%

%ABAQUS_AVMidpointIntplNode%
%ABAQUS_AVMidpointShpdNode%
%ABAQUS_IntplMidpoint%
%ABAQUS_IntplNode%
%ABAQUS_ShpdMidpoint%
%ABAQUS_ShpdMidpointShpdNode%
%ABAQUS_ShpdNode%
%ACTIVE_always% active during simulation
%ACTIVE_always% active during simulation
%ACTIVE_function% active during simulation by trigger function
%ACTIVE_function% active during simulation by trigger function
%ACTIVE_init% active during initial filling
%ACTIVE_init% active during initial filling
%ACTIVE_interval% active during simulation in time intervals
%ACTIVE_interval% active during simulation in time intervals
%ACTIVE_nofill% only visible during initial filling
%ACTIVE_nofill% only visible during initial filling
%ACTIVE_noinit% not active during initial filling
%ACTIVE_noinit% not active during initial filling
%AND%
%ASSIGN_FUNCTIONVALUE% assign a function value to selected MESHFREE points
%ASSIGN_FUNCTIONVALUE%
%AVERAGE_BND% average of a functional based on all MESHFREE boundary points with respect to given boundary elements
%AVERAGE_BND%
%AVERAGE_FS% average of a functional based on all MESHFREE free surface points with respect to given material flags
%AVERAGE_FS%
%AVERAGE_INT% average of a functional based on all MESHFREE points with respect to given material flags
%AVERAGE_INT%
%AVERAGE_MP% average of a functional based on all non-irreducible monitor points with respect to given material flags
%AVERAGE_MP%
%AVERAGE_XYPLANE%
%BCON_CG%
%BCON_E_tot%
%BCON_Ma%
%BCON_Mdot% velocity boundary condition: mass flux
%BCON_Mdot%
%BCON_PAMCRASH_CG%
%BCON_PAMCRASH_Mdot%
%BCON_PAMCRASH_RG%
%BCON_PAMCRASH_T%
%BCON_RG%
%BCON_T%
%BCON_T_tot%
%BCON_Vdot% velocity boundary conditions: volume flux
%BCON_Vdot%
%BCON_contact%
%BCON_explicit%
%BCON_far_field%
%BCON_free%
%BCON_free_NoVisc%
%BCON_implicit%
%BCON_inflow%
%BCON_none%
%BCON_outflow%
%BCON_p%
%BCON_p_tot%
%BCON_rho%
%BCON_rho_va%
%BCON_rho_vb%
%BCON_rho_vn%
%BCON_s%
%BCON_s_ini%
%BCON_slip%
%BCON_va%
%BCON_vb%
%BCON_visc%
%BCON_vn%
%BCON_wall% wall boundary condition for turbulence-eps
%BCON_wall% wall boundary condition for turbulence-k
%BCON_wall%
%BCON_wall_nosl%
%BNDSLIP_ReprojectedAfterPassingOpenEdge% mark state of slip movement of MESHFREE points along boundary
%BNDSLIP_TearOffAtOpenEdge% mark state of slip movement of MESHFREE points along boundary
%BNDSLIP_TearOffAtRegularEdge% mark state of slip movement of MESHFREE points along boundary
%BND_AVERAGE% weighted average from the inner points
%BND_AVERAGE% hydrostatic pressure boundary conditions: average of neighbors (Neumann type)
%BND_AVERAGE% weighted average of the pressure values in the neighborhood of the boundary point
%BND_AVERAGE%
%BND_BNDDOT%
%BND_BlindAndEmpty%
%BND_CAUCHY% Cauchy boundary condition
%BND_CAUCHY%
%BND_COLLISION% velocity boundary condition to represent collisions
%BND_COLLISION%
%BND_COULOMB_SLIDE%
%BND_COULOMB_SLIP%
%BND_COULOMB_STICK%
%BND_DIRICH% Dirichlet velocity boundary condition
%BND_DIRICH% user provided values for turbulent wall stress
%BND_DIRICH% Dirichlet boundary condition for stress tensor
%BND_DIRICH% Dirichlet velocity boundary condition
%BND_DIRICH% temperature Dirichlet boundary condition
%BND_DIRICH% Dirichlet boundary condition for turbulence-eps
%BND_DIRICH% Dirichlet boundary condition for turbulence-k
%BND_DIRICH% classical Dirichlet condition (prescribe the function value at the boundary)
%BND_DIRICH%
%BND_DRYFRICTION% friction boundary condition for stress tensor
%BND_DRYFRICTION%
%BND_DRYFRICTION_InContact%
%BND_FRICTION% friction boundary condition for stress tensor
%BND_FRICTION%
%BND_HEATFLUX%
%BND_HELMHOLTZ%
%BND_IGES%
%BND_IGES_curve%
%BND_IGES_ignore%
%BND_IGES_surface%
%BND_IGES_trafo%
%BND_INTERPHASE%
%BND_INTERPHASE_dfdn%
%BND_INTERPHASE_f%
%BND_LAPLAC%
%BND_Manifold_Free%
%BND_Manifold_Interior%
%BND_Manifold_Slip%
%BND_NEUMANN% Neumann velocity boundary condition
%BND_NEUMANN% temperature Neumann boundary condition
%BND_NEUMANN% Neumann boundary condition for turbulence-eps
%BND_NEUMANN% Neumann boundary condition for turbulence-k
%BND_NEUMANN% Neumann boundary conditions for the pressure (require a dedicated slope of the function in normal direction)
%BND_NEUMANN%
%BND_NEUMANN_DIRICHLET%
%BND_NUSSEL% Nusselt velocity boundary condition
%BND_NUSSEL% temperature Nusselt boundary condition
%BND_NUSSEL% Nusselt boundary condition for turbulence-eps
%BND_NUSSEL% Nusselt boundary condition for turbulence-k
%BND_NUSSEL%
%BND_RADIATION% applies heat flux at the boundary due to radiation
%BND_RADIATION%
%BND_ROBIN% Robin boundary condition
%BND_ROBIN%
%BND_SYSTUS%
%BND_VONNEU% Velocity Neumann boundary condition
%BND_VONNEU% temperature Neumann boundary condition
%BND_VONNEU% Neumann boundary condition for turbulence-eps
%BND_VONNEU% Neumann boundary condition for turbulence-k
%BND_VONNEU% Neumann boundary conditions for the pressure (require a dedicated slope of the function in normal direction)
