宏 API 更改 11.06

在 Simcenter STAR-CCM+ 11.06 中，针对电化学、欧拉多相、反应流体、定向网格化、网格变形、客户端 - 服务器、标签和网格化进行了宏 API 的更改。

电化学：替换 Tafel 方法类

已修改电化学反应建模，以考虑参与反应的多组分气体成分的消耗。 在宏代码中，旧版本中的合并类别已被其对应的潜在类别替换：

Tafel

以前发行版本 Simcenter STAR-CCM+ v11.06 
TafelCombinedReactionMethod.class
 
TafelPotentialReactionMethod.class

Tafel 斜率

以前发行版本 Simcenter STAR-CCM+ v11.06 
TafelSlopeCombinedReactionMethod.class
 
TafelSlopePotentialReactionMethod.class

传输限制 Tafel 斜率

以前发行版本 Simcenter STAR-CCM+ v11.06 
TransportLimitedTafelSlopeCombinedReactionMethod.class
 
TransportLimitedTafelSlopePotentialReactionMethod.class

必须用潜在变体替换出现的所有合并变体。 例如：

以前发行版本 Simcenter STAR-CCM+ v11.06 
TafelCombinedReactionMethod tafelReactionMethod =
rs0.getReactionProperties().get(ElectrochemistryReactionFormulationProperty.class).getMethodObject(TafelCombinedReactionMethod.class);
 
TafelPotentialReactionMethod tafelReactionMethod =
rs0.getReactionProperties().get(ElectrochemistryReactionFormulationProperty.class).getMethodObject(TafelPotentialReactionMethod.class);
注如果 Java 宏中存下列语句，应移除：
import star.electrochemistry.electrochemicalreactions.TafelCombinedReactionMethod
import star.electrochemistry.electrochemicalreactions.TransportLimitedTafelSlopeCombinedReactionMethod
import star.electrochemistry.electrochemicalreactions.TafelSlopeCombinedReactionMethod

欧拉多相流

  • 流体体积 (VOF) 对象与两相平衡模型已重构，导致输入的宏代码变化：

    • 对于 VOF，star.vof.AlphaFilmBoilingProfile 已改为 star.mixturemultiphase.AlphaFilmBoilingProfile。

      为适应宏中的这种变化，可以插入额外的导入语句：

      import star.mixturemultiphase.AlphaFilmBoilingProfile;
      注如果宏中存在，则移除 import star.vof.AlphaFilmBoilingProfile。
    • 对于两相平衡模型，mixturemultiphase 已改为 twophaseequilibrium。

      为适应宏中的这种变化，可以插入额外的导入语句：

      import star.twophaseequilibrium.AlphaFilmBoilingProfile;

    • 为了确保向后兼容性，出现的所有 SegregatedVofPhaseSpeciesModel 都应改为 MmpPhaseSpeciesModel，出现的所有 VofPhaseEnergyModel 都应改为 MmpPhaseEnergyModel。 以下是宏代码的更改示例：

      以前发行版本 Simcenter STAR-CCM+ v11.06 
      SegregatedVofPhaseSpeciesModel segregatedVofPhaseSpeciesModel_0 = 
  eulerianPhase_0.getModelManager().getModel(SegregatedVofPhaseSpeciesModel.class);
segregatedVofPhaseSpeciesModel_0.getUpwindOption().setSelected(ConvectiveFluxOption.Type.MUSCL_3RD_ORDER);
      		 
      MmpPhaseSpeciesModel mmpPhaseSpeciesModel_0 = 
  eulerianPhase_0.getModelManager().getModel(MmpPhaseSpeciesModel.class);
mmpPhaseSpeciesModel_0.getUpwindOption().setSelected(ConvectiveFluxOption.Type.MUSCL_3RD_ORDER);
      		 
      VofPhaseEnergyModel vofPhaseEnergyModel_0 = 
  eulerianPhase_0.getModelManager().getModel(VofPhaseEnergyModel.class);
vofPhaseEnergyModel_0.getUpwindOption().setSelected(ConvectiveFluxOption.Type.MUSCL_3RD_ORDER);
      		 
      MmpPhaseEnergyModel mmpPhaseEnergyModel_0 = 
  eulerianPhase_0.getModelManager().getModel(MmpPhaseEnergyModel.class);
mmpPhaseEnergyModel_0.getUpwindOption().setSelected(ConvectiveFluxOption.Type.MUSCL_3RD_ORDER);

  • 已移除用于宏观孔隙率（纯热）模型的两个场函数：Void Phase Source of XY(XY 的空隙相源) 和 Liquid Zone Volume Change Rate(液体区域体积变化率)。

    旧版 Simcenter STAR-CCM+ 中激活宏观孔隙率（纯热）模型的宏必须选择用于固体网格单元指示器的场函数方法，以激活相同的行为，如下列新宏代码示例所示：

