Index

Symbols | A | B | C | D | E | F | G | H | I | K | L | M | N | O | P | R | S | T | U | V | W | X | Y

Symbols

-0, --offsetx0
- computeTimeSeriesFrequency.py command line option
-1 <fldname> , --field1Name=<fldname>
- computeFieldCrossProduct.py command line option
-1, --inSign
- computeSParamsFromHists.py command line option
-1, --offsetx1
- computeTimeSeriesFrequency.py command line option
-2 <fldname> , --field2Name=<fldname>
- computeFieldCrossProduct.py command line option
-2, --outSign
- computeSParamsFromHists.py command line option
-A <A>, --addRemoveFlag=<A>
- addPtclComponentKEeV.py command line option
-a <offset>, --positionOffset=<offset>
- annotateFieldOnLine.py command line option
-a, --axis
- computeTimeSeriesFrequency.py command line option
-A1 <LOWERANGLE>, --lowerAngle=<LOWERANGLE>
- computeAED.py command line option
-A2 <UPPERANGLE>, --upperAngle=<UPPERANGLE>
- computeAED.py command line option
-b <bd>, --beginDump=<bd>
- computeCavityG.py command line option
- computeTimeSeriesFrequency.py command line option
- extractModes.py command line option
- putFieldOnSurfaceMesh.py command line option
-B <beta>, --beta=<beta>
- computeTimeSeriesFrequency.py command line option
-b <inmag>, --inSlabB=<inmag>
- computeSParamsFromHists.py command line option
-b <inslabB>, --inSlabB=<inslabB>
- computeSParamsViaOverlapIntegral.py command line option
-B <outmag>, --outSlabB=<outmag>
- computeSParamsFromHists.py command line option
-B <outslabB>, --outSlabB=<outslabB>
- computeSParamsViaOverlapIntegral.py command line option
-b <time>, --beginTime=<time>
- truncateHistory.py command line option
-c <center>, --center=<center>
- compute2DantennaGainAndPhase.py command line option
-c <centerOpt>, --centering=<centerOpt>
- hfssToVsh5.py command line option
-C <comp>, --component=<comp>
- annotateFieldOnLine.py command line option
-c <comp>, --component=<comp>
- computeBeam2ModeCoupling.py command line option
- computeInverseQ.py command line option
- computePtclImpactSpectrum.py command line option
- computeSpectrogram.py command line option
- computeTimeSeriesAmplitude.py command line option
- computeTimeSeriesFrequency.py command line option
- performLowPassFilter.py command line option
- subselectparticles.py command line option
-c <cut>, --cutoff=<cut>
- extractModesViaOperator.py command line option
-c <step>, --dt=<step>
- computeS11Parameters.py command line option
-c, --construct
- extractModes.py command line option
-d <dir>, --inDirection=<dir>
- computeSParamsFromHists.py command line option
-D <dir>, --outDirection=<dir>
- computeSParamsFromHists.py command line option
-D <direction>, --fluxDir=<direction>
- computeMassFlux.py command line option
-d <dr>, --dumpRange=<dr>
- extractModesViaOperator.py command line option
-d <gapwidth>, --gapWidth=<gapwidth>
- compute2DantennaGainAndPhase.py command line option
-d <num>, --dumpNum=<num>
- exportSpecies.py command line option
-D <suffix>, --outputFileSuffix=<suffix>
- computeSParamsViaOverlapIntegral.py command line option
-D <targetFld>, --targetField=<targetFld>
- compareFields.py command line option
-d, --density
- computeMassFlux.py command line option
-D, --normalizeModes
- extractModesViaOperator.py command line option
-dn <dnr>, --dumpNr=<dnr>
- compute2DantennaGainAndPhase.py command line option
-dt <dt>, --dt=<dt>
- compute2DantennaGainAndPhase.py command line option
-e <ed>, --endDump=<ed>
- computeCavityG.py command line option
- computeTimeSeriesFrequency.py command line option
- extractModes.py command line option
- putFieldOnSurfaceMesh.py command line option
-e <inelec>, --inSlabE=<inelec>
- computeSParamsFromHists.py command line option
-e <inslabE>, --inSlabE=<inslabE>
- computeSParamsViaOverlapIntegral.py command line option
-E <N>, --nElements=<N>
- computeS11Parameters.py command line option
-e <N>, --numTheta=<N>
- computeFarFieldRadiation.py command line option
-E <outelec>, --outSlabE=<outelec>
- computeSParamsFromHists.py command line option
-E <outslabE>, --outSlabE=<outslabE>
- computeSParamsViaOverlapIntegral.py command line option
-e <pts>, --nPoints=<pts>
- computeS11Parameters.py command line option
-e <time>, --endTime=<time>
- truncateHistory.py command line option
-E1 <LOWERENERGY>, --lowerEnergy=<LOWERENERGY>
- computeAED.py command line option
-E2 <UPPERENERGY>, --upperEnergy=<UPPERENERGY>
- computeAED.py command line option
-f <ANGULARFREQUENCY>, --angularFrequency=<ANGULARFREQUENCY>
- computeAED.py command line option
-F <F>, --secondFieldFactor=<F>
- extractModesViaOperator.py command line option
-F <field>, --writeFieldProfile=<field>
- computeWaveguideModes.py command line option
-f <first>, --firstStep=<first>
- computeSParamsFromHists.py command line option
-f <firstin>, --firstStepInSlab=<firstin>
- computeSParamsViaOverlapIntegral.py command line option
-F <firstout>, --firstStepOutSlab=<firstout>
- computeSParamsViaOverlapIntegral.py command line option
-f <fl>, --flipLimits=<fl>
- subselectparticles.py command line option
-f <fld>, --field=<fld>
- extractModes.py command line option
-F <fldname>, --fieldName=<fldname>
