`Analysis`#

class ansys.mechanical.stubs.v242.Ansys.ACT.Automation.Mechanical.Analysis#

Bases: object

Defines a Analysis.

Overview#

Methods

`Activate`	Activate the current object.
`AddAMOverhangConstraint`	Creates a new AMOverhangConstraint
`AddAcceleration`	Creates a new Acceleration
`AddAcousticAbsorptionElement`	Creates a new AcousticAbsorptionElement
`AddAcousticAbsorptionSurface`	Creates a new AcousticAbsorptionSurface
`AddAcousticDiffuseSoundField`	Creates a new AcousticDiffuseSoundField
`AddAcousticFarFieldRadationSurface`	Creates a new AcousticFarFieldRadationSurface
`AddAcousticFreeSurface`	Creates a new AcousticFreeSurface
`AddAcousticImpedanceBoundary`	Creates a new AcousticImpedanceBoundary
`AddAcousticImpedanceSheet`	Creates a new AcousticImpedanceSheet
`AddAcousticIncidentWaveSource`	Creates a new AcousticIncidentWaveSource
`AddAcousticLowReducedFrequency`	Creates a new AcousticLowReducedFrequency
`AddAcousticMassSource`	Creates a new AcousticMassSource
`AddAcousticMassSourceRate`	Creates a new AcousticMassSourceRate
`AddAcousticPort`	Creates a new AcousticPort
`AddAcousticPortInDuct`	Creates a new AcousticPortInDuct
`AddAcousticPressure`	Creates a new AcousticPressure
`AddAcousticRadiationBoundary`	Creates a new AcousticRadiationBoundary
`AddAcousticRigidWall`	Creates a new AcousticRigidWall
`AddAcousticStaticPressure`	Creates a new AcousticStaticPressure
`AddAcousticSurfaceAcceleration`	Creates a new AcousticSurfaceAcceleration
`AddAcousticSurfaceVelocity`	Creates a new AcousticSurfaceVelocity
`AddAcousticSymmetryPlane`	Creates a new AcousticSymmetryPlane
`AddAcousticTemperature`	Creates a new child ThermalCondition.
`AddAcousticThermoViscousBLIBoundary`	Creates a new AcousticThermoViscousBLIBoundary
`AddAcousticTransferAdmittanceMatrix`	Creates a new AcousticTransferAdmittanceMatrix
`AddBearingLoad`	Creates a new BearingLoad
`AddBodyControl`	Creates a new BodyControl
`AddBoltPretension`	Creates a new BoltPretension
`AddCenterOfGravityConstraint`	Creates a new CenterOfGravityConstraint
`AddCommandSnippet`	Creates a new CommandSnippet
`AddComment`	Creates a new child Comment.
`AddComplexityIndexConstraint`	Creates a new ComplexityIndexConstraint
`AddComplianceConstraint`	Creates a new ComplianceConstraint
`AddCompressionOnlySupport`	Creates a new CompressionOnlySupport
`AddConstraintEquation`	Creates a new ConstraintEquation
`AddContactStepControl`	Creates a new ContactStepControl
`AddConvection`	Creates a new Convection
`AddCoupling`	Creates a new Coupling
`AddCriterionConstraint`	Creates a new CriterionConstraint
`AddCurrent`	Creates a new Current
`AddCyclicManufacturingConstraint`	Creates a new CyclicManufacturingConstraint
`AddCylindricalSupport`	Creates a new CylindricalSupport
`AddDetonationPoint`	Creates a new DetonationPoint
`AddDisplacement`	Creates a new Displacement
`AddDisplacementConstraint`	Creates a new DisplacementConstraint
`AddDynamicComplianceConstraint`	Creates a new DynamicComplianceConstraint
`AddEMTransducer`	Creates a new EMTransducer
`AddEarthGravity`	Creates a new EarthGravity
`AddElasticSupport`	Creates a new ElasticSupport
`AddElectricCharge`	Creates a new ElectricCharge
`AddElementBirthAndDeath`	Creates a new ElementBirthAndDeath
`AddExtrusionManufacturingConstraint`	Creates a new ExtrusionManufacturingConstraint
`AddFigure`	Creates a new child Figure.
`AddFixedRotation`	Creates a new FixedRotation
`AddFixedSupport`	Creates a new FixedSupport
`AddFluidPenetrationPressure`	Creates a new Fluid Penetration Pressure object in Mechanical. This load object is used to simulate surrounding fluid or air penetrating into the contact interface.
`AddFluidSolidInterface`	Creates a new FluidSolidInterface
`AddForce`	Creates a new Force
`AddFrictionlessSupport`	Creates a new FrictionlessSupport
`AddGeneralizedPlaneStrain`	Creates a new GeneralizedPlaneStrain
`AddGeometryBasedAdaptivity`	Creates a new GeometryBasedAdaptivity
`AddGlobalVonMisesStressConstraint`	Creates a new GlobalVonMisesStressConstraint
`AddHeatFlow`	Creates a new HeatFlow
`AddHeatFlux`	Creates a new HeatFlux
`AddHousingConstraint`	Creates a new HousingConstraint
`AddHydrostaticPressure`	Creates a new HydrostaticPressure
`AddImage`	Creates a new child Image.
`AddImpedanceBoundary`	Creates a new ImpedanceBoundary
`AddImportedCFDPressure`	Creates a new ImportedCFDPressure
`AddImportedLoadExternalData`	Creates a new Imported Load (External Data).
`AddImportedLoadFluidsResultsFile`	Creates a new Import Load for Fluids Results File.
`AddImportedLoadMAPDLResultsFile`	Creates a new Import Load for MAPDL Results File.
`AddImportedRemoteLoadsGroup`	Creates a new Import Remote Load Group.
`AddInitialVelocity`	Creates a new child Initial Velocity.
`AddInternalHeatGeneration`	Creates a new InternalHeatGeneration
`AddJointLoad`	Creates a new JointLoad
`AddLimitBoundary`	Creates a new LimitBoundary
`AddLinePressure`	Creates a new LinePressure
`AddLocalVonMisesStressConstraint`	Creates a new LocalVonMisesStressConstraint
