Python Class Reference

MPM2D

Classes

• Analysis
• Grid
• Node
  • PhaseTrsfNode
• MptsBase
  • Mpts
  • PhaseTrsfMpts
  • RigidMpts
• Material
  • Dp
  • Elastic
  • Ghostmat
  • Mc
  • McOrigin
  • NeoHookean
  • NewtonLiquid
• Shape
  • DemPolygon
  • DemSphere
  • Polygon
  • Rectangle
  • Ring
  • Sphere
• ContactEngine
• MpmWriter
• PeriodicHook
  • PyHook

Enumerations

• BCDIR
• BCFIXSTATE
• MatType
• MPMETHOD
• ShapeType
• SIMTYPEMASK

Detailed API

class Analysis

  Methods:

• Analysis() -> void

  Default constructor function of MPM core.

• NodesPos() -> list <float>

  Get positions of all nodes, and size of list is 2 x material_nodes_num.

• NodesTemperature() -> list <float>

  Get the temperature of all nodes, and size of list is material_nodes_num.

• PreAnalysis() -> void

  PreAnalysis initializes all the variables and states for Analysis before you call the Run method.

• PtsMeanStress() -> list <float>

  Get the mean stress for all particles, especially for gui view. Size of list is material_points_num and the mean stress defined in 2D is 0.5 x (Sxx + Syy).

• PtsPos() -> list <float>

  Get positions of all mateial points, and size of list is 2 x material_points_num.

• PtsShearStrain() -> list <float>

  Get shear strain for all particles, especially for gui view. And size of list is 2 x material_points_num.

• PtsStressYY() -> list <float>

  Get the yy-component stress for all particles, especially for gui view. And size of list is 2 x material_points_num.

• PtsTemperature() -> list <float>

  Get the temperature for all particles, especially for gui view. And size of list is 2 x material_points_num.

• PtsTemperatureRemapped() -> list <float>

  Get the remapped temperature for all particles, especially for gui view. And size of list is 2 x material_points_num. Note that the remapped temperature is interpolated from the nodes instead of one from material points.

• Run() Overloaded function.

  1. Run() -> void

     Run the simulation until reaching the tottime.

  2. Run(int runstep) -> void

     Run the simulation with n steps.

• RunPthread(int threadnum) -> void

  Run the simulation for n steps with detached threads.

• addMats(mpm.Material matobj) -> void

  Push back the defined material into the Analysis.mats.

• addShapes(mpm.Shape shapeobj) -> void

  Push back the defined material into the Analysis.shapes.

• getElements() -> list <mpm.Element>

  Get all the element python-binded-objects of Analysis, and size of list is material_elements_num. More properties can be accessed by the element objects returned by this method.

• getNodeById(int nodeid) -> mpm.Node

  Get the node python-binded-objects with ID specified.

• getNodes() -> list <mpm.Node>

  Get all the node python-binded-objects of Analysis, and size of list is material_nodes_num. More properties can be accessed by the node objects returned by this method.

• getNonrPts() -> list <mpm.Mpts>

  Get all the non-rigid material points python-binded-objects of Analysis, and size of list is material_nonrigid_material_points_num. More properties can be accessed by the nonrigid-material-points objects returned by this method. Note that two types of material points, nonrigid and rigid are defined in this code.

• getParById(int particleid) -> mpm.Mpts / mpm.RigidPts

  Get material points by id. Either nonrigid or rigid material points can be returned by their ID. Note: nonrigid and rigid material points are stored in different containers. Order is as nonrigid material points are followed by rigid material points. Assume there are 5 nonrigid ones and 5 rigid ones. Give the ID = 4 you will get the nonrigid one with ID = 4, but if input is 7, you will get the rigid one with ID = 2.

• getRigidPts() -> list <mpm.RigidPts>

  Get all the rigid material points python-binded-objects of Analysis, and size of list is material_rigid_material_points_num. More properties can be accessed by the rigid-material-points objects returned by this method. Note that two types of material points, nonrigid and rigid are defined in this code.

• getShapeReactForce(int shapeid, int forcedir) -> float

  Get the reactforce of specific shape. If the shape does not include any rigid material points, 0 will be returned. Otherwise, the corresponding reaction force coming from the boundary condition will be obtained.

• getThermalCriticalTimeStep() -> float

  Get the critical time step for the thermal analysis.

• getTimeStep() -> float

  Get the current time step in the simulation.

• getTrElements() -> list <mpm.TriElement>

  The hierarchical elements objects. And this function has not been tested yet.