    MacroPorosityPureThermalModel macroPorosityPureThermalModel_0 = 
    phaseInteraction_0.getModelManager().getModel(MacroPorosityPureThermalModel.class);
SolidCellIndicatorProfile solidCellIndicatorProfile_0 = 
    ((SolidCellIndicatorProfile) macroPorosityPureThermalModel_0.getSolidCellIndicatorProfile());
solidCellIndicatorProfile_0.setMethod(FunctionScalarProfileMethod.class);

反应流体

更改烟气矩量模型

已扩展烟气矩量模型与复杂化学连用，从而导致宏代码更改。

以前发行版本 Simcenter STAR-CCM+ v11.06 
  physicsContinuum_0.enable(SootModel.class);
     physicsContinuum_0.enable(SootMomentModel.class);
     physicsContinuum_0.enable(RadiationModel.class);
@@ -174,8 +174,8 @@ public class CoppalleFlameletMomentSoot extends Soot {
     constantMaterialPropertyMethod_0.getQuantity().setValue(0.1);
     SootMomentModel sootMomentModel_0 = 
       physicsContinuum_0.getModelManager().getModel(SootMomentModel.class);
  ppdfSootFlameletTable_0.importTable(resolveDataPath("case/sootC2H2FlameletLibrary.tbl"));
  SootMomentModelProperties sootMomentModelProperties_0 =
  sootMomentModel_0.getSootMomentModelProperties();
 
  physicsContinuum_0.enable(SootModel.class);
     physicsContinuum_0.enable(SootMomentTableModel.class);
     physicsContinuum_0.enable(RadiationModel.class);
@@ -174,8 +174,8 @@ public class CoppalleFlameletMomentSoot extends Soot {
     constantMaterialPropertyMethod_0.getQuantity().setValue(0.1);
     SootMomentTableModel sootMomentModel_0 = 
       physicsContinuum_0.getModelManager().getModel(SootMomentTableModel.class);
  ppdfSootFlameletTable_0.importTable(resolveDataPath("case/sootC2H2FlameletLibrary.tbl"));
  SootMomentTableModelProperties sootMomentModelProperties_0 =
  sootMomentModel_0.getSootMomentTableModelProperties();

移除 UnburntTemperatureControlOption

不再提供 UnburntTemperatureControlOption 对象。 因此移除如下所示的语句：

cfmCombustionModel_0.getUnburntTemperatureControlOption().setSelected(UnburntTemperatureControlOption.ISENTROPIC_RELATION);

新用户界面

关于 v11.06 更改的更多详细信息，请参见“新特征”>“物理”>“CFD”>“反应流体”。

类别已从：

PremixedCombustionFlameTypeModel
PartiallyPremixedCombustionFlameTypeModel
NonPremixedCombustionFlameTypeModel

更改为：

ReactingSpeciesTransportBasedModel
FlameletBasedModel

因此，当您的宏激活涡破碎、复杂化学或漩涡接触微观混合模型时，应在宏代码中做如下更改：

以前发行版本 Simcenter STAR-CCM+ v11.06 
physicsContinuum_0.enable(NonPremixedCombustionFlameTypeModel.class);
physicsContinuum_0.enable(PartiallyPremixedCombustionFlameTypeModel.class);
 
physicsContinuum_0.enable(ReactingSpeciesTransportBasedModel.class);

当宏激活 PPDF 平衡（现为化学平衡）、PPDF 小火焰（现在为稳态层流火焰或 SLF）或小火焰生成流形 (FGM) 时，应在宏代码中做如下更改：

以前发行版本 Simcenter STAR-CCM+ v11.06 
physicsContinuum_0.enable(NonPremixedCombustionFlameTypeModel.class);
physicsContinuum_0.enable(PartiallyPremixedCombustionFlameTypeModel.class);
 
physicsContinuum_0.enable(FlameletBasedModel.class);

小火焰生成更改

组分顺序已更改。 新组分列表按字母数字顺序排序。

以前发行版本 Simcenter STAR-CCM+ v11.06 
MassFractionProfile massFractionProfile_2 = boundary_1.getValues().get(MassFractionProfile.class);
((ConstantArrayProfileMethod) massFractionProfile_2.getMethod()).getQuantity().setArray(new DoubleVector(new double[] {0.667, 0.0, 0.0,  0.0, 0.0, 0.0, 0.0,  0.0, 0.0,0.0, 0.333}));
 
MassFractionProfile massFractionProfile_2 = boundary_1.getValues().get(MassFractionProfile.class);
((ConstantArrayProfileMethod) massFractionProfile_2.getMethod()).getQuantity().setArray(new DoubleVector(new double[] {0.333, 0.0, 0.0,  0.0, 0.0, 0.0, 0.0,  0.0, 0.667,0.0, 0}));

第三体系数对象的名称已更改。

以前发行版本 Simcenter STAR-CCM+ v11.06 
ThirdBodyCoefficient thirdBodyCoefficient_0 = reaction_0.getReactionProperties().get(ThirdBodyCoefficients.class).addThirdBodyCoefficient(CH4);
thirdBodyCoefficient_0.setValue(1.0);
 