`AddMagneticFluxParallel`	Creates a new MagneticFluxParallel
`AddMassConstraint`	Creates a new MassConstraint
`AddMassFlowRate`	Creates a new MassFlowRate
`AddMemberSizeManufacturingConstraint`	Creates a new MemberSizeManufacturingConstraint
`AddMoment`	Creates a new Moment
`AddMomentOfInertiaConstraint`	Creates a new MomentOfInertiaConstraint
`AddMorphingRegion`	Creates a new MorphingRegion
`AddNaturalFrequencyConstraint`	Creates a new NaturalFrequencyConstraint
`AddNodalDisplacement`	Creates a new NodalDisplacement
`AddNodalForce`	Creates a new NodalForce
`AddNodalOrientation`	Creates a new NodalOrientation
`AddNodalPressure`	Creates a new NodalPressure
`AddNodalRotation`	Creates a new NodalRotation
`AddNonlinearAdaptiveRegion`	Creates a new NonlinearAdaptiveRegion
`AddObjective`	Creates a new Objective
`AddOptimizationRegion`	Creates a new OptimizationRegion
`AddPSDAcceleration`	Creates a new PSDAcceleration
`AddPSDDisplacement`	Creates a new PSDDisplacement
`AddPSDGAcceleration`	Creates a new PSDGAcceleration
`AddPSDVelocity`	Creates a new PSDVelocity
`AddPatternRepetitionConstraint`	Creates a new PatternRepetitionConstraint
`AddPerfectlyInsulated`	Creates a new PerfectlyInsulated
`AddPhysicsRegion`	Creates a new PhysicsRegion
`AddPipeIdealization`	Creates a new child PipeIdealization.
`AddPipePressure`	Creates a new PipePressure
`AddPipeTemperature`	Creates a new PipeTemperature
`AddPlasticHeating`	Creates a new PlasticHeating
`AddPressure`	Creates a new child Pressure.
`AddPullOutDirectionManufacturingConstraint`	Creates a new PullOutDirectionManufacturingConstraint
`AddPythonCodeEventBased`	Creates a new PythonCodeEventBased
`AddRSAcceleration`	Creates a new RSAcceleration
`AddRSDisplacement`	Creates a new RSDisplacement
`AddRSVelocity`	Creates a new RSVelocity
`AddRadiation`	Creates a new Radiation
`AddReactionForceConstraint`	Creates a new ReactionForceConstraint
`AddRemoteDisplacement`	Creates a new RemoteDisplacement
`AddRemoteForce`	Creates a new RemoteForce
`AddRotatingForce`	Creates a new RotatingForce
`AddRotationalAcceleration`	Creates a new RotationalAcceleration
`AddRotationalVelocity`	Creates a new RotationalVelocity
`AddSimplySupported`	Creates a new SimplySupported
`AddSourceConductor`	Creates a new child SourceConductor.
`AddSubstructureGenerationCondensedPart`	Creates a new SubstructureGenerationCondensedPart
`AddSurfaceChargeDensity`	Creates a new SurfaceChargeDensity
`AddSymmetryManufacturingConstraint`	Creates a new SymmetryManufacturingConstraint
`AddSystemCouplingRegion`	Creates a new SystemCouplingRegion
`AddTemperature`	Creates a new child Temperature.
`AddTemperatureConstraint`	Creates a new TemperatureConstraint
`AddThermalComplianceConstraint`	Creates a new ThermalComplianceConstraint
`AddThermalCondition`	Creates a new child ThermalCondition.
`AddUniformConstraint`	Creates a new UniformConstraint
`AddVelocity`	Creates a new Velocity
`AddViscoelasticHeating`	Creates a new ViscoelasticHeating
`AddVoltage`	Creates a new Voltage
`AddVoltageCoupling`	Creates a new Coupling
`AddVoltageGround`	Creates a new VoltageGround
`AddVolumeChargeDensity`	Creates a new VolumeChargeDensity
`AddVolumeConstraint`	Creates a new VolumeConstraint
`ClearGeneratedData`	Run the ClearGeneratedData action.
`CopyTo`	Copies all visible properties from this object to another.
`CreateAutomaticFSI`	Run the CreateAutomaticFSI action.
`CreateAutomaticFSIandFarFieldRadiationSurfaces`	Run the CreateAutomaticFSIandEquivalentSourceSurfaces action.
`CreateAutomaticFarFieldRadiationSurfaces`	Run the CreateAutomaticEquivalentSourceSurfaces action.
`CreateParameter`	Creates a new parameter for a Property.
`Delete`	Run the Delete action.
`Duplicate`	Duplicate method.
`ExportNastranFile`	Export Nastran File.
`FilterBasedOnEnvironment`	Enables interface filtering that only displays model-level items applicable to
`GetChildren`	Gets the list of children, filtered by type.
`GetParameter`	Gets the parameter corresponding to the given property.
`GroupAllSimilarChildren`	Run the GroupAllSimilarChildren action.
`GroupSimilarObjects`	Run the GroupSimilarObjects action.
`ImportLoad`	Import Load action.
`OpenSolverFilesDirectory`	Run the OpenSolverFilesDirectory action.
`PropertyByAPIName`	Get a property by its API name.
`PropertyByName`	Get a property by its unique name.
`RemoveParameter`	Removes the parameter from the parameter set corresponding to the given property.
`SelectBodiesWithMultiplePhysicsRegion`	Run the SelectBodiesWithMultiplePhysicsRegion action to select the bodies that belong to more than one Physics Region.
`SelectBodiesWithoutPhysicsRegion`	Run the SelectBodiesWithoutPhysicsRegion action to select the bodies that don't belong to a Physics Region.
`Solve`	Run the Solve action.
`TransferDataFrom`	Transfer Data From action.
`UnlinkDataFrom`	Unlink Data From action.
`WriteSystemCouplingFiles`	Writes the system coupling files. Usage WriteSystemCouplingFiles(“C:Desktoptempscp1.scp”);