- computeFieldMaxAmplitude.py command line option
- computeFieldRelIntensityHilbert.py command line option
-f <fldname>, --fieldName=<fldname>
- putFieldOnSurfaceMesh.py command line option
-f <freq>, --freq=<freq>
- compute2DantennaGainAndPhase.py command line option
-f <freq>, --frequency=<freq>
- computeBeam2ModeCoupling.py command line option
- computeFarFieldFromKirchhoffBox.py command line option
-F <max>, --maxFreq=<max>
- computeSpectrogram.py command line option
-F <refFldName>, --fieldName=<refFldName>
- compareFields.py command line option
-F <refFName>, --fileName=<refFName>
- hfssToVsh5.py command line option
-f <size>, --fourierTransSize=<size>
- computeSpectrogram.py command line option
-f, --FieldName
- convertFieldComponentCartToCylZ.py command line option
-f, --fieldName
- convertFieldComponentCartToCylX.py command line option
-f, --frequency
- computeInverseQ.py command line option
- computeTimeSeriesAmplitude.py command line option
- computeTimeSeriesFrequency.py command line option
- performLowPassFilter.py command line option
-g <FC>, --getFourierComponent=<FC>
- computeFarFieldFromKirchhoffBox.py command line option
-G <geometry>, --geometryName=<geometry>
- writeCutCellField.py command line option
-g <geometry>, --geometryName=<geometry>
- computeCavityG.py command line option
- putFieldOnSurfaceMesh.py command line option
-g, --normalize
- computeFarFieldRadiation.py command line option
-H <histname> , --historyName=<histname>
- computePtclImpactSpectrum.py command line option
-H <histname>, --history1Name=<histname>
- performTwoHistoryArithmetic.py command line option
-H <histname>, --historyName=<histname>
- annnotateSpeciesDataOnPlane.py command line option
- annotateFieldOnLine.py command line option
- annotateSpeciesAbsPtclData2.py command line option
- computeCumulativeSumHistory.py command line option
- computeEmittanceOnPlane.py command line option
- computeFarFieldRadiation.py command line option
- computeGradient.py command line option
- computeInverseQ.py command line option
- computeMassFlux.py command line option
- computeSpectrogram.py command line option
- computeTimeSeriesAmplitude.py command line option
- computeTimeSeriesFrequency.py command line option
- truncateHistory.py command line option
-H <HISTORYNAME>, --historyName=<HISTORYNAME>
- computeAED.py command line option
-H, --historyName
- performLowPassFilter.py command line option
-I <histname>, --history2Name=<histname>
- performTwoHistoryArithmetic.py command line option
-I <I>, --imagFields=<I>
- extractModesViaOperator.py command line option
-i <I>, --iterateAvg=<I>
- computePtclNumDensity.py command line option
-I, --integrate
- computeMassFlux.py command line option
-i, --simpsonIntegration
- computeFarFieldFromKirchhoffBox.py command line option
-j <curdenfield>, --jName=<curdenfield>
- computeBeam2ModeCoupling.py command line option
-l <fldlabel>, --fieldLabel=<fldlabel>
- computeFarFieldFromKirchhoffBox.py command line option
-l <last>, --lastStep=<last>
- computeSParamsFromHists.py command line option
-l <lb>, --lowerBounds=<lb>
- subselectparticles.py command line option
-L <maxl>, --maxWavelength=<maxl>
- computeSParamsFromHists.py command line option
-L <steps>, --numSteps=<steps>
- computeSParamsViaOverlapIntegral.py command line option
-L <vacwave>, --vacWavelength=<vacwave>
- computeWaveguideModes.py command line option
-M <M>, --maxNumModes=<M>
- extractModesViaOperator.py command line option
-m <M>, --multiplier=<M>
- computeCumulativeSumHistory.py command line option
- computeFieldCrossProduct.py command line option
- truncateHistory.py command line option
-m <mass>, --mass=<mass>
- computeMassFlux.py command line option
-M <max>, --maxDumpNum=<max>
- computePtclNumDensity.py command line option
-M <maxlength>, --maxWavelength=<maxlength>
- computeSParamsViaOverlapIntegral.py command line option
-m <maxnodes>, --nModes=<maxnodes>
- computeWaveguideModes.py command line option
-m <min>, --minDumpNum=<min>
- computePtclNumDensity.py command line option
-m <minlength>, --minWavelength=<minlength>
- computeSParamsViaOverlapIntegral.py command line option
-m <nummodes>, --nModes=<nummodes>
- extractModes.py command line option
-m, --magnitude
- addPtclComponentKEeV.py command line option
-m,--move RESERVED for future use
- subselectparticles.py command line option
-N <avg>, --avgNxN=<avg>
- computePtclNumDensity.py command line option
-N <files>, --numOutFiles=<files>
- exportSpecies.py command line option
-N <N>, --initialModeNumber=<N>
- extractModesViaOperator.py command line option
-n <nlambda>, --nlambda=<nlambda>
- compute2DantennaGainAndPhase.py command line option
-n <num>, --numBins=<num>
- computePtclImpactSpectrum.py command line option
-n <outname>, --outputFileName=<outname>
- computeSParamsFromHists.py command line option
-n <overlap>, --noOverlap=<overlap>
- computeSpectrogram.py command line option
-n <S>, --numSlices=<S>
- computeEmittanceFromDump.py command line option
-n <stepstride>, --timeStepStride=<stepstride>
- computeFarFieldFromKirchhoffBox.py command line option
-n <Z>, --nZeros=<Z>
- computeS11Parameters.py command line option