ThirdBodyCoefficientMixtureComponent thirdBodyCoefficient_0 = reaction_0.getReactionProperties().get(ThirdBodyCoefficients.class).addThirdBodyCoefficient(CH4);
thirdBodyCoefficient_0.setValue(1.0);

启用热力型氮氧化物模型：以前的模型现在已弃用，只有一种氮氧化物模型为热力型氮氧化物建模：氮氧化物 Zeldovich (NoxThreeEquationZeldovichModel)。

以前发行版本 Simcenter STAR-CCM+ v11.06 
physicsContinuum_0.enable(ThermalNoxModel.class);
physicsContinuum_0.enable(NoxPpdfEquilibriumModel.class);
physicsContinuum_0.enable(EmissionsPpdfCombustionModel.class);
 
physicsContinuum_0.enable(ThermalNoxModel.class);
physicsContinuum_0.enable(NoxThreeEquationZeldovichModel.class);

化学平衡

对于化学平衡模型，您不必设置默认材料数据库。

以前发行版本 Simcenter STAR-CCM+ v11.06 
PpdfFlameletTable ppdfFlameletTable_0 =
((PpdfFlameletTable) ppdfFlameletModel_0.getPpdfFlameletTable());
 ppdfFlameletTable_0.setDefaultMdb(materialDataBase_0);
PpdfTableAxis ppdfTableAxis_0 =((PpdfTableAxis) ((PpdfTableAxisManager) ppdfFlameletTable_0.getPpdfTableAxisManager()).getComponent("Mixture Fraction 0"));
ppdfTableAxis_0.setDimensionSize(20);
 
PpdfFlameletTable ppdfFlameletTable_0 =
((PpdfFlameletTable) ppdfFlameletModel_0.getPpdfFlameletTable());

PpdfTableAxis ppdfTableAxis_0 =((PpdfTableAxis) ((PpdfTableAxisManager) ppdfFlameletTable_0.getPpdfTableAxisManager()).getComponent("Mixture Fraction 0"));
ppdfTableAxis_0.setDimensionSize(20);

对于化学平衡模型，平衡算法会自动选择。

以前发行版本 Simcenter STAR-CCM+ v11.06 
 PpdfEquilibriumTable ppdfEquilibriumTable_0 =((PpdfEquilibriumTable) ppdfEquilibriumModel_0.getPpdfEquilibriumTable());
ppdfEquilibriumTable_0.getAlgorithmTypeOption().setSelected(PpdfEquilibriumAlgorithmType.DARS);
ppdfEquilibriumTable_0.setDeleteNonExistSpecEntries(true);
ppdfEquilibriumTable_0.setNumExtra(11);
 
 PpdfEquilibriumTable ppdfEquilibriumTable_0 =((PpdfEquilibriumTable) ppdfEquilibriumModel_0.getPpdfEquilibriumTable());

ppdfEquilibriumTable_0.setNumExtra(11);

下列示例显示了化学平衡组分的指定。

以前发行版本 Simcenter STAR-CCM+ v11.06 
MultiComponentGasModel multiComponentGasModel_0 =((MultiComponentGasModel)  physicsContinuum_0.getModelManager().getModel(MultiComponentGasModel.class));
MixtureComponent CH4 = createMixtureComponent(multiComponentGasModel_0, "CH4");
MixtureComponent O2 = createMixtureComponent(multiComponentGasModel_0, "O2");
MixtureComponent N2 = createMixtureComponent(multiComponentGasModel_0, "N2");
 
EquilibriumTableGenerator equilibriumTableGenerator_0 =physicsContinuum_0.get(EquilibriumTableGenerator.class);
TableChemistryDefinition tableChemistryDefinition_0 =
((TableChemistryDefinition) equilibriumTableGenerator_0.getTableChemistryDefinition());
MaterialDataBase materialDataBase_0 = simulation_0.get(MaterialDataBaseManager.class).getMaterialDataBase("props");
DataBaseMaterialManager dataBaseMaterialManager_0 =materialDataBase_0.getFolder("Gases");
DataBaseGas dataBaseGas_0 =((DataBaseGas) dataBaseMaterialManager_0.getMaterial("N2_Gas"));
tableChemistryDefinition_0.addComponents(new NeoObjectVector(new Object[] {dataBaseGas_0}));

表

在生成或使用小火焰时，包括 tablegenerator 和 ppdftable 软件包。

以前发行版本 Simcenter STAR-CCM+ v11.06 
import star.combustion.*;

import star.common.*;
 
import star.combustion.*;
import star.combustion.ppdftable.*;
import star.combustion.tablegenerators.*;
import star.common.*;

