rescalingBLT

MInt StructuredBndryCnd3D::m_rescalingBLT
default = 1.0

Delta0 thickness at the inflow to be rescaled to
Possible values are:

Float > 0.0

Keywords: RESCALING, STRUCTURED

isothermalWallTemperature

MInt StructuredBndryCnd3D::m_isothermalWallTemperature
default = 1.0

Isothermal wall temperature as a factor of T8
Possible values are:

Float > 0.0

Keywords: ISOTHERMAL, WALL, BC, STRUCTURED

shockAngle

MInt StructuredBndryCnd3D::m_sigma
default = 0

Angle of the shock to be introduced in BC 2009i
Possible values are:

Float > positive float values

Keywords: ISOTHERMAL, WALL, BC, STRUCTURED

donorGridName

MInt donorGridName
default = ""

Name of the donor grid file to interpolate from.
Possible values are:

String containing file name

Keywords: INTERPOLATION, STRUCTURED

donorTranslation

MInt translation
default = 0.0, 0.0, 0.0

Translation of the donor grid in 3 space dimensions.
Possible values are:

Float

Keywords: INTERPOLATION, STRUCTURED

donorScale

MInt m_donorScale
default = 1.0, 1.0, 1.0

Scaling of the donor grid.
Possible values are:

Float > 0.0

Keywords: INTERPOLATION, STRUCTURED

donorVars

MInt donorFile
default = ""

Name of the donor var file to interpolate from.
Possible values are:

String containing file name

Keywords: INTERPOLATION, STRUCTURED

postprocessing

MInt StructuredPostprocessing::postprocessing
default = 0

This property determines the postrprocessing.

0 deactivated
1 active

Keywords: GENERAL, GLOBAL, POSTPROCESSING

pp_skewness

MInt PostprocesssingSolver::m_skewness
default = 0

This propertpy determines if skewness is computed when PP_AVERAGE_PRE/IN/POST is activated.

0 deactivated
1 active

Keywords: GLOBAL, POSTPROCESSING

pp_kurtosis

MInt PostprocesssingSolver::m_kurtosis
default = 0

This property determines if kurtosis (and skewness) is computed when PP_AVERAGE_PRE/IN/POST is activated.

0 deactivated
1 active

Keywords: GLOBAL, POSTPROCESSING

pp_turbulentProduction

MInt PostprocesssingSolver::m_computeProductionTerms
default = 0

Determines if the turbulent production terms should be computed after the normal averaging

0 deactivated
1 active

Keywords: GLOBAL, POSTPROCESSING

pp_twoPass

MInt PostprocesssingSolver::m_twoPass
default = 0

This property determines if two-pass averaging is performed in PP_AVERAGE_PRE/POST.
Either m_twoPass or m_useKahan should be activated.

0 deactivated
1 active

Keywords: GLOBAL, POSTPROCESSING

pp_useKahan

MInt PostprocesssingSolver::m_useKahan
default = 0

This property determines if kahan summation is performed in PP_AVERAGE_PRE/IN/POST.
Either m_twoPass or m_useKahan should be activated.

0 deactivated
1 active

Keywords: GLOBAL, POSTPROCESSING

pp_fileName

MInt PostprocesssingSolver::m_postprocessFileName
default = ""

This property determines a filename for averaging.

filename

Keywords: GLOBAL, POSTPROCESSING

postprocessingOps

MString* Solver::m_postprocessingOps
default = empty

This property is a list of postprocessing operations to be performed

PP_AVERAGE_PRE
PP_AVERAGE_POST
PP_AVERAGE_IN
PP_MOVING_AVERAGE_PRE
PP_MOVING_AVERAGE_POST
PP_MOVING_AVERAGE_IN

Keywords: GENERAL, GLOBAL, POSTPROCESSING

pp_averageRestart

MString* Solver::m_averageRestart
default = 0

This property determines if we should restart from our last averaging.

0 turned off
1 turned on

Keywords: GENERAL, GLOBAL, POSTPROCESSING

pp_averageRestartInterval

MString* Solver::m_averageRestartInterval
default = 0

This property determines the interval to write averaging restart files. Has to be a multiple of averageInterval and of restartInterval.

interval

Keywords: GENERAL, GLOBAL, POSTPROCESSING

pp_averagingFavre

MInt PostprocesssingSolver::m_averagingFavre
default = 0

Computes additional density-correlated averages

0 disabled 1 enabled
Keywords: GLOBAL, POSTPROCESSING

pp_averageInterval

MString* Solver::m_averageInterval
default = 0

This property determines the interval of the solutions used for averaging.

interval

Keywords: GENERAL, GLOBAL, POSTPROCESSING

pp_averageStartTimestep

MString* Solver::m_averageStartTimestep
default = 0

This property determines the start timestep used for averaging.

timestep

Keywords: GENERAL, GLOBAL, POSTPROCESSING

pp_averageStopTimestep

MString* Solver::m_averageStopTimestep
default = 0

This property determines the stop timestep used for averaging.

timestep

Keywords: GENERAL, GLOBAL, POSTPROCESSING

pp_averageInterval

MString* Solver::m_averageRestart
default = 0

This property determines if we should restart from our last averaging.

0 turned off
1 turned on

Keywords: GENERAL, GLOBAL, POSTPROCESSING

pp_movingAvgInterval

MInt PostprocesssingSolver::m_movingAvgInterval
default = 1

This property determines the interval between timesteps considered for moving average, e.g. if set to 2 at an averaging timestep n (see pp_averagStartTimestep, pp_averageStopTimestep, pp_averageInterval) the timesteps n, n-2, n-4, ... are used to compute the moving average
Note: this has to be a factor of m_averageInterval
see also pp_movingAvgDataPoints, pp_averageVorticity Keywords: GLOBAL, POSTPROCESSING

pp_movingAvgDataPoints

MInt PostprocesssingSolver::m_movingAvgDataPoints
This property determines the number of timesteps (data points) used for moving average computation
see also pp_movingAvgInterval, pp_averageVorticity Keywords: GLOBAL, POSTPROCESSING

pp_averageVorticity

MInt PostprocesssingSolver::m_pp.m_averageVorticity
default = 0

This property determines if the vorticity vector is considered in computation of averages

0 disabled 1 enabled
Keywords: GLOBAL, POSTPROCESSING

forceOutputInterval

MInt FvStructuredSolver::m_forceOutputInterval
default = "./out"

Interval in which auxDataFiles (containing forces etc.).
should be written.
Possible values are:

Integer >= 0

Keywords: FORCES, IO, STRUCTURED

auxOutputDir

MString FvStructuredSolver::m_auxOutputDir
default = solutionOutput

Folder for auxData files.
Keywords: FORCES, IO, STRUCTURED

forceAsciiOutputInterval

MInt FvStructuredSolver::m_forceAsciiOutputInterval
default = "./out"

Interval in which the integrated forces .
should be written to an ASCII file.
Possible values are:

Integer >= 0

Keywords: FORCES, IO, STRUCTURED

forceAsciiComputeInterval

MInt FvStructuredSolver::m_forceAsciiComputeInterval
default = "./out"

Interval in which the integrated forces .
should be computed.
Possible values are:

Integer >= 0

Keywords: Forces, IO, STRUCTURED

forceSecondOrder

MInt FvStructuredSolver::m_forceSecondOrder
default = "./out"

Second-order computation of force .
Possible values are:

Boolean True/False

Keywords: FORCES, IO, STRUCTURED

outputOffset

MInt FvStructuredSolver::m_outputOffset
default = 0

Time step before which no output should be written.
Possible values are:

Integer >= 0

Keywords: IO, STRUCTURED

ignoreUID

MInt FvStructuredSolver::m_ignoreUID
default = 0

Switch to override the UID check for restart files Possible values are:

0 = UID is checked
1 = UID is not checked

Keywords: RESTART, IO, STRUCTURED

restartFile

MInt FvStructuredSolver::m_restartFile
default = 0

Possible values are:

0 = initial start
1 = start from restart file

Keywords: RESTART, IO, STRUCTURED

useNonSpecifiedRestartFile

MString FvStructuredSolver::m_useNonSpecifiedRestartFile
default = 0

Keywords: RESTART, IO, STRUCTURED

changeMa

MInt FvStructuredSolver::m_changeMa
default = 0

Specify whether the variables should be transformed to a changed Ma number Possible values are:

0 = no conversion
1 = convert all variables to new Ma number

Keywords: RESTART, IO, STRUCTURED

debugOutput

MInt FvStructuredSolver::m_debugOutput
default = 0

Write out debug information as solverId and cellId to solution file. Possible values are:

0 = no debug output
1 = write solverId, cellId

Keywords: RESTART, IO, STRUCTURED

savePartitionOutput

MInt FvStructuredSolver::m_savePartitionOutput
default = 0

Save also partitioned solution file with current number of domains.
Possible values are:

0 = no output
1 = write partitioned file

Keywords: RESTART, IO, STRUCTURED

computeCf

MInt FvStructuredSolver::m_bForce
default = 0

Compute and write skin friction and pressure coefficient.
Possible values are:

0 = no output
1 = write cf values

Keywords: FORCES, IO, STRUCTURED

computePower

MInt FvStructuredSolver::m_bPower
default = 0

Compute and write out the power spent for actuation.
Possible values are:

0 = no output
1 = write power values

Keywords: FORCES, IO, POWER, STRUCTURED

detailAuxData

MInt FvStructuredSolver::m_detailAuxData
default = 0

Write additional information into auxData files (areas, coordiantes).
Possible values are:

0 = no output
1 = write additional info

Keywords: FORCES, IO, STRUCTURED

computeCpLineAverage

MInt FvStructuredSolver::m_bCpLineAveraging
default = 0

Trigger the line averaging of the cp/cf value.
Possible values are:

0 = no averaging
1 = compute line average

Keywords: FORCES, IO, STRUCTURED

forceAveragingDir

MInt FvStructuredSolver::m_forceAveragingDir
default = 0

Direction in which to compute the force line average
Possible values are:

0 = i-direction
1 = j-direction
2 = k-direction

Keywords: FORCES, IO, STRUCTURED

auxDataCoordinateLimits

MInt FvStructuredSolver::m_auxDataCoordinateLimits
default = 0

Trigger the limitation of the cp/cf computation region.
Possible values are:

0 = no limits
1 = read in limits

Keywords: FORCES, IO, STRUCTURED

auxDataLimits

MFloat FvStructuredSolver::m_auxDataLimits
default = 0

Limiting coordinates for 2D rectangle
for c_d computation.
Possible values are:

0.0,2.0,0.0,2.0 = limits a rectangle of 2.0 x 2.0

Keywords: FORCE, IO, STRUCTURED

computeLambda2

MInt StructuredSolver::m_computeLamda2
default = 0

this property triggers the lambda2 calculation. It will then be written out with the same frequency as used for saveOutput
possible values are:

Non-negative integervalues: <0> := off; <1>:=on

Keywords: TURBULENCE, VORTICES, STRUCTURED

vorticityOutput

MInt StructuredSolver::m_vorticityOutput
default = 0

Trigger vorticity computation and output
possible values are:

Non-negative integervalues: <0> := off; <1>:=on

Keywords: TURBULENCE, VORTICITY, STRUCTURED

averageVorticity

MInt StructuredSolver::m_averageVorticity
default = 0

Average the vorticity in the postprocessing
possible values are:

Non-negative integervalues: <0> := off; <1>:=on

Keywords: POSTPROCESSING, VORTICITY, STRUCTURED

residualOutputInterval

MInt FvStructuredSolver::m_residualOutputInterval
default = 0

Interval for the Residual computation Possible values are:

Integer >= 1

Keywords: RESIDUAL, IO, STRUCTURED

lineOutputInterval

MInt FvStructuredSolver::m_intpPointsOutputInterval
default = 0

Interval of the line interpolation output.
Possible values are:

Integer >= 0

Keywords: LINES, INTERPOLATION, IO, STRUCTURED

lineOutputDir

MInt FvStructuredSolver::m_intpPointsOutputDir
default = m_solutionOutput

Folder to write the line output files.
Possible values are:

String with path

Keywords: LINES, INTERPOLATION, IO, STRUCTURED

lineStartX

MInt FvStructuredSolver::lineStartX
default = 0

Point in x-dir to start line distribution.
Possible values are:

Float

Keywords: LINES, INTERPOLATION, IO, STRUCTURED

lineStartY

MInt FvStructuredSolver::lineStartY
default = 0

Point in y-dir to start line distribution.
Possible values are:

Float

Keywords: LINES, INTERPOLATION, IO, STRUCTURED

lineStartZ

MInt FvStructuredSolver::lineStartZ
default = 0

Point in z-dir to start line distribution.
Possible values are:

Float

Keywords: LINES, INTERPOLATION, IO, STRUCTURED

lineDeltaX

MInt FvStructuredSolver::lineDeltaX
default = 0

The delta in x-dir between the line points.
Possible values are:

Float

Keywords: LINES, INTERPOLATION, IO, STRUCTURED

lineDeltaY

MInt FvStructuredSolver::lineDeltaY
default = 0

The delta in y-dir between the line points.
Possible values are:

Float

Keywords: LINES, INTERPOLATION, IO, STRUCTURED

lineDeltaZ

MInt FvStructuredSolver::lineDeltaZ
default = 0

The delta in z-dir between the line points.
Possible values are:

Float

Keywords: LINES, INTERPOLATION, IO, STRUCTURED

lineNoPoints

MInt FvStructuredSolver::lineNoPoints
default = 0

Number of the points to distribute.
Possible values are:

Integer > 0

Keywords: LINES, INTERPOLATION, IO, STRUCTURED

intpPointsDeltaX2D

MInt FvStructuredSolver::intpPointsDeltaX2d
default = 0

The delta in x-dir for the second
dimension if 2d field interpolation is desired.
Possible values are:

Float

Keywords: FIELDS, INTERPOLATION, IO, STRUCTURED

lineDeltaY2D

MInt FvStructuredSolver::lineDeltaY2d
default = 0

The delta in y-dir for the second
dimension if 2d field interpolation is desired.
Possible values are:

Float

Keywords: FIELDS, INTERPOLATION, IO, STRUCTURED

lineDeltaZ2D

MInt FvStructuredSolver::lineDeltaZ2d
default = 0

The delta in z-dir for the second
dimension if 2d field interpolation is desired.
Possible values are:

Float

Keywords: FIELDS, INTERPOLATION, IO, STRUCTURED

lineNoPoints2D

MInt FvStructuredSolver::lineNoPoints2D
default = 0

The number of points for the second
dimension if 2d field interpolation is desired.
Possible values are:

Integer > 0

Keywords: FIELDS, INTERPOLATION, IO, STRUCTURED

boxOutputInterval

MInt FvStructuredSolver::boxOutputInterval
default = 0

Interval to write out the box output files.
Possible values are:

Integer >= 0

Keywords: BOXES, INTERPOLATION, IO, STRUCTURED

boxBlock

MInt FvStructuredSolver::boxBlocks
default = 0

Solvers in which the box is contained.
Possible values are:

Integer >= 0

Keywords: BOXES, INTERPOLATION, IO, STRUCTURED

boxWriteCoordinates

MInt FvStructuredSolver::m_boxWriteCoordinates
default = 0

Write cell-center coordinates into the boxes.
Possible values are:

true/false

Keywords: BOXES, INTERPOLATION, IO, STRUCTURED

boxOutputDir

MInt FvStructuredSolver::m_boxOutputDir
default = m_solutionOutput

Output folder to write the box output files.
Possible values are:

String containing path

Keywords: BOXES, INTERPOLATION, IO, STRUCTURED

boxOffsetK

MInt FvStructuredSolver::m_boxOffsetK
default = 0

Offset of the box in K-dir.
Possible values are:

Integer >= 0

Keywords: BOXES, INTERPOLATION, IO, STRUCTURED

boxOffsetJ

MInt FvStructuredSolver::m_boxOffsetJ
default = 0

Offset of the box in J-dir.
Possible values are:

Integer >= 0

Keywords: BOXES, INTERPOLATION, IO, STRUCTURED

boxOffsetI

MInt FvStructuredSolver::m_boxOffsetI
default = 0

Offset of the box in I-dir.
Possible values are:

Integer >= 0

Keywords: BOXES, INTERPOLATION, IO, STRUCTURED

boxSizeK

MInt FvStructuredSolver::m_boxSizeK
default = 0

Size of the box in K-dir.
Possible values are:

Integer > 0

Keywords: BOXES, INTERPOLATION, IO, STRUCTURED

boxSizeJ

MInt FvStructuredSolver::m_boxSizeJ
default = 0

Size of the box in J-dir.
Possible values are:

Integer > 0

Keywords: BOXES, INTERPOLATION, IO, STRUCTURED

boxSizeI

MInt FvStructuredSolver::m_boxSizeI
default = 0

Size of the box in I-dir.
Possible values are:

Integer > 0

Keywords: BOXES, INTERPOLATION, IO, STRUCTURED

nodalBoxOutputInterval

MInt FvStructuredSolver::nodalBoxOutputInterval
default = 0

Interval to write out the nodalBox output files.
Possible values are:

Integer >= 0

Keywords: NODALBOXES, INTERPOLATION, IO, STRUCTURED

nodalBoxBlock

MInt FvStructuredSolver::nodalBoxBlocks
default = 0

Solvers in which the nodalBox is contained.
Possible values are:

Integer >= 0

Keywords: NODALBOXES, INTERPOLATION, IO, STRUCTURED

nodalBoxWriteCoordinates

MInt FvStructuredSolver::m_nodalBoxWriteCoordinates
default = 0

Write cell-center coordinates into the nodalBoxes.
Possible values are:

true/false

Keywords: NODALBOXES, INTERPOLATION, IO, STRUCTURED

nodalBoxOutputDir

MInt FvStructuredSolver::m_nodalBoxOutputDir
default = m_solutionOutput

Output folder to write the nodalBox output files.
Possible values are:

String containing path

Keywords: NODALBOXES, INTERPOLATION, IO, STRUCTURED

nodalBoxOffsetK

MInt FvStructuredSolver::m_nodalBoxOffsetK
default = 0

Offset of the nodalBox in K-dir.
Possible values are:

Integer >= 0

Keywords: NODALBOXES, INTERPOLATION, IO, STRUCTURED

nodalBoxOffsetJ

MInt FvStructuredSolver::m_nodalBoxOffsetJ
default = 0

Offset of the nodalBox in J-dir.
Possible values are:

Integer >= 0

Keywords: NODALBOXES, INTERPOLATION, IO, STRUCTURED

nodalBoxOffsetI

MInt FvStructuredSolver::m_nodalBoxOffsetI
default = 0

Offset of the nodalBox in I-dir.
Possible values are:

Integer >= 0

Keywords: NODALBOXES, INTERPOLATION, IO, STRUCTURED

nodalBoxPointsK

MInt FvStructuredSolver::m_nodalBoxPointsK
default = 0

Size of the nodalBox in K-dir.
Possible values are:

Integer > 0

Keywords: NODALBOXES, INTERPOLATION, IO, STRUCTURED

nodalBoxPointsJ

MInt FvStructuredSolver::m_nodalBoxPointsJ
default = 0

Size of the nodalBox in J-dir.
Possible values are:

Integer > 0

Keywords: NODALBOXES, INTERPOLATION, IO, STRUCTURED

nodalBoxPointsI

MInt FvStructuredSolver::m_nodalBoxPointsI
default = 0

Size of the nodalBox in I-dir.
Possible values are:

Integer > 0

Keywords: NODALBOXES, INTERPOLATION, IO, STRUCTURED

asciiCellOutputInterval

MInt FvStructuredSolver::m_pointsToAsciiOutputInterval
default = "./out"

Interval in which the integrated forces .
should be written to an ASCII file.
Possible values are:

Integer >= 0

Keywords: FORCES, IO, STRUCTURED

asciiCellComputeInterval

MInt FvStructuredSolver::m_pointsToAsciiComputeInterval
default = "./out"

Interval in which the integrated .
should be computed.
Possible values are:

Integer >= 0

Keywords: FORCES, IO, STRUCTURED

pointsToAsciiCoordinatesX

MInt FvStructuredSolver::m_pointsToAsciiX
default = 0

Offset of the asciiCell in K-dir.
Possible values are:

Integer >= 0

Keywords: ASCIICELLES, INTERPOLATION, IO, STRUCTURED

pointsToAsciiCoordinatesY

MInt FvStructuredSolver::m_pointsToAsciiY
default = 0

Offset of the asciiCell in J-dir.
Possible values are:

Integer >= 0

Keywords: ASCIICELLES, INTERPOLATION, IO, STRUCTURED

pointsToAsciiCoordinatesZ

MInt FvStructuredSolver::m_pointsToAsciiZ
default = 0

Offset of the asciiCell in I-dir.
Possible values are:

Integer >= 0

Keywords: ASCIICELLES, INTERPOLATION, IO, STRUCTURED

useConvectiveUnitWrite

MInt FvStructuredSolver::m_useConvectiveUnitWrite
default = 0

Solution interval controlled by fraction or multiple of convective unit
instead of globalTimeStep.
Possible values are:

0: off
1: on

Keywords: IO, STRUCTURED

convectiveUnitInterval

MInt FvStructuredSolver::convectiveUnitInterval
default = 0

Solution interval controlled by fraction or multiple of convective unit
instead of globalTimeStep.
Possible values are:

floating point number > 0.0

Keywords: IO, STRUCTURED

sampleSolutionFiles

MInt FvStructuredSolver::sampleSolutionFiles
default = 0

Trigger the output of solution files controlled
by the convectiveUnitInterval.
Possible values are:

0: off
1: on

Keywords: IO, STRUCTURED

restartInterpolation

MInt FvStructuredSolver::m_restartInterpolation
default = 0

Restart the computation with an interpolated field
from a given donorVars/Grid.
Possible values are:

0: off
1: on

Keywords: INTERPOLATION, IO, STRUCTURED

noSpecies

MInt FvStructuredSolver::m_noSpecies
default = 0
Number of species for future species computation.
Possible values are:

0: off
1: on

Keywords: SPECIES, STRUCTURED

referenceLength

MFloat FvStructuredSolver::m_Pr
default = 1.0

WARNING: Do NOT use any value different than 1.0 - The correct implementation of this is not checked, so it probably will not do what you think it does/should do. Don't use it unless you REALLY know what you are doing. Reference Length L - The length = 1.0 of the grid is scaled with L. Possible values are:

1.0 +- eps

Keywords: FINITE_VOLUME, VARIABLES

physicalReferenceLength

MFloat FvStructuredSolver::m_Pr
default = 1.0

Physical Reference Length L - TODO labels:FV ! Possible values are:

Non-negative floating point values

Keywords: FINITE_VOLUME, VARIABLES

Re

MFloat FvStructuredSolver::m_Re
default = no default value

Reynolds number is defined with your infinity variables.
In the code the Reynolds number is nondimensionalized to a Reynolds number based on the stagnation variables a_0, mu_0, rho_0
$ Re_{0} = Re_{\infty} \frac{\mu_{\infty}}{\rho_{\infty} Ma \sqrt{T_{\infty}} } = \frac{\rho_0 a_0 l}{\mu_{0}}$:

$ mu_{\infty} $, $ mu_{0} $ - viscosity by the infinity, stagnation temperature
$ Ma $ is the mach number
$ T_{\infty} $ is the infinity temperature (free stream temperature)

possible values are:

Non-negative floating point values of the order of 0.1

Keywords: FINITE_VOLUME, VARIABLES

Pr

MFloat FvStructuredSolver::m_Pr
default = 0.72

Prandtl number - non-dimensionalized with stagnant flow conditions $ \mu_{0}, \lambda_{0}, c_{p} $: possible values are:

Non-negative floating point values

Keywords: FINITE_VOLUME, VARIABLES

ReTau

MFloat FvStructuredSolver::m_ReTau
default = no default value

ReTau value for certain flows as channel or pipe flow
to control the pressure gradient.
possible values are:

Non-negative floating point values

Keywords FINITE_VOLUME, VARIABLES

Ma

MFloat FvStructuredSolver::m_Ma
default = no default value

Mach's number - $ M_{\infty} = \frac{u_\infty}{a_\infty} $: possible values are:

Non-negative floating point values

Keywords FINITE_VOLUME, VARIABLES

angle

MFloat* FvStructuredSolver::m_angle
default = no default value

m_angle[nDim] - Angles of rotation around the z, and y axes. possible values are:

Non-negative floating point values

Keywords: FINITE_VOLUME,BOUNDARY CONDITION

considerVolumeForces

MInt FvStructuredSolver::m_considerVolumeForces
default = 0

Trigger to use volume forces
Possible values are:

0: off
1: on

Keywords: FORCING, STRUCTURED

volumeForce

MInt FvStructuredSolver::volumeForce
default = 0

Numerical value of the volume force
in each space direction.
Possible values are:

floating point number

Keywords: FORCING, STRUCTURED

gamma

MFloat FvStructuredSolver::m_gamma
default = 1.4

Ratio of specific heats - $ \gamma = c_p / c_v $ possible values are:

Non-negative floating point values

Keywords: FINITE_VOLUME, VARIABLES

initialCondition

MInt FvStructuredSolver::m_initialCondition
default = no default value

Selects the initial condition. possible values are:

See the initialCondition() function of the corresponding solver

Keywords: INITIAL_CONDITION, FINITE_VOLUME

channelHeight

MInt FvStructuredSolver::m_channelHeigth
default = 1.0

Height of the half of the channel, necessary
to compute correct pressure gradient
Possible values are:

Floating point > 0.0

Keywords: CHANNEL, IO, STRUCTURED

channelWidth

MInt FvStructuredSolver::m_channelWidth
default = 1.0

Width of the channel, necessary
to compute correct pressure gradient
Possible values are:

Floating point > 0.0

Keywords: CHANNEL, IO, STRUCTURED

channelLength

MInt FvStructuredSolver::m_channelLength
default = 1.0

Length of the channel, necessary
to compute correct pressure gradient
Possible values are:

Floating point > 0.0

Keywords: CHANNEL, IO, STRUCTURED

channelInflowCoordinate

MInt FvStructuredSolver::m_channelInflowCoordinate
default = 1.0

Coordinate of the channel inflow plane.
Possible values are:

Floating point

Keywords: CHANNEL, IO, STRUCTURED

loglawC1

MInt FvStructuredSolver::m_channelC1
default = 5.0

First parameter for log-law for channel initialization
Possible values are:

Floating point > 0.0

Keywords: CHANNEL, IO, STRUCTURED

loglawC2

MInt FvStructuredSolver::m_channelC2
default = -3.05

Second parameter for log-law for channel initialization
Possible values are:

Floating point > 0.0

Keywords: CHANNEL, IO, STRUCTURED

loglawC3

MInt FvStructuredSolver::m_channelC3
default = 2.5

Third parameter for log-law for channel initialization
Possible values are:

Floating point > 0.0

Keywords: CHANNEL, IO, STRUCTURED

loglawC4

MInt FvStructuredSolver::m_channelC4
default = 5.5

Fourth parameter for log-law for channel initialization
Possible values are:

Floating point > 0.0

Keywords: CHANNEL, IO, STRUCTURED

pipeDiameter

MInt FvStructuredSolver::m_channelHeight
default = 1.0

Diameter of the pipe.
Possible values are:

Floating point > 0.0

Keywords: CHANNEL, IO, STRUCTURED

pipeLength

MInt FvStructuredSolver::m_channelLength
default = 1.0

Length of the pipe.
Possible values are:

Floating point > 0.0

Keywords: CHANNEL, IO, STRUCTURED

pipeInflowCoordinate

MInt FvStructuredSolver::m_channelInflowPlaneCoordinate
default = 1.0

Coordinate of the channel inflow plane.
Possible values are:

Floating point

Keywords: CHANNEL, IO, STRUCTURED

referenceTemperature

MFloat FvStructuredSolver::m_referenceTemperature
default = 273.15

Reference temperature $ T_{\mathrm{ref}}$ Used to scale the Sutherland's constant as follows: $ S/T_{\mathrm{ref}} $ Also used for the computation of the reference sound speed and combustion (TF) related quantities possible values are:

Non-negative floating point values

Keywords: FINITE_VOLUME, VARIABLES

sutherlandConstant

MFloat FvStructuredSolver::m_sutherlandConstant
default = 110.4 K

Sutherland's constant. Used by Sutherland's law. possible values are:

Non-negative floating point values

Keywords: FINITE_VOLUME, VARIABLES

tripSandpaper

MInt FvStructuredSolver::m_useSandpaperTrip
default = false

Activate sandpaper trip forcing.
Possible values are:

Bool: True/False

Keywords: TRIP, BOUNDARYLAYER, STRUCTURED

fsc

MInt FvStructuredSolver::m_fsc
default = false

Activate the Falkner-Skan-Cooke inflow boundary conditions.
Possible values are:

Bool: True/False

Keywords: TRIP, BOUNDARYLAYER, STRUCTURED

movingGrid

MInt FvStructuredSolver::m_movingGrid
default = 0

Trigger to use moving grid methods
Possible values are:

0: off
1: on

Keywords: MOVING, STRUCTURED

gridMovingMethod

MInt FvStructuredSolver::m_gridMovingMethod
default = 0

Number of the moving grid function
specified in the switch in fvstructuredsolver3d
Possible values are:

Integer >= 0

Keywords: MOVING, STRUCTURED

wallVel

MInt FvStructuredSolver::m_wallVel
default = 0

Value of the wall velocity for
certain moving grid methods.
Possible values are:

Floating point

Keywords: MOVING, STRUCTURED

movingGridTimeOffset

MInt FvStructuredSolver::m_movingGridTimeOffset
default = 0

Numerical value of the time offset
for moving grid functions.
Possible values are:

Floating point

Keywords: MOVING, STRUCTURED

movingGridSaveGrid

MInt FvStructuredSolver::m_movingGridSaveGrid
default = 0

Trigger to write out the moving grid
at each solution time step.
Possible values are:

0: off
1: on

Keywords: MOVING, STRUCTURED

synchronizedMGOutput

MInt FvStructuredSolver::m_synchronizedMGOutput
default = 0

Trigger to write out the moving grid synchronized with the moving grid, i.e.,
the solution is written out in an integer of timesteps to move one cell further.
Possible values are:

0: off
1: on

Keywords: MOVING, STRUCTURED, IO

bodyForce

MInt FvStructuredSolver::m_bodyForce
default = 0

Trigger the use of a specific time-dependent body forcing
Possible values are:

0: off
1: on

Keywords: MOVING, STRUCTURED

bodyForceMethod

MInt FvStructuredSolver::m_bodyForceMethod
default = 0

Number of the moving grid function
specified in the switch in fvstructuredsolver3d
Possible values are:

Integer >= 0

Keywords: MOVING, STRUCTURED

wavePenetrationHeight

MInt FvStructuredSolver::m_wavePenetrationHeight
default = 0

Value of the wall velocity for
certain moving grid methods.
Possible values are:

Floating point

Keywords: MOVING, STRUCTURED

constantTimeStep

MInt FvStructuredSolver::m_constantTimeStep
default = 1

Trigger the use of a constant time step
(only computed once at startup)
Possible values are:

0: off
1: on

Keywords: TIMESTEP, STRUCTURED

localTimeStep

MInt FvStructuredSolver::m_localTimeStep
default = 0

Trigger the use of local time-stepping. Possible values are:

0: off
1: on

Keywords: TIMESTEP, STRUCTURED

timeStepComputationInterval

MInt FvStructuredSolver::m_timeStepComputationInterval
default = 1

Set the interval for the recomputation of
the time step.
Possible values are:

Integer >= 1

Keywords: TIMESTEP, STRUCTURED

noGhostLayers

MInt FvStructuredSolver::m_noGhostLayers
default = 2

Number of ghost-layers around the active mesh.
the time step.
Possible values are:

Integer >= 1

Keywords: GRID, STRUCTURED

cfl

MInt FvStructuredSolver::m_cfl
default = no default

Courant number C - Factor of the CFL condition

possible values are:

positive floating point values < stability limit of the time-stepping method
For default RK5 scheme the theoretical stability limit is C<4. Due to cut and small cells C<1.5 or even C <= 1.0 is recommended.

Keywords: FINITE_VOLUME, STABILITY, TIME_INTEGRATION

limiter

MInt FvStructuredSolver::m_limiter
default = 0

Trigger the use of the limiter.
possible values are:

0

Keywords: FINITE_VOLUME, STABILITY, LIMITER, STRUCTURED

limiterMethod

MInt FvStructuredSolver::m_limiterMethod
default = ALBADA

Name of the limiter to use.
possible values are:

ALBADA, VENKATAKRISHNAN, MINMOD

Keywords: FINITE_VOLUME, STABILITY, LIMITER, STRUCTURED

limiterVisc

MInt FvStructuredSolver::m_limiterVisc
default = 0

Trigger the use of the limiter.
possible values are:

0

Keywords: FINITE_VOLUME, STABILITY, LIMITER, STRUCTURED

musclScheme

MInt FvStructuredSolver::m_musclScheme
default = Standard

Sets the MUSCL scheme for the structured solver. possible values are:

Other valid MUSCL schemes

Keywords: STRUCTURED, FV, MUSCL

musclScheme

MInt FvStructuredSolver::m_musclScheme
default = Standard

Name of the MUSCL scheme to be used
possible values are:

Standard, Stretched

Keywords: FINITE_VOLUME, STABILITY, LIMITER, STRUCTURED

ausmScheme

MInt FvStructuredSolver::m_ausmScheme
default = Standard

Sets the AUSM scheme for the structured solver. possible values are:

Other valid AUSM schemes

Keywords: STRUCTURED, FV, MUSCL

ausmScheme

MInt FvStructuredSolver::m_ausmScheme
default = Standard

Name of the AUSM scheme to be used.
possible values are:

Standard, PTHRC, AUSMDV

Keywords: FINITE_VOLUME, STABILITY, LIMITER, STRUCTURED

convergenceCriterion

MInt FvStructuredSolver::m_convergenceCriterion
default = Standard

Set the convergence criterion to stop computation.
possible values are:

Float < 1.0

Keywords: FINITE_VOLUME, CONVERGENCE, STRUCTURED

upwindCoefficient

MInt FvStructuredSolver::m_chi
default = 0.0

Chi for AUSM pressure splitting.
possible values are:

Float >= 0.0

Keywords: FINITE_VOLUME, CONVERGENCE, STRUCTURED

viscousFlux

MInt FvStructuredSolver::m_viscCompact
default = false

Makes your life easy.
possible values are:

Bool true/false

Keywords: FINITE_VOLUME, CONVERGENCE, STRUCTURED

porous

MFloat FvStructuredSolver::m_porous
default = 0

Trigger a porous computation.
possible values are:

true/false

Keywords: POROUS, STRUCTURED

porousSolvers

default = 0

IDs of the porous solvers.
possible values are:

Integer >= 0

Keywords: RANS, ZONAL, STRUCTURED

auxDataType

MInt auxDataType
default = 0

Specify the definition of "walls", i.e.,
if only solid walls, fluid-porous interfaces,
both or specific windows, should be considered
for cp, cf etc. computations.
Possible values are:

{0,1,2}

Keywords: AUXDATA, IO, STRUCTURED

useSponge

MInt FvStructuredSolver::m_useSponge
default = 0

Trigger to use the sponge.
Possible values are:

true/false

Keywords: SPONGE, IO, STRUCTURED

readSpongeFromBC

MBool readSpongeFromBC
default = 0

Use the given BC numbers to apply sponge
to each window connected with this BC number,
otherwise use given windows IDs.
Possible values are:

true/false

Keywords: SPONGE, IO, STRUCTURED

spongeBndryCndIds

MInt noSpongeIds
default = 0

Use the given BC numbers to apply sponge
to each window connected with this BC number.
Possible values are:

BC Id

Keywords: SPONGE, IO, STRUCTURED

spongeWindowIds

MInt noSpongeIds
default = 0

Use the given window IDs to apply
a sponge to them.

Window ID

Keywords: SPONGE, IO, STRUCTURED

spongeLayerType

MInt FvStructuredSolver::m_spongeLayerType
default = 0

Type of the sponge layer, i.e.,
sponge to pressure, density, both,
infinity values or predefined field etc.

Integer of Sponge type

Keywords: SPONGE, IO, STRUCTURED

spongeLayerThickness

MFloat FvStructuredSolver::m_spongeLayerThickness
default = -1.0

The property controls the thickness of the sponge layer in which the sponge layer forcing is applied. The sponge forcing term added to the rhs of a cell inside the sponge layer is given by
$ \Delta L(\phi) = V \sigma \frac{\Delta x_{sp}^2}{L_s^2} \Delta \phi $,
where $ V $ is the cell volume, $ \sigma $ is the forcing amplitude, $ x_{sp} $ is the inner sponge layer boundary, $ L_{sp} $ is the sponge layer thickness and $ \Delta \phi = \phi - \phi_{target} $ is the difference between the local and the freesteam values of $ \phi $.
possible values are:

Any non-negative floating point value.

Keywords: STRUCTURED, SPONGE

betaSponge

MFloat StructuredSolver::m_betaSponge
default = 0

The property controls the sponge function. Linear sponge spongeBeta = 1, quadratic spongeBeta = 2, etc.
possible values are:

floating point values.

Keywords: STRUCTURED, SPONGE, BETA, PROFIL

sigmaSponge

MFloat StructuredSolver::m_sigmaSponge
default = 0

Controls the sigma of the sponge, i.e., the strength of the sponge.
possible values are:

floating point values.

Keywords: STRUCTURED, SPONGE, BETA, PROFIL

targetDensityFactor

MFloat FvStructuredSolver::m_targetDensityFactor
default = 1.0

The property controls the Intensity of the sponge layer correction regarding the density forcing term for some values of the spongeLayerType. The sponge forcing term added to the rhs of a cell inside the sponge layer is given by
$ \Delta L(\phi) = V \sigma \frac{\Delta x_{sp}^2}{L_s^2} \Delta \phi $,
where $ V $ is the cell volume, $ \sigma $ is the forcing amplitude, $ x_{sp} $ is the inner sponge layer boundary, $ L_{sp} $ is the sponge layer thickness and $ \Delta \phi = \phi - \phi_{target} $ is the difference between the local and the freesteam values of $ \phi $.
The density target value is in these cases given as:
deltaRho =a_pvariable( cellId , PV->RHO ) - m_rhoInfinity * m_targetDensityFactor;
See also spongeLayerType. Only meaningful and required with certain values for spongeLayerType and if both spongeLayerThickness and sigmaSponge are specified and nonzero! !

possible values are:

Non-negative floating point values.

Keywords: STRUCTURED, SPONGE

computeSpongeFactor

MBool FvStructuredSolver::m_computeSpongeFactor
default = 0

Trigger the sponge computation, if set to false.
the sponge values will be read from the restart file
which may be much faster due to the slow sponge computation.
possible values are:

true/false

Keywords: STRUCTURED, SPONGE

noRKSteps

MInt FvStructuredSolver::m_noRKSteps
default = 5

Number of steps in the Runge-Kutta time-stepping method. possible values are:

Positive integers.

Keywords: FV, RUNGE KUTTA, TIME STEPPING

rkalpha-step

MFloat FvStructuredSolver::m_RKalpha[m_noRKSteps]
default = 0.25, 0.16666666666, 0.375, 0.5, 1 IF noRKSteps is 5.

Coeffients of the Runge-Kutta time-stepping method. possible values are:

Floating point numbers (as many as Runge-Kutta steps).

Keywords: FV, RUNGE KUTTA, TIME STEPPING

rungeKuttaOrder

MFloat FvStructuredSolver::m_rungeKuttaOrder
default = 2

Defines the runge kutta method (order). possible values are:

2 - second order
3 - third order

Keywords: TIME_INTEGRATION, RUNGE_KUTTA

useSTG

MFloat FvStructuredSolver::m_stgIsActive
default = 0

Trigger the use of the STG BC.
possible values are:

true/false

Keywords: STG, STRUCTURED

stgSubSup

MFloat FvStructuredSolver::m_stgSubSup
default = 0

Use mixed subsonics/subsonic formulation
of the STG boundary.
possible values are:

true/false

Keywords: STG, STRUCTURED

stgSupersonic

MFloat FvStructuredSolver::m_stgSupersonic
default = 0

Use supersonic STG boundary formulation.
possible values are:

true/false

Keywords: STG, STRUCTURED

BLT1

MFloat FvStructuredSolver::m_stgBLT1
default = 1.0

Defines the size of the STG virtual box
in the x-direction as a fraction of the
delta0 specified.
possible values are:

Floating point > 0.0

Keywords: STG, STRUCTURED

BLT2

MFloat FvStructuredSolver::m_stgBLT2
default = 2

Defines the size of the STG virtual box
in the y-direction as a fraction of the
delta0 specified.
possible values are:

Floating point > 0.0

Keywords: STG, STRUCTURED

BLT3

MFloat FvStructuredSolver::m_stgBLT3
default = 1.1

Defines the size of the STG virtual box
in the z-direction as a fraction of the
delta0 specified.
possible values are:

Floating point > 0.0

Keywords: STG, STRUCTURED

deltaIn

MFloat FvStructuredSolver::m_stgDelta99Inflow
default = -1.0

Defines the delta0 thickness at the inflow for the STG.
possible values are:

Floating point > 0.0

Keywords: STG, STRUCTURED

stgLengthFactors

MFloat FvStructuredSolver::m_stgLengthFactors
default = 1.0, 0.6, 1.5

The factor to scale the length scales
in each coordinate direction with. For higher
Reynolds number the values [1.0, 0.5, 1.4]
produce better results.
possible values are:

Float<3> > 0.0

Keywords: STG, STRUCTURED

stgRSTFactors

MFloat FvStructuredSolver::m_stgRSTFactors
default = 1.0, 0.6, 1.5

The factor to scale the length scales
in each coordinate direction with. For higher
Reynolds number the values [1.0, 0.5, 1.4]
produce better results.
possible values are:

Float<3> > 0.0

Keywords: STG, STRUCTURED

stgMaxNoEddies

MFloat FvStructuredSolver::m_stgMaxNoEddies
default = 200

Number of Eddies in the STG virtual box.
possible values are:

Integer > 0

Keywords: STG, STRUCTURED

stgExple

MFloat FvStructuredSolver::m_stgExple
default = 0.5

Exponent of the STG LengthScale law.
possible values are:

Floating point > 0.0

Keywords: STG, STRUCTURED

stgEddieDistribution

MFloat FvStructuredSolver::m_stgEddieDistribution
default = 1.0

Shift die eddie distribution more to the wall
or boundary layer edge.
possible values are:

Floating point > 0.0

Keywords: STG, STRUCTURED

stgCreateNewEddies

MFloat FvStructuredSolver::m_stgCreateNewEddies
default = 0

Enforces the creation of all new eddies in STG virtual box
or boundary layer edge.
possible values are:

true/false

Keywords: STG, STRUCTURED

stgInitialStartup

MFloat FvStructuredSolver::m_stgInitialStartup
default = 0

Initialize STG Method at Startup
possible values are:

true/false

Keywords: STG, STRUCTURED

stgEddieLengthScales

MFloat FvStructuredSolver::m_stgEddieLengthScales
default = 0

Connect length scales to eddies, not cells.
possible values are:

true/false

Keywords: STG, STRUCTURED

stgShapeFunction

MFloat FvStructuredSolver::m_stgFunction
default = 4

Shape function to be used in STG method.
possible values are:

Integer >= 0

Keywords: STG, STRUCTURED

initialStartup2600

MFloat FvStructuredSolver::m_bc2600InitialStartup
default = 0

Trigger to indicate the initial start of the BC 2600
load the value from the field into the BC field.
possible values are:

true/false

Keywords: BC2600, STRUCTURED

initialStartup2601

MFloat FvStructuredSolver::m_bc2601InitialStartup
default = 0

Trigger to indicate the initial start of the BC 2601
load the value from the field into the BC field.
possible values are:

true/false

Keywords: BC2601, STRUCTURED

gammaEpsilon2601

MFloat FvStructuredSolver::m_bc2601GammaEpsilon
default = 0

Gamma Epsilon value for the BC2601
Keywords: BC2601, STRUCTURED

zonal

MFloat FvStructuredSolver::m_zonal
default = 0

Trigger a zonal computation.
possible values are:

true/false

Keywords: ZONAL, STRUCTURED

fullRANS

MBool fullRANS
default = 0

Trigger a zonal computation.
possible values are:

true/false

Keywords: RANS, ZONAL, STRUCTURED

noRansZones

MInt noRansZones
default = 0

Number of zones (solvers) with RANS.
possible values are:

Integer >= 0

Keywords: RANS, ZONAL, STRUCTURED

ransZone

MInt[noRansZones] ransZones
default = 0

IDs of the RANS solvers.
possible values are:

Integer >= 0

Keywords: RANS, ZONAL, STRUCTURED

restartVariableFileName

MInt FvStructuredSolver::loadRestartFile
default = 0

Name of the specific restart file.
Possible values are:

string

Keywords: RESTART, STRUCTURED

restartTimeStep

MInt FvStructuredSolver::loadRestartFile
default = 0

Start Iteration of the specific restart file.
Possible values are:

integer

Keywords: RESTART, STRUCTURED

fscX0

MFloat FvStructuredSolver::m_fsc_x0
default = none

x_0 of the fsc boundary layer, e.g., $(x/x_0)^m$ Possible values are:

larger zero

Keywords: FINITE_VOLUME, LAMINAR_BOUNDARY_LAYER

fscDX0

MFloat FvStructuredSolver::m_fsc_dx0
default = F0

x coordinate of x_0 in maia coordinates Possible values are:

whatever you want

Keywords: FINITE_VOLUME, LAMINAR_BOUNDARY_LAYER

fscY0

MFloat FvStructuredSolver::m_fsc_y0
default = F0

y position of the fsc boundary layer no-slip surface Possible values are:

whatever you want

Keywords: FINITE_VOLUME, LAMINAR_BOUNDARY_LAYER

waveLength

MInt FvStructuredSolver::m_waveLength
default = 1.0

Wavelength of the traveling wave.
Possible values are:

Float > 0.0

Keywords: WAVE, MOVING, STRUCTURED

waveAmplitude

MInt FvStructuredSolver::m_waveAmplitude
default = 1.0

Amplitude of the traveling wave.
Possible values are:

Float > 0.0

Keywords: WAVE, MOVING, STRUCTURED

waveTime

MInt FvStructuredSolver::m_waveTime
default = 1.0

Period time of the traveling wave.
Possible values are:

Float > 0.0

Keywords: WAVE, MOVING, STRUCTURED

waveYBeginTransition

MInt FvStructuredSolver::m_waveYBeginTransition
default = 1.0

End of the transition from wave to flat in x-dir.
Possible values are:

Float

Keywords: WAVE, MOVING, STRUCTURED

waveYEndTransition

MInt FvStructuredSolver::m_waveYEndTransition
default = 1.0

End of the transition from wave to flat in x-dir.
Possible values are:

Float

Keywords: WAVE, MOVING, STRUCTURED

waveTemporalTransition

MInt FvStructuredSolver::m_waveOutEndTransition
default = 500.0

Acoustic time for wave actuation to transiate from flat plate
to fully extended.
Possible values are:

Float

Keywords: WAVE, MOVING, STRUCTURED

waveAmplitudePressure

MInt FvStructuredSolver::m_waveAmplitudePressure

‍origin/improvedPartitioning default = 1.0

Amplitude of the traveling wave.
Possible values are:

Float > 0.0

Keywords: WAVE, MOVING, STRUCTURED

waveBeginTransition

MInt FvStructuredSolver::m_waveBeginTransition
default = 1.0

Start of the transition from flat to wave in x-dir.
Possible values are:

Float

Keywords: WAVE, MOVING, STRUCTURED

waveEndTransition

MInt FvStructuredSolver::m_waveEndTransition
default = 1.0

End of the transition from flat to wave in x-dir.
Possible values are:

Float

Keywords: WAVE, MOVING, STRUCTURED

waveOutBeginTransition

MInt FvStructuredSolver::m_waveOutBeginTransition
default = 1.0

Start of the transition from wave to flat in x-dir.
Possible values are:

Float

Keywords: WAVE, MOVING, STRUCTURED

waveOutEndTransition

MInt FvStructuredSolver::m_waveOutEndTransition
default = 1.0

End of the transition from wave to flat in x-dir.
Possible values are:

Float

Keywords: WAVE, MOVING, STRUCTURED

oscAmplitude

MInt FvStructuredSolver::m_oscAmplitude
default = 1.0

Amplitude of the oscillating cylinder motion.
Possible values are:

Float > 0.0

Keywords: MOVING, STRUCTURED

ransMethod

RansMethod FvStructuredSolver2DRans::m_ransMethod
default = 1.0

Name of the RANS method to be used.
Possible values are:

RANS_SA_DV

Keywords: RANS, STRUCTURED

venkFactor

MInt FvStructuredSolver::m_venkFactor
default = 0

Factor for the Venkatakrishnan Limiter.
Possible values are:

Float > 0.0

Keywords: LIMITER, STRUCTURED

interpolationCorrection

MBool interpolationCorrection
default = 0

Trigger a manual correction of the interpolation
from a donor grid.
Possible values are:

true/false

Keywords: LIMITER, STRUCTURED

tripDelta1

MInt FvStructuredSolver::m_tripDelta1
default = 1.0

Delta1 boundary layer thickness at position of tripping.
Possible values are:

Float > 0.0

Keywords: TRIP, BOUNDARYLAYER, STRUCTURED

tripXOrigin

MInt FvStructuredSolver::m_tripXOrigin
default = 30.0

Streamwise center position of the trip forcing.
Possible values are:

Float <> 0.0

Keywords: TRIP, BOUNDARYLAYER, STRUCTURED

tripXLength

MInt FvStructuredSolver::m_tripXLength
default = 1.0

Streamwise extent of the trip forcing as a factor of delta1.
Possible values are:

Float > 0.0

Keywords: TRIP, BOUNDARYLAYER, STRUCTURED

tripYOrigin

MInt FvStructuredSolver::m_tripYOrigin
default = 0.5

Wall-normal center position of the trip forcing.
Possible values are:

Float > 0.0

Keywords: TRIP, BOUNDARYLAYER, STRUCTURED

tripYHeight

MInt FvStructuredSolver::m_tripYHeight
default = 0.5

Wall-normal extent of the trip forcing.
Possible values are:

Float > 0.0

Keywords: TRIP, BOUNDARYLAYER, STRUCTURED

tripCutoffZ

MInt FvStructuredSolver::m_tripCutoffZ
default = 0.5

Cutoff length in z-direction, all wavenumbers higher than 2*PI*cutoffZ will be set to zero. Relative value of delta1
Possible values are:

Float > 0.0

Keywords: TRIP, BOUNDARYLAYER, STRUCTURED

tripMaxAmpSteady

MInt FvStructuredSolver::m_tripMaxAmpSteady
default = 0.0

Strength of the steady forcing amplitude.
Possible values are:

Float >= 0.0

Keywords: TRIP, BOUNDARYLAYER, STRUCTURED

tripMaxAmpFluc

MInt FvStructuredSolver::m_tripMaxAmpFluc
default = 0.005

Strength of the fluctuating forcing amplitude.
Possible values are:

Float > 0.0

Keywords: TRIP, BOUNDARYLAYER, STRUCTURED

tripDeltaTime

MInt FvStructuredSolver::m_tripDeltaTime
default = 2.0

Delta t of the tripping, i.e. the
time step to change the Fourier coeffients.
Possible values are:

Float > 0.0

Keywords: TRIP, BOUNDARYLAYER, STRUCTURED

waveLengthPlus

MInt FvStructuredSolver::m_waveLengthPlus
default = 1.0

Wavelength of the traveling wave in inner units.
Possible values are:

Float > 0.0

Keywords: WAVE, MOVING, STRUCTURED

waveAmplitudePlus

MInt FvStructuredSolver::m_waveAmplitudePlus
default = 1.0

Amplitude of the traveling wave in inner units.
Possible values are:

Float > 0.0

Keywords: WAVE, MOVING, STRUCTURED

waveTimePlus

MInt FvStructuredSolver::m_waveTimePlus
default = 1.0

Period time of the traveling wave in inner units.
Possible values are:

Float > 0.0

Keywords: WAVE, MOVING, STRUCTURED

waveAngle

MInt FvStructuredSolver::m_waveAngle
default = 1.0

Angle of the wave.
Possible values are:

Degrees of angle as a Float

Keywords: WAVE, MOVING, STRUCTURED

waveAmplitudeSuction

MInt FvStructuredSolver::m_waveAmplitudeSuction
default = 1.0

Amplitude of the traveling wave on the airfoil suction side.
Possible values are:

Float > 0.0

Keywords: WAVE, MOVING, STRCTRD

waveAmplitudePressure

MInt FvStructuredSolver::m_waveAmplitudePressure
default = 1.0

Amplitude of the traveling wave on the airfoil suction side.
Possible values are:

Float > 0.0

Keywords: WAVE, MOVING, STRCTRD

wavePenetrationHeight

MInt FvStructuredSolver::m_wavePenetrationHeight
default = 1.0

Period time of the traveling wave.
Possible values are:

Float > 0.0

Keywords: WAVE, MOVING, STRUCTURED

forceField

MString FvStructuredSolver::m_waveForceField
default = "./out"

Distribution of the forcing strenth.
Keywords: SOLUTION, IO, STRUCTURED

ransMethod

MInt FvStructuredSolver3DRans::m_ransMethod
default = 1.0

Name of the RANS method to be used.
Possible values are:

RANS_SA_DV

Keywords: RANS, STRUCTURED

gridInputFileName

MString StructuredGrid::m_gridInputFileName
default = ""

Name of the grid file.
Keywords: GRID, STRUCTURED

readPartitionFromFile

MBool StructuredGrid::m_readDecompositionFromFile
default = 0

Trigger the use to read the MPI partitioning from a file (faster).
possible values are:

0 : deactivated
1 : activated

Keywords: PARALLEL, PARTITIONING, STRUCTURED