-n, --SLL
- computeFarFieldRadiation.py command line option
-Nang <NUMANGLEBINS>, --numAngleBins=<NUMANGLEBINS>
- computeAED.py command line option
-ndim <NDIM>, --NDIM=<NDIM>
- computeAED.py command line option
-Neng <NUMENGERYBINS>, --numEnergyBins=<NUMENERGYBINS>
- computeAED.py command line option
-o <histname>, --newhistoryName=<histname>
- performTwoHistoryArithmetic.py command line option
-O <newhistname>, --newHistoryName=<newhistname>
- computeGradient.py command line option
-o <newhistname>, --newHistoryName=<newhistname>
- computeCumulativeSumHistory.py command line option
- truncateHistory.py command line option
-O <offset>, --stepOffset=<offset>
- computeSParamsFromHists.py command line option
-o <op>, --operator=<op>
- extractModesViaOperator.py command line option
-o <outbasename>, --outputBaseName=<outbasename>
- exportSpecies.py command line option
-o <outfield>, --outputField=<outfield>
- compareFields.py command line option
-o <outFld>, --outputField=<outFld>
- hfssToVsh5.py command line option
-o <outfldname>, --outputFieldName=<outfldname>
- computeFieldCrossProduct.py command line option
- computeFieldRelIntensityHilbert.py command line option
-o <outhistname>, --outputHistoryName=<outhistname>
- computeFieldMaxAmplitude.py command line option
-O <outname>, --outputFieldName=<outname>
- putFieldOnSurfaceMesh.py command line option
-O <outname>, --outputFileName=<outname>
- computeInverseQ.py command line option
- computePtclLimits.py command line option
- computeTimeSeriesAmplitude.py command line option
- computeTimeSeriesFrequency.py command line option
- exportSpecies.py command line option
- performLowPassFilter.py command line option
-o <outname>, --outputHistoryName=<outname>
- computePtclBalance.py command line option
-O <outname>, --outputSimName=<outname>
- extractModesViaOperator.py command line option
-o <outspname>, --outputSpeciesName=<outspname>
- addPtclComponentKEeV.py command line option
- annnotateSpeciesDataOnPlane.py command line option
- convertPtclComponentsCartToCylX.py command line option
- convertPtclComponentsCartToCylZ.py command line option
- removePtclComponent.py command line option
- subselectparticles.py command line option
-p <histpat>, --historyPATCH=<histpat>
- computeS11Parameters.py command line option
-p <N>, --numPhi=<N>
- computeFarFieldRadiation.py command line option
-p <num>, --numPhi=<num>
- computeFarFieldFromKirchhoffBox.py command line option
-P <PERPDIR>, --perpDir=<PERPDIR>
- computeAED.py command line option
-P, --applyPeriod
- exportSpecies.py command line option
-p, --ptclIndex
- createParticleTracks.py command line option
-P1 <LOWERPOS>, --lowerPos=<LOWERPOS>
- computeAED.py command line option
-P2 <UPPERPOS>, --upperPos=<UPPERPOS>
- computeAED.py command line option
-r <maxranks>, --maxRanksToReport=<maxranks>
- computePtclBalance.py command line option
-r <R>, --farFieldRadius=<R>
- computeFarFieldFromKirchhoffBox.py command line option
-R <R>, --realFields=<R>
- extractModesViaOperator.py command line option
-r <ranpts>, --numberRandomPts=<ranpts>
- extractModes.py command line option
-R, --randomizePtcls
- exportSpecies.py command line option
-S <cs>, --cellSamples=<cs>
- extractModesViaOperator.py command line option
-S <minl>, --minWavelength=<minl>
- computeSParamsFromHists.py command line option
-s <simname>, --simulationName=<simname>
- addPtclComponentKEeV.py command line option
- annnotateSpeciesDataOnPlane.py command line option
- annotateFieldOnLine.py command line option
- annotateSpeciesAbsPtclData2.py command line option
- compareFields.py command line option
- compute2DantennaGainAndPhase.py command line option
- computeAED.py command line option
- computeBeam2ModeCoupling.py command line option
- computeCavityG.py command line option
- computeCumulativeSumHistory.py command line option
- computeDebyeLength.py command line option
- computeEmittanceFromDump.py command line option
- computeEmittanceOnPlane.py command line option
- computeFarFieldFromKirchhoffBox.py command line option
- computeFarFieldRadiation.py command line option
- computeFieldCrossProduct.py command line option
- computeFieldMaxAmplitude.py command line option
- computeFieldRelIntensityHilbert.py command line option
- computeGradient.py command line option
- computeInverseQ.py command line option
- computeMassFlux.py command line option
- computePtclBalance.py command line option
- computePtclImpactSpectrum.py command line option
- computePtclLimits.py command line option
- computePtclNumDensity.py command line option
- computeS11Parameters.py command line option
- computeSParamsFromHists.py command line option
- computeSParamsViaOverlapIntegral.py command line option
- computeSpectrogram.py command line option
- computeTimeSeriesAmplitude.py command line option
- computeTimeSeriesFrequency.py command line option, [1]
- computeWaveguideModes.py command line option
- convertFieldComponentCartToCylX.py command line option
- convertFieldComponentCartToCylZ.py command line option
- convertPtclComponentsCartToCylX.py command line option
- convertPtclComponentsCartToCylZ.py command line option
- createMissingPtclsDumps.py command line option
- createParticleTracks.py command line option
- exportSpecies.py command line option
- extractModes.py command line option
- extractModesViaOperator.py command line option
- hfssToVsh5.py command line option
- performLowPassFilter.py command line option
- performTwoHistoryArithmetic.py command line option