• getTrNodes() -> list <mpm.Node>

  The hierarchical nodes objects. And this function has not been tested yet.

• gravityLoad() -> bool

  Check if the nonrigid-material-points is under the equilibrium state.

• isRunning() -> bool

  Get the isRunnning flag to check if the core simulation is running.

• iter() -> int

  Get the current iteration step.

• pause() -> void

  Pause the simulation.

• printNodesTemperature() -> void

  Print temperature at all nodes to the shell or GUI.

• saveCurrentMesh() -> void

  Save current mesh file to a vtk file.

• saveCurrentPtsBin(string savename) -> void

  Save current pts states to a binary file.

• setHigherPicOrder(int picorder) -> void setHigherPicOrder(self: mpm.Analysis, arg0: int) -> None

  Activate the XPIC engine with specific order.

• setMethod()

  Overloaded function.

  1. setMethod(int mpm.METHOD) -> void

     Set mpm interpolation method.

  2. setMethod(int mpm.METHOD, bool autoadjust) -> void

     Set mpm interpolation method and adjust the interpolation automatically.

• setNumThreads(int threadnum) -> void

  Set the number of threads in parallel. You should alway call this method explicitly, even only 1 thread is needed.

• setPicEngineIterperiod(int picfrequency) -> void

  Set the frequency to call the XPIC engine.

• setTimeDt(float totaltime, float timestep) -> void

  Set total elapsed time and time step.

• useContact() -> void

  Activate the DEM-driven contact algorithm for nonrigid-nonrigid contact.

• useNFGrid() -> void

  Activate the non-uniform grid. This function has not been tested yet.

• usePtSplit(bool ison) -> void

  Activate the material points split algorithm. This function has not been tested yet.

• writePtsPos(string savename) -> void

  Save the material points states into binary file. This method will be deprecated and you are alway suggested to use saveCurrentPtsBin.

---

  Properties:

• USL

  Flag for if the update-stress-late scheme is activated.

• contactengine

  Contact engine for nonrigid-nonrigid contact algorithm.

• demstep

  Flag for if the DEM substep is activated.

• dt

  Time step.

• grid

  Python-binded-object for Analysis.grid

• hooks

  Python-binded-object for Analysis.hook. Users can add their own function to the MPM loop using the hooks.

• mapOnce

  Flag for pure thermal mpm.task. On this condition, the mapping between the nodes and the material points will only run once for efficiency.

• mats

  Python-binded-object for Analysis.materials.

• nrpts

  Python-binded-object for Analysis.nonrigid-material-points.

• rigidpts

  Python-binded-object for Analysis.rigid-material-points.

• shapes

  Python-binded-object for Analysis.shapes.

• simTypeMasks

  Mask for simulation type. MANAL or TANAL corresponds to the mechanical task and thermal task.

• trgrid

  Python-binded-object for Analysis.treegrid. This function has not been tested yet.

• writer

  Python-binded-object for Analysis.writer for archiving and post-process.

---

class Grid

  Methods:

• Grid() -> void

  Note that: users are not allowed to call this constructor in the python script.

• getNumEle() -> list <int> [numx, numy]

  Get the number of elements along x and y directions.

• getSpace() -> list <float> [spacex, spacey]

  Get the space of the grid.

• getXrange() -> list <float> [xmin, xmax]

  Get xrange of the grid.

• getYrange() -> list <float> [ymin, tmax]

  Get yrange of the grid.

• printElements() -> void

  Print all the elements debug information.

• printInfo() -> void

  Print the grid debug information.

• setContactDisratio(float ratio) -> void

  Set the contact detection ratio for traditional contact algorithm.

• setFriction(float friction) -> void

  Set the frictoin for traditional contact algorithm.

• setNumEle(int numx, int numy) -> void

  Element dimensions in x and y direction.

• setRange(float xmin, float xmax, float ymin, float ymax) -> void

  Set xmin, xmax, ymin, ymax for grid.

---

  Properties:

• nodes

  All the python-binded-objects for nodes.

---

class Node

  Methods:

• Node() -> void

  Note that: users are not allowed to call this constructor in the python script.

• getId() -> int

  Get the node index.

• getParNum() -> int

  Get particle number associated with this node.

• getTemperature() -> float

  Get the temperature at the node.

• printInfo() -> void

  Print the debug information.

• printMatfInfo() -> void

  Print the debug information for multiple material fields.