Properties

`AMProcessSimulation`	Gets or sets the AMProcessSimulation.
`Acoustics`	Gets or sets the Acoustics.
`AnalysisSettings`	Gets the AnalysisSettings.
`AnalysisType`	Gets the AnalysisType.
`CellId`	Gets the CellId.
`Children`	Gets the list of children.
`Comments`	Gets the list of associated comments.
`DataModelObjectCategory`	Gets the current DataModelObject's category.
`Electric`	Gets the Electric.
`EnvironmentTemperature`	Gets or sets the EnvironmentTemperature.
`Figures`	Gets the list of associated figures.
`GenerateInputOnly`	Gets the GenerateInputOnly.
`Images`	Gets the list of associated images.
`InitialConditions`	Get InitialConditions.
`InternalObject`	Gets the internal object. For advanced usage only.
`PhysicsType`	Gets the PhysicsType.
`Properties`	Gets the list of properties for this object.
`ReadOnly`	Gets or sets the ReadOnly.
`ResultFileName`	Get the full path and name of the result file.
`Solution`	Gets the Solution.
`Structural`	Gets or sets the Structural.
`SystemCaption`	Gets the SystemCaption.
`Thermal`	Gets the Thermal.
`VisibleProperties`	Gets the list of properties that are visible for this object.

Property detail#

property Analysis.AMProcessSimulation: Ansys.Mechanical.DataModel.Enums.AMProcessSimulationType | None#: Gets or sets the AMProcessSimulation.

property Analysis.Acoustics: bool | None#: Gets or sets the Acoustics.

property Analysis.AnalysisSettings: Ansys.ACT.Automation.Mechanical.AnalysisSettings.AnalysisSettings | None#: Gets the AnalysisSettings.

property Analysis.AnalysisType: Ansys.Mechanical.DataModel.Enums.AnalysisType | None#: Gets the AnalysisType.

property Analysis.CellId: str | None#: Gets the CellId.

property Analysis.Children: List[Ansys.Mechanical.DataModel.Interfaces.IDataModelObject] | None#: Gets the list of children.

property Analysis.Comments: Iterable[Ansys.ACT.Automation.Mechanical.Comment] | None#: Gets the list of associated comments.

property Analysis.DataModelObjectCategory: Ansys.Mechanical.DataModel.Enums.DataModelObjectCategory | None#: Gets the current DataModelObject's category.