%BND_VONNEU%
%BND_arcl%
%BND_arcs%
%BND_blind%
%BND_contact%
%BND_contact_Explicit%
%BND_contact_MRF%
%BND_corner%
%BND_count_BE% current number of boundary elements belonging to the geometry
%BND_count_BE% parameter for the real()-function (equation parser)
%BND_count_NP% current number of node points belonging to the geometry
%BND_count_NP% parameter for the real()-function (equation parser)
%BND_cube%
%BND_cut% cutting off points at metaplanes if used as IDENT
%BND_cylinder%
%BND_disk%
%BND_edge%
%BND_far_field% far-field velocity boundary condition
%BND_far_field% far-field temperature boundary condition
%BND_far_field%
%BND_fixed%
%BND_free% free surface boundary condition for stress tensor
%BND_free% free surface boundary condition for velocities
%BND_free% free surface boundary condition for temperature
%BND_free% free surface boundary condition for turbulence-eps
%BND_free% free surface boundary condition for turbulence-k
%BND_free% hydrostatic pressure free surface boundary condition
%BND_free% direct dynamic pressure boundary conditions at free surface
%BND_free%
%BND_free_Barodesy%
%BND_free_HypoPlast%
%BND_free_InContact% Implicit interphase condition for free surface with opposite phase
%BND_free_InContact% interface boundary conditions for dynamic pressure on the strong side
%BND_free_InContact%
%BND_free_InContact_Explicit% Explicit interphase condition for free surface with opposite phase.
%BND_free_InContact_Explicit% hydrostatic pressure contact boundary conditions for the case the contact phase is the light phase
%BND_free_InContact_Explicit%
%BND_free_NoVisc% non-viscous boundary condition for velocities
%BND_free_NoVisc%
%BND_free_implicit% direct dynamic pressure boundary conditions at free surface
%BND_free_implicit%
%BND_free_implicit_InContact%
%BND_free_implicit_InContact_Explicit%
%BND_free_implicit_InContact_explicit% direct dynamic pressure boundary conditions at phase boundary
%BND_inflow% inflow velocity boundary condition (Dirichlet type)
%BND_inflow% temperature inflow boundary condition
%BND_inflow% inflow boundary condition for turbulence-eps
%BND_inflow% inflow boundary condition for turbulence-k
%BND_inflow% hydrostatic pressure boundary conditions: inflow condition
%BND_inflow% quasi-stationary dynamic pressure boundary condition
%BND_inflow%
%BND_line%
%BND_node%
%BND_none% homogeneous Dirichlet velocity boundary condition
%BND_none% treat the boundary point as if it would be an interior point
%BND_none%
%BND_outflow% velocity outflow boundary condition
%BND_outflow% temperature outflow boundary condition
%BND_outflow% hydrostatic pressure outflow boundary condition
%BND_outflow% relaxed Dirichlet conditions, penalize differences between the current and the requested boundary values
%BND_outflow%
%BND_plane%
%BND_point%
%BND_quad%
%BND_slip% Slip liquid layers for Dropletphase
%BND_slip% slip boundary condition for stress tensor
%BND_slip% velocity boundary conditions: slip with viscous friction
%BND_slip% hydrostatic pressure boundary conditions: classical wall
%BND_slip% direct dynamic pressure boundary conditions
%BND_slip%
%BND_slip_InContact% pressure contact boundary conditions for the case the contact phase is the heavy phase
%BND_slip_InContact% interface boundary condition on the weak side
%BND_slip_InContact% velocity boundary conditions at interfaces, implicit
%BND_slip_InContact%
%BND_slip_InContact_Explicit% hydrostatic pressure boundary condition for the case that the contact phase is the heavy phase
%BND_slip_InContact_Explicit% velocity boundary conditions at interfaces, explicit
%BND_slip_InContact_Explicit%
%BND_slip_average%
%BND_tria%
%BND_tria6N%
%BND_void%
%BND_wall% wall boundary condition for stress tensor
%BND_wall% velocity boundary conditions: pure slip
%BND_wall% temperature wall boundary condition
%BND_wall% wall boundary condition for turbulence-eps
%BND_wall% wall boundary condition for turbulence-k
%BND_wall% hydrostatic pressure boundary conditions: classical wall
%BND_wall% quasi-stationary dynamic pressure boundary condition
%BND_wall%
%BND_wall_InContact% pressure contact boundary conditions for the case the contact phase is the heavy phase
%BND_wall_InContact%
%BND_wall_InContact_Explicit% contact velocity wall boundary condition
%BND_wall_InContact_Explicit% hydrostatic pressure boundary condition for the case that the contact phase is the heavy phase
%BND_wall_InContact_Explicit%
%BND_wall_NoLayerThickness%
%BND_wall_nosl% no slip boundary condition for stress tensor
%BND_wall_nosl% velocity boundary conditions: pure no-slip
%BND_wall_nosl% temperature wall no-slip boundary condition
%BND_wall_nosl% no-slip wall boundary condition for turbulence-eps
%BND_wall_nosl% no-slip wall boundary condition for turbulence-k
%BND_wall_nosl% hydrostatic pressure boundary conditions: classical wall
