s=R_NASA_2002/NaCL.MM
R_s=142.2669048712099
NaF
R_s=R_NASA_2002/NaF.MM
R_s=198.0193794189646
NaH
R_s=R_NASA_2002/NaH.MM
R_s=346.4693922878474
NaI
R_s=R_NASA_2002/NaI.MM
R_s=55.46892262170982
NaLi
R_s=R_NASA_2002/NaLi.MM
R_s=277.7901136522716
NaNO2
R_s=R_NASA_2002/NaNO2.MM
R_s=120.5078551036904
NaNO3
R_s=R_NASA_2002/NaNO3.MM
R_s=97.82345175291582
NaO
R_s=R_NASA_2002/NaO.MM
R_s=213.2508078525396
NaOH
R_s=R_NASA_2002/NaOH.MM
R_s=207.87681910018
NaOHplus
R_s=R_NASA_2002/NaOHplus.MM
R_s=207.8796703758639
Na2
R_s=R_NASA_2002/Na2.MM
R_s=180.8298212639796
Na2Br2
R_s=R_NASA_2002/Na2Br2.MM
R_s=40.40318476036013
Na2CL2
R_s=R_NASA_2002/Na2CL2.MM
R_s=71.13345243560495
Na2F2
R_s=R_NASA_2002/Na2F2.MM
R_s=99.00968970948229
Na2I2
R_s=R_NASA_2002/Na2I2.MM
R_s=27.73446131085491
Na2O
R_s=R_NASA_2002/Na2O.MM
R_s=134.1499548072297
Na2Oplus
R_s=R_NASA_2002/Na2Oplus.MM
R_s=134.1511422318069
Na2O2
R_s=R_NASA_2002/Na2O2.MM
R_s=106.6254039262698
Na2O2H2
R_s=R_NASA_2002/Na2O2H2.MM
R_s=103.93840955009
Na2SO4
R_s=R_NASA_2002/Na2SO4.MM
R_s=58.53524876490879
Na3CL3
R_s=R_NASA_2002/Na3CL3.MM
R_s=47.42230162373664
Na3F3
R_s=R_NASA_2002/Na3F3.MM
R_s=66.00645980632153
Nb
R_s=R_NASA_2002/Nb.MM
R_s=89.49301436564421
Nbplus
R_s=R_NASA_2002/Nbplus.MM
R_s=89.49354281328783
Nbminus
R_s=R_NASA_2002/Nbminus.MM
R_s=89.49248592424141
NbCL5
R_s=R_NASA_2002/NbCL5.MM
R_s=30.77480671712896
NbO
R_s=R_NASA_2002/NbO.MM
R_s=76.34555300921586
NbOCL3
R_s=R_NASA_2002/NbOCL3.MM
R_s=38.62439550027646
NbO2
R_s=R_NASA_2002/NbO2.MM
R_s=66.56627051015819
Ne
R_s=R_NASA_2002/Ne.MM
R_s=412.0215860493466
Neplus
R_s=R_NASA_2002/Neplus.MM
R_s=412.0327874639962
Ni
R_s=R_NASA_2002/Ni.MM
R_s=141.6594029311643
Niplus
R_s=R_NASA_2002/Niplus.MM
R_s=141.6607270165784
Niminus
R_s=R_NASA_2002/Niminus.MM
R_s=141.6580788705022
NiCL
R_s=R_NASA_2002/NiCL.MM
R_s=88.31428498593679
NiCL2
R_s=R_NASA_2002/NiCL2.MM
R_s=64.15517355790227
NiO
R_s=R_NASA_2002/NiO.MM
R_s=111.3155752629437
NiS
R_s=R_NASA_2002/NiS.MM
R_s=91.61104647062973
O
R_s=R_NASA_2002/O.MM
R_s=519.6739877745415
Oplus
R_s=R_NASA_2002/Oplus.MM
R_s=519.691807375622
Ominus
R_s=R_NASA_2002/Ominus.MM
R_s=519.6561693954442
OD
R_s=R_NASA_2002/OD.MM
R_s=461.5688831633072
ODminus
R_s=R_NASA_2002/ODminus.MM
R_s=461.5548265418994
OH
R_s=R_NASA_2002/OH.MM
R_s=488.8755090449183
OHplus
R_s=R_NASA_2002/OHplus.MM
R_s=488.8912790451466
OHminus
R_s=R_NASA_2002/OHminus.MM
R_s=488.8597400620322
O2
R_s=R_NASA_2002/O2.MM
R_s=259.8369938872708
O2plus
R_s=R_NASA_2002/O2plus.MM
R_s=259.841448711163
O2minus
R_s=R_NASA_2002/O2minus.MM
R_s=259.8325392161265
O3
R_s=R_NASA_2002/O3.MM
R_s=173.2246625915139
P
R_s=R_NASA_2002/P.MM
R_s=268.4359836056074
Pplus
R_s=R_NASA_2002/Pplus.MM
R_s=268.4407381650862
Pminus
R_s=R_NASA_2002/Pminus.MM
R_s=268.4312292145488
PCL
R_s=R_NASA_2002/PCL.MM
R_s=125.1675059092525
PCL2
R_s=R_NASA_2002/PCL2.MM
R_s=81.61063510936191
PCL2minus
R_s=R_NASA_2002/PCL2minus.MM
R_s=81.6101956564922
PCL3
R_s=R_NASA_2002/PCL3.MM
R_s=60.54252415416013
PCL5
R_s=R_NASA_2002/PCL5.MM
R_s=39.92759061796377
PF
R_s=R_NASA_2002/PF.MM
R_s=166.3820675591232
PFplus
R_s=R_NASA_2002/PFplus.MM
R_s=166.3838941400966
PFminus
R_s=R_NASA_2002/PFminus.MM
R_s=166.3802410182543
PFCL
R_s=R_NASA_2002/PFCL.MM
R_s=97.33047724127172
PFCLminus
R_s=R_NASA_2002/PFCLminus.MM
R_s=97.32985218942183
PFCL2
R_s=R_NASA_2002/PFCL2.MM
R_s=68.7839036523025
PFCL4
R_s=R_NASA_2002/PFCL4.MM
R_s=43.35327702723852
PF2
R_s=R_NASA_2002/PF2.MM
R_s=120.5510163745587
PF2minus
R_s=R_NASA_2002/PF2minus.MM
R_s=120.5500575052316
PF2CL
R_s=R_NASA_2002/PF2CL.MM
R_s=79.62256229143155
PF2CL3
R_s=R_NASA_2002/PF2CL3.MM
R_s=47.42196152820714
PF3
R_s=R_NASA_2002/PF3.MM
R_s=94.51596333673592
PF3CL2
R_s=R_NASA_2002/PF3CL2.MM
R_s=52.33342903919946
PF4CL
R_s=R_NASA_2002/PF4CL.MM
R_s=58.37979341127105
PF5
R_s=R_NASA_2002/PF5.MM
R_s=66.00580092480199
PH
R_s=R_NASA_2002/PH.MM
R_s=259.9759156024878
PH2
R_s=R_NASA_2002/PH2.MM