property Analysis.Electric: bool | None#: Gets the Electric.

property Analysis.EnvironmentTemperature: Ansys.Core.Units.Quantity | None#: Gets or sets the EnvironmentTemperature.

property Analysis.Figures: Iterable[Ansys.ACT.Automation.Mechanical.Figure] | None#: Gets the list of associated figures.

property Analysis.GenerateInputOnly: bool | None#: Gets the GenerateInputOnly.

property Analysis.Images: Iterable[Ansys.ACT.Automation.Mechanical.Image] | None#: Gets the list of associated images.

property Analysis.InitialConditions: List[Ansys.ACT.Automation.Mechanical.InitialCondition] | None#: Get InitialConditions.

property Analysis.InternalObject: Ansys.Common.Interop.DSObjectsAuto.IDSEnvironmentAuto | None#: Gets the internal object. For advanced usage only.

property Analysis.PhysicsType: Ansys.Mechanical.DataModel.Enums.PhysicsType | None#: Gets the PhysicsType.

property Analysis.Properties: tuple[Ansys.ACT.Automation.Mechanical.Property] | None#: Gets the list of properties for this object.

property Analysis.ReadOnly: bool | None#: Gets or sets the ReadOnly.

property Analysis.ResultFileName: str | None#: Get the full path and name of the result file.

property Analysis.Solution: Ansys.ACT.Automation.Mechanical.Solution | None#: Gets the Solution.

property Analysis.Structural: bool | None#: Gets or sets the Structural.

property Analysis.SystemCaption: str | None#: Gets the SystemCaption.

property Analysis.Thermal: bool | None#: Gets the Thermal.

property Analysis.VisibleProperties: tuple[Ansys.ACT.Automation.Mechanical.Property] | None#: Gets the list of properties that are visible for this object.

Method detail#

Analysis.Activate() → None#: Activate the current object.

Analysis.AddAMOverhangConstraint() → Ansys.ACT.Automation.Mechanical.AMOverhangConstraint#: Creates a new AMOverhangConstraint

Analysis.AddAcceleration() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.Acceleration#: Creates a new Acceleration

Analysis.AddAcousticAbsorptionElement() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.AcousticAbsorptionElement#: Creates a new AcousticAbsorptionElement

Analysis.AddAcousticAbsorptionSurface() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.AcousticAbsorptionSurface#: Creates a new AcousticAbsorptionSurface

Analysis.AddAcousticDiffuseSoundField() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.AcousticDiffuseSoundField#: Creates a new AcousticDiffuseSoundField

Analysis.AddAcousticFarFieldRadationSurface() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.AcousticFarFieldRadationSurface#: Creates a new AcousticFarFieldRadationSurface

Analysis.AddAcousticFreeSurface() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.AcousticFreeSurface#: Creates a new AcousticFreeSurface

Analysis.AddAcousticImpedanceBoundary() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.AcousticImpedanceBoundary#: Creates a new AcousticImpedanceBoundary

Analysis.AddAcousticImpedanceSheet() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.AcousticImpedanceSheet#: Creates a new AcousticImpedanceSheet

Analysis.AddAcousticIncidentWaveSource() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.AcousticIncidentWaveSource#: Creates a new AcousticIncidentWaveSource

Analysis.AddAcousticLowReducedFrequency() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.AcousticLowReducedFrequency#: Creates a new AcousticLowReducedFrequency

Analysis.AddAcousticMassSource() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.AcousticMassSource#: Creates a new AcousticMassSource

Analysis.AddAcousticMassSourceRate() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.AcousticMassSourceRate#: Creates a new AcousticMassSourceRate

Analysis.AddAcousticPort() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.AcousticPort#: Creates a new AcousticPort

Analysis.AddAcousticPortInDuct() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.AcousticPortInDuct#: Creates a new AcousticPortInDuct

Analysis.AddAcousticPressure() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.AcousticPressure#: Creates a new AcousticPressure

Analysis.AddAcousticRadiationBoundary() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.AcousticRadiationBoundary#: Creates a new AcousticRadiationBoundary

Analysis.AddAcousticRigidWall() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.AcousticRigidWall#: Creates a new AcousticRigidWall

Analysis.AddAcousticStaticPressure() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.AcousticStaticPressure#: Creates a new AcousticStaticPressure

Analysis.AddAcousticSurfaceAcceleration() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.AcousticSurfaceAcceleration#: Creates a new AcousticSurfaceAcceleration

Analysis.AddAcousticSurfaceVelocity() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.AcousticSurfaceVelocity#: Creates a new AcousticSurfaceVelocity

Analysis.AddAcousticSymmetryPlane() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.AcousticSymmetryPlane#: Creates a new AcousticSymmetryPlane

Analysis.AddAcousticTemperature() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.AcousticTemperature#: Creates a new child ThermalCondition.