- putFieldOnSurfaceMesh.py command line option
- removePtclComponent.py command line option
- subselectparticles.py command line option
- truncateHistory.py command line option
- writeCutCellField.py command line option
-S <species>, --speciesName=<species>
- removePtclComponent.py command line option
-S <SPECIESNAME>, --SpeciesName=<SPECIESNAME>
- computeAED.py command line option
-S <spname>, --speciesName=<spname>
- addPtclComponentKEeV.py command line option
- annnotateSpeciesDataOnPlane.py command line option
- computeDebyeLength.py command line option
- computeEmittanceFromDump.py command line option
- computeEmittanceOnPlane.py command line option
- computePtclBalance.py command line option
- computePtclLimits.py command line option
- computePtclNumDensity.py command line option
- convertPtclComponentsCartToCylX.py command line option
- convertPtclComponentsCartToCylZ.py command line option
- createMissingPtclsDumps.py command line option
- createParticleTracks.py command line option
- exportSpecies.py command line option
- subselectparticles.py command line option
-t <histcal>, --historyCAL=<histcal>
- computeS11Parameters.py command line option
-T <N> , --threshold=<N>
- computePtclImpactSpectrum.py command line option
-t <num>, --numTheta=<num>
- computeFarFieldFromKirchhoffBox.py command line option
-t <num>, --numTime=<num>
- computeFarFieldRadiation.py command line option
-t <samptype>, --sampleType=<samptype>
- extractModes.py command line option
-T <slice>, --transverseSlice=<slice>
- computeWaveguideModes.py command line option
-T <thresh>, --threshold=<thresh>
- annotateSpeciesAbsPtclData2.py command line option
-t <time>, --startTime=<time>
- computeBeam2ModeCoupling.py command line option
- computeMassFlux.py command line option
-T <timeint>, --timeInterval=<timeint>
- computeMassFlux.py command line option
-t, --testing
- extractModesViaOperator.py command line option
-T1 <STARTTIME>, --startTime=<STARTTIME>
- computeAED.py command line option
-T2 <ENDTIME>, --endTime=<ENDTIME>
- computeAED.py command line option
-u <ub>, --upperBounds=<ub>
- subselectparticles.py command line option
-u <unipts>, --numberUniformPts=<unipts>
- extractModes.py command line option
-v, --varyingRadiusMesh
- computeFarFieldFromKirchhoffBox.py command line option
-W <windowfunc>, --windowType=<windowfunc>
- computeSpectrogram.py command line option
-w, --overwrite
- addPtclComponentKEeV.py command line option
- annnotateSpeciesDataOnPlane.py command line option
- annotateFieldOnLine.py command line option
- annotateSpeciesAbsPtclData2.py command line option
- compareFields.py command line option
- compute2DantennaGainAndPhase.py command line option
- computeAED.py command line option
- computeBeam2ModeCoupling.py command line option
- computeCumulativeSumHistory.py command line option
- computeDebyeLength.py command line option
- computeEmittanceFromDump.py command line option
- computeEmittanceOnPlane.py command line option
- computeFarFieldFromKirchhoffBox.py command line option
- computeFarFieldRadiation.py command line option
- computeFieldCrossProduct.py command line option
- computeFieldMaxAmplitude.py command line option
- computeFieldRelIntensityHilbert.py command line option
- computeGradient.py command line option
- computeInverseQ.py command line option
- computeMassFlux.py command line option
- computePtclBalance.py command line option
- computePtclImpactSpectrum.py command line option
- computePtclLimits.py command line option
- computePtclNumDensity.py command line option
- computeS11Parameters.py command line option
- computeSParamsFromHists.py command line option
- computeSParamsViaOverlapIntegral.py command line option
- computeSpectrogram.py command line option
- computeTimeSeriesAmplitude.py command line option
- computeTimeSeriesFrequency.py command line option, [1]
- computeWaveguideModes.py command line option
- convertFieldComponentCartToCylX.py command line option
- convertFieldComponentCartToCylZ.py command line option
- convertPtclComponentsCartToCylX.py command line option
- convertPtclComponentsCartToCylZ.py command line option
- createMissingPtclsDumps.py command line option
- createParticleTracks.py command line option
- exportSpecies.py command line option
- extractModes.py command line option
- extractModesViaOperator.py command line option
- hfssToVsh5.py command line option
- performLowPassFilter.py command line option
- performTwoHistoryArithmetic.py command line option
- removePtclComponent.py command line option
- subselectparticles.py command line option
- truncateHistory.py command line option
- writeCutCellField.py command line option
-x <a/s/m/d> , --operation=<a/s/m/d>
- performTwoHistoryArithmetic.py command line option
-x <dir>, --zeroPhiDirection=<dir>
- computeFarFieldFromKirchhoffBox.py command line option
-x <multiplier>, --positionMultiplier=<multiplier>
- annotateFieldOnLine.py command line option
-x <N1>, --x1plane=<N1>
- computeEmittanceFromDump.py command line option
-X <N2>, --x2plane=<N2>
- computeEmittanceFromDump.py command line option
-x <outsufx>, --outputSuffix=<outsufx>
- computeSParamsFromHists.py command line option
-x, --outputXcomponent
- addPtclComponentKEeV.py command line option
-y, --outputYcomponent
- addPtclComponentKEeV.py command line option
-z <dir>, --zeroThetaDirection=<dir>
- computeFarFieldFromKirchhoffBox.py command line option
-z, --outputZcomponent
- addPtclComponentKEeV.py command line option