R_s=252.0328123607044
PH2minus
R_s=R_NASA_2002/PH2minus.MM
R_s=252.0286212601821
PH3
R_s=R_NASA_2002/PH3.MM
R_s=244.5606938917213
PN
R_s=R_NASA_2002/PN.MM
R_s=184.8463047099495
PO
R_s=R_NASA_2002/PO.MM
R_s=177.0047368113038
POminus
R_s=R_NASA_2002/POminus.MM
R_s=177.0026695954198
POCL3
R_s=R_NASA_2002/POCL3.MM
R_s=54.2252319785671
POFCL2
R_s=R_NASA_2002/POFCL2.MM
R_s=60.74386294492521
POF2CL
R_s=R_NASA_2002/POF2CL.MM
R_s=69.04390565615641
POF3
R_s=R_NASA_2002/POF3.MM
R_s=79.97116769280214
PO2
R_s=R_NASA_2002/PO2.MM
R_s=132.0332517522989
PO2minus
R_s=R_NASA_2002/PO2minus.MM
R_s=132.0321015241718
PS
R_s=R_NASA_2002/PS.MM
R_s=131.8945973573307
P2
R_s=R_NASA_2002/P2.MM
R_s=134.2179918028037
P2O3
R_s=R_NASA_2002/P2O3.MM
R_s=75.62342443846974
P2O4
R_s=R_NASA_2002/P2O4.MM
R_s=66.01662587614946
P2O5
R_s=R_NASA_2002/P2O5.MM
R_s=58.57550459044837
P3
R_s=R_NASA_2002/P3.MM
R_s=89.47866120186912
P3O6
R_s=R_NASA_2002/P3O6.MM
R_s=44.01108391743297
P4
R_s=R_NASA_2002/P4.MM
R_s=67.10899590140184
P4O6
R_s=R_NASA_2002/P4O6.MM
R_s=37.81171221923487
P4O7
R_s=R_NASA_2002/P4O7.MM
R_s=35.24711624669926
P4O8
R_s=R_NASA_2002/P4O8.MM
R_s=33.00831293807473
P4O9
R_s=R_NASA_2002/P4O9.MM
R_s=31.03692952012733
P4O10
R_s=R_NASA_2002/P4O10.MM
R_s=29.28775229522418
Pb
R_s=R_NASA_2002/Pb.MM
R_s=40.12776061776062
Pbplus
R_s=R_NASA_2002/Pbplus.MM
R_s=40.12786686364751
Pbminus
R_s=R_NASA_2002/Pbminus.MM
R_s=40.12765437243635
PbBr
R_s=R_NASA_2002/PbBr.MM
R_s=28.95979157378512
PbBr2
R_s=R_NASA_2002/PbBr2.MM
R_s=22.65474322085622
PbBr3
R_s=R_NASA_2002/PbBr3.MM
R_s=18.60427108692539
PbBr4
R_s=R_NASA_2002/PbBr4.MM
R_s=15.78249711474215
PbCL
R_s=R_NASA_2002/PbCL.MM
R_s=34.26486381787986
PbCL2
R_s=R_NASA_2002/PbCL2.MM
R_s=29.896773172819
PbCL3
R_s=R_NASA_2002/PbCL3.MM
R_s=26.51645144932851
PbCL4
R_s=R_NASA_2002/PbCL4.MM
R_s=23.82288288081785
PbF
R_s=R_NASA_2002/PbF.MM
R_s=36.75743012495325
PbF2
R_s=R_NASA_2002/PbF2.MM
R_s=33.90938129282258
PbF3
R_s=R_NASA_2002/PbF3.MM
R_s=31.47094155336267
PbF4
R_s=R_NASA_2002/PbF4.MM
R_s=29.35967346788974
PbI
R_s=R_NASA_2002/PbI.MM
R_s=24.88584483769403
PbI2
R_s=R_NASA_2002/PbI2.MM
R_s=18.03538126614204
PbI3
R_s=R_NASA_2002/PbI3.MM
R_s=14.14234113149418
PbI4
R_s=R_NASA_2002/PbI4.MM
R_s=11.63159488959622
PbO
R_s=R_NASA_2002/PbO.MM
R_s=37.25131877594653
PbO2
R_s=R_NASA_2002/PbO2.MM
R_s=34.75967270738816
PbS
R_s=R_NASA_2002/PbS.MM
R_s=34.75005537792824
PbS2
R_s=R_NASA_2002/PbS2.MM
R_s=30.64339365348469
Rb
R_s=R_NASA_2002/Rb.MM
R_s=97.28192371864024
Rbplus
R_s=R_NASA_2002/Rbplus.MM
R_s=97.28254815504691
Rbminus
R_s=R_NASA_2002/Rbminus.MM
R_s=97.28129929024978
RbBO2
R_s=R_NASA_2002/RbBO2.MM
R_s=64.81624227456703
RbBr
R_s=R_NASA_2002/RbBr.MM
R_s=50.27744754547027
RbCL
R_s=R_NASA_2002/RbCL.MM
R_s=68.75965094508142
RbF
R_s=R_NASA_2002/RbF.MM
R_s=79.59006592861414
RbH
R_s=R_NASA_2002/RbH.MM
R_s=96.14802949358978
RbI
R_s=R_NASA_2002/RbI.MM
R_s=39.15045970926431
RbK
R_s=R_NASA_2002/RbK.MM
R_s=66.74746981722957
RbLi
R_s=R_NASA_2002/RbLi.MM
R_s=89.9748941659236
RbNO2
R_s=R_NASA_2002/RbNO2.MM
R_s=63.24076447461196
RbNO3
R_s=R_NASA_2002/RbNO3.MM
R_s=56.37973672415301
RbNa
R_s=R_NASA_2002/RbNa.MM
R_s=76.6610574070579
RbO
R_s=R_NASA_2002/RbO.MM
R_s=81.94246022359934
RbOH
R_s=R_NASA_2002/RbOH.MM
R_s=81.13647856445964
Rb2Br2
R_s=R_NASA_2002/Rb2Br2.MM
R_s=25.13872377273513
Rb2CL2
R_s=R_NASA_2002/Rb2CL2.MM
R_s=34.37982547254071
Rb2F2
R_s=R_NASA_2002/Rb2F2.MM
R_s=39.79503296430707
Rb2I2
R_s=R_NASA_2002/Rb2I2.MM
R_s=19.57522985463216
Rb2O
R_s=R_NASA_2002/Rb2O.MM
R_s=44.47787733704229
Rb2O2
R_s=R_NASA_2002/Rb2O2.MM
R_s=40.97123011179967
Rb2O2H2
R_s=R_NASA_2002/Rb2O2H2.MM
R_s=40.56823928222982
Rb2SO4
R_s=R_NASA_2002/Rb2SO4.MM
R_s=31.1405545056109
Rn
R_s=R_NASA_2002/Rn.MM
R_s=37.44960759867686
Rnplus
R_s=R_NASA_2002/Rnplus.MM
R_s=37.44970013595992
S
R_s=R_NASA_2002/S.MM
R_s=259.300545766412
Splus
R_s=R_NASA_2002/Splus.MM
R_s=259.3049822146652