Analysis.AddAcousticThermoViscousBLIBoundary() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.AcousticThermoViscousBLIBoundary#: Creates a new AcousticThermoViscousBLIBoundary

Analysis.AddAcousticTransferAdmittanceMatrix() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.AcousticTransferAdmittanceMatrix#: Creates a new AcousticTransferAdmittanceMatrix

Analysis.AddBearingLoad() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.BearingLoad#: Creates a new BearingLoad

Analysis.AddBodyControl() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.BodyControl#: Creates a new BodyControl

Analysis.AddBoltPretension() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.BoltPretension#: Creates a new BoltPretension

Analysis.AddCenterOfGravityConstraint() → Ansys.ACT.Automation.Mechanical.CenterOfGravityConstraint#: Creates a new CenterOfGravityConstraint

Analysis.AddCommandSnippet() → Ansys.ACT.Automation.Mechanical.CommandSnippet#: Creates a new CommandSnippet

Analysis.AddComment() → Ansys.ACT.Automation.Mechanical.Comment#: Creates a new child Comment.

Analysis.AddComplexityIndexConstraint() → Ansys.ACT.Automation.Mechanical.ComplexityIndexConstraint#: Creates a new ComplexityIndexConstraint

Analysis.AddComplianceConstraint() → Ansys.ACT.Automation.Mechanical.ComplianceConstraint#: Creates a new ComplianceConstraint

Analysis.AddCompressionOnlySupport() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.CompressionOnlySupport#: Creates a new CompressionOnlySupport

Analysis.AddConstraintEquation() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.ConstraintEquation#: Creates a new ConstraintEquation

Analysis.AddContactStepControl() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.ContactStepControl#: Creates a new ContactStepControl

Analysis.AddConvection() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.Convection#: Creates a new Convection

Analysis.AddCoupling() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.Coupling#: Creates a new Coupling

Analysis.AddCriterionConstraint() → Ansys.ACT.Automation.Mechanical.CriterionConstraint#: Creates a new CriterionConstraint

Analysis.AddCurrent() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.Current#: Creates a new Current

Analysis.AddCyclicManufacturingConstraint() → Ansys.ACT.Automation.Mechanical.CyclicManufacturingConstraint#: Creates a new CyclicManufacturingConstraint

Analysis.AddCylindricalSupport() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.CylindricalSupport#: Creates a new CylindricalSupport

Analysis.AddDetonationPoint() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.DetonationPoint#: Creates a new DetonationPoint

Analysis.AddDisplacement() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.Displacement#: Creates a new Displacement

Analysis.AddDisplacementConstraint() → Ansys.ACT.Automation.Mechanical.DisplacementConstraint#: Creates a new DisplacementConstraint

Analysis.AddDynamicComplianceConstraint() → Ansys.ACT.Automation.Mechanical.DynamicComplianceConstraint#: Creates a new DynamicComplianceConstraint

Analysis.AddEMTransducer() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.EMTransducer#: Creates a new EMTransducer

Analysis.AddEarthGravity() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.EarthGravity#: Creates a new EarthGravity

Analysis.AddElasticSupport() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.ElasticSupport#: Creates a new ElasticSupport

Analysis.AddElectricCharge() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.ElectricCharge#: Creates a new ElectricCharge

Analysis.AddElementBirthAndDeath() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.ElementBirthAndDeath#: Creates a new ElementBirthAndDeath

Analysis.AddExtrusionManufacturingConstraint() → Ansys.ACT.Automation.Mechanical.ExtrusionManufacturingConstraint#: Creates a new ExtrusionManufacturingConstraint

Analysis.AddFigure() → Ansys.ACT.Automation.Mechanical.Figure#: Creates a new child Figure.

Analysis.AddFixedRotation() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.FixedRotation#: Creates a new FixedRotation

Analysis.AddFixedSupport() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.FixedSupport#: Creates a new FixedSupport

Analysis.AddFluidPenetrationPressure() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.FluidPenetrationPressure#

Creates a new Fluid Penetration Pressure object in Mechanical. This load object is used to simulate surrounding fluid or air penetrating into the contact interface.
    Users can apply this load to flexible-to-flexible or rigid-to-flexible contact pairs. This load object is available for static structural analysis.