%BND_wall_nosl% quasi-stationary dynamic pressure boundary condition
%BND_wall_nosl%
%BNDpoints_ExtractFromNodes%
%BOUNDARYFILLING_Always%
%BOUNDARYFILLING_Never%
%BOUNDARYFILLING_OnlyIfActiveItself%
%BOUNDARYFILLING_OnlyInActiveNeighborhood%
%BUBBLE_EQN_DynamicPressure% current dynamic bubble pressure for given bubble index
%BUBBLE_EQN_DynamicPressure% parameter for the real()-function (equation parser)
%BUBBLE_EQN_TruePressure% true bubble pressure for given bubble index
%BUBBLE_EQN_TruePressure% parameter for the real()-function (equation parser)
%CHAMBER_BGK%
%CHAMBER_DROPLETPHASE%
%CHAMBER_Euler%
%CHAMBER_EulerExpl%
%CHAMBER_GASDYN%
%CHAMBER_IT_v00%
%CHAMBER_IT_vp0%
%CHAMBER_KEPS%
%CHAMBER_KOMEGA%
%CHAMBER_LIQUID%
%CHAMBER_Lagrange%
%CHAMBER_LineUp%
%CHAMBER_MANIFOLD%
%CHAMBER_NoLineUp%
%CHAMBER_None%
%CHAMBER_PARTICLEPHASE%
%CHAMBER_POPBAL%
%CHAMBER_SHALLOWWATER%
%CHAMBER_STANDBY%
%CHAMBER_TM_BDF2%
%CHAMBER_TM_EXPLICIT%
%CHAMBER_TM_IMPLICIT%
%CHAMBER_TM_MENTERSST%
%CHAMBER_TM_REALIZABLE%
%CHAMBER_TM_RNG%
%CHAMBER_TM_STANDARD%
%CHAMBER_TM_WILCOX%
%CLOCK_STATISTICS_FLIQUID% CLOCK time measured for the execution of the (pure) MESHFREE numerics at the current time step
%CLOCK_STATISTICS_FLIQUID% parameter for the real()-function (equation parser)
%CLOCK_STATISTICS_ORGANIZE% CLOCK time measured for the execution of the MESHFREE organization (point cloud management, geometry operations) at the current time step
%CLOCK_STATISTICS_ORGANIZE% parameter for the real()-function (equation parser)
%CLOCK_STATISTICS_TOTAL_FLIQUID% CLOCK time summed over all MESHFREE points and the entire simulation time of the (pure) MESHFREE numerics
%CLOCK_STATISTICS_TOTAL_FLIQUID% parameter for the real()-function (equation parser)
%CLOCK_STATISTICS_TOTAL_ORGANIZE% CLOCK time summed over all MESHFREE points and the entire simulation time of the MESHFREE organization
%CLOCK_STATISTICS_TOTAL_ORGANIZE% parameter for the real()-function (equation parser)
%CLOCK_STATISTICS_TOTAL_SAMG% CLOCK time for SAMG (BETA! USE WITH CAUTION!)
%CLOCK_STATISTICS_TOTAL_SAMG% parameter for the real()-function (equation parser)
%CLUSTER_ReducedProperties_Bisection% keyword for the functionality CLUSTER_ReducedProperties
%CLUSTER_ReducedProperties_MAX% keyword for the functionality CLUSTER_ReducedProperties
%CLUSTER_ReducedProperties_MIN% keyword for the functionality CLUSTER_ReducedProperties
%CLUSTER_ReducedProperties_SUM% keyword for the functionality CLUSTER_ReducedProperties
%CLUSTER_ReducedProperties_WAVG% keyword for the functionality CLUSTER_ReducedProperties
%CODI_BDF2% second order BDF2 scheme for time integration of CODI
%CODI_CrankNicolson% second order Crank-Nicolson scheme for time integration of CODI
%CODI_EULER_ONLY_UserDefinedVelocity%
%CODI_explicit% explicit Euler for time integration of CODI
%CODI_implicit% implicit Euler for time integration of CODI
%CONSTRUCT_Area% area of given alias-entities
%CONSTRUCT_Area%
%CONSTRUCT_BoxMax% maximum of enclosing box around given alias-entities
%CONSTRUCT_BoxMax%
%CONSTRUCT_BoxMidPoint% mid point of enclosing box around given alias-entities
%CONSTRUCT_BoxMidPoint%
%CONSTRUCT_BoxMidPoint_Abs%
%CONSTRUCT_BoxMin% minimum of enclosing box around given alias-entities
%CONSTRUCT_BoxMin%
%CONSTRUCT_COG% center of gravity for given alias-entities
%CONSTRUCT_COG%
%CONSTRUCT_EstablishCurveVolumeVersusHeight% establish a 2-row-curve that provides the height-volume-relation of a closed part of geometry
%CONSTRUCT_EstablishCurveVolumeVersusHeight%
%CONSTRUCT_IncludeIGESfaces% provoke usage of IGES faces in CONSTRUCT statements
%CONSTRUCT_Normal% normal with respect to given alias-entities
%CONSTRUCT_Normal%
%CONSTRUCT_NormalDividedByArea% area-averaged normal with respect to given alias-entities
%CONSTRUCT_NormalDividedByArea%
%CONSTRUCT_PointBasedOnAbsoluteVolume% Computes a point that defines a given volume inside a closed structure
%CONSTRUCT_PointBasedOnAbsoluteVolume%
%CONSTRUCT_PointBasedOnRelativeVolume% compute a point that defines a given volume inside a closed structure
%CONSTRUCT_PointBasedOnRelativeVolume%
%CONSTRUCT_Tangent1% first tangent with respect to given normal vector and alias-entities
%CONSTRUCT_Tangent1%
%CONSTRUCT_Tangent2% second tangent with respect to given normal vector and alias-entities
%CONSTRUCT_Tangent2%
%CONSTRUCT_Volume% volume of a (necessarily) closed geometrical part
%CONSTRUCT_Volume%
%CONSTRUCT_VolumeForGivenHeight% compute the volume of a closed body restricted by a certain height
%CONSTRUCT_VolumeForGivenHeight%
%CONVERT_TO_INTEGER% convert a set of construct variables to integer
%CONVERT_toInteger%
%COORDTRANS_LSDYNA%
%COORDTRANS_cone%
%COORDTRANS_linear%
%COORDTRANS_radial%
%COORDTRANS_ring%
%COORDTRANS_spherical%
%COUPLE_PAM%
%COUPLE_SYSTUS%
%CPU_STATISTICS_FLIQUID% CPU time measured for the execution of the (pure) MESHFREE numerics at the current time step