Sminus
R_s=R_NASA_2002/Sminus.MM
R_s=259.2961094699624
SCL
R_s=R_NASA_2002/SCL.MM
R_s=123.1445244231168
SCL2
R_s=R_NASA_2002/SCL2.MM
R_s=80.7457633702693
SCL2plus
R_s=R_NASA_2002/SCL2plus.MM
R_s=80.74619356286517
SD
R_s=R_NASA_2002/SD.MM
R_s=243.9756775281227
SF
R_s=R_NASA_2002/SF.MM
R_s=162.8264369187207
SFplus
R_s=R_NASA_2002/SFplus.MM
R_s=162.8281862643848
SFminus
R_s=R_NASA_2002/SFminus.MM
R_s=162.8246876106444
SF2
R_s=R_NASA_2002/SF2.MM
R_s=118.6733889293497
SF2plus
R_s=R_NASA_2002/SF2plus.MM
R_s=118.6743181764573
SF2minus
R_s=R_NASA_2002/SF2minus.MM
R_s=118.6724596967944
SF3
R_s=R_NASA_2002/SF3.MM
R_s=93.35787595092299
SF3plus
R_s=R_NASA_2002/SF3plus.MM
R_s=93.35845102756454
SF3minus
R_s=R_NASA_2002/SF3minus.MM
R_s=93.35730088136619
SF4
R_s=R_NASA_2002/SF4.MM
R_s=76.944093437409
SF4plus
R_s=R_NASA_2002/SF4plus.MM
R_s=76.94448407488684
SF4minus
R_s=R_NASA_2002/SF4minus.MM
R_s=76.94370280389758
SF5
R_s=R_NASA_2002/SF5.MM
R_s=65.43890500308933
SF5plus
R_s=R_NASA_2002/SF5plus.MM
R_s=65.43918755291948
SF5minus
R_s=R_NASA_2002/SF5minus.MM
R_s=65.4386224556991
SF6
R_s=R_NASA_2002/SF6.MM
R_s=56.92682986733026
SF6minus
R_s=R_NASA_2002/SF6minus.MM
R_s=56.92661604478445
SH
R_s=R_NASA_2002/SH.MM
R_s=251.3980311396568
SHminus
R_s=R_NASA_2002/SHminus.MM
R_s=251.3938611241634
SN
R_s=R_NASA_2002/SN.MM
R_s=180.4680964670286
SO
R_s=R_NASA_2002/SO.MM
R_s=172.9860770133404
SOminus
R_s=R_NASA_2002/SOminus.MM
R_s=172.9841025982081
SOF2
R_s=R_NASA_2002/SOF2.MM
R_s=96.61114859761017
SO2
R_s=R_NASA_2002/SO2.MM
R_s=129.7842463294403
SO2minus
R_s=R_NASA_2002/SO2minus.MM
R_s=129.7831349525343
SO2CL2
R_s=R_NASA_2002/SO2CL2.MM
R_s=61.60246218042851
SO2FCL
R_s=R_NASA_2002/SO2FCL.MM
R_s=70.15531995476509
SO2F2
R_s=R_NASA_2002/SO2F2.MM
R_s=81.46602585735764
SO3
R_s=R_NASA_2002/SO3.MM
R_s=103.8488594010732
S2
R_s=R_NASA_2002/S2.MM
R_s=129.650272883206
S2minus
R_s=R_NASA_2002/S2minus.MM
R_s=129.6491637996061
S2CL2
R_s=R_NASA_2002/S2CL2.MM
R_s=61.5722622115584
S2F2
R_s=R_NASA_2002/S2F2.MM
R_s=81.41321845936034
S2O
R_s=R_NASA_2002/S2O.MM
R_s=103.7630632452009
S3
R_s=R_NASA_2002/S3.MM
R_s=86.43351525547067
S4
R_s=R_NASA_2002/S4.MM
R_s=64.82513644160301
S5
R_s=R_NASA_2002/S5.MM
R_s=51.8601091532824
S6
R_s=R_NASA_2002/S6.MM
R_s=43.21675762773533
S7
R_s=R_NASA_2002/S7.MM
R_s=37.04293510948742
S8
R_s=R_NASA_2002/S8.MM
R_s=32.4125682208015
Sc
R_s=R_NASA_2002/Sc.MM
R_s=184.9472516516738
Scplus
R_s=R_NASA_2002/Scplus.MM
R_s=184.9495086029939
Scminus
R_s=R_NASA_2002/Scminus.MM
R_s=184.9449947554365
ScO
R_s=R_NASA_2002/ScO.MM
R_s=136.4027514584045
ScOplus
R_s=R_NASA_2002/ScOplus.MM
R_s=136.4039790991619
ScO2
R_s=R_NASA_2002/ScO2.MM
R_s=108.0437051871159
Sc2O
R_s=R_NASA_2002/Sc2O.MM
R_s=78.50416603642182
Sc2O2
R_s=R_NASA_2002/Sc2O2.MM
R_s=68.20137572920227
Si
R_s=R_NASA_2002/Si.MM
R_s=296.0414448736893
Siplus
R_s=R_NASA_2002/Siplus.MM
R_s=296.0472276266784
Siminus
R_s=R_NASA_2002/Siminus.MM
R_s=296.0356623466072
SiBr
R_s=R_NASA_2002/SiBr.MM
R_s=76.99333731520194
SiBr2
R_s=R_NASA_2002/SiBr2.MM
R_s=44.25098260450734
SiBr3
R_s=R_NASA_2002/SiBr3.MM
R_s=31.04760873421148
SiBr4
R_s=R_NASA_2002/SiBr4.MM
R_s=23.9126722202809
SiC
R_s=R_NASA_2002/SiC.MM
R_s=207.3630917643068
SiC2
R_s=R_NASA_2002/SiC2.MM
R_s=159.5656621291998
SiCL
R_s=R_NASA_2002/SiCL.MM
R_s=130.857228294656
SiCL2
R_s=R_NASA_2002/SiCL2.MM
R_s=83.99177707176879
SiCL3
R_s=R_NASA_2002/SiCL3.MM
R_s=61.84315461026669
SiCL4
R_s=R_NASA_2002/SiCL4.MM
R_s=48.93816565870598
SiF
R_s=R_NASA_2002/SiF.MM
R_s=176.5884184385121
SiFCL
R_s=R_NASA_2002/SiFCL.MM
R_s=100.7364182280103
SiF2
R_s=R_NASA_2002/SiF2.MM
R_s=125.8199426283947
SiF3
R_s=R_NASA_2002/SiF3.MM
R_s=97.7245257954454
SiF4
R_s=R_NASA_2002/SiF4.MM
R_s=79.88607681521283
SiH
R_s=R_NASA_2002/SiH.MM
R_s=285.7851116952825
SiHplus
R_s=R_NASA_2002/SiHplus.MM
R_s=285.7905006994252
SiHBr3
R_s=R_NASA_2002/SiHBr3.MM
R_s=30.9311894878318
SiHCL