A

B

Background Charge Density
BaseSolver
beamVelocityGen
- Ion Thruster (Text-based setup)
bicgstab
- Ion Thruster (Text-based setup)
Binary Combination History
- Neutral Heat Transport (DSMC)
bitRevSlabPosGen

Boundary Absorb and Save
Boundary Diffuse Reflector
- Neutral Heat Transport (DSMC)
Boundary Launcher
BoundaryCondition

C

Capacitively Coupled Plasma (CCP)
- Wafer Impact
Cascade
- Corona Discharge
category1
- nameOfExample
category2
- nameOfExample
category3
- nameOfExample
cell
- Dielectric Wall Wakefield Acceleration (Text-based setup)
- Electron Beam Driven Plasma Wakefield
- Electron Beam Driven Plasma Wakefield (Text-based setup)
Cells Per Wavelength
- Dipole
- Mie Scattering Dielectric Coated Metal Sphere
- Mie Scattering Metal Sphere
Charge Density
- 1D Capacitive Plasma Chamber
- 2.4 GHz Yagi Uda
- Antenna on Predator Drone
- Coaxial Cylinder
- Corona Discharge
- Coupon Array Charging
- Cylindrical Capacitor
- Cylindrical Hall Thruster
- Dipole Above Conducting Plane
- Dipole Source Illuminating a Photonic Crystal Cavity
- Dish Antenna
- Drifting Electrons
- Electromagnetic Particle in Cell
- Electromagnetic Plane Wave
- Electrostatic Particle in Cell
- Gaussian Laser Beam and Photonic Crystal Cavity
- Half-Wave Dipole in Free Space
- Half-wave antenna
- Helix Traveling Wave Tube, [1], [2]
- Ion Beam Sputtering
- Klystron
- Langmuir Probe
- Laser Ionization
- Laser Plasma Accelerator
- Like-Charge Dipole
- Multimode Fiber Mode Extraction
- Multipacting Growth Prescribed Fields
- Multipacting Growth in Waveguide
- Oscillating Dipole Above Conducting Plane
- Parallel Plate Capacitor
- Penning Source
- Proton Beam
- S-Matrix of Box Cavity
- Satellite Surface Charging
- Scattering off Multiple Objects
- Simple Ion Source
- Single Particle Circular Motion
- Smith-Purcell Radiation
- Spherical Lens
- TownsendDischarge
- Turner case 2
- Two-Stream Instability
- Vacuum Electromagnetic Pulse
- Wafer Impact
Charge Exchange
- Cylindrical Hall Thruster
- Turner case 2
Charged Particles
- 1D Capacitive Plasma Chamber
- Corona Discharge
- Coupon Array Charging
- Cylindrical Hall Thruster
- Ion Beam Sputtering
- Penning Source
- Satellite Surface Charging
- Simple Ion Source
- Smith-Purcell Radiation
- TownsendDischarge
- Turner case 2
- Wafer Impact
Charged Particles;
coaxial cable
coaxial waveguide
collimated beam
compareFields.py command line option
- -D <targetFld>, --targetField=<targetFld>
- -F <refFldName>, --fieldName=<refFldName>
- -o <outfield>, --outputField=<outfield>
- -s <simname>, --simulationName=<simname>
- -w, --overwrite
Complex Electric Field
- Dielectric Waveguide Mode Calculation
- Multimode Fiber Mode Calculation
Complex Magnetic Field
- Dielectric Waveguide Mode Calculation
- Multimode Fiber Mode Calculation
compute2DantennaGainAndPhase.py command line option
- -c <center>, --center=<center>
- -d <gapwidth>, --gapWidth=<gapwidth>
- -dn <dnr>, --dumpNr=<dnr>
- -dt <dt>, --dt=<dt>
- -f <freq>, --freq=<freq>
- -n <nlambda>, --nlambda=<nlambda>
- -s <simname>, --simulationName=<simname>
- -w, --overwrite
computeAED.py command line option
- -A1 <LOWERANGLE>, --lowerAngle=<LOWERANGLE>
- -A2 <UPPERANGLE>, --upperAngle=<UPPERANGLE>
- -E1 <LOWERENERGY>, --lowerEnergy=<LOWERENERGY>
- -E2 <UPPERENERGY>, --upperEnergy=<UPPERENERGY>
- -H <HISTORYNAME>, --historyName=<HISTORYNAME>
- -Nang <NUMANGLEBINS>, --numAngleBins=<NUMANGLEBINS>
- -Neng <NUMENGERYBINS>, --numEnergyBins=<NUMENERGYBINS>
- -P <PERPDIR>, --perpDir=<PERPDIR>
- -P1 <LOWERPOS>, --lowerPos=<LOWERPOS>
- -P2 <UPPERPOS>, --upperPos=<UPPERPOS>
- -S <SPECIESNAME>, --SpeciesName=<SPECIESNAME>