%CPU_STATISTICS_FLIQUID% parameter for the real()-function (equation parser)
%CPU_STATISTICS_ORGANIZE% CPU time measured for the execution of the MESHFREE organization (point cloud management, geometry operations) at the current time step
%CPU_STATISTICS_ORGANIZE% parameter for the real()-function (equation parser)
%CPU_STATISTICS_TOTAL_FLIQUID% CPU time summed over all MESHFREE points and the entire simulation time of the (pure) MESHFREE numerics
%CPU_STATISTICS_TOTAL_FLIQUID% parameter for the real()-function (equation parser)
%CPU_STATISTICS_TOTAL_ORGANIZE% CPU time summed over all MESHFREE points and the entire simulation time of the MESHFREE organization
%CPU_STATISTICS_TOTAL_ORGANIZE% parameter for the real()-function (equation parser)
%CUMU_ASSIGN% assign a value to a monitor item along the boundary
%CUMU_ASSIGN%
%CUMU_AVERAGE%
%CUMU_INTERVAL% cumulate the monitor values of newly created monitor points on the BE a save interval is finished
%CUMU_INTERVAL%
%CUMU_MAXIMUM%
%CUMU_MINIMUM%
%CUMU_NONE% do not cumulate the monitor values on the boundary elements (BE)
%CUMU_NONE%
%CUMU_SIMULATION% cumulate the monitor values of newly created monitor points on the BE throughout the simulation
%CUMU_SIMULATION%
%CUMU_SMOOTH% smooth monitor items along the boundary in every time step
%CUMU_SMOOTH%
%CUMU_SMOOTH_AreaBased% smooth monitor items along the boundary in every time step
%CUMU_SMOOTH_AreaBased%
%CUMU_SMOOTH_StopAtEdges%
%CUMU_SUMMATION%
%CUMU_USER_INTERVAL%
%ConsistencyChecksAtStartup_STOP% stop MESHFREE if the consistency check applies
%ConsistencyChecksAtStartup_STOP%
%ConsistencyChecksAtStartup_WARNING% write a message in the warnings file if the consistency check applies
%ConsistencyChecksAtStartup_WARNING%
%CouplingBFT_OtherSimulation_IsFPM% other running (coupled) simulation is MESHFREE
%CouplingBFT_OtherSimulation_IsFPM%
%CouplingBFT_RequestMyselfToWait% request myself (current simulation) to wait for another running simulation
%CouplingBFT_RequestMyselfToWait%
%CouplingBFT_RequestOtherProcessToWait% request another running simulation to wait for myself
%CouplingBFT_RequestOtherProcessToWait%
%DIFFOP_gradient_DELAUNAY%
%DIFFOP_gradient_GASDYN%
%DIFFOP_gradient_MLS%
%DIFFOP_laplace_DELAUNAY_VORONOI%
%DIFFOP_laplace_GASDYN%
%DIFFOP_laplace_LS%
%DIFFOP_laplace_MLS%
%DIFFOP_laplace_optimized%
%DIFFOP_laplace_simplex%
%DPLP_EnergyFactor% keyword for DROPLETPHASE_LockedPoints - functions
%DPLP_ForceDetachment% keyword for DROPLETPHASE_LockedPoints - functions
%DPLP_FrictionCoeff% keyword for DROPLETPHASE_LockedPoints - functions
%DPLP_LockedPointJustDetached% keyword for DROPLETPHASE_LockedPoints - functions
%DPLP_ModificationsUponCollision% keyword for DROPLETPHASE_LockedPoints - functions
%DPLP_ModificationsUponDetachment% keyword for DROPLETPHASE_LockedPoints - functions
%DPLP_ReflexionAngleDeviation% keyword for DROPLETPHASE_LockedPoints - functions
%DropletSource_Multiplicity% optional parameter for the DropletSource
%DropletSource_ParcelRate% optional parameter for the DropletSource
%DropletSource_ParcelSize% optional parameter for the DropletSource
%DropletSource_doNotCreateDropletsOutside% optional parameter for the DropletSource
%DropletSource_provideCounter% current status of the droplet counter of a given/defined DropletSource
%DropletSource_provideCounter% parameter for the real()-function (equation parser)
%DropletSource_provideCurrentVolume% current status of the actually injected volume by a given/defined DropletSource
%DropletSource_provideCurrentVolume% parameter for the real()-function (equation parser)
%DropletSource_provideTargetVolume% current status of the target volume of a given/defined DropletSource
%DropletSource_provideTargetVolume% parameter for the real()-function (equation parser)
%DropletSource_triggerByPoints% argument for DropletSource
%EQN_BEmap_ClosestPoint% Map value of closest point on BE
%EQN_BEmap_Shephard% Map Shepard interpolation over points on BE
%EQN_BEmap_Sum% Map sum over points on BE
%EQN_JOINT_F(1)%
%EQN_JOINT_F(2)%
%EQN_JOINT_F(3)%
%EQN_JOINT_M(1)%
%EQN_JOINT_M(2)%
%EQN_JOINT_M(3)%
%EQN_JOINT_x(1)%
%EQN_JOINT_x(2)%
%EQN_JOINT_x(3)%
%EQN_KEPS_minAlphaH% estimate of boundary layer thickness
%EQN_KEPS_minAlphaH% argument of the Y()-function in the equation parser
%EQN_KEPS_yStar% nondimensional position in turbulent layer (y_star)
%EQN_KEPS_yStar% argument of the Y()-function in the equation parser
%EQN_Proj_ALL% projection of a MESHFREE-entity from a different chamber using all types of points (interior and boundary)
%EQN_Proj_BND% projection of a MESHFREE-entity from a different chamber using only boundary points
%EQN_Proj_INT% projection of a MESHFREE-entity from a different chamber using only interior points
%EQN_Reduct_Accumulated%
%EQN_Reduct_iCluster%