R_s=R_NASA_2002/SiHCL.MM
R_s=128.8137967020334
SiHCL3
R_s=R_NASA_2002/SiHCL3.MM
R_s=61.3829621673851
SiHF
R_s=R_NASA_2002/SiHF.MM
R_s=172.8873639844189
SiHF3
R_s=R_NASA_2002/SiHF3.MM
R_s=96.58035105245745
SiHI3
R_s=R_NASA_2002/SiHI3.MM
R_s=20.28875798440168
SiH2
R_s=R_NASA_2002/SiH2.MM
R_s=276.2156419406685
SiH2Br2
R_s=R_NASA_2002/SiH2Br2.MM
R_s=43.7812603042567
SiH2CL2
R_s=R_NASA_2002/SiH2CL2.MM
R_s=82.31549021467541
SiH2F2
R_s=R_NASA_2002/SiH2F2.MM
R_s=122.0953514262753
SiH2I2
R_s=R_NASA_2002/SiH2I2.MM
R_s=29.28555749576134
SiH3
R_s=R_NASA_2002/SiH3.MM
R_s=267.2662726154092
SiH3Br
R_s=R_NASA_2002/SiH3Br.MM
R_s=74.89616561327956
SiH3CL
R_s=R_NASA_2002/SiH3CL.MM
R_s=124.9125931908624
SiH3F
R_s=R_NASA_2002/SiH3F.MM
R_s=165.9319455967618
SiH3I
R_s=R_NASA_2002/SiH3I.MM
R_s=52.61864803065607
SiH4
R_s=R_NASA_2002/SiH4.MM
R_s=258.8786216507884
SiI
R_s=R_NASA_2002/SiI.MM
R_s=53.64522620399243
SiI2
R_s=R_NASA_2002/SiI2.MM
R_s=29.49498400890774
SiN
R_s=R_NASA_2002/SiN.MM
R_s=197.5299936805394
SiO
R_s=R_NASA_2002/SiO.MM
R_s=188.601357834542
SiO2
R_s=R_NASA_2002/SiO2.MM
R_s=138.3801092797952
SiS
R_s=R_NASA_2002/SiS.MM
R_s=138.2278119051379
SiS2
R_s=R_NASA_2002/SiS2.MM
R_s=90.1634974597546
Si2
R_s=R_NASA_2002/Si2.MM
R_s=148.0207224368446
Si2C
R_s=R_NASA_2002/Si2C.MM
R_s=121.9458007060545
Si2F6
R_s=R_NASA_2002/Si2F6.MM
R_s=48.8622628977227
Si2N
R_s=R_NASA_2002/Si2N.MM
R_s=118.4774080655251
Si3
R_s=R_NASA_2002/Si3.MM
R_s=98.6804816245631
Sn
R_s=R_NASA_2002/Sn.MM
R_s=70.0401988038076
Snplus
R_s=R_NASA_2002/Snplus.MM
R_s=70.04052248530566
Snminus
R_s=R_NASA_2002/Snminus.MM
R_s=70.03987512530121
SnBr
R_s=R_NASA_2002/SnBr.MM
R_s=41.86246689558642
SnBr2
R_s=R_NASA_2002/SnBr2.MM
R_s=29.85254812974386
SnBr3
R_s=R_NASA_2002/SnBr3.MM
R_s=23.19743765728666
SnBr4
R_s=R_NASA_2002/SnBr4.MM
R_s=18.96869453329257
SnCL
R_s=R_NASA_2002/SnCL.MM
R_s=53.93299300091461
SnCL2
R_s=R_NASA_2002/SnCL2.MM
R_s=43.84900008438107
SnCL3
R_s=R_NASA_2002/SnCL3.MM
R_s=36.94188004567489
SnCL4
R_s=R_NASA_2002/SnCL4.MM
R_s=31.91466363685217
SnF
R_s=R_NASA_2002/SnF.MM
R_s=60.3773757213968
SnF2
R_s=R_NASA_2002/SnF2.MM
R_s=53.05750395280852
SnF3
R_s=R_NASA_2002/SnF3.MM
R_s=47.32057756812237
SnF4
R_s=R_NASA_2002/SnF4.MM
R_s=42.70322404618472
SnI
R_s=R_NASA_2002/SnI.MM
R_s=33.85171891542058
SnI2
R_s=R_NASA_2002/SnI2.MM
R_s=22.31959534728624
SnI3
R_s=R_NASA_2002/SnI3.MM
R_s=16.64814230474298
SnI4
R_s=R_NASA_2002/SnI4.MM
R_s=13.27495113262402
SnO
R_s=R_NASA_2002/SnO.MM
R_s=61.72154281735352
SnO2
R_s=R_NASA_2002/SnO2.MM
R_s=55.16912084762137
SnS
R_s=R_NASA_2002/SnS.MM
R_s=55.14489802686122
SnS2
R_s=R_NASA_2002/SnS2.MM
R_s=45.47403194049442
Sn2
R_s=R_NASA_2002/Sn2.MM
R_s=35.0200994019038
Sr
R_s=R_NASA_2002/Sr.MM
R_s=94.89239899566309
Srplus
R_s=R_NASA_2002/Srplus.MM
R_s=94.8929931328011
SrBr
R_s=R_NASA_2002/SrBr.MM
R_s=49.63152742293642
SrBr2
R_s=R_NASA_2002/SrBr2.MM
R_s=33.60360185589343
SrCL
R_s=R_NASA_2002/SrCL.MM
R_s=67.55723838697359
SrCLplus
R_s=R_NASA_2002/SrCLplus.MM
R_s=67.55753952586014
SrCL2
R_s=R_NASA_2002/SrCL2.MM
R_s=52.44863303180551
SrF
R_s=R_NASA_2002/SrF.MM
R_s=77.98346017622593
SrFplus
R_s=R_NASA_2002/SrFplus.MM
R_s=77.98386143853246
SrF2
R_s=R_NASA_2002/SrF2.MM
R_s=66.1891687767028
SrH
R_s=R_NASA_2002/SrH.MM
R_s=93.81321511026886
SrI
R_s=R_NASA_2002/SrI.MM
R_s=38.75768577822381
SrI2
R_s=R_NASA_2002/SrI2.MM
R_s=24.35198375392549
SrO
R_s=R_NASA_2002/SrO.MM
R_s=80.24049550566787
SrOH
R_s=R_NASA_2002/SrOH.MM
R_s=79.46748909032763
SrOHplus
R_s=R_NASA_2002/SrOHplus.MM
R_s=79.46790577007029
Sr_OH_2
R_s=R_NASA_2002/Sr_OH_2.MM
R_s=68.35609712624722
SrS
R_s=R_NASA_2002/SrS.MM
R_s=69.46962443079751
Sr2
R_s=R_NASA_2002/Sr2.MM
R_s=47.44619949783154
Ta
R_s=R_NASA_2002/Ta.MM
R_s=45.94953575034582
Taplus
R_s=R_NASA_2002/Taplus.MM
R_s=45.94967506111836
Taminus
R_s=R_NASA_2002/Taminus.MM
R_s=45.94939644041801
TaCL5
R_s=R_NASA_2002/TaCL5.MM
R_s=23.21097872243015
TaO