---

  Properties:

• pos

  Position of node.

---

class PhaseTrsfNode -> Node

  Methods:

• PhaseTrsfNode() -> void

  Note that: users are not allowed to call this constructor in the python script.

  All the methods and properties, please refer to the Node class.

---

class MptsBase

  Methods:

• MptsBase() -> void

  Note that: users are not allowed to call this constructor in the python script.

• getIndex() -> int

  Get the unique ID of this particle.

• getNodeList() -> list <int>

  Get the list of node indexes associated with this particle.

• getNodeSF() -> list <float>

  Get the shape function of nodes associated with this particle.

• getPos() -> list <float> [posx, posy]

  Get particle position in 2D.

• getRemappedT() -> float

  Get the remapped temperature on the particle. This temerature is interpolated from the nodes and it is different from the internal temperature.

• getShearStrain() -> float

  Get the shear equivalent strain.

• getStrain() -> list <float> [strainxx, strainxy, strainyy]

  Get strain component on this material point.

• getStress() -> list <float> [stressxx, stressxy, stressyy]

  Get stress component on this material point.

• getTemperature() -> float

  Get the temperature on this material point.

• getThermalConductivity() -> list <float> [Kxx, Kxy; Kyx, Kyy]

  Get thermal conductivity tensor on this material point.

• getVel() -> list <float> [velx, vely]

  Get particle velocity in 2D.

• getVol() -> float

  Get particle volume in 2D.

• printInfo() -> void

  Print debug information.

---

  Properties:

• heatCapacity

  Specific heat capacity

• heatSource

  Heat source or sink for thermal and phase transoformation task.

• mass

  Particle mass.

• temperature

  Particle temperature.

---

class Mpts -> MptsBase

  Methods:

• Mpts() -> void

  Note that: users are not allowed to call this constructor in the python script.

• getDeformMatrix() -> list <float> [Fxx, Fxy; Fyx, Fyy]

  Get deformation matrix of material point.

• getInitPos() -> list <float> [initpx, initpy]

  Get the initial position of particle in 2D.

• getStrainEnergy() -> float

  Get strain energy of non-rigid pts.

• printMatInfo() -> void

  Print debug information for material object.

• setVel(float velx, float vely) -> void

  Set velocity.

---

class PhaseTrsfMpts -> Mpts

  Methods:

• PhaseTrsfMpts() -> void

  Note that: users are not allowed to call this constructor in the python script.

• getCurrentWaterFraction() -> float

  Get current volumetric fraction of liquid.

• getDIcefractionDTemp(float temperature) -> float

  Get the derivative of the ice volumetric fraction against the current temperature.

• getPhaseFraction(int phaseid) -> float

  Get the the volumetric fraction of given phase.

• getPhaseState() -> float

  Current phase state: melting or freezing.

---

class RigidMpts

  Methods:

• RigidMpts -> void

  Note that: users are not allowed to call this constructor in the python script.

---

class Material

  Methods:

• Material() -> void

  Default constructor for mpm.Material.

  This is a pure virtual class, and users must initialize its child class instead of itself.

• setIndex() -> void

  Set the unique ID for material object.

• setInitDensity(float solidrho, float icerho, float waterrho) -> void

  Initialie the density for solid, ice and water when phase transformation task is activated.

• setInitFraction(float solidfraction, float icefraction, float waterfraction) -> void

  Initialie the volume fraction for solid, ice and water when phase transformation task is activated.

• setThermalProp() -> void

  Overloaded function.

  1. setThermalProp(float hc, list <float> conductivity) -> void

     Set themal properties: hc for heat capacity.

     The size of list conductivity can be 1 2 for 4.

     If 1, conductivity matrix will be [k, 0; 0, k].

     If 2, conductivity matrix will be [k1, 0; 0, k2].

     If 4, conductivity matrix will be [k1, k2; k3, k4].

  2. setThermalProp(list <float> hc, list <float> conductivity) -> void

     Set themal properties: hc for heat capacity under phase transformation condition.

     The size of list hc must be 6, and the size of list conductivity must be 6.

     Heat capacity will be assigned to solid, ice and liquid phase, while conductivity matrix for different phase will be [ki, 0; 0, ki+1], i = 0, 2, 4.

---

  Properties:

• Kn

  Contact normal stiffness

• Ks

  Contact tangential stiffness

• Tres

  The residual temperature for ice melting (for phase transformation).

• coarsegrain

  If soil is coarse or fine, which determines different volume function against the temperature for phase transformation.