%EQN_SolidAngle% POINTWISE evaluation!!! currently EXPERIMENTAL!!! Delivering the solid angle formed by the surrounding tetras of some point
%EQN_SolidAngle% compute the solid angle formed by the surrounding tetras of the point
%EQN_SolidAngle% argument of the Y()-function in the equation parser
%EQN_d% abbreviation for %EQN_default%
%EQN_default% enforce default values for optional parameters in equations
%EQN_locop_gapsize% parameter for equation-function locop()
%EQN_locop_lap% parameter for equation-function locop()
%EQN_locop_max% parameter for equation-function locop()
%EQN_locop_min% parameter for equation-function locop()
%EQN_locop_quality% parameter for equation-function locop()
%EQN_locop_sum% parameter for equation-function locop()
%EQN_nbsum_filtered% Select filtered list
%EQN_nbsum_nonfiltered% Select non-filtered list
%EQN_opDrPh_Diffusion% parameter for equation-function opDrPh
%EQN_opDrPh_Momentum% parameter for equation-function opDrPh
%EVENT_AbortFPM% abort MESHFREE event handle
%EVENT_AbortFPM%
%EVENT_ChooseSaveEnvironment%
%EVENT_DataProjection% event handle to project data from other parts of the geometry
%EVENT_DataProjection%
%EVENT_DeletePoint% deletion of point event handle
%EVENT_DeletePoint%
%EVENT_DeleteResume% write resume event handle
%EVENT_DeleteResume%
%EVENT_FunctionManipulation% pointwise function manipulation event handle
%EVENT_FunctionManipulation%
%EVENT_Message% print message event handle
%EVENT_Message%
%EVENT_Msg% print message event handle
%EVENT_Msg%
%EVENT_PerformAfterHowManyTimeCycles% cycle of event execution
%EVENT_PerformAfterHowManyTimeCycles%
%EVENT_PublicTrigger% evaluate event trigger as public expression
%EVENT_PublicTrigger%
%EVENT_SaveResults% save computational results event handle
%EVENT_SaveResults%
%EVENT_StopFPM% stop MESHFREE event handle
%EVENT_StopFPM%
%EVENT_WriteRestart% write restart event handle
%EVENT_WriteRestart%
%EVENT_WriteResume% write resume event handle
%EVENT_WriteResume%
%EVENT_all_PC%
%EVENT_only_PC_STANDBY% evaluate event trigger as public expression
%EVENT_only_PC_STANDBY%
%ElapsedTimeIntegrationCycle% elapsed CPU time for (pure) MESHFREE numerics
%ElapsedTimeIntegrationCycle% parameter for the real()-function (equation parser)
%ElapsedTimePointOrganization% elapsed CPU time for MESHFREE organization
%ElapsedTimePointOrganization% parameter for the real()-function (equation parser)
%EtaGrad_Classical%
%EtaGrad_Identity%
%FLIQUID_NbParticles% current number of ACTIVE MESHFREE points
%FLIQUID_NbParticles% parameter for the real()-function (equation parser)
%FPM_variablename% renamed to %variablename%
%GASDYN_Mass% parameter for the real()-function (equation parser)
%GASDYN_MassAnalytical% parameter for the real()-function (equation parser)
%GASDYN_MassCorrection% parameter for the real()-function (equation parser)
%GASDYN_TotalEnergy% parameter for the real()-function (equation parser)
%GASDYN_TotalEnergyAnalytical% parameter for the real()-function (equation parser)
%GASDYN_TotalEnergyCorrection% parameter for the real()-function (equation parser)
%GEO_Inside%
%GEO_Inside% reorient (parts of) geometry towards its inside
%GEO_Outside%
%GEO_Outside% reorient (parts of) geometry towards its outside
%GEO_RemoveClusterByIndex%
%GEO_RemoveClusterByIndex%
%GEO_RemoveClusterClosestToGivenPoint%
%GEO_RemoveClusterClosestToGivenPoint%
%GEO_Tube% reorient a part of the geometry in the tube sense
%GEO_Tube%
%GEO_Vector% geometry reorientation based on a given vector
%GEO_Vector%
%GEO_close%
%GEO_open%
%GEO_removeBasedOnCOG%
%GEO_removeBasedOnNodes%
%GradtEtaGrad_DerivedOperator%_
%GradtEtaGrad_DirectApproximation%
%GradtEtaGrad_Identity%
%GradtEtaGrad_None%
%GradtEtaGrad_StarStencil%
%HEAT_EQ_1D_BC% optional parameter for temperature boundary condition
%H_constant% constant smoothing length or smoothing length given as equation
%H_constant%
%H_linear% linear smoothing length distribution with respect to a plane
%H_linear%
%H_radial% radial smoothing length distribution with respect to an infinite tube
%H_radial%
%H_ring% annular smooth length distribution with respect to a torus
%H_ring%
%H_spherical% spherical smoothing length distribution around points or geometry elements
%H_spherical%
%IDENT_BlindAndEmpty% invisible flux measurement BE (IDENT)
%IDENT_BlindAndEmpty% BlindAndEmpty IDENT-identifier (CONST)
%IDENT_ThinFilm% wall layer points (IDENT)
%IDENT_blind% distance-only BE
%IDENT_cut% cut-off points at metaplanes (IDENT)
%IDENT_cut% cut IDENT identifier (CONST)
%IDENT_free% free surface BE (IDENT)
%IDENT_free% free surface IDENT identifier (CONST)
%IDENT_inflow% inflow BE (IDENT)
%IDENT_inflow% inflow IDENT identifier (CONST)
%IDENT_locked% State to mark points as locked in DROPLETPHASE
%IDENT_none% inactive BE (IDENT)
%IDENT_none% none IDENT identifier (CONST)
%IDENT_outflow% outflow BE (IDENT)
%IDENT_outflow% outflow IDENT identifier (CONST)