R_s=R_NASA_2002/TaO.MM
R_s=42.21673513675993
TaO2
R_s=R_NASA_2002/TaO2.MM
R_s=39.04485019021192
Ti
R_s=R_NASA_2002/Ti.MM
R_s=173.699458917417
Tiplus
R_s=R_NASA_2002/Tiplus.MM
R_s=173.7014496963525
Timinus
R_s=R_NASA_2002/Timinus.MM
R_s=173.6974681841134
TiCL
R_s=R_NASA_2002/TiCL.MM
R_s=99.78963034085456
TiCL2
R_s=R_NASA_2002/TiCL2.MM
R_s=70.00304783073595
TiCL3
R_s=R_NASA_2002/TiCL3.MM
R_s=53.91096183522882
TiCL4
R_s=R_NASA_2002/TiCL4.MM
R_s=43.83443607357694
TiO
R_s=R_NASA_2002/TiO.MM
R_s=130.1853869953528
TiOplus
R_s=R_NASA_2002/TiOplus.MM
R_s=130.1865052722056
TiOCL
R_s=R_NASA_2002/TiOCL.MM
R_s=83.71448075602551
TiOCL2
R_s=R_NASA_2002/TiOCL2.MM
R_s=61.69269078832164
TiO2
R_s=R_NASA_2002/TiO2.MM
R_s=104.1055370383819
U
R_s=R_NASA_2002/U.MM
R_s=34.93051327252644
UF
R_s=R_NASA_2002/UF.MM
R_s=32.34859321557893
UFplus
R_s=R_NASA_2002/UFplus.MM
R_s=32.34866226067727
UFminus
R_s=R_NASA_2002/UFminus.MM
R_s=32.34852417077533
UF2
R_s=R_NASA_2002/UF2.MM
R_s=30.12209191389676
UF2plus
R_s=R_NASA_2002/UF2plus.MM
R_s=30.12215178155214
UF2minus
R_s=R_NASA_2002/UF2minus.MM
R_s=30.12203204647934
UF3
R_s=R_NASA_2002/UF3.MM
R_s=28.18234662058458
UF3plus
R_s=R_NASA_2002/UF3plus.MM
R_s=28.18239902600868
UF3minus
R_s=R_NASA_2002/UF3minus.MM
R_s=28.18229421535538
UF4
R_s=R_NASA_2002/UF4.MM
R_s=26.47731100897964
UF4plus
R_s=R_NASA_2002/UF4plus.MM
R_s=26.47735726514645
UF4minus
R_s=R_NASA_2002/UF4minus.MM
R_s=26.47726475297446
UF5
R_s=R_NASA_2002/UF5.MM
R_s=24.96681544870847
UF5plus
R_s=R_NASA_2002/UF5plus.MM
R_s=24.96685657770803
UF5minus
R_s=R_NASA_2002/UF5minus.MM
R_s=24.96677431984442
UF6
R_s=R_NASA_2002/UF6.MM
R_s=23.61936209268818
UF6minus
R_s=R_NASA_2002/UF6minus.MM
R_s=23.61932528345421
UO
R_s=R_NASA_2002/UO.MM
R_s=32.73049369969828
UOplus
R_s=R_NASA_2002/UOplus.MM
R_s=32.73056438468461
UOF
R_s=R_NASA_2002/UOF.MM
R_s=30.45296155292104
UOF2
R_s=R_NASA_2002/UOF2.MM
R_s=28.47177017682031
UOF3
R_s=R_NASA_2002/UOF3.MM
R_s=26.73261498260018
UOF4
R_s=R_NASA_2002/UOF4.MM
R_s=25.1936960110336
UO2
R_s=R_NASA_2002/UO2.MM
R_s=30.79118065327443
UO2plus
R_s=R_NASA_2002/UO2plus.MM
R_s=30.79124321009879
UO2minus
R_s=R_NASA_2002/UO2minus.MM
R_s=30.79111809670427
UO2F
R_s=R_NASA_2002/UO2F.MM
R_s=28.76719998738163
UO2F2
R_s=R_NASA_2002/UO2F2.MM
R_s=26.99289036202185
UO3
R_s=R_NASA_2002/UO3.MM
R_s=29.06882497956226
UO3minus
R_s=R_NASA_2002/UO3minus.MM
R_s=29.06876922566257
V
R_s=R_NASA_2002/V.MM
R_s=163.2160811911703
Vplus
R_s=R_NASA_2002/Vplus.MM
R_s=163.2178389192786
Vminus
R_s=R_NASA_2002/Vminus.MM
R_s=163.2143235009202
VCL4
R_s=R_NASA_2002/VCL4.MM
R_s=43.13525824433798
VN
R_s=R_NASA_2002/VN.MM
R_s=128.0169735265951
VO
R_s=R_NASA_2002/VO.MM
R_s=124.2061579691937
VO2
R_s=R_NASA_2002/VO2.MM
R_s=100.2464664342907
V4O10
R_s=R_NASA_2002/V4O10.MM
R_s=22.85702661095228
W
R_s=R_NASA_2002/W.MM
R_s=45.22667536988686
Wplus
R_s=R_NASA_2002/Wplus.MM
R_s=45.22681033196339
Wminus
R_s=R_NASA_2002/Wminus.MM
R_s=45.22654040861582
WCL6
R_s=R_NASA_2002/WCL6.MM
R_s=20.96659757210799
WO
R_s=R_NASA_2002/WO.MM
R_s=41.60576943285459
WOCL4
R_s=R_NASA_2002/WOCL4.MM
R_s=24.33612740940034
WO2
R_s=R_NASA_2002/WO2.MM
R_s=38.52167450893908
WO2CL2
R_s=R_NASA_2002/WO2CL2.MM
R_s=28.99606897840868
WO3
R_s=R_NASA_2002/WO3.MM
R_s=35.86325290655294
WO3minus
R_s=R_NASA_2002/WO3minus.MM
R_s=35.86316804334235
Xe
R_s=R_NASA_2002/Xe.MM
R_s=63.3276107637117
Xeplus
R_s=R_NASA_2002/Xeplus.MM
R_s=63.32787537547646
Zn
R_s=R_NASA_2002/Zn.MM
R_s=127.1520415965744
Znplus
R_s=R_NASA_2002/Znplus.MM
R_s=127.1531083681794
Zr
R_s=R_NASA_2002/Zr.MM
R_s=91.1434710163992
Zrplus
R_s=R_NASA_2002/Zrplus.MM
R_s=91.14401913541281
Zrminus
R_s=R_NASA_2002/Zrminus.MM
R_s=91.14292290397806
ZrN
R_s=R_NASA_2002/ZrN.MM
R_s=79.01184730311593
ZrO
R_s=R_NASA_2002/ZrO.MM
R_s=77.54344667302101
ZrOplus
R_s=R_NASA_2002/ZrOplus.MM
R_s=77.5438434199298
ZrO2
R_s=R_NASA_2002/ZrO2.MM
R_s=67.47511012572349
R_NASA_2002
Present