• freezepoint

  Liquid freeze point for phase transformation.

• friction

  Contact friction coefficient (DEM-drive contact algorithm).

• heatCapacity

  Heat capacity.

• infinistate

  Determines if we use finite strain theory to update the transformation matrix and strain.

• latentratio

  Latent ratio for phase transformation.

• planestrain

  Determine whether plane strain or plane stress.

• rho

  Density.

• unfrozenlimit

  Maximal unfrozen water volumetric fraction for fine soils transoformation model.

• unfrozenratio

  Unfrozen ratio for fine soils transoformation model.

• usecontentfrozen

  Determine whether user volumetric fraction or mass fraction.

---

class Dp -> Material

  Methods:

• Dp() -> void

  Default constructor for mpm.Dp.

• getStress(list <float> [oldsxx, oldsyy, oldszz, oldsxy], list <float> [dstxx, dstyy, dstxy]) -> list <float> [sxx, syy, szz, sxy]

  Unit test for this model.

• printInfo() -> void

  Print the debug information.

• printSState() -> void

  Print the debug information for unit test.

---

  Properties:

• E

  Young’s modulous

• c

  cohesion

• nu

  Poisson’s ratio

• phi

  friction angle

• psi

  dilation angle

---

class Elastic -> Material

  Methods:

• Elastic() -> void

  Default constructor for mpm.Elastic.

• printInfo() -> void

  Print the debug information.

  Properties:

• E

  Young’s modulous

• nu

  Poisson’s ratio

---

class Ghostmat -> Material

  Methods:

• Ghostmat() -> void

  Default constructor for mpm.Elastic.

• printInfo() -> void

  Print the debug information.

---

  Properties:

• thermalResistance

  The parameter for thermal simulation. (Not activated in mpm task.)

---

class Mc -> Material

  Methods:

• Mc() -> void

  Default constructor for mpm.Mc.

• getStress(list <float> [oldsxx, oldsyy, oldszz, oldsxy], list <float> [dstxx, dstyy, dstxy]) -> list <float> [sxx, syy, szz, sxy]

  Unit test for this model.

• printInfo() -> void

  Print the debug information.

---

  Properties:

• E

  Young’s modulous

• c

  cohesion

• nu

  Poisson’s ratio

• phi

  friction angle

• psi

  dilation angle

• tension

  tension cut-off

---

class McOrigin -> Material

  Methods:

• McOrigin() -> void

  Default constructor for mpm.McOrigin.

• getStress(list <float> [oldsxx, oldsyy, oldszz, oldsxy], list <float> [dstxx, dstyy, dstxy]) -> list <float> [sxx, syy, szz, sxy]

  Unit test for this model.

• printInfo() -> void

  Print the debug information.

---

  Properties:

• E
  Young’s modulous

• c
  cohesion

• nu
  Poisson’s ratio

• phi
  friction angle

• psi
  dilation angle

• tension
  tension cut-off

---

class NeoHookean -> Material

  Methods:

• NeoHookean() -> void

  Default constructor for mpm.NeoHookean.

• printInfo()

  Print the debug information.

---

  Properties:

• E

  Young’s modulous

• nu

  Poisson’s ratio

• uopt

  Different way to calculate the strain energy.

---

class NewtonLiquid -> Material

  Methods:

• NewtonLiquid() -> void

  Default constructor for mpm.NewtonLiquid.

• printInfo() -> void

  Print the debug information.

---

  Properties:

• bulk

  Bulk modulus

• visco

  Dynamic viscosity

---

class Shape

  Methods:

• Shape() -> void

  Note that: users are not allowed to call this constructor in the python script.

• setBc() -> void

  Overloaded function.

  1. setBc(int xon, float valuex, int yon, float valuey) -> void

     Set boundary flag and boundary value for x and y direction.

     Boundary value will be effective if and only if either xon or yon is True.

  2. setBc(int xon, string valuexexpr, int yon, float valueyexpr) -> void

     Set boundary flag and boundary value for x and y direction.

     Boundary value will be effective if and only if either xon or yon is True.

     Meanwhile, the expression for the boundary value will be parsed according to the currrent time.

     Say you can enter sin(t), which means a value will change following the sin function.

  3. setBc(int xon, string valuexexpr, bool fixposx, int yon, float valueyexpr, bool fixposy) -> void

     Set boundary flag and boundary value for x and y direction.

     Boundary value will be effective if and only if either xon or yon is True.