%IDENT_slip% movable wall points BE (IDENT)
%IDENT_slip% slip IDENT identifier (CONST)
%IDENT_void% invisible precision measurement BE (IDENT)
%IDENT_void% void IDENT identifier (CONST)
%IDENT_wall% non-moving wall points BE (IDENT)
%IDENT_wall% wall IDENT identifier (CONST)
%IDENT_wall_NoLayerThickness% non-moving wall points (IDENT)
%IDENT_wall_NoLayerThickness% wall IDENT identifier ignoring dist_LayerThickness (CONST)
%INTEGRATION_ABSFLUX% flux integration of a functional by counting the MESHFREE points that slip over a given control surface independent of the direction
%INTEGRATION_ABSFLUX%
%INTEGRATION_ABSFLUX_TIME% time and flux integration of a functional by counting the MESHFREE points that slip over a given control surface independent of the direction
%INTEGRATION_ABSFLUX_TIME%
%INTEGRATION_BE_DIRECT% surface integration of a scalar value on boundary elements
%INTEGRATION_BE_DIRECT%
%INTEGRATION_BE_DIRECT_TIME% surface and time integration of a scalar value on boundary elements
%INTEGRATION_BE_DIRECT_TIME%
%INTEGRATION_BND% surface integration of a vector valued function along pieces of boundary
%INTEGRATION_BND%
%INTEGRATION_BND_DIRECT% surface integration of a scalar value along pieces of boundary
%INTEGRATION_BND_DIRECT%
%INTEGRATION_BND_DIRECT_Proj_BND% approximation of a functional at a BND_point by MESHFREE interpolation with respect to neighboring boundary points
%INTEGRATION_BND_DIRECT_Proj_BND%
%INTEGRATION_BND_DIRECT_TIME% surface and time integration of a scalar value along pieces of boundary
%INTEGRATION_BND_DIRECT_TIME%
%INTEGRATION_BND_DIRECT_TIME_Proj_BND% time-integrated approximation of a functional at a BND_point by MESHFREE interpolation with respect to neighboring boundary points
%INTEGRATION_BND_DIRECT_TIME_Proj_BND%
%INTEGRATION_BND_OUTSIDE% one-sided surface integration of a vector valued function along pieces of boundary
%INTEGRATION_BND_OUTSIDE%
%INTEGRATION_BND_TIME% surface and time integration of a vector valued function along pieces of boundary
%INTEGRATION_BND_TIME%
%INTEGRATION_Comment% comment/remark specifier for integration statements
%INTEGRATION_FLUX% flux integration of a functional by counting the MESHFREE points that slip over a given control surface
%INTEGRATION_FLUX%
%INTEGRATION_FLUX_DROPLETPHASE% flux integration of a functional by counting the DROPLETPHASE points that slip over a given control surface
%INTEGRATION_FLUX_DROPLETPHASE%
%INTEGRATION_FLUX_IN% flux integration of a functional by counting the newly injected MESHFREE points
%INTEGRATION_FLUX_IN%
%INTEGRATION_FLUX_TIME% time and flux integration of a functional by counting the MESHFREE points that slip over a given control surface
%INTEGRATION_FLUX_TIME%
%INTEGRATION_FS% surface integration of a vector valued function along the free surface
%INTEGRATION_FS%
%INTEGRATION_FS_DIRECT% surface integration of a scalar value along the free surface
%INTEGRATION_FS_DIRECT%
%INTEGRATION_FS_DIRECT_TIME% surface and time integration of a scalar value along the free surface
%INTEGRATION_FS_DIRECT_TIME%
%INTEGRATION_FS_TIME% surface and time integration of a vector valued function along the free surface
%INTEGRATION_FS_TIME%
%INTEGRATION_FilterByTime% trigger the write outs time .timestep files based on intervals of simulation time
%INTEGRATION_FilterByTime%
%INTEGRATION_FilterByTimestepCounter% trigger the write outs time .timestep files based on intervals of number of time steps executed
%INTEGRATION_FilterByTimestepCounter%
%INTEGRATION_Header% header information identifier for INTEGRATION
%INTEGRATION_INT% volume integration of a functional with respect to a given material
%INTEGRATION_INT%
%INTEGRATION_INT_TIME% volume and time integration of a functional with respect to a given material
%INTEGRATION_INT_TIME%
%INTEGRATION_Percentile% restrict integration/min/max to a selected percentile-subset regarding a given function
%INTEGRATION_Remark% comment/remark specifier for integration statements
%INTEGRATION_SkipByTime% skip computation of integrations for a given time interval
%INTEGRATION_SkipByTime%
%INTEGRATION_SkipByTimestepCounter% skip computation of integrations for a number of timesteps
%INTEGRATION_SkipByTimestepCounter%
%INTEGRATION_Values(1)% deprecated
%INTEGRATION_Values(2)% deprecated
%INTEGRATION_Values(3)% deprecated
%INTEGRATION_Values(4)% deprecated
%INTEGRATION_Values(5)% deprecated
%KOP_trans_modification% keyword for KOP_transition - function
%KeepUserValues%
%KineticEnergy% total kinetic energy of a given chamber
%KineticEnergy% parameter for the real()-function (equation parser)
%KineticEnergy_Defect_O2% second order defect of kinetic energy during time integration
%KineticEnergy_Defect_O2% parameter for the real()-function (equation parser)
%KineticEnergy_Defect_gradPv% first order defect of kinetic energy during time integration due to pressure