对象constructTable 已重命名为constructFlameletTable。

以前发行版本 Simcenter STAR-CCM+ v11.06 
PpdfFlameletModel ppdfFlameletModel_0 = ((PpdfFlameletModel) physicsContinuum_0.getModelManager().getModel(PpdfFlameletModel.class));
PpdfFlameletTable ppdfFlameletTable_ = ((PpdfFlameletTable) ppdfFlameletModel_0.getPpdfFlameletTable());
ppdfFlameletTable_0.constructTable(new StringVector(new String[]{resolvePath(path + "flamelet01.lib01"), resolvePath(path + "flamelet02.lib01"), resolvePath(path + "flamelet03.lib01")}));
 
PpdfFlameletModel ppdfFlameletModel_0 = ((PpdfFlameletModel) physicsContinuum_0.getModelManager().getModel(PpdfFlameletModel.class));
PpdfFlameletTable ppdfFlameletTable_ = ((PpdfFlameletTable) ppdfFlameletModel_0.getPpdfFlameletTable());
ppdfFlameletTable_0.constructFlameletTable(new StringVector(new String[]{resolvePath(path + "flamelet01.lib01"), resolvePath(path + "flamelet02.lib01"), resolvePath(path + "flamelet03.lib01")}));

流体束

增厚火焰模型 (TFM) 需要额外的流体束命令。

以前发行版本 Simcenter STAR-CCM+ v11.06 
physicsContinuum_0.get(FluidStreamManager.class).createFluidStream();
FluidStream fluidStream_0 = ((FluidStream)fluidStreamManager.getFluidStream("Fluid Stream 1"));
fluidStream_0.getTemperature().setValue(314.0);
 
TfmCombustionModel tfmCombustionModel_0 =((TfmCombustionModel) physicsContinuum_0.getModelManager().getModel(TfmCombustionModel.class));
FluidStreamManager fluidStreamManager = tfmCombustionModel_0.getFluidStreamManager();
fluidStreamManager.createFluidStream();
 FluidStream fluidStream_0 = ((FluidStream)fluidStreamManager.getFluidStream("Fluid Stream 1"));
fluidStream_0.getTemperature().setValue(314.0);

现在通过EquilibriumTableGenerator、FlameletTableGenerator 和 FGMTableGenerator 对象访问流体束对象。 下列示例显示了流体温度指定：

以前发行版本 Simcenter STAR-CCM+ v11.06 
FluidStream fluidStream_0 =((FluidStream) physicsContinuum_0.get(FluidStreamManager.class).getFluidStream("Fuel Stream"));
fluidStream_0.getTemperature().setValue(314.0);
 
EquilibriumTableGenerator equilibriumTableGenerator_0 =physicsContinuum_0.get(EquilibriumTableGenerator.class);
TableFluidStreamCollection tableFluidStreams_0 =((TableFluidStreamCollection) equilibriumTableGenerator_0.getTableFluidStreamCollection());
TableFluidStream tableFluidStream_1 =((TableFluidStream) tableFluidStreams_0.getFuelStream());
tableFluidStream_1.getTemperature().setValue(314.0);

下列流体束对象的示例显示了流体成分的指定：

以前发行版本 Simcenter STAR-CCM+ v11.06 
FluidStreamManager fsm = ((FluidStreamManager) physicsContinuum_0.get(FluidStreamManager.class));
MultiComponentGasModel multiComponentGasModel_0 =((MultiComponentGasModel) physicsContinuum_0.getModelManager().getModel(MultiComponentGasModel.class));
GasMixture gasMixture_0 =((GasMixture) multiComponentGasModel_0.getMixture());
GasComponent N2 =(GasComponent) gasMixture_0.getComponents().getComponent("N2");
FluidStream str2 = fsm.getFluidStream("Oxidizer Stream");
FluidStreamComponent oxidizerO2 = str2.getFluidStreamComponentManager().addFluidStreamComponent(O2);
oxidizerO2.setMassFraction(0.233);
 
EquilibriumTableGenerator equilibriumTableGenerator_0 =	physicsContinuum_0.get(EquilibriumTableGenerator.class);
TableFluidStreamCollection tableFluidStreams_0 =((TableFluidStreamCollection) equilibriumTableGenerator_0.getTableFluidStreamCollection());
TableFluidStream tableFluidStream_1 =((TableFluidStream) tableFluidStreams_0.getiOxidizerStream());
tableFluidStream_1.getFluidStreamComposition().setArray(new DoubleVector(new double[] {0.0, 0.233, 0.0, 0.0, 0.0, 0.0, 0.767,, 0.0}));

设置碳烟双方程模型的流体束：

以前发行版本 Simcenter STAR-CCM+ v11.06 
FluidStreamManager fsm = ((FluidStreamManager) physicsContinuum_0.get(FluidStreamManager.class));

 FluidStream str1 = fsm.getFluidStream("Fuel Stream");
 
SootTwoEquationModel sootTwoEquationModel_0 =
((SootTwoEquationModel)  physicsContinuum_0.getModelManager().getModel(SootTwoEquationModel.class));
FluidStreamManager fsm = sootTwoEquationModel_0.getFluidStreamManager();
 FluidStream str1 = fsm.getFluidStream("Fuel Stream");

