Computes the global properties of a face in 3D space. The face 's requirements to evaluate the global properties are defined in the template FaceTool from package GProp. More...

#include <BRepGProp_Sinert.hxx>

Inheritance diagram for BRepGProp_Sinert:

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Public Member Functions
	BRepGProp_Sinert ()

	BRepGProp_Sinert (const BRepGProp_Face &S, const gp_Pnt &SLocation)

	BRepGProp_Sinert (BRepGProp_Face &S, BRepGProp_Domain &D, const gp_Pnt &SLocation)
	Builds a Sinert to evaluate the global properties of the face ~~. If isNaturalRestriction is true the domain of S is defined with the natural bounds, else it defined with an iterator of Edge from TopoDS (see DomainTool from GProp)~~

	BRepGProp_Sinert (BRepGProp_Face &S, const gp_Pnt &SLocation, const double Eps)

	BRepGProp_Sinert (BRepGProp_Face &S, BRepGProp_Domain &D, const gp_Pnt &SLocation, const double Eps)

void	SetLocation (const gp_Pnt &SLocation)

void	Perform (const BRepGProp_Face &S)

void	Perform (BRepGProp_Face &S, BRepGProp_Domain &D)

double	Perform (BRepGProp_Face &S, const double Eps)

double	Perform (BRepGProp_Face &S, BRepGProp_Domain &D, const double Eps)

double	GetEpsilon ()
	If previously used method contained Eps parameter get actual relative error of the computation, else return 1.0.

Public Member Functions inherited from GProp_GProps
	GProp_GProps ()
	The origin (0, 0, 0) of the absolute Cartesian coordinate system is used to compute the global properties.

	GProp_GProps (const gp_Pnt &SystemLocation)
	The point SystemLocation is used to compute the global properties of the system. For greater accuracy, define this point close to the location of the system; for example a point near the centre of mass of the system.

void	Add (const GProp_GProps &Item, const double Density=1.0)
	Either:

double	Mass () const
	Returns the mass of the current system.

gp_Pnt	CentreOfMass () const
	Returns the centre of mass of the current system. With a uniform gravitational field this is also the centre of gravity. The coordinates returned for the centre of mass are expressed in the absolute Cartesian coordinate system.

gp_Mat	MatrixOfInertia () const
	Returns the matrix of inertia. It is a symmetric matrix whose coefficients are the quadratic moments of inertia:

void	StaticMoments (double &Ix, double &Iy, double &Iz) const
	Returns the static moments of inertia of the current system - i.e. the moments of inertia about the three axes of the absolute Cartesian coordinate system.

double	MomentOfInertia (const gp_Ax1 &A) const
	Computes the moment of inertia of the system about the axis A.

GProp_PrincipalProps	PrincipalProperties () const
	Computes the principal properties of inertia of the current system. There is always a set of axes for which the products of inertia of a geometric system are equal to 0 - i.e. the matrix of inertia of the system is diagonal. These axes are the principal axes of inertia; their origin coincides with the centre of mass of the system. The associated moments are called the principal moments of inertia.

double	RadiusOfGyration (const gp_Ax1 &A) const
	Returns the radius of gyration of the current system about the axis A.

Additional Inherited Members
Protected Attributes inherited from GProp_GProps
gp_Pnt	g
	Centre of mass (absolute frame)

gp_Pnt	loc
	Reference point used for inertia accumulation.

double	dim
	Total mass / length / area / volume.

gp_Mat	inertia
	Quadratic moments of inertia matrix.

Detailed Description

Computes the global properties of a face in 3D space. The face 's requirements to evaluate the global properties are defined in the template FaceTool from package GProp.

Constructor & Destructor Documentation

◆ BRepGProp_Sinert() [1/5]

BRepGProp_Sinert::BRepGProp_Sinert ( )

◆ BRepGProp_Sinert() [2/5]

BRepGProp_Sinert::BRepGProp_Sinert	(	const BRepGProp_Face &	S,
		const gp_Pnt &	SLocation )

◆ BRepGProp_Sinert() [3/5]

BRepGProp_Sinert::BRepGProp_Sinert	(	BRepGProp_Face &	S,
		BRepGProp_Domain &	D,
		const gp_Pnt &	SLocation )

Builds a Sinert to evaluate the global properties of the face ~~. If isNaturalRestriction is true the domain of S is defined with the natural bounds, else it defined with an iterator of Edge from TopoDS (see DomainTool from GProp)~~

◆ BRepGProp_Sinert() [4/5]

BRepGProp_Sinert::BRepGProp_Sinert	(	BRepGProp_Face &	S,
		const gp_Pnt &	SLocation,
		const double	Eps )

◆ BRepGProp_Sinert() [5/5]

BRepGProp_Sinert::BRepGProp_Sinert	(	BRepGProp_Face &	S,
		BRepGProp_Domain &	D,
		const gp_Pnt &	SLocation,
		const double	Eps )

Member Function Documentation

◆ GetEpsilon()

double BRepGProp_Sinert::GetEpsilon ( )

If previously used method contained Eps parameter get actual relative error of the computation, else return 1.0.

◆ Perform() [1/4]

void BRepGProp_Sinert::Perform	(	BRepGProp_Face &	S,
		BRepGProp_Domain &	D )

◆ Perform() [2/4]

double BRepGProp_Sinert::Perform	(	BRepGProp_Face &	S,
		BRepGProp_Domain &	D,
		const double	Eps )

◆ Perform() [3/4]

double BRepGProp_Sinert::Perform	(	BRepGProp_Face &	S,
		const double	Eps )

◆ Perform() [4/4]

void BRepGProp_Sinert::Perform ( const BRepGProp_Face & S )

◆ SetLocation()

void BRepGProp_Sinert::SetLocation ( const gp_Pnt & SLocation )

The documentation for this class was generated from the following file:

BRepGProp_Sinert.hxx

Public Member Functions

Additional Inherited Members