Analysis.AddFluidSolidInterface() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.FluidSolidInterface#: Creates a new FluidSolidInterface

Analysis.AddForce() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.Force#: Creates a new Force

Analysis.AddFrictionlessSupport() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.FrictionlessSupport#: Creates a new FrictionlessSupport

Analysis.AddGeneralizedPlaneStrain() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.GeneralizedPlaneStrain#: Creates a new GeneralizedPlaneStrain

Analysis.AddGeometryBasedAdaptivity() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.GeometryBasedAdaptivity#: Creates a new GeometryBasedAdaptivity

Analysis.AddGlobalVonMisesStressConstraint() → Ansys.ACT.Automation.Mechanical.GlobalVonMisesStressConstraint#: Creates a new GlobalVonMisesStressConstraint

Analysis.AddHeatFlow() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.HeatFlow#: Creates a new HeatFlow

Analysis.AddHeatFlux() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.HeatFlux#: Creates a new HeatFlux

Analysis.AddHousingConstraint() → Ansys.ACT.Automation.Mechanical.HousingConstraint#: Creates a new HousingConstraint

Analysis.AddHydrostaticPressure() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.HydrostaticPressure#: Creates a new HydrostaticPressure

Analysis.AddImage(filePath: str) → Ansys.ACT.Automation.Mechanical.Image#

Creates a new child Image.
If a filePath is provided, the image will be loaded from that file,
if not, the image will be a screen capture of the Geometry window.

Analysis.AddImpedanceBoundary() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.ImpedanceBoundary#: Creates a new ImpedanceBoundary

Analysis.AddImportedCFDPressure() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.ImportedCFDPressure#: Creates a new ImportedCFDPressure

Analysis.AddImportedLoadExternalData() → Ansys.ACT.Automation.Mechanical.ImportedLoads.ImportedLoadGroup#: Creates a new Imported Load (External Data).

Analysis.AddImportedLoadFluidsResultsFile() → Ansys.ACT.Automation.Mechanical.ImportedLoads.ImportedLoadGroup#: Creates a new Import Load for Fluids Results File.

Analysis.AddImportedLoadMAPDLResultsFile() → Ansys.ACT.Automation.Mechanical.ImportedLoads.ImportedLoadGroup#: Creates a new Import Load for MAPDL Results File.

Analysis.AddImportedRemoteLoadsGroup() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.LoadGroup#: Creates a new Import Remote Load Group.

Analysis.AddInitialVelocity() → Ansys.ACT.Automation.Mechanical.InitialCondition#: Creates a new child Initial Velocity.

Analysis.AddInternalHeatGeneration() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.InternalHeatGeneration#: Creates a new InternalHeatGeneration

Analysis.AddJointLoad() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.JointLoad#: Creates a new JointLoad

Analysis.AddLimitBoundary() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.LimitBoundary#: Creates a new LimitBoundary

Analysis.AddLinePressure() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.LinePressure#: Creates a new LinePressure

Analysis.AddLocalVonMisesStressConstraint() → Ansys.ACT.Automation.Mechanical.LocalVonMisesStressConstraint#: Creates a new LocalVonMisesStressConstraint

Analysis.AddMagneticFluxParallel() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.MagneticFluxParallel#: Creates a new MagneticFluxParallel

Analysis.AddMassConstraint() → Ansys.ACT.Automation.Mechanical.MassConstraint#: Creates a new MassConstraint

Analysis.AddMassFlowRate() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.MassFlowRate#: Creates a new MassFlowRate

Analysis.AddMemberSizeManufacturingConstraint() → Ansys.ACT.Automation.Mechanical.MemberSizeManufacturingConstraint#: Creates a new MemberSizeManufacturingConstraint

Analysis.AddMoment() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.Moment#: Creates a new Moment

Analysis.AddMomentOfInertiaConstraint() → Ansys.ACT.Automation.Mechanical.MomentOfInertiaConstraint#: Creates a new MomentOfInertiaConstraint

Analysis.AddMorphingRegion() → Ansys.ACT.Automation.Mechanical.MorphingRegion#: Creates a new MorphingRegion

Analysis.AddNaturalFrequencyConstraint() → Ansys.ACT.Automation.Mechanical.NaturalFrequencyConstraint#: Creates a new NaturalFrequencyConstraint

Analysis.AddNodalDisplacement() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.NodalDisplacement#: Creates a new NodalDisplacement

Analysis.AddNodalForce() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.NodalForce#: Creates a new NodalForce

Analysis.AddNodalOrientation() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.NodalOrientation#: Creates a new NodalOrientation

Analysis.AddNodalPressure() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.NodalPressure#: Creates a new NodalPressure

Analysis.AddNodalRotation() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.NodalRotation#: Creates a new NodalRotation

Analysis.AddNonlinearAdaptiveRegion() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.NonlinearAdaptiveRegion#: Creates a new NonlinearAdaptiveRegion

Analysis.AddObjective() → Ansys.ACT.Automation.Mechanical.Objective#: Creates a new Objective

Analysis.AddOptimizationRegion() → Ansys.ACT.Automation.Mechanical.OptimizationRegion#: Creates a new OptimizationRegion

Analysis.AddPSDAcceleration() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.PSDAcceleration#: Creates a new PSDAcceleration

Analysis.AddPSDDisplacement() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.PSDDisplacement#: Creates a new PSDDisplacement