惯性流处理：

以前发行版本 Simcenter STAR-CCM+ v11.06 
FluidStream fluidStream_0 =((FluidStream) physicsContinuum_0.get(FluidStreamManager.class).getFluidStream("Inert Stream "));
 
InertStreamModel inertStreamModel_0 =((InertStreamModel) physicsContinuum_0.getModelManager().getModel(InertStreamModel.class));
FluidStreamManager fsm = inertStreamModel_0.getFluidStreamManager();
FluidStream fluidStream_0 =((FluidStream) fsm.getFluidStream("Inert Stream "));

增厚火焰模型更改

以前发行版本 Simcenter STAR-CCM+ v11.06 
physicsContinuum_0.enable(NonPremixedCombustionFlameTypeModel.class);
  physicsContinuum_0.enable(TfmNotPremixedCombustionModel.class);
 
physicsContinuum_0.enable(ReactingSpeciesTransportBasedModel.class);
  physicsContinuum_0.enable(TfmCombustionModel.class);
 
physicsContinuum_0.enable(PremixedCombustionFlameTypeModel.class);
  physicsContinuum_0.enable(TfmPremixedCombustionModel.class);
 
physicsContinuum_0.enable(ReactingSpeciesTransportBasedModel.class);
  physicsContinuum_0.enable(TfmCombustionModel.class);

时间步控制：求解器重命名

时间步控制求解器已重命名，导致宏代码更改。

对流 CFL 时间步控制

以前发行版本 Simcenter STAR-CCM+ v11.06 
ConvectiveCflTimeStepControlSolver convectiveCflTimeStepControlSolver = ((ConvectiveCflTimeStepControlSolver) ((TimeStepControlSubSolverManager) timeStepControlSolver.getTimeStepControlSubSolverManager()).getSolver("Convective CFL Time Step Control"));
 
ConvectiveCflTimeStepControlSolver convectiveCflTimeStepControlSolver = ((ConvectiveCflTimeStepControlSolver) ((TimeStepControlSubSolverManager) timeStepControlSolver.getTimeStepControlSubSolverManager()).getSolver("Convective CFL Time-Step Control"));

基于能量的时间步控制

以前发行版本 Simcenter STAR-CCM+ v11.06 
((EnergyBasedTimeStepControlSolver) ((TimeStepControlSubSolverManager) timeStepControlSolver.getTimeStepControlSubSolverManager()).getSolver("Energy Based Time Step Control"));
 
((EnergyBasedTimeStepControlSolver) ((TimeStepControlSubSolverManager) timeStepControlSolver.getTimeStepControlSubSolverManager()).getSolver("Energy-Based Time-Step Control"));

以下是对流 CFL 时间步控制求解器的代码示例：

以前发行版本 Simcenter STAR-CCM+ v11.06 
TimeStepControlSolver timeStepControlSolver = ((TimeStepControlSolver)getSimulation().getSolverManager().getSolver(TimeStepControlSolver.class));
timeStepControlSolver.getMinTimeStep().setValue(0.0005);
timeStepControlSolver.setVerbose(true);

ConvectiveCflTimeStepControlSolver convectiveCflTimeStepControlSolver = ((ConvectiveCflTimeStepControlSolver) ((TimeStepControlSubSolverManager) timeStepControlSolver.getTimeStepControlSubSolverManager()).getSolver("Convective CFL Time Step Control"));
convectiveCflTimeStepControlSolver.getTargetMeanCfl().setValue(1.0);
convectiveCflTimeStepControlSolver.getTargetMaxCfl().setValue(1.5);
 
TimeStepControlSolver timeStepControlSolver = ((TimeStepControlSolver)getSimulation().getSolverManager().getSolver(TimeStepControlSolver.class));
timeStepControlSolver.getMinTimeStep().setValue(0.0005);
timeStepControlSolver.setVerbose(true);

ConvectiveCflTimeStepControlSolver convectiveCflTimeStepControlSolver = ((ConvectiveCflTimeStepControlSolver) ((TimeStepControlSubSolverManager) timeStepControlSolver.getTimeStepControlSubSolverManager()).getSolver("Convective CFL Time-Step Control"));
convectiveCflTimeStepControlSolver.getTargetMeanCfl().setValue(1.0);
convectiveCflTimeStepControlSolver.getTargetMaxCfl().setValue(1.5);

定向网格化：闭环零部件集合的定义更改

在闭环零部件集合中，如包含多个零部件的环形几何，用于定义源网格的方法已更改，以确保准确度。 如果您使用旧版本中的模拟文件或 Java 宏，并发现网格定义不一致，请考虑记录新宏。