function Media.R134a.R134a_ph.setState_phX



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
state := ThermodynamicState(
 phase=if ((h < bubbleEnthalpy(SaturationProperties(psat=p,Tsat=0)) or (h > dewEnthalpy(SaturationProperties(psat=p,Tsat=0)))
or (p > R134aData.data.FPCRIT))) then 1 else 2, p=p, h=h, d=density_ph(p, h), T=temperature_ph(p, h)); 		state := ThermodynamicState(phase=getPhase_ph(p, h), p=p, h=h, d=density_ph(p, h), T=temperature_ph(p, h));


function Media.R134a.R134a_ph.dofpT

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
T_breaks
Present

dlt_coef
Present

dvt_coef
Present

highT
Present

Tred
Present


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
pred = p/R134aData.data.FPCRIT;
Tred = T/R134aData.data.FTCRIT;
highT = (Tred > 0.95);
if highT then
(int,error) = Common.FindInterval(pred, p_breaks);
localx = pred - p_breaks[int];

supercritical = p > R134aData.data.FPCRIT;
if supercritical then
d = R134aData.data.FDCRIT*3.0;
else
(int,error) = Common.FindInterval(Tred, T_breaks);
localx = Tred - T_breaks[int];
end if;
supercritical = p > R134aData.data.FPCRIT;
if supercritical then
d = R134aData.data.FDCRIT*3.0;
else
liquid = T <= Modelica410.Media.R134a.R134a_ph.saturationTemperature(p);
if liquid then
d = if highT then R134aData.data.FDCRIT*Common.CubicSplineEval(localx, dl_coef[int,1:4])*1.02
 else R134aData.data.FDCRIT*Common.CubicSplineEval(localx, dlt_coef[int,1:4])*1.02; 		d = R134aData.data.FDCRIT*Common.CubicSplineEval(localx, dl_coef[int,
1:4])*1.02;
else
d = if highT then R134aData.data.FDCRIT*Common.CubicSplineEval(localx, dv_coef[int,1:4])*0.95
 else R134aData.data.FDCRIT*Common.CubicSplineEval(localx, dvt_coef[int,1:4])*0.95; 		d = R134aData.data.FDCRIT*Common.CubicSplineEval(localx, dv_coef[int,
1:4])*0.95;
end if;
...


function Media.Water.IF97_Utilities.BaseIF97.Regions.boundary23ofp



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
assert(p > triple.ptriple,
    "IF97 medium function boundary23ofp called with too low pressure\n"
     + "p = " + String(p) + " Pa <= " + String(triple.ptriple) +
    " Pa (triple point pressure)");
t = n[4] + sqrt((pi - n[5])/n[3]); t = n[4] + ((pi - n[5])/n[3])^0.5;


function Media.Water.IF97_Utilities.BaseIF97.Regions.hlowerofp2



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
assert(p > triple.ptriple,
    "IF97 medium function hlowerofp2 called with too low pressure\n" +
    "p = " + String(p) + " Pa <= " + String(triple.ptriple) +
    " Pa (triple point pressure)");
q1 = 572.54459862746 + 31.3220101646784*sqrt(-13.91883977887 + pi); q1 = 572.54459862746 + 31.3220101646784*(-13.91883977887 + pi)^0.5;
q2 = -0.5 + 540./q1;
...


function Media.Water.IF97_Utilities.BaseIF97.Regions.slowerofp2



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
assert(p > triple.ptriple,
    "IF97 medium function slowerofp2 called with too low pressure\n" +
    "p = " + String(p) + " Pa <= " + String(triple.ptriple) +
    " Pa (triple point pressure)");
q1 = 572.54459862746 + 31.3220101646784*sqrt(-13.91883977887 + pi); q1 = 572.54459862746 + 31.3220101646784*(-13.91883977887 + pi)^0.5;
q2 = -0.5 + 540.0/q1;
...


function Media.Water.IF97_Utilities.BaseIF97.Basic.tsat_der

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
der_p
Units.SI.PressureSlope
Real
der_tsat
Units.SI.TemperatureSlope
Real


function Media.Water.IF97_Utilities.BaseIF97.Basic.psat



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
o[8] = 405113.40542057 + o[5] + o[7];
p_sat = 16.0e6*o[8]*o[8]*o[8]*o[8]*1/(3.2325550322333e6 -
12020.8247024700*o[4] + 17.0738469400920*o[6] + sqrt(-4.0*(-724213.16703206
+ 1167.05214527670*o[4] + o[6])*o[8] + (-3.2325550322333e6 +
12020.8247024700*o[4] - 17.0738469400920*o[6])^2.0))^4.0; 		p_sat = 16.0e6*o[8]*o[8]*o[8]*o[8]*1/(3.2325550322333e6 -
12020.8247024700*o[4] + 17.0738469400920*o[6] + (-4.0*(-724213.16703206
+ 1167.05214527670*o[4] + o[6])*o[8] + (-3.2325550322333e6 +
12020.8247024700*o[4] - 17.0738469400920*o[6])^2.0)^0.5)^4.0;


function Media.Water.IF97_Utilities.BaseIF97.Basic.psat_der

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
der_T
Units.SI.TemperatureSlope
Real
der_psat
Units.SI.PressureSlope
Real


function Media.Water.IF97_Utilities.BaseIF97.Basic.p1_hs

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
n
protected
I
protected
J
protected
hstar
protected
pstar
protected
sstar
protected


function Media.Water.IF97_Utilities.BaseIF97.Basic.p2a_hs

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
n
protected
I
protected
J
protected
hstar
protected
pstar
protected
sstar
protected


function Media.Water.IF97_Utilities.BaseIF97.Basic.p2b_hs

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
n
protected
I
protected
J
protected
hstar
protected
pstar
protected
sstar
protected


function Media.Water.IF97_Utilities.BaseIF97.Basic.p2c_hs

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
n
protected
I
protected
J
protected
hstar
protected
pstar
protected
sstar
protected


function Media.Water.IF97_Utilities.BaseIF97.Transport.visc_dTp



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
taum1 = tau - 1.0;
Psi0 = 1/(n0 + (n1 + (n2 + n3*tau)*tau)*tau)/(sqrt(tau)); Psi0 = 1/(n0 + (n1 + (n2 + n3*tau)*tau)*tau)/(tau^0.5);
Psi1 = 0.0;
...