     If the fixposx or fixposy is true, RigidPts will only update the velocity not for position.

• setConsolidation() -> void Overloaded function.

  1. setConsolidation(float sxx, float yy) -> void

     Set initial consolidation stress.

  2. setConsolidation(string sxx, string yy) -> void

     Set initial consolidation stress with string, which will be parsed as numerical value.

• setDamping(float pdamping, float gdamping, float PIC) -> void

  Set the damping: particle damping, grid damping and PIC fraction.

• setInitTemperature(float temp) -> void

  Set the initial temperature.

• setMethod(int method, bool isfixed) -> void

  Overried the interpolation method set by mpm.Analysis.

  If isfixed is True, it means that the method will not be changed automatically.

• setThermalBc() -> void

  Set the prescribed temperature on Dirichlet BC for thermal field.

• setTracBc() -> void

  Overloaded function.

  1. setTracBc(int face, int dir, float value) -> void

     Set the traction force boundary condition.

     The face is from 0 - 3, starting from the bottom surface and in the anti-clock wise.

     Dir refer to the BCDIR enumeration.

     And the value is constant.

  2. setTracBc(int face, int dir, string value) -> void

     Set the traction force boundary condition.

     The face is from 0 - 3, starting from the bottom surface and in the anti-clock wise.

     Dir refer to the BCDIR enumeration.

     And the value will be parsed based on the current time.

• setUserContactNormal(float nx, float ny) -> void

  Set user defined contact normal for traditional contact algorithm.

• unsetThermalBc() -> void

  Cancel the thermal boundary condition.

---

class DemPolygon -> Shape

  Method:

• DemPolygon(float timestep, int searchrange, int callfrequency, float contactKn, float contactKs, float friction) -> void

  Constructor for the DemPolygon.

  Input arguments are: timestep, the radius searching range, the neighbourlist updating interval, normal contact stiffness, shear contact stiffness and the friction.

• addForce2Pt(bool applyforceonpt) -> void

  How the dem polygon add the force. True: add to pt, False: add to nodes.

• addPts(float px, float py) -> void

  Add one point to polygon.

• getDemForce() -> list <float> [forcex, forcey]

  Get reaction force in the horizontal and vertical direction.

• getPts() -> list <float>

  Get all the vertex coorinates of polygon.

• getReactionForce() -> list <float> [forcex, forcey]

  Get reaction force.

• printInfo() -> void

  Print the debug information.

• setDt(float timestep) -> void

  Set timestep for dempolygon

• setForceNormalDir(int axis, int forcestate) -> void

  Set the fixed contact normal direction. Axis 0 for horizontal direction, and 1 for vertical direction. Forcestate 0 for positive normal [0, 1], and 1 for negative normal [0, -1].

• setGravity(float gravityx, float gravityy) -> void

  Set the gravity.

• setInterval(int updateiters) -> void

  Set interval of neighbour list update.

• setPts(list <float>) -> void

  Set points array to polygon.

• setRange(int searchrange) -> void

  Set search range for updating the material points neighbour list.

• setRotFix(bool) -> void

  Set if the rotation of the DemPolygon is fixed.

• setShapeErr(float gjkerr) -> void

  Set the resolution for GJK contact detection.

• usePolygonContact(bool ispolygon) -> void

  Set the way that DemPolygon treats the material points. True: for polygon and False: disk.

---

class DemSphere -> Shape

  Method:

• DemSphere(float timestep, int searchrange, int callfrequency, float contactKn, float contactKs, float friction ) -> void

  Constructor for the DemSphere.

  Input arguments are: timestep, the radius searching range, the neighbourlist updating interval, normal contact stiffness, shear contact stiffness and the friction.

• addForce2Pt(bool applyforceonpt) -> void

  How the dem polygon add the force. True: add to pt, False: add to nodes.

• getPts() -> list <float>

  Get all the vertex coorinates of polygon.

• getReactionForce() -> list <float> [forcex, forcey]

  Get reaction force.

• printInfo() -> void

  Print the debug information.

• setArc() -> void

  Cut a arc from sphere.

• setPts(list <float>) -> void

  Set points array to polygon.

---

class Polygon -> Shape

  Methods:

• Polygon(int) -> void

  Input argument: shape type. Please refer to shapetype enumeration for details.

• setPts(list <float>) -> void

  Set the vertex for this polygon.

---

class Rectangle -> Shape

  Methods:

• Rectangle(float xmin, float xmax, float ymin, float ymax, int shapetype) -> void

  Input arguments: xmin, xmax, ymin, ymax. Shape type please refer to the SHAPETYPE enumeration.