网格变形：将控制点更改为点集合

对于网格变形，点集合已代替控制点。 与控制点不同，点集合不连接区域。 下列示例显示了宏代码的更改类型。

创建每种类型的控制点/点集合

以前发行版本 Simcenter STAR-CCM+ v11.06 
Simulation simulation_0 =
      getActiveSimulation();
ControlPointRegion controlPointRegion_0 =
      simulation_0.get(ControlPointRegionManager.class).createLatticeControlPoint("Lattice Control Points", new DoubleVector(new double[] {1.5, 2.4843961000442505E-5, 0.49999989196658134}), new DoubleVector(new double[] {3.0, 0.1973467841744423, 1.1979536786675453}), new DoubleVector(new double[] {0.0, 0.0, 1.0}), 0.0, 2, 2, 2);
ControlPointRegion controlPointRegion_1 =
      simulation_0.get(ControlPointRegionManager.class).createLineControlPoint("Line Control Points", new DoubleVector(new double[] {0.0, 0.0, 0.0}), new DoubleVector(new double[] {1.0, 0.0, 0.0}), 20);
Region region_0 =
      simulation_0.getRegionManager().getRegion("Region");
Boundary boundary_0 =
      region_0.getBoundaryManager().getBoundary("Wall");
FvRepresentation fvRepresentation_0 =
      ((FvRepresentation) simulation_0.getRepresentationManager().getObject("Volume Mesh"));
ControlPointRegion controlPointRegion_2 =
      simulation_0.get(ControlPointRegionManager.class).createPartControlPoint("Part Control Points", new NeoObjectVector(new Object[] {boundary_0}), 0.1, 1000, false, 0.0, fvRepresentation_0);
Table cpTable_0 =
  simulation_0.getTableManager().getTable("ControlPoints");
ControlPointRegion controlPointRegion_4 =         
simulation_0.get(ControlPointRegionManager.class).createTableControlPoint("Table Control Points", cpTable_0, "X", "Y", "Z");
 
Simulation simulation_0 =
      getActiveSimulation();
PointSet pointSet_0 =
      simulation_0.get(PointSetManager.class).createLatticePointSet("Lattice Control Points", new DoubleVector(new double[] {1.5, 2.4843961000442505E-5, 0.49999989196658134}), new DoubleVector(new double[] {3.0, 0.1973467841744423, 1.1979536786675453}), new DoubleVector(new double[] {0.0, 0.0, 1.0}), 0.0, 2, 2, 2);
PointSet pointSet_1 =
      simulation_0.get(PointSetManager.class).createLinePointSet("Line Control Points", new DoubleVector(new double[] {0.0, 0.0, 0.0}), new DoubleVector(new double[] {1.0, 0.0, 0.0}), 20);
Region region_0 =
      simulation_0.getRegionManager().getRegion("Region");
Boundary boundary_0 =
      region_0.getBoundaryManager().getBoundary("Wall");
FvRepresentation fvRepresentation_0 =
      ((FvRepresentation) simulation_0.getRepresentationManager().getObject("Volume Mesh"));
PointSet pointSet_2 =
      simulation_0.get(PointSetManager.class).createPartPointSet("Part Control Points", new NeoObjectVector(new Object[] {boundary_0}), 0.1, 1000, false, 0.0, fvRepresentation_0);
Table cpTable_0 =
  simulation_0.getTableManager().getTable("ControlPoints");
PointSet pointSet_3 =
      simulation_0.get(PointSetManager.class).createTablePointSet("Table Control Points", cpTable_0, "X", "Y", "Z");

编辑栅格点生成器

以前发行版本 Simcenter STAR-CCM+ v11.06 
ControlPointRegion controlPointRegion_0 =
    ((ControlPointRegion) simulation_0.get(ControlPointRegionManager.class).getObject("Lattice Control Point Region"));
LatticePointGenerator latticePointGenerator_0 =
    ((LatticePointGenerator) controlPointRegion_0.getPointGenerator());
latticePointGenerator_0.setNumberX(5);
latticePointGenerator_0.regenerateControlPoints();
 
PointSet pointSet_0 =
      ((PointSet) simulation_0.get(PointSetManager.class).getObject("Lattice Point Set"));
LatticePointGenerator latticePointGenerator_0 =
      ((LatticePointGenerator) pointSet_0.getPointGenerator());
latticePointGenerator_0.setNumberX(5);
latticePointGenerator_0.regeneratePointSet();

编辑线点生成器

以前发行版本 Simcenter STAR-CCM+ v11.06 
ControlPointRegion controlPointRegion_1 =
      ((ControlPointRegion) simulation_0.get(ControlPointRegionManager.class).getObject("Line Control Point Region"));
LinePointGenerator linePointGenerator_0 =
      ((LinePointGenerator) controlPointRegion_1.getPointGenerator());
linePointGenerator_0.setNumber(50);
linePointGenerator_0.regenerateControlPoints();
 
PointSet pointSet_1 =
      ((PointSet) simulation_0.get(PointSetManager.class).getObject("Line Point Set"));
LinePointGenerator linePointGenerator_0 =
      ((LinePointGenerator) pointSet_1.getPointGenerator());
linePointGenerator_0.setNumber(50);
linePointGenerator_0.regeneratePointSet();