Analysis.AddPSDGAcceleration() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.PSDGAcceleration#: Creates a new PSDGAcceleration

Analysis.AddPSDVelocity() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.PSDVelocity#: Creates a new PSDVelocity

Analysis.AddPatternRepetitionConstraint() → Ansys.ACT.Automation.Mechanical.PatternRepetitionConstraint#: Creates a new PatternRepetitionConstraint

Analysis.AddPerfectlyInsulated() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.PerfectlyInsulated#: Creates a new PerfectlyInsulated

Analysis.AddPhysicsRegion() → Ansys.ACT.Automation.Mechanical.PhysicsRegion#: Creates a new PhysicsRegion

Analysis.AddPipeIdealization() → Ansys.ACT.Automation.Mechanical.PipeIdealization#: Creates a new child PipeIdealization.

Analysis.AddPipePressure() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.PipePressure#: Creates a new PipePressure

Analysis.AddPipeTemperature() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.PipeTemperature#: Creates a new PipeTemperature

Analysis.AddPlasticHeating() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.PlasticHeating#: Creates a new PlasticHeating

Analysis.AddPressure(representation: Ansys.Mechanical.DataModel.MechanicalEnums.BoundaryConditions.DataRepresentation) → Ansys.ACT.Automation.Mechanical.BoundaryConditions.Pressure#

Creates a new child Pressure.
DataRepresentation.Field will use the Field object for working with tabular data
DataRepresentation.Flexible allows the use of the following types when the pressure is defined as a normal to a surface:
Quantity: The unit must be a valid Pressure unit
string: It is interpreted as s table if it matches a Table name. Else it is interpreted as an expresion
Table: A table object can be specified.

Analysis.AddPullOutDirectionManufacturingConstraint() → Ansys.ACT.Automation.Mechanical.PullOutDirectionManufacturingConstraint#: Creates a new PullOutDirectionManufacturingConstraint

Analysis.AddPythonCodeEventBased() → Ansys.ACT.Automation.Mechanical.PythonCodeEventBased#: Creates a new PythonCodeEventBased

Analysis.AddRSAcceleration() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.RSAcceleration#: Creates a new RSAcceleration

Analysis.AddRSDisplacement() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.RSDisplacement#: Creates a new RSDisplacement

Analysis.AddRSVelocity() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.RSVelocity#: Creates a new RSVelocity

Analysis.AddRadiation() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.Radiation#: Creates a new Radiation

Analysis.AddReactionForceConstraint() → Ansys.ACT.Automation.Mechanical.ReactionForceConstraint#: Creates a new ReactionForceConstraint

Analysis.AddRemoteDisplacement() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.RemoteDisplacement#: Creates a new RemoteDisplacement

Analysis.AddRemoteForce() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.RemoteForce#: Creates a new RemoteForce

Analysis.AddRotatingForce() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.RotatingForce#: Creates a new RotatingForce

Analysis.AddRotationalAcceleration() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.RotationalAcceleration#: Creates a new RotationalAcceleration

Analysis.AddRotationalVelocity() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.RotationalVelocity#: Creates a new RotationalVelocity

Analysis.AddSimplySupported() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.SimplySupported#: Creates a new SimplySupported

Analysis.AddSourceConductor() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.LoadGroup#: Creates a new child SourceConductor.

Analysis.AddSubstructureGenerationCondensedPart() → Ansys.ACT.Automation.Mechanical.SubstructureGenerationCondensedPart#: Creates a new SubstructureGenerationCondensedPart

Analysis.AddSurfaceChargeDensity() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.SurfaceChargeDensity#: Creates a new SurfaceChargeDensity

Analysis.AddSymmetryManufacturingConstraint() → Ansys.ACT.Automation.Mechanical.SymmetryManufacturingConstraint#: Creates a new SymmetryManufacturingConstraint

Analysis.AddSystemCouplingRegion() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.FluidSolidInterface#: Creates a new SystemCouplingRegion

Analysis.AddTemperature(representation: Ansys.Mechanical.DataModel.MechanicalEnums.BoundaryConditions.DataRepresentation) → Ansys.ACT.Automation.Mechanical.BoundaryConditions.Temperature#

Creates a new child Temperature.
DataRepresentation.Field will use the Field object for working with tabular data
DataRepresentation.Flexible allows the use of the following types:
Quantity: The unit must be a valid temperature unit
string: It is interpreted as s table if it matches a Table name. Else it is interpreted as an expresion
Table: A table object can be specified.