%KineticEnergy_Defect_gradPv% parameter for the real()-function (equation parser)
%KineticEnergy_Defect_rhogDv% first order defect of kinetic energy during time integration due to gravity
%KineticEnergy_Defect_rhogDv% parameter for the real()-function (equation parser)
%KineticEnergy_DifferenceInOrganize% change of kinetic energy in some chamber during MESHFREE organization
%KineticEnergy_DifferenceInOrganize% parameter for the real()-function (equation parser)
%KineticEnergy_DifferenceInOrganize2% change of kinetic energy in some chamber during MESHFREE organization at the end of the time step
%KineticEnergy_DifferenceInOrganize2% parameter for the real()-function (equation parser)
%KineticEnergy_DifferenceInTimeStep% change of kinetic energy in some chamber during (pure) MESHFREE numerics
%KineticEnergy_DifferenceInTimeStep% parameter for the real()-function (equation parser)
%MASSFLOW_DROPLETPHASE% mass flux integration of a functional by counting the DROPLETPHASE points that are injected at all inflow surfaces
%MASSFLOW_DROPLETPHASE%
%MAXIMUM_BE% maximum of a scalar value with respect to boundary elements
%MAXIMUM_BE%
%MAXIMUM_BENP% (experimental) maximum of a scalar value with respect to boundary node points
%MAXIMUM_BENP%
%MAXIMUM_BND% maximum of a functional based on all MESHFREE boundary points with respect to given boundary elements
%MAXIMUM_BND%
%MAXIMUM_FS% maximum of a functional based on all MESHFREE free surface points with respect to given material flags
%MAXIMUM_FS%
%MAXIMUM_INT% maximum of a functional based on all MESHFREE points with respect to given material flags
%MAXIMUM_INT%
%MAXIMUM_MP% maximum of a functional based on all non-irreducible monitor points with respect to given material flags
%MAXIMUM_MP%
%MED_ADBLUE%
%MED_BARODESY%
%MED_CARREAU%
%MED_DOUGH%
%MED_GLASS%
%MED_HOOK%
%MED_HYPOPLAST%
%MED_JOHNSON_COOK% parameters for calculating viscosity in the Johnson-Cook model
%MED_JOHNSON_COOK% specifier for the Johnson Cook Stress flow stress model
%MED_JOHNSON_COOK_PROJ%
%MED_KAMRIN% A generalized sand model based on the Kamrin paper
%MED_LIQUID_FILM% viscosity definition in liquid films [Pa*s]
%MED_LIQUID_FILM%
%MED_PUR%
%MED_REDLICH_KWONG%
%MED_USER_STRESS_TENSOR% specifier for a user defined stress tensor
%MED_VFT%
%MED_WATER%
%MED_YIELDSTRESS%
%MED_YIELDSTRESS_PROJ%
%MED_air%
%MED_foam%
%MED_fuel%
%MED_none%
%MEMORIZEDelete_NbParticles% current number of MESHFREE points that are deleted due to MEMORIZE_Write statements
%MEMORIZEDelete_NbParticles% parameter for the real()-function (equation parser)
%MEMORIZEKeep_NbParticles% current number of MESHFREE points that are kept due to MEMORIZE_Write statements
%MEMORIZEKeep_NbParticles% parameter for the real()-function (equation parser)
%MEMORIZE_AdditionalFunctionManipulation% additional function manipulation MEMORIZE_Read handle
%MEMORIZE_AdditionalFunctionManipulation%
%MEMORIZE_Cycle% cycle configuration MEMORIZE_Read handle
%MEMORIZE_Cycle%
%MEMORIZE_DeletePoint% deletion of point MEMORIZE_Write handle
%MEMORIZE_DeletePoint%
%MEMORIZE_KeepPoint% retention of point MEMORIZE_Write handle
%MEMORIZE_KeepPoint%
%MEM_STATISTICS_ALLOC% currently allocated memory of the node with the highest workload
%MEM_STATISTICS_ALLOC% parameter for the real()-function (equation parser)
%MEM_STATISTICS_AVAIL% currently available memory per node
%MEM_STATISTICS_AVAIL% parameter for the real()-function (equation parser)
%MINIMUM_BE% minimum of a scalar value with respect to boundary elements
%MINIMUM_BE%
%MINIMUM_BENP% (experimental) minimum of a scalar value with respect to boundary node points
%MINIMUM_BENP%
%MINIMUM_BND% minimum of a functional based on all MESHFREE boundary points with respect to given boundary elements
%MINIMUM_BND%
%MINIMUM_FS% minimum of a functional based on all MESHFREE free surface points with respect to given material flags
%MINIMUM_FS%
%MINIMUM_INT% minimum of a functional based on all MESHFREE points with respect to given material flags
%MINIMUM_INT%
%MINIMUM_MP% minimum of a functional based on all non-irreducible monitor points with respect to given material flags
%MINIMUM_MP%
%MONITORPOINTS_CREATION_AtBoundary% create monitor points at the boundary due to user-defined conditions
%MONITORPOINTS_CREATION_AtBoundary%
%MONITORPOINTS_CREATION_ByCluster% (experimental) create monitor points due to user-defined clusters
%MONITORPOINTS_CREATION_Inside% create monitor points not attached to a boundary due to user-defined conditions
%MONITORPOINTS_CREATION_Inside%
%MONITORPOINTS_CREATION_IrreducibleFPMpoint% mark MESHFREE points to be irreducible
%MONITORPOINTS_CREATION_IrreducibleFPMpoint%
%MONITORPOINTS_CREATION_PenetrationOfBlindAndEmptyBoundary% create monitor points if MESHFREE points penetrate IDENT_BlindAndEmpty boundary
