// Created on: 1991-04-12 // Created by: Michel CHAUVAT // Copyright (c) 1991-1999 Matra Datavision // Copyright (c) 1999-2014 OPEN CASCADE SAS // // This file is part of Open CASCADE Technology software library. // // This library is free software; you can redistribute it and/or modify it under // the terms of the GNU Lesser General Public License version 2.1 as published // by the Free Software Foundation, with special exception defined in the file // OCCT_LGPL_EXCEPTION.txt. Consult the file LICENSE_LGPL_21.txt included in OCCT // distribution for complete text of the license and disclaimer of any warranty. // // Alternatively, this file may be used under the terms of Open CASCADE // commercial license or contractual agreement. #ifndef _BRepGProp_Vinert_HeaderFile #define _BRepGProp_Vinert_HeaderFile #include #include #include #include #include class BRepGProp_Face; class gp_Pnt; class gp_Pln; class BRepGProp_Domain; //! Computes the global properties of a geometric solid //! (3D closed region of space) delimited with : //! . a surface //! . a point and a surface //! . a plane and a surface //! //! The surface can be : //! . a surface limited with its parametric values U-V, //! . a surface limited in U-V space with its curves of restriction, //! //! The surface 's requirements to evaluate the global properties //! are defined in the template SurfaceTool from package GProp. class BRepGProp_Vinert : public GProp_GProps { public: DEFINE_STANDARD_ALLOC Standard_EXPORT BRepGProp_Vinert(); //! Computes the global properties of a region of 3D space //! delimited with the surface and the point VLocation. S can be closed //! The method is quick and its precision is enough for many cases of analytical //! surfaces. //! Non-adaptive 2D Gauss integration with predefined numbers of Gauss points //! is used. Numbers of points depend on types of surfaces and curves. //! Error of the computation is not calculated. Standard_EXPORT BRepGProp_Vinert(const BRepGProp_Face& S, const gp_Pnt& VLocation); //! Computes the global properties of a region of 3D space //! delimited with the surface and the point VLocation. S can be closed //! Adaptive 2D Gauss integration is used. //! Parameter Eps sets maximal relative error of computed mass (volume) for face. //! Error is calculated as Abs((M(i+1)-M(i))/M(i+1)), M(i+1) and M(i) are values //! for two successive steps of adaptive integration. Standard_EXPORT BRepGProp_Vinert(BRepGProp_Face& S, const gp_Pnt& VLocation, const Standard_Real Eps); //! Computes the global properties of the region of 3D space //! delimited with the surface and the point VLocation. //! The method is quick and its precision is enough for many cases of analytical //! surfaces. //! Non-adaptive 2D Gauss integration with predefined numbers of Gauss points //! is used. Numbers of points depend on types of surfaces and curves. //! Error of the computation is not calculated. Standard_EXPORT BRepGProp_Vinert(const BRepGProp_Face& S, const gp_Pnt& O, const gp_Pnt& VLocation); //! Computes the global properties of the region of 3D space //! delimited with the surface and the point VLocation. //! Adaptive 2D Gauss integration is used. //! Parameter Eps sets maximal relative error of computed mass (volume) for face. //! Error is calculated as Abs((M(i+1)-M(i))/M(i+1)), M(i+1) and M(i) are values //! for two successive steps of adaptive integration. //! WARNING: if Eps > 0.001 algorithm performs non-adaptive integration. Standard_EXPORT BRepGProp_Vinert(BRepGProp_Face& S, const gp_Pnt& O, const gp_Pnt& VLocation, const Standard_Real Eps); //! Computes the global properties of the region of 3D space //! delimited with the surface and the plane Pln. //! The method is quick and its precision is enough for many cases of analytical //! surfaces. //! Non-adaptive 2D Gauss integration with predefined numbers of Gauss points //! is used. Numbers of points depend on types of surfaces and curves. //! Error of the computation is not calculated. Standard_EXPORT BRepGProp_Vinert(const BRepGProp_Face& S, const gp_Pln& Pl, const gp_Pnt& VLocation); //! Computes the global properties of the region of 3D space //! delimited with the surface and the plane Pln. //! Adaptive 2D Gauss integration is used. //! Parameter Eps sets maximal relative error of computed mass (volume) for face. //! Error is calculated as Abs((M(i+1)-M(i))/M(i+1)), M(i+1) and M(i) are values //! for two successive steps of adaptive integration. //! WARNING: if Eps > 0.001 algorithm performs non-adaptive integration. Standard_EXPORT BRepGProp_Vinert(BRepGProp_Face& S, const gp_Pln& Pl, const gp_Pnt& VLocation, const Standard_Real