Analysis.AddTemperatureConstraint() → Ansys.ACT.Automation.Mechanical.TemperatureConstraint#: Creates a new TemperatureConstraint

Analysis.AddThermalComplianceConstraint() → Ansys.ACT.Automation.Mechanical.ThermalComplianceConstraint#: Creates a new ThermalComplianceConstraint

Analysis.AddThermalCondition(representation: Ansys.Mechanical.DataModel.MechanicalEnums.BoundaryConditions.DataRepresentation) → Ansys.ACT.Automation.Mechanical.BoundaryConditions.ThermalCondition#

Creates a new child ThermalCondition.
DataRepresentation.Field will use the Field object for working with tabular data
DataRepresentation.Flexible allows the use of the following types:
Quantity: The unit must be a valid temperature unit
string: It is interpreted as s table if it matches a Table name. Else it is interpreted as an expresion
Table: A table object can be specified.

Analysis.AddUniformConstraint() → Ansys.ACT.Automation.Mechanical.UniformConstraint#: Creates a new UniformConstraint

Analysis.AddVelocity() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.Velocity#: Creates a new Velocity

Analysis.AddViscoelasticHeating() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.ViscoelasticHeating#: Creates a new ViscoelasticHeating

Analysis.AddVoltage() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.Voltage#: Creates a new Voltage

Analysis.AddVoltageCoupling() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.Coupling#: Creates a new Coupling

Analysis.AddVoltageGround() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.VoltageGround#: Creates a new VoltageGround

Analysis.AddVolumeChargeDensity() → Ansys.ACT.Automation.Mechanical.BoundaryConditions.VolumeChargeDensity#: Creates a new VolumeChargeDensity

Analysis.AddVolumeConstraint() → Ansys.ACT.Automation.Mechanical.VolumeConstraint#: Creates a new VolumeConstraint

Analysis.ClearGeneratedData() → None#: Run the ClearGeneratedData action.

Analysis.CopyTo(other: Ansys.ACT.Automation.Mechanical.DataModelObject) → None#: Copies all visible properties from this object to another.

Analysis.CreateAutomaticFSI() → None#: Run the CreateAutomaticFSI action.

Analysis.CreateAutomaticFSIandFarFieldRadiationSurfaces() → None#: Run the CreateAutomaticFSIandEquivalentSourceSurfaces action.

Analysis.CreateAutomaticFarFieldRadiationSurfaces() → None#: Run the CreateAutomaticEquivalentSourceSurfaces action.

Analysis.CreateParameter(propName: str) → Ansys.ACT.Interfaces.Mechanical.IParameter#: Creates a new parameter for a Property.

Analysis.Delete() → None#: Run the Delete action.

Analysis.Duplicate() → Ansys.Mechanical.DataModel.Interfaces.IDataModelObject#: Duplicate method.

Analysis.ExportNastranFile(exportOptions: Ansys.ACT.Automation.Mechanical.NastranExportOptions) → None#: Export Nastran File.

Analysis.FilterBasedOnEnvironment() → None#

Enables interface filtering that only displays model-level items applicable to
    the currently selected environment type.

Analysis.GetChildren(recurses: bool, children: List[ChildrenType]) → List[ChildrenType]#: Gets the list of children, filtered by type.

Analysis.GetParameter(propName: str) → Ansys.ACT.Interfaces.Mechanical.IParameter#: Gets the parameter corresponding to the given property.

Analysis.GroupAllSimilarChildren() → None#: Run the GroupAllSimilarChildren action.

Analysis.GroupSimilarObjects() → Ansys.ACT.Automation.Mechanical.TreeGroupingFolder#: Run the GroupSimilarObjects action.

Analysis.ImportLoad(analysis: Ansys.ACT.Automation.Mechanical.Analysis) → None#: Import Load action.

Analysis.OpenSolverFilesDirectory() → None#: Run the OpenSolverFilesDirectory action.

Analysis.PropertyByAPIName(name: str) → Ansys.ACT.Automation.Mechanical.Property#

Get a property by its API name.
If multiple properties have the same API Name, only the first property with that name will be returned.

Analysis.PropertyByName(name: str) → Ansys.ACT.Automation.Mechanical.Property#: Get a property by its unique name.

Analysis.RemoveParameter(propName: str) → None#: Removes the parameter from the parameter set corresponding to the given property.

Analysis.SelectBodiesWithMultiplePhysicsRegion() → None#: Run the SelectBodiesWithMultiplePhysicsRegion action to select the bodies that belong to more than one Physics Region.

Analysis.SelectBodiesWithoutPhysicsRegion() → None#: Run the SelectBodiesWithoutPhysicsRegion action to select the bodies that don't belong to a Physics Region.

Analysis.Solve(wait: bool) → None#: Run the Solve action.

Analysis.TransferDataFrom(analysis: Ansys.ACT.Automation.Mechanical.Analysis) → None#: Transfer Data From action.

Analysis.UnlinkDataFrom(analysis: Ansys.ACT.Automation.Mechanical.Analysis) → None#: Unlink Data From action.

Analysis.WriteSystemCouplingFiles(filename: str) → None#: Writes the system coupling files. Usage WriteSystemCouplingFiles(“C:Desktoptempscp1.scp”);