%MONITORPOINTS_CREATION_PenetrationOfBlindAndEmptyBoundary%constconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstRestartconstRestartconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconstconsttwoconsttwoconstconstconstconstconstconstconstconstconstconstBCON_CNTCTGASDYNLIQUIDBCONBCON_CNTCTGASDYNBCON_CNTCTBCONBCONBCON_CNTCT velocity boundary conditions at interfaces
%ind_v(2)% y-component of velocity [m/s]
%ind_v(2)% y-component of velocity [m/s]
%ind_v(2)% y-component of velocity vector
%ind_v(3)% z-component of velocity [m/s]
%ind_v(3)% z-component of velocity [m/s]
%ind_v(3)% z-component of velocity vector
%ind_v0Darcy(1)%
%ind_v0Darcy(1)% velocity of the porous basis material, x-component, unit: m/s
%ind_v0Darcy(2)%
%ind_v0Darcy(2)% velocity of the porous basis material, y-component, unit: m/s
%ind_v0Darcy(3)%
%ind_v0Darcy(3)% velocity of the porous basis material, z-component, unit: m/s
%ind_v_0(1)% velocity of the previous time step, x-component
%ind_v_0(1)% velocity of the previous time step, x-component
%ind_v_0(2)% velocity of the previous time step, y-component
%ind_v_0(2)% velocity of the previous time step, y-component
%ind_v_0(3)% velocity of the previous time step, z-component
%ind_v_0(3)% velocity of the previous time step, z-component
%ind_v_3d(1)%
%ind_v_3d(2)%
%ind_v_3d(3)%
%ind_v_Euler(1)% transport velocity in EULERIAN framework Y(ind_v(1),i) - Y(ind_v_trans(1),i), x-component, unit=m/s
%ind_v_Euler(2)% transport velocity in EULERIAN framework Y(ind_v(2),i) - Y(ind_v_trans(2),i), y-component, unit=m/s
%ind_v_Euler(3)% transport velocity in EULERIAN framework Y(ind_v(3),i) - Y(ind_v_trans(3),i), z-component, unit=m/s
%ind_v_cont(1)%
%ind_v_cont(2)%
%ind_v_cont(3)%
%ind_v_dot(1)% if droplets collect at the boundary as a film: additional acceleration due to film dynamics (surface tension, layer thickness etc.), x-component [m/s^2]
%ind_v_dot(2)% if droplets collect at the boundary as a film: additional acceleration due to film dynamics (surface tension, layer thickness etc.), y-component [m/s^2]
%ind_v_dot(3)% if droplets collect at the boundary as a film: additional acceleration due to film dynamics (surface tension, layer thickness etc.), z-component [m/s^2]
%ind_v_p(1)% x-component of the velocity of boundary movement
%ind_v_p(2)% x-component of the velocity of boundary movement
%ind_v_p(3)% x-component of the velocity of boundary movement
%ind_v_residual(1)% residual of velocity (x-component)
%ind_v_residual(2)% residual of velocity (y-component)
%ind_v_residual(3)% residual of velocity (z-component)
%ind_v_tild(1)% velocity before correction, x-component
%ind_v_tild(2)% velocity before correction, y-component
%ind_v_tild(3)% velocity before correction, z-component
%ind_v_times_v0% scalar product (v-v_p)*(v0-v_p)
%ind_v_trans(1)% velocity a point is actually moving with, x-component, unit=m/s
%ind_v_trans(2)% velocity a point is actually moving with, y-component, unit=m/s
%ind_v_trans(3)% velocity a point is actually moving with, z-component, unit=m/s
%ind_v_uw(1)% upwind velocity [m/s], x-component
%ind_v_uw(2)% upwind velocity [m/s], y-component
%ind_v_uw(3)% upwind velocity [m/s], z-component
%ind_vn_a%
%ind_vn_b%
%ind_vn_n%
%ind_vol% numerical weight of point
%ind_volBubble% volume of macroscopic bubble
%ind_vol_user% user given weight for the points used in the MLS approximation
%ind_vrel(1)%
%ind_vrel(2)%
%ind_vrel(3)%
%ind_vt_n(1)% normal derivative of tangential velocity, x-component
%ind_vt_n(2)% normal derivative of tangential velocity, y-component
%ind_vt_n(3)% normal derivative of tangential velocity, z-component
%ind_x(1)% x-component of point position, unit=meters
%ind_x(2)% y-component of point position, unit=meters
%ind_x(3)% z-component of point position, unit=meters
%ind_x0(1)% x-component initial point position, unit=meters
%ind_x0(2)% y-component initial point position, unit=meters
%ind_x0(3)% z-component initial point position, unit=meters
%ind_xR(1)% x-component of point position in real coordinates, unit=meters
%ind_xR(2)% y-component of point position in real coordinates, unit=meters
%ind_xR(3)% z-component of point position in real coordinates, unit=meters
%ind_x_displaced(1)% x-component of point position before distance to boundary computation, unit = meters
%ind_x_displaced(2)% y-component of point position before distance to boundary computation, unit = meters
%ind_x_displaced(3)% z-component of point position before distance to boundary computation, unit = meters
%ind_x_dot(1)% change of position of point (movement velocity), x-component
%ind_x_dot(2)% change of position of point (movement velocity), y-component
%ind_x_dot(3)% change of position of point (movement velocity), z-component
%ind_x_dot1(1)% time change rate of position of previous time step n-1, x-component
%ind_x_dot1(2)% time change rate of position of previous time step n-1, y-component
%ind_x_dot1(3)% time change rate of position of previous time step n-1, z-component