---

class Ring -> Shape

  Methods:

• Ring(float px, float py, float inra, float outra, int shapetype ) -> void

  Input arguments: position x, position y, internal radius, external radius and shape type.

---

class Sphere -> Shape

  Methods:

• Sphere() -> void

  Overloaded function.

  1. Sphere(float xmin, float xmax, float ymin, float ymax, int shape type) -> void

     Input arguments: xmin, xmax, ymin, ymax. Shape type please refer to the SHAPETYPE enumeration.

  2. Sphere(float px, float py, float radius, int shape type) -> void

     Input arguments: position x and y, and radius. Shape type please refer to the SHAPETYPE enumeration.

---

class ContactEngine

  Properties:

• addforce2pt

  Add force to material points directly. Otherwise force will be applied on the nodes.

• potential

  The contact potential energy.

• radiusscale

  Ratio to scale the radius of material points used by the contact algorithm.

---

class MpmWriter

  Methods:

• MpmWriter() -> void

  Default constructor for mpm.Writer.

• setDir() -> void

  Set the top directory and current directory name for saving result files.

• setEndTime() -> void

  End time of writing result files.

• setIntervalTime() -> void

  Interval time of writing result files.

• setStartTime() -> void

  Start time of writing result files.

---

class PeriodicHook

  Methods:

• PeriodicHook() -> void

  Default constructor for mpm.Hook.

• reset() -> void

  Reset the period of the hook

---

  Properties:

• dead

  The hook is dead (True) or not.

• iterLast

  Iteration of last run.

• iterPeriod

  Iter Periodicity.

• realLast

  Real time of last run.

• realPeriod

  Real Periodicity.

• totalRuns

  The total runs for the hook.

• virtLast

  Virtual time of last run.

• virtPeriod

  Virtual Periodicity.

---

class PyHook -> PeriodicHook

  Properties:

• command

  command for the pyhook. WARNING: you cannot use the print function in the hook, or else it may encounter a crash in detached multi-threads. FIXEME in the future. As a workaround, we use app.print in GUI.

---

Enumeration BCDIR

  Members:

• XDIR

  Horizontal direction enumeration.

• YDIR

  Vertical direction enumeration.

• NORMALDIR

  Normal direction enumeration;

• TANGENTDIR

  Tangential direction enumeration;

---

Enumeration BCFIXSTATE

  Members:

• BCFREE

  Cancel boundary condition enumeration.

• BCFIXALL

  Fix boundary condition enumeration.

• BCFIXPLUS

  Fix positive direction only enumeration.

• BCFIXMINUS

  Fix negative direction only enumeration.

---

Enumeration MPMETHOD

  Members:

• NONEMETHOD

  No mpm method set.

• LINEAR

  Linear interpolation method.

• GIMP

  Generalized interpolation method.

• LINEARCPDI

  Linear covect particle domain interpolation method.

• MIXMETHOD

  Mixed interpolation method between GIMP and CPDI.

• BSPLINECPDI

  B-spline interpolation method (as same as affine mpm).

---

Enumeration MatType

  Members:

• RIGIDMAT

  Only for rigid material points.

• ELASTICMAT

  Elastic material.

• MCMAT

  Mohr-Coulomb material.

• GHOSTMAT

  Only for rigid matrial points. Refer to the examples for the difference between the RIGIDMAT and GHOSTMAT.

• NEOMAT

  Neo-Hookean material.

• NEWTONMAT

  Newton liquid material.

• DPMAT

  Drucker Prager material.

---

Enumeration SIMTYPEMASK

  Members:

• MANAL

  Mechanical simulation task.

• TANAL

  Thermal simulation task.

• PHASEANAL

  Phase transformation task.

---

Enumeration ShapeType

  Members:

• NONEBC

  No boundary condition will be set.

• NDSHAPE

  Node velocity boundary condition.

• MPTLOADSHAPE

  Body force load boundary condition for particles.

• MPTTRACSHAPE

  Traction force boundary condition for particles.

• RIGIDSHAPE

  Displacement or velocity boundary condition for rigid particles.

• GRAVITYSHAPE

  Gravity boundary condition for particles.

• DEMSHAPE

  Shapes for DEM-driven contact algorithm.

• MPTVELSHAPE

  Velocity boundary condition for particles.

• NDHEATSHAPE

  Thermal boundary condition for nodes.