function Media.Water.IF97_Utilities.BaseIF97.Transport.cond_dTp



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
end if;
if industrialMethod then if industrialMethod == true then
deltaTREL = abs(TREL - 1) + C[4];
...


function Math.Vectors.normalize

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
result
each final unit="1"


function Math.BooleanVectors.allTrue

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
result
=size(b, 1) > 0 and min(b)


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
result := size(b,1) > 0;

for i in 1:size(b,1) loop
result = result and b[i];
end for;


function Math.BooleanVectors.andTrue

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
result
=size(b, 1) == 0 or min(b)


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
result := true;

for i in 1:size(b,1) loop
result = result and b[i];
end for;


function Math.BooleanVectors.anyTrue

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
result
=size(b, 1) > 0 and max(b)


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
result := false;

for i in 1:size(b,1) loop
result = result or b[i];
end for;


function Math.Matrices.Examples.solveLinearEquations

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
diff
Present


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
x1 = Math.Matrices.solve(A1, b1);
diff = Vectors.norm(x1 - x1_ref); print("diff1 = " + String(Vectors.norm(x1 - x1_ref)));
print("diff1 = " + String(diff));
assert(abs(diff)<1e-10, "Solution should be close to desired");
X2 = Math.Matrices.solve2(A1, B2);
diff = Matrices.norm(X2 - [x1_ref, 2*x1_ref, -3*x1_ref]); print("diff2 = " + String(Matrices.norm(X2 - [x1_ref, 2*x1_ref, -3*x1_ref])));
print("diff2 = " + String(diff));
assert(abs(diff)<1e-10, "Solution should be close to desired");
(x3,rank) = Math.Matrices.leastSquares(A3, b3);
diff = Vectors.norm(A3*x3 - b3); print("diff3 = " + String(Vectors.norm(A3*x3 - b3)) + ", n = " + String(
size(A3, 1)) + ", rank = " + String(rank));
print("diff3 = " + String(diff) + ", n = " + String(
    size(A3, 1)) + ", rank = " + String(rank));
assert(abs(diff)<1e-10, "Solution should be close to desired");
(X3,rank) = Math.Matrices.leastSquares2(A3, B3);
diff = Matrices.norm(A3*X3 - B3); print("diff4 = " + String(Matrices.norm(A3*X3 - B3)) + ", n = " + String(
size(A3, 1)) + ", rank = " + String(rank));
print("diff4 = " + String(diff) + ", n = " + String(
size(A3, 1)) + ", rank = " + String(rank));
assert(abs(diff)<1e-10, "Solution should be close to desired");


function Math.Matrices.nullSpace



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
V = transpose(V);

eps = max(size(A, 1), size(A, 2))*max(sigma)*Modelica400.Constants.eps;
rank = 0;
if n > 0 then
eps = max(size(A, 1), size(A, 2))*max(sigma)*Modelica410.Constants.eps;
while i > 0 loop
...


function Math.Matrices.LAPACK.dgeev

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
lwork
=max(1, 12*n)
=12*n


function Math.Matrices.LAPACK.dgeev_eigenValues

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
lwork
=max(1, 8*n)
=8*n


function Math.Matrices.LAPACK.dgeevx

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
lwork
=max(1, n*(n + 6))
=n*(n + 6)


function Math.Matrices.LAPACK.dgels_vec

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
lwork
=max(1, min(nrow, ncol) + nx)
=min(nrow, ncol) + nx


function Math.Matrices.LAPACK.dgelsy

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
lwork
=max(1, max(min(nrow, ncol) + 3*ncol + 1, 2*min(nrow, ncol) + nrhs))
=max(min(nrow, ncol) + 3*ncol + 1, 2*min(nrow, ncol) + nrhs)


function Math.Matrices.LAPACK.dgesvd

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
lwork
=max(1, 5*size(A, 1) + 5*size(A, 2))
=5*size(A, 1) + 5*size(A, 2)


function Math.Matrices.LAPACK.dgesvd_sigma

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
lwork
=max(1, 5*size(A, 1) + 5*size(A, 2))
=5*size(A, 1) + 5*size(A, 2)


function Math.Matrices.LAPACK.dgglse_vec

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
lwork
=max(1, ncol_A + nrow_B + max(nrow_A, max(ncol_A, nrow_B))*5)
=ncol_A + nrow_B + max(nrow_A, max(ncol_A, nrow_B))*5


function Math.Matrices.LAPACK.dtrsen

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
lwork
=max(1, if job == "N" then n else if job == "E" then n*n else 2*n*n)
=if job == "N" then max(1, n) else if job == "E" then n*n else 2*n*n


function Math.Nonlinear.Examples.quadratureLobatto1



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
print("Absolute difference = " + String(I_err[1], format="2.0e"));
assert(abs(I_err[1])<1e-4, "Integral should be close to desired");
print("");
...
print("Absolute difference = " + String(I_err[2], format="2.0e"));
assert(abs(I_err[2])<1e-4, "Integral should be close to desired");
print("");
...
print("Absolute difference = " + String(I_err[3], format="2.0e"));
assert(abs(I_err[3])<1e-4, "Integral should be close to desired");


function Math.Nonlinear.Examples.solveNonlinearEquations1



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
print("Absolute difference = " + String(u_err[1], format="2.0e"));
assert(abs(u_err[1])<1e-10, "Solution should be close to desired");
print("");
...
print("Absolute difference = " + String(u_err[2], format="2.0e"));
assert(abs(u_err[2])<1e-10, "Solution should be close to desired");
print("");
...
print("Absolute difference = " + String(u_err[3], format="2.0e"));
assert(abs(u_err[3])<1e-10, "Solution should be close to desired");


function Math.isPowerOf2

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
target
Present

powOf2
Present


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
assert(i>=1, "Integer input to isPowerOf2 has to be >= 1");
if mod(i, 2) == 1 then result = i == 2^integer(log(i)/log(2)+0.5);
result = i == 1;
else
target = div(i, 2);
powOf2 = 1;
while powOf2 < target loop
powOf2 = powOf2 * 2;
end while;
result = target == powOf2;
end if;


function Math.sin



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
 		external
 "builtin" y = sin(u);
y := .sin(u);


function Math.cos



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
 		external
 "builtin" y = cos(u);
y := .cos(u);


function Math.tan



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
 		external
 "builtin" y = tan(u);
y := .tan(u);


function Math.asin



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
 		external
 "builtin" y = asin(u);
y := .asin(u);


function Math.acos



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
 		external
 "builtin" y = acos(u);
y := .acos(u);


function Math.atan



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
 		external
 "builtin" y = atan(u);
y := .atan(u);


function Math.atan2



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
 		external
 "builtin" y = atan2(u1, u2);
y := .atan2(u1, u2);


function Math.sinh



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
 		external
 "builtin" y = sinh(u);
y := .sinh(u);


function Math.cosh



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
 		external
 "builtin" y = cosh(u);
y := .cosh(u);