编辑零部件点生成器

以前发行版本 Simcenter STAR-CCM+ v11.06 
ControlPointRegion controlPointRegion_2 =
      ((ControlPointRegion) simulation_0.get(ControlPointRegionManager.class).getObject("Part Control Point Region"));
PartPointGenerator partPointGenerator_0 =
      ((PartPointGenerator) controlPointRegion_2.getPointGenerator());
partPointGenerator_0.getSize().setValue(0.5);
partPointGenerator_0.regenerateControlPoints();
 
PointSet pointSet_2 = ((PointSet) simulation_0.get(PointSetManager.class).getObject("Part Point Set"));
PartPointGenerator partPointGenerator_0 =
     ((PartPointGenerator) pointSet_2.getPointGenerator());
partPointGenerator_0.getSize().setValue(0.5);
partPointGenerator_0.regeneratePointSet();

编辑表格点生成器

以前发行版本 Simcenter STAR-CCM+ v11.06 
ControlPointRegion controlPointRegion_3 =
      ((ControlPointRegion) simulation_0.get(ControlPointRegionManager.class).getObject("Table Control Point Region"));
TablePointGenerator tablePointGenerator_0 =
      ((TablePointGenerator) controlPointRegion_3.getPointGenerator());
Table newTable_0 =
     simulation_0.getTableManager().getTable("NewControlPoints"));
tablePointGenerator_0.setTable(newTable_0);
tablePointGenerator_0.regenerateControlPoints();
 
PointSet pointSet_3 = ((PointSet) simulation_0.get(PointSetManager.class).getObject("Table Point Set"));
TablePointGenerator tablePointGenerator_0 =
      ((TablePointGenerator) pointSet_3.getPointGenerator());
Table newTable_0 =
     simulation_0.getTableManager().getTable("NewControlPoints"));
tablePointGenerator_0.setTable(newTable_0);
tablePointGenerator_0.regeneratePointSet();

激活/停用

以前发行版本 Simcenter STAR-CCM+ v11.06 
ControlPointRegion controlPointRegion_3 =
      ((ControlPointRegion) simulation_0.get(ControlPointRegionManager.class).getObject("Table Control Point Region"));
controlPointRegion_3.setIsActive(false); //Deactivate
controlPointRegion_3.setIsActive(true); //Activate
 
PhysicsContinuum physicsContinuum_0 =
      ((PhysicsContinuum) simulation_0.getContinuumManager().getContinuum("Physics 1"));
PointSet pointSet_3 =
      ((PointSet) simulation_0.get(PointSetManager.class).getObject("Table Point Set"));
physicsContinuum_0.erase(pointSet_3); //Deactivate by removing from continuum
physicsContinuum_0.add(pointSet_3); // Activate by adding to continuum

标签：不再支持自定义图标

在标签功能扩展到大多数模拟对象后，标签节点图标的自定义不再可用。 因此，star.common.UserTag 中的 getCustomizableIcon() 函数已停用。 从宏中移除此函数。

客户端 - 服务器：StarCommandParser API 更改

StarCommandParser 用于解析和修改用于启动 Simcenter STAR-CCM+ 服务器的命令行的实例。 以前，API 允许您修改 StarCommandParser 使用的内部容器。 在当前版本的 Simcenter STAR-CCM+ 中，更改的 API 会防止直接修改内部数据；但您仍能修改 StarCommandParser 管理的命令。

命令解析器实例化

StarCommandParser 以相同方式实例化：

StarCommandParser cmdParser = new StarCommandParser("starccm+ -server");

添加单独选项

命令

cmdParser.addLast("-cpubind");

已作废。 使用现有替代命令：

cmdParser.addOption("-cpubind");

添加选项和数值

下列语句

cmdParser.addLast("-licpath");
cmdParser.addLast("/my/license/path");

已被现有替代语句替换：

cmdParser.addOptionAndValue("-licpath","/my/license/path");

查询选项

命令

cmdParser.indexOf("-cpubind");

可替换为

cmdParser.hasOption("-cpubind");

移除单独选项

语句

int idx = cmdParser.indexOf("-cpubind");
if ( idx != -1 ) cmdParser.remove(idx);

可替换为

cmdParser.remove("-cpubind");

移除选项和数值

要从命令行中移除 -licpath <value> 的第一个实例，语句

int idx = cmdParser.indexOf("-licpath");
if ( idx != -1 ) {
  cmdParser.remove(idx);
  cmdParser.remove(idx);
}

可替换为

if ( cmdParser.hasOption("-licpath") ) {
  cmdParser.remove("-licpath", cmdParser.getArg("-licpath"));
}

要从命令行中移除 -licpath <value> 的所有实例：

cmdParser.removeAll("-licpath");

替换选项

语句

int idx = cmdParser.indexOf("-licpath");
if ( idx != -1 ) {
  cmdParser.set(idx+1, "/a/different/license/path");
}

可替换为

cmdParser.replaceOptionAndValue("-licpath", "/a/different/license/path");