- -T1 <STARTTIME>, --startTime=<STARTTIME>
- -T2 <ENDTIME>, --endTime=<ENDTIME>
- -f <ANGULARFREQUENCY>, --angularFrequency=<ANGULARFREQUENCY>
- -ndim <NDIM>, --NDIM=<NDIM>
- -s <simname>, --simulationName=<simname>
- -w, --overwrite
computeBeam2ModeCoupling.py command line option
- -c <comp>, --component=<comp>
- -f <freq>, --frequency=<freq>
- -j <curdenfield>, --jName=<curdenfield>
- -s <simname>, --simulationName=<simname>
- -t <time>, --startTime=<time>
- -w, --overwrite
computeCavityG.py command line option
- -b <bd>, --beginDump=<bd>
- -e <ed>, --endDump=<ed>
- -g <geometry>, --geometryName=<geometry>
- -s <simname>, --simulationName=<simname>
computeCumulativeSumHistory.py command line option
- -H <histname>, --historyName=<histname>
- -m <M>, --multiplier=<M>
- -o <newhistname>, --newHistoryName=<newhistname>
- -s <simname>, --simulationName=<simname>
- -w, --overwrite
computeDebyeLength.py command line option
- -S <spname>, --speciesName=<spname>
- -s <simname>, --simulationName=<simname>
- -w, --overwrite
computeEmittanceFromDump.py command line option
- -S <spname>, --speciesName=<spname>
- -X <N2>, --x2plane=<N2>
- -n <S>, --numSlices=<S>
- -s <simname>, --simulationName=<simname>
- -w, --overwrite
- -x <N1>, --x1plane=<N1>
computeEmittanceOnPlane.py command line option
- -H <histname>, --historyName=<histname>
- -S <spname>, --speciesName=<spname>
- -s <simname>, --simulationName=<simname>
- -w, --overwrite
computeFarFieldFromKirchhoffBox.py command line option
- -f <freq>, --frequency=<freq>
- -g <FC>, --getFourierComponent=<FC>
- -i, --simpsonIntegration
- -l <fldlabel>, --fieldLabel=<fldlabel>
- -n <stepstride>, --timeStepStride=<stepstride>
- -p <num>, --numPhi=<num>
- -r <R>, --farFieldRadius=<R>
- -s <simname>, --simulationName=<simname>
- -t <num>, --numTheta=<num>
- -v, --varyingRadiusMesh
- -w, --overwrite
- -x <dir>, --zeroPhiDirection=<dir>
- -z <dir>, --zeroThetaDirection=<dir>
computeFarFieldRadiation.py command line option
- -H <histname>, --historyName=<histname>
- -e <N>, --numTheta=<N>
- -g, --normalize
- -n, --SLL
- -p <N>, --numPhi=<N>
- -s <simname>, --simulationName=<simname>
- -t <num>, --numTime=<num>
- -w, --overwrite
computeFieldCrossProduct.py command line option
- -1 <fldname> , --field1Name=<fldname>
- -2 <fldname> , --field2Name=<fldname>
- -m <M>, --multiplier=<M>
- -o <outfldname>, --outputFieldName=<outfldname>
- -s <simname>, --simulationName=<simname>
- -w, --overwrite
computeFieldMaxAmplitude.py command line option
- -F <fldname>, --fieldName=<fldname>
- -o <outhistname>, --outputHistoryName=<outhistname>
- -s <simname>, --simulationName=<simname>
- -w, --overwrite
computeFieldRelIntensityHilbert.py command line option
- -F <fldname>, --fieldName=<fldname>
- -o <outfldname>, --outputFieldName=<outfldname>
- -s <simname>, --simulationName=<simname>
- -w, --overwrite
computeGradient.py command line option
- -H <histname>, --historyName=<histname>
- -O <newhistname>, --newHistoryName=<newhistname>
- -s <simname>, --simulationName=<simname>
- -w, --overwrite
computeInverseQ.py command line option
- -H <histname>, --historyName=<histname>
- -O <outname>, --outputFileName=<outname>
- -c <comp>, --component=<comp>
- -f, --frequency
- -s <simname>, --simulationName=<simname>
- -w, --overwrite
computeMassFlux.py command line option
- -D <direction>, --fluxDir=<direction>
- -H <histname>, --historyName=<histname>
- -I, --integrate
- -T <timeint>, --timeInterval=<timeint>
- -d, --density
- -m <mass>, --mass=<mass>
- -s <simname>, --simulationName=<simname>
- -t <time>, --startTime=<time>
- -w, --overwrite