function Math.tanh



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
 		external
 "builtin" y = tanh(u);
y := .tanh(u);


function Math.exp



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
 		external
 "builtin" y = exp(u);
y := .exp(u);


function Math.log



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
 		external
 "builtin" y = log(u);
y := .log(u);


function Math.log10



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
 		external
 "builtin" y = log10(u);
y := .log10(u);


function ComplexMath.abs



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
result := .sqrt(c.re^2 + c.im^2); result := (c.re^2 + c.im^2)^0.5;


function Utilities.Examples.readRealParameter

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
useDefaultValue
Present

defaultValue
Present


Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0

...
if not found then
if useDefaultValue then
result = defaultValue;
else
Streams.error("Parameter \"" + name + "\" not found in file \"" + fileName + "\"");
end if;
end if;


model Utilities.Examples.ReadRealMatrixFromFile

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
A
=Modelica410.Utilities.Streams.readRealMatrix(file, matrixName, dim[1], dim[2])
=Modelica400.Utilities.Streams.readRealMatrix(file, matrixName, dim1[1], dim1[2])


function Utilities.Streams.error



Equations in Modelica Standard Library - Version 4.1.0 Equations in Modelica Standard Library - Version 4.0.0
algorithm
 		external "C" ModelicaError(string);
assert(false, string, AssertionLevel.error);


function Utilities.Strings.substring

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
endIndex
min=1


package Utilities.Internal.PartialModelicaServices

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
package
partial


model Utilities.Internal.PartialModelicaServices.Animation.PartialShape

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
lengthDirection
each final unit="1"
widthDirection
each final unit="1"


model Utilities.Internal.PartialModelicaServices.Animation.PartialVector

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
model
partial



model Utilities.Internal.PartialModelicaServices.Animation.PartialSurface

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
model
partial



package Constants

Component
 Modelica Standard Library - Version 4.1.0
 Modelica Standard Library - Version 4.0.0
e
final unit="1"
D2R
final unit="rad/deg"
R2D
final unit="deg/rad"
gamma
final unit="1"
mu_0
Units.SI.Permeability
Real


Class Modelica Standard Library - Version 4.1.0Modelica Standard Library - Version 4.0.0
class Modelica410.UsersGuide.ReleaseNotes.Version_4_1_0 Present
model Modelica410.Blocks.Examples.DemonstrateSignalExtrema Present
model Modelica410.Blocks.Examples.DemonstrateContinuousSignalExtrema Present
model Modelica410.Blocks.Examples.DemoSignalCharacteristic Present
block Modelica410.Blocks.Logical.AssertCondition Present
block Modelica410.Blocks.Math.Exponentiation Present
block Modelica410.Blocks.Math.SignalExtrema Present
block Modelica410.Blocks.Math.ContinuousSignalExtrema Present
model Modelica410.Electrical.Analog.Examples.DemonstrateLightning Present
model Modelica410.Electrical.Analog.Examples.DemoPowerSupply Present
model Modelica410.Electrical.Analog.Examples.DemoPowerSupplyWithBuffer Present
package Modelica410.Electrical.Analog.Examples.Lines Present
model Modelica410.Electrical.Analog.Lines.TLine Present
model Modelica410.Electrical.Analog.Sources.LightningImpulseVoltage Present
model Modelica410.Electrical.Analog.Sources.LightningImpulseCurrent Present
block Modelica410.Electrical.Analog.Sources.LightningImpulse Present
model Modelica410.Electrical.Analog.Sources.DCPowerSupply Present
package Modelica410.Electrical.Analog.Types Present
model Modelica410.Electrical.Machines.Examples.DCMachines.DCPM_Drive Present
model Modelica410.Electrical.Machines.Utilities.Coupling Present
model Modelica410.Electrical.PowerConverters.Examples.DCDC.HBridge.HBridge_TrianglePWM_RL Present
model Modelica410.Electrical.PowerConverters.Examples.DCDC.ExampleTemplates.ChopperBuckBoost Present
package Modelica410.Electrical.PowerConverters.Examples.DCDC.ChopperBuckBoost Present
model Modelica410.Electrical.PowerConverters.DCDC.ChopperBuckBoost Present
type Modelica410.Electrical.PowerConverters.Types.SingleReferenceType Present
model Modelica410.Electrical.QuasiStatic.SinglePhase.Examples.MultipleResonance Present
model Modelica410.Electrical.QuasiStatic.SinglePhase.Basic.Transformer Present
model Modelica410.Electrical.QuasiStatic.SinglePhase.Sensors.VoltageRMSSensor Present
model Modelica410.Electrical.QuasiStatic.SinglePhase.Sensors.CurrentRMSSensor Present
class Modelica410.Magnetic.FundamentalWave.UsersGuide.WindingModel Present
model Modelica410.Magnetic.FundamentalWave.Examples.BasicMachines.InductionMachines.ComparisonPolyphase.IMC_DOL_CommonLeakage Present
model Modelica410.Magnetic.QuasiStatic.FundamentalWave.Examples.BasicMachines.InductionMachines.IMC_Inverter Present
model Modelica410.Magnetic.QuasiStatic.FundamentalWave.Examples.BasicMachines.SynchronousMachines.SMPM_FieldWeakening Present
package Modelica410.Magnetic.QuasiStatic.FundamentalWave.Examples.ExampleUtilities Present
model Modelica410.Mechanics.Rotational.Examples.CompareBrakingTorque Present
model Modelica410.Mechanics.Rotational.Sources.InverseSpeedDependentTorque Present
model Modelica410.Mechanics.Translational.Examples.CompareBrakingForce Present
model Modelica410.Mechanics.Translational.Sources.InverseSpeedDependentForce Present
function Modelica410.Media.Interfaces.PartialMedium.massFraction Present
function Modelica410.Media.Interfaces.PartialPureSubstance.massFraction Present
function Modelica410.Media.Interfaces.PartialMixtureMedium.massFraction Present
type Modelica410.Units.SI.PressureSlope Present
type Modelica410.Units.SI.CapacitancePerUnitLength Present
type Modelica410.Units.SI.InductancePerUnitLength Present
type Modelica410.Units.SI.ResistancePerUnitLength Present
type Modelica410.Units.SI.ImpedancePerUnitLength Present
type Modelica410.Units.SI.ReactancePerUnitLength Present
type Modelica410.Units.SI.ConductancePerUnitLength Present
type Modelica410.Units.SI.AdmittancePerUnitLength Present
type Modelica410.Units.SI.SusceptancePerUnitLength Present
type Modelica410.Units.SI.StoichiometricCoefficient Present
operator record Modelica410.Units.SI.ComplexImpedancePerUnitLength Present
operator record Modelica410.Units.SI.ComplexAdmittancePerUnitLength Present
model Modelica400.Electrical.Machines.Examples.ControlledDCDrives.Utilities.Battery
Present
block Modelica400.Fluid.Examples.AST_BatchPlant.BaseClasses.setReal
Present