网格化：更改表面准备宏

通过移除不必要的命令，并在必要时引入新命令，已缩短在启动表面修复和包面漏洞检测时产生的 Java 宏。 最终结果是这些宏更易读取和修改，同时仍保留原有宏的功能。

注仍支持在旧版 Simcenter STAR-CCM+ 中使用的宏。

每种工具的更改摘要如下所示。

表面修复启动宏更改

已引入下列新命令：

partSurfaceMeshWidget_0.startSurfaceRepairControllers();

上述命令替换下列命令：

partSurfaceMeshWidget_0.startSurfaceMeshDiagnostics();
partSurfaceMeshWidget_0.startSurfaceMeshRepair();
partSurfaceMeshWidget_0.startMergeImprintController();
partSurfaceMeshWidget_0.startIntersectController();
partSurfaceMeshWidget_0.startLeakFinderController();
partSurfaceMeshWidget_0.startSurfaceMeshQueryController();

用于启动表面修复的宏中不再包括下列命令：

移除默认显示状态的特征诊断（原因：现在在服务器上完成）

SurfaceMeshWidgetDiagnosticsController surfaceMeshWidgetDiagnosticsController_0 = partSurfaceMeshWidget_0.getControllers().getController(SurfaceMeshWidgetDiagnosticsController.class);
surfaceMeshWidgetDiagnosticsController_0.setSoftFeatureErrorsActive(true);
surfaceMeshWidgetDiagnosticsController_0.setHardFeatureErrorsActive(true);

另请参见“两种工具通用的宏更改”。

包面漏洞检测启动宏更改

已引入下列新命令：

partSurfaceMeshWidget_0.startWrapperLeakDetectionControllers();

上述命令替换下列命令：

partSurfaceMeshWidget_0.startSurfaceMeshRepair();
partSurfaceMeshWidget_0.startMergeImprintController();
partSurfaceMeshWidget_0.startLeakFinderController();
partSurfaceMeshWidget_0.startSurfaceMeshDiagnostics();

用于启动包面漏洞检测的宏中不再包括下列命令：

移除网格覆盖模式（原因：重复）

scene_0.setMeshOverrideMode(2);

移除默认诊断禁用（原因：现在通过setCheckAll() 命令静默完成）

PiercedFacesThreshold piercedFacesThreshold_0 = 
      ((PiercedFacesThreshold) surfaceMeshWidgetDiagnosticsController_0.getOptions().getThresholdDiagnosticsManager().getObject("Pierced faces (default) 1"));
piercedFacesThreshold_0.setIsEnabled(false);
FaceQualityThreshold faceQualityThreshold_0 = 
      ((FaceQualityThreshold) surfaceMeshWidgetDiagnosticsController_0.getOptions().getThresholdDiagnosticsManager().getObject("Face quality (default) 1"));
faceQualityThreshold_0.setIsEnabled(false);
FaceProximityThreshold faceProximityThreshold_0 = 
      ((FaceProximityThreshold) surfaceMeshWidgetDiagnosticsController_0.getOptions().getThresholdDiagnosticsManager().getObject("Face proximity (default) 1"));
faceProximityThreshold_0.setIsEnabled(false);
FreeEdgesThreshold freeEdgesThreshold_0 = 
      ((FreeEdgesThreshold) surfaceMeshWidgetDiagnosticsController_0.getOptions().getThresholdDiagnosticsManager().getObject("Free edges (default) 1"));
freeEdgesThreshold_0.setIsEnabled(false);
NonManifoldEdgesThreshold nonManifoldEdgesThreshold_0 = 
      ((NonManifoldEdgesThreshold) surfaceMeshWidgetDiagnosticsController_0.getOptions().getThresholdDiagnosticsManager().getObject("Non-manifold edges (default) 1"));
nonManifoldEdgesThreshold_0.setIsEnabled(false);
NonManifoldVerticesThreshold nonManifoldVerticesThreshold_0 = 
      ((NonManifoldVerticesThreshold) surfaceMeshWidgetDiagnosticsController_0.getOptions().getThresholdDiagnosticsManager().getObject("Non-manifold vertices (default) 1"));
nonManifoldVerticesThreshold_0.setIsEnabled(false);
注setCheckAll() 命令现在禁用所有all诊断，不只是默认诊断。

两种工具通用的宏更改

移除单位对象（原因：不使用）

Units units_0 = simulation_0.getUnitsManager().getPreferredUnits(new IntVector(new int[]{0,1,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0}));
Units units_1 = simulation_0.getUnitsManager().getPreferredUnits(new IntVector(new int[]{0,2,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0}));

移除显示器初始化（原因：无效果）

SurfaceMeshWidgetDisplayer surfaceMeshWidgetDisplayer_0 = ((SurfaceMeshWidgetDisplayer)scene_0.getDisplayerManager().getDisplayer("Widget displayer 1"));
surfaceMeshWidgetDisplayer_0.initialize();