computePtclBalance.py command line option
- -S <spname>, --speciesName=<spname>
- -o <outname>, --outputHistoryName=<outname>
- -r <maxranks>, --maxRanksToReport=<maxranks>
- -s <simname>, --simulationName=<simname>
- -w, --overwrite
computePtclImpactSpectrum.py command line option
- -H <histname> , --historyName=<histname>
- -T <N> , --threshold=<N>
- -c <comp>, --component=<comp>
- -n <num>, --numBins=<num>
- -s <simname>, --simulationName=<simname>
- -w, --overwrite
computePtclLimits.py command line option
- -O <outname>, --outputFileName=<outname>
- -S <spname>, --speciesName=<spname>
- -s <simname>, --simulationName=<simname>
- -w, --overwrite
computePtclNumDensity.py command line option
- -M <max>, --maxDumpNum=<max>
- -N <avg>, --avgNxN=<avg>
- -S <spname>, --speciesName=<spname>
- -i <I>, --iterateAvg=<I>
- -m <min>, --minDumpNum=<min>
- -s <simname>, --simulationName=<simname>
- -w, --overwrite
computeS11Parameters.py command line option
- -E <N>, --nElements=<N>
- -c <step>, --dt=<step>
- -e <pts>, --nPoints=<pts>
- -n <Z>, --nZeros=<Z>
- -p <histpat>, --historyPATCH=<histpat>
- -s <simname>, --simulationName=<simname>
- -t <histcal>, --historyCAL=<histcal>
- -w, --overwrite
computeSParamsFromHists.py command line option
- -1, --inSign
- -2, --outSign
- -B <outmag>, --outSlabB=<outmag>
- -D <dir>, --outDirection=<dir>
- -E <outelec>, --outSlabE=<outelec>
- -L <maxl>, --maxWavelength=<maxl>
- -O <offset>, --stepOffset=<offset>
- -S <minl>, --minWavelength=<minl>
- -b <inmag>, --inSlabB=<inmag>
- -d <dir>, --inDirection=<dir>
- -e <inelec>, --inSlabE=<inelec>
- -f <first>, --firstStep=<first>
- -l <last>, --lastStep=<last>
- -n <outname>, --outputFileName=<outname>
- -s <simname>, --simulationName=<simname>
- -w, --overwrite
- -x <outsufx>, --outputSuffix=<outsufx>
computeSParamsViaOverlapIntegral.py command line option
- -B <outslabB>, --outSlabB=<outslabB>
- -D <suffix>, --outputFileSuffix=<suffix>
- -E <outslabE>, --outSlabE=<outslabE>
- -F <firstout>, --firstStepOutSlab=<firstout>
- -L <steps>, --numSteps=<steps>
- -M <maxlength>, --maxWavelength=<maxlength>
- -b <inslabB>, --inSlabB=<inslabB>
- -e <inslabE>, --inSlabE=<inslabE>
- -f <firstin>, --firstStepInSlab=<firstin>
- -m <minlength>, --minWavelength=<minlength>
- -s <simname>, --simulationName=<simname>
- -w, --overwrite
computeSpectrogram.py command line option
- -F <max>, --maxFreq=<max>
- -H <histname>, --historyName=<histname>
- -W <windowfunc>, --windowType=<windowfunc>
- -c <comp>, --component=<comp>
- -f <size>, --fourierTransSize=<size>
- -n <overlap>, --noOverlap=<overlap>
- -s <simname>, --simulationName=<simname>
- -w, --overwrite
computeTimeSeriesAmplitude.py command line option
- -H <histname>, --historyName=<histname>
- -O <outname>, --outputFileName=<outname>
- -c <comp>, --component=<comp>
- -f, --frequency
- -s <simname>, --simulationName=<simname>
- -w, --overwrite
computeTimeSeriesFrequency.py command line option
- -0, --offsetx0
- -1, --offsetx1
- -B <beta>, --beta=<beta>
- -H <histname>, --historyName=<histname>
- -O <outname>, --outputFileName=<outname>
- -a, --axis
- -b <bd>, --beginDump=<bd>
- -c <comp>, --component=<comp>
- -e <ed>, --endDump=<ed>
- -f, --frequency
- -s <simname>, --simulationName=<simname>, [1]
- -w, --overwrite, [1]
computeWaveguideModes.py command line option
- -F <field>, --writeFieldProfile=<field>
- -L <vacwave>, --vacWavelength=<vacwave>
- -T <slice>, --transverseSlice=<slice>
- -m <maxnodes>, --nModes=<maxnodes>
- -s <simname>, --simulationName=<simname>
- -w, --overwrite
constant
- 2D Capacitive Plasma Chamber (Text-based setup)
- Colliding Pulse Injection (Text-based setup)
- Ionization Injection (Text-based setup)
- Photonic Crystal in Metal Cavity (Text-based setup)
- Specific Absorption Rate (Text-based setup)
constantFunc
- 2D Capacitive Plasma Chamber (Text-based setup)
- Colliding Pulse Injection (Text-based setup)
- Dielectric Wall Wakefield Acceleration (Text-based setup)
- Electron Beam Driven Plasma Wakefield
- Electron Beam Driven Plasma Wakefield (Text-based setup)
- Ion Thruster (Text-based setup)
- Radar Cross Section of a Cylinder (Text-based setup)
- Satellite Surface Charging (Text-based setup)
- Specific Absorption Rate (Text-based setup)
Constructive Solid Geometry
- Helix Traveling Wave Tube
convertFieldComponentCartToCylX.py command line option
- -f, --fieldName
- -s <simname>, --simulationName=<simname>
- -w, --overwrite
convertFieldComponentCartToCylZ.py command line option
- -f, --FieldName
- -s <simname>, --simulationName=<simname>
- -w, --overwrite
convertPtclComponentsCartToCylX.py command line option
- -S <spname>, --speciesName=<spname>
- -o <outspname>, --outputSpeciesName=<outspname>
- -s <simname>, --simulationName=<simname>
- -w, --overwrite
convertPtclComponentsCartToCylZ.py command line option
- -S <spname>, --speciesName=<spname>
- -o <outspname>, --outputSpeciesName=<outspname>
- -s <simname>, --simulationName=<simname>
- -w, --overwrite
CoordinateGrid
- 2D Capacitive Plasma Chamber (Text-based setup)
- Ion Thruster (Text-based setup)
- Stairstep Cavity in Coordinate Grid (Text-based setup)
coordProdGrid
- 2D Capacitive Plasma Chamber (Text-based setup)
- Ion Thruster (Text-based setup)
- Stairstep Cavity in Coordinate Grid (Text-based setup)
CoordProdSTFuncStencilElement
- 2D Capacitive Plasma Chamber (Text-based setup)
- Ion Thruster (Text-based setup)
CoordProdSTFuncStencilElementMacro() (built-in function)
coordProdSTFuncStencilFiller
- 2D Capacitive Plasma Chamber (Text-based setup)
- Ion Thruster (Text-based setup)
cosineFlattop
- Colliding Pulse Injection (Text-based setup)
- Dielectric Wall Wakefield Acceleration (Text-based setup)
- Electron Beam Driven Plasma Wakefield
- Electron Beam Driven Plasma Wakefield (Text-based setup)
- Ionization Injection (Text-based setup)
createMissingPtclsDumps.py command line option
- -S <spname>, --speciesName=<spname>
- -s <simname>, --simulationName=<simname>
- -w, --overwrite
createParticleTracks.py command line option
- -S <spname>, --speciesName=<spname>
- -p, --ptclIndex
- -s <simname>, --simulationName=<simname>
- -w, --overwrite
CSG Geometry
- Coaxial Cylinder
- Klystron
- Like-Charge Dipole
- Multipacting Growth Prescribed Fields
- Multipacting Growth in Waveguide
- Pillbox Cavity
- S-Matrix of Box Cavity
- Scattering off Multiple Objects
- Spherical Lens
- Waveguide Dispersion, [1]
curlUpdater
- Dielectric Wall Wakefield Acceleration (Text-based setup)
- Electron Beam Driven Plasma Wakefield
- Electron Beam Driven Plasma Wakefield (Text-based setup)
curlUpdaterCoordProd
- Stairstep Cavity in Coordinate Grid (Text-based setup)
Current Density
- Multimode Fiber Mode Extraction
- TownsendDischarge
Cut-Cell Absorb and Save
- Coaxial Cylinder
- Coupon Array Charging
- Helix Traveling Wave Tube, [1], [2]
- Ion Beam Sputtering
- Klystron
- Langmuir Probe
- Multipacting Growth Prescribed Fields
- Multipacting Growth in Waveguide
Cut-Cell Accumulate
- Corona Discharge
- Coupon Array Charging
- Satellite Surface Charging
- Wafer Impact
Cutcell Absorb and Save
- Smith-Purcell Radiation
Cutcell Absorb and Save;
cutCellPosGen
- Satellite Surface Charging (Text-based setup)
cylinder
- Photonic Crystal in Metal Cavity (Text-based setup)