Eps); //! Computes the global properties of a region of 3D space //! delimited with the surface and the point VLocation. S can be closed //! The method is quick and its precision is enough for many cases of analytical //! surfaces. //! Non-adaptive 2D Gauss integration with predefined numbers of Gauss points //! is used. Numbers of points depend on types of surfaces and curves. //! Error of the computation is not calculated. Standard_EXPORT BRepGProp_Vinert(BRepGProp_Face& S, BRepGProp_Domain& D, const gp_Pnt& VLocation); //! Computes the global properties of a region of 3D space //! delimited with the surface and the point VLocation. S can be closed //! Adaptive 2D Gauss integration is used. //! Parameter Eps sets maximal relative error of computed mass (volume) for face. //! Error is calculated as Abs((M(i+1)-M(i))/M(i+1)), M(i+1) and M(i) are values //! for two successive steps of adaptive integration. Standard_EXPORT BRepGProp_Vinert(BRepGProp_Face& S, BRepGProp_Domain& D, const gp_Pnt& VLocation, const Standard_Real Eps); //! Computes the global properties of the region of 3D space //! delimited with the surface and the point VLocation. //! The method is quick and its precision is enough for many cases of analytical //! surfaces. //! Non-adaptive 2D Gauss integration with predefined numbers of Gauss points //! is used. Numbers of points depend on types of surfaces and curves. //! Error of the computation is not calculated. Standard_EXPORT BRepGProp_Vinert(BRepGProp_Face& S, BRepGProp_Domain& D, const gp_Pnt& O, const gp_Pnt& VLocation); //! Computes the global properties of the region of 3D space //! delimited with the surface and the point VLocation. //! Adaptive 2D Gauss integration is used. //! Parameter Eps sets maximal relative error of computed mass (volume) for face. //! Error is calculated as Abs((M(i+1)-M(i))/M(i+1)), M(i+1) and M(i) are values //! for two successive steps of adaptive integration. //! WARNING: if Eps > 0.001 algorithm performs non-adaptive integration. Standard_EXPORT BRepGProp_Vinert(BRepGProp_Face& S, BRepGProp_Domain& D, const gp_Pnt& O, const gp_Pnt& VLocation, const Standard_Real Eps); //! Computes the global properties of the region of 3D space //! delimited with the surface and the plane Pln. //! The method is quick and its precision is enough for many cases of analytical //! surfaces. //! Non-adaptive 2D Gauss integration with predefined numbers of Gauss points //! is used. Numbers of points depend on types of surfaces and curves. //! Error of the computation is not calculated. Standard_EXPORT BRepGProp_Vinert(BRepGProp_Face& S, BRepGProp_Domain& D, const gp_Pln& Pl, const gp_Pnt& VLocation); //! Computes the global properties of the region of 3D space //! delimited with the surface and the plane Pln. //! Adaptive 2D Gauss integration is used. //! Parameter Eps sets maximal relative error of computed mass (volume) for face. //! Error is calculated as Abs((M(i+1)-M(i))/M(i+1)), M(i+1) and M(i) are values //! for two successive steps of adaptive integration. //! WARNING: if Eps > 0.001 algorithm performs non-adaptive integration. Standard_EXPORT BRepGProp_Vinert(BRepGProp_Face& S, BRepGProp_Domain& D, const gp_Pln& Pl, const gp_Pnt& VLocation, const Standard_Real Eps); Standard_EXPORT void SetLocation (const gp_Pnt& VLocation); Standard_EXPORT void Perform (const BRepGProp_Face& S); Standard_EXPORT Standard_Real Perform (BRepGProp_Face& S, const Standard_Real Eps); Standard_EXPORT void Perform (const BRepGProp_Face& S, const gp_Pnt& O); Standard_EXPORT Standard_Real Perform (BRepGProp_Face& S, const gp_Pnt& O, const Standard_Real Eps); Standard_EXPORT void Perform (const BRepGProp_Face& S, const gp_Pln& Pl); Standard_EXPORT Standard_Real Perform (BRepGProp_Face& S, const gp_Pln& Pl, const Standard_Real Eps); Standard_EXPORT void Perform (BRepGProp_Face& S, BRepGProp_Domain& D); Standard_EXPORT Standard_Real Perform (BRepGProp_Face& S, BRepGProp_Domain& D, const Standard_Real Eps); Standard_EXPORT void Perform (BRepGProp_Face& S, BRepGProp_Domain& D, const gp_Pnt& O); Standard_EXPORT Standard_Real Perform (BRepGProp_Face& S, BRepGProp_Domain& D, const gp_Pnt& O, const Standard_Real Eps); Standard_EXPORT void Perform (BRepGProp_Face& S, BRepGProp_Domain& D, const gp_Pln& Pl); Standard_EXPORT Standard_Real Perform (BRepGProp_Face& S, BRepGProp_Domain& D, const gp_Pln& Pl, const Standard_Real Eps); //! If previously used methods containe Eps parameter //! gets actual relative error of the computation, else returns 1.0. Standard_EXPORT Standard_Real GetEpsilon(); protected: private: Standard_Real myEpsilon; }; #endif // _BRepGProp_Vinert_HeaderFile