D

dielectrics
- humanHeadT
diffuseBndry
- Ion Thruster (Text-based setup)
Dipole Current
Dipole Radiation
- Dipole
Dirichlet
Distributed Current
drude

E

Electrons;
EM Field Energy
- Klystron
EmField
- Colliding Pulse Injection (Text-based setup)
Emitted Current
emMultiField
- Colliding Pulse Injection (Text-based setup)
entryToBool() (built-in function)
esGridBoundary
- Satellite Surface Charging (Text-based setup)
esirk2ndOrder
- Electron Beam Driven Plasma Wakefield
- Electron Beam Driven Plasma Wakefield (Text-based setup)
esirk3rdOrder
- Ionization Injection (Text-based setup)
esSolveOpenBdry
- Electron Beam Driven Plasma Wakefield
- Electron Beam Driven Plasma Wakefield (Text-based setup)
Excitation
exportSpecies.py command line option
Expression
expression
External Electric Field
- TownsendDischarge
External Field
- 1D Capacitive Plasma Chamber
External Magnetic Field
extractModes.py command line option
extractModesViaOperator.py command line option

F

G

H

hornAntenna

I

Impact Excitation
- 1D Capacitive Plasma Chamber
- TownsendDischarge
Impact Ionization
- 1D Capacitive Plasma Chamber
- TownsendDischarge
ImpactCollider
- 2D Capacitive Plasma Chamber (Text-based setup)
ImpactCollision
- 2D Capacitive Plasma Chamber (Text-based setup)
impactElastic
impactExcitation
impactIonization
Imported Geometry
IncidentSelector
Inelastic Electron Scattering
- TownsendDischarge
initBeam
InitialCondition

InitialUpdateStep
Input
- Photonic Crystal in Metal Cavity (Text-based setup)
insulator
Interaction
- Ion Thruster (Text-based setup)
- Ionization Injection (Text-based setup)
Interior Absorb and Save
interpolatedFromFile
- Ion Thruster (Text-based setup)
Ion Neutral Fluid Collisions
Ionization
isEqualString() (built-in function)
isNotEqualInt() (built-in function)
iterativeSolver

K

kirchhoffSurfaceIntegral
- Radar Cross Section of a Cylinder (Text-based setup)

Kirchoffbox
- Dipole

L

M

N

NAFunc
- 2D Capacitive Plasma Chamber (Text-based setup)
negativeIonBeam
Neumann
Neutral Background Gas
Neutral Fluid
Neutral Particles
- Ion Beam Sputtering
- Neutral Heat Transport (DSMC)
neutralGas
- 2D Capacitive Plasma Chamber (Text-based setup)
- Ionization Injection (Text-based setup)
nodeFieldVectorWriter
- Satellite Surface Charging (Text-based setup)
nodeStencilFiller
- Satellite Surface Charging (Text-based setup)
nullFieldIonization
- Ionization Injection (Text-based setup)

NullInteraction
nullOnlySelector
- Satellite Surface Charging (Text-based setup)
nullSelfCombination
- Ion Thruster (Text-based setup)
- Satellite Surface Charging (Text-based setup)
nullSelfSplit
- Ion Thruster (Text-based setup)
Number of Macroparticles
Number of Physical Particles

O

OAFunc
- Ion Thruster (Text-based setup)

P

Parameterized CSG
- Helix Traveling Wave Tube, [1]
Particle Emitter
- Proton Beam
- Smith-Purcell Radiation
Particle Emitter;
Particle Energy
- Neutral Heat Transport (DSMC)
Particle Energy Change from Boundary
- Neutral Heat Transport (DSMC)
Particle Fluid Collisions
- 1D Capacitive Plasma Chamber
- TownsendDischarge
Particle Loader
Particle Particle Collisions
- 1D Capacitive Plasma Chamber
- Neutral Heat Transport (DSMC)
ParticleSink
ParticleSource
patchAntenna
Perfect Electric Conductor
performLowPassFilter.py command line option
performTwoHistoryArithmetic.py command line option
Periodic
- Corona Discharge
permittivityUpdater
- Photonic Crystal in Metal Cavity (Text-based setup)
Phase Shifting Boundary Conditions
- Waveguide Dispersion, [1]
Phase Shifting Periodic
Phi

R

radiation, [1]
Radius of Sphere
- Mie Scattering Dielectric Coated Metal Sphere
- Mie Scattering Metal Sphere
randDensSrc
- 2D Capacitive Plasma Chamber (Text-based setup)
randGauss
- 2D Capacitive Plasma Chamber (Text-based setup)
RCS Box
- 1D Capacitive Plasma Chamber
Rectangular Waveguide
rectangularWaveguide
Reduced
- 1D Capacitive Plasma Chamber
- Neutral Heat Transport (DSMC)
Region
- Colliding Pulse Injection (Text-based setup)
relBorisCyl
- 2D Capacitive Plasma Chamber (Text-based setup)
relBorisCylVW
- Ion Thruster (Text-based setup)
relBorisVW

relBorisVWScale
- 2D Laminar Brillouin Flow (Text-based setup)
- Vaughan Secondary Emission (Text-based setup)
relBorisVWTagged
- Colliding Pulse Injection (Text-based setup)
- Ionization Injection (Text-based setup)
removePtclComponent.py command line option
requiredBlocks
rgnGridBndry

S

T

tagGen
Three Body Reactions
- 1D Capacitive Plasma Chamber
Time Dependence
- Dielectric in Electromagnetics
- Dipole Antenna

transparentBndry
- Ion Thruster (Text-based setup)
truncateHistory.py command line option

U

usegpu
- Ground Penetrating Radar (Text-based setup)
- Radar Cross Section of a Cylinder (Text-based setup)
UserFunc
- Photonic Crystal in Metal Cavity (Text-based setup)
userFuncExpression
- Photonic Crystal in Metal Cavity (Text-based setup)
userFuncUpdater

V

W

Waveguide
waveguide
write1CellVolume() (built-in function)
writeCutCellField.py command line option

X

xvLoaderEmitter

Y