add vcglib
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/****************************************************************************
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* VCGLib o o *
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* Visual and Computer Graphics Library o o *
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* _ O _ *
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* Copyright(C) 2004-2016 \/)\/ *
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* Visual Computing Lab /\/| *
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* ISTI - Italian National Research Council | *
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* \ *
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* All rights reserved. *
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* *
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* This program is free software; you can redistribute it and/or modify *
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* it under the terms of the GNU General Public License as published by *
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* the Free Software Foundation; either version 2 of the License, or *
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* (at your option) any later version. *
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* *
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* This program is distributed in the hope that it will be useful, *
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* but WITHOUT ANY WARRANTY; without even the implied warranty of *
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* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the *
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* GNU General Public License (http://www.gnu.org/licenses/gpl.txt) *
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* for more details. *
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* *
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****************************************************************************/
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#ifndef __VCG_VERTEX_PLUS_COMPONENT
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#define __VCG_VERTEX_PLUS_COMPONENT
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#include <vector>
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#include <string>
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#include <vcg/space/color4.h>
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#include <vcg/space/texcoord2.h>
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namespace vcg {
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namespace vertex {
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/** \addtogroup VertexComponentGroup
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@{
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*/
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/*------------------------- Base Classes -----------------------------------------*/
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template <class S>
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struct CurvatureDirBaseType{
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typedef Point3<S> VecType;
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typedef S ScalarType;
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CurvatureDirBaseType () {}
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Point3<S>max_dir,min_dir; // max and min curvature direction
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S k1,k2;// max and min curvature values
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};
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/*------------------------- EMPTY CORE COMPONENTS -----------------------------------------*/
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template <class TT> class EmptyCore: public TT {
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public:
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typedef int FlagType;
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int &Flags() { assert(0); static int dummyflags(0); return dummyflags; }
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int Flags() const { return 0; }
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int cFlags() const { return 0; }
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static bool HasFlags() { return false; }
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typedef vcg::Point3f CoordType;
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typedef CoordType::ScalarType ScalarType;
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CoordType &P() { assert(0); static CoordType coord(0, 0, 0); return coord; }
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CoordType P() const { assert(0); static CoordType coord(0, 0, 0); assert(0); return coord; }
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const CoordType &cP() const { assert(0); static CoordType coord(0, 0, 0); assert(0); return coord; }
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static bool HasCoord() { return false; }
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inline bool IsCoordEnabled() const { return TT::VertexType::HasCoord();}
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typedef vcg::Point3s NormalType;
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NormalType &N() { assert(0); static NormalType dummy_normal(0, 0, 0); return dummy_normal; }
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NormalType N() const { assert(0); static NormalType dummy_normal(0, 0, 0); return dummy_normal; }
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const NormalType &cN() const { assert(0); static NormalType dummy_normal(0, 0, 0); return dummy_normal; }
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static bool HasNormal() { return false; }
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inline bool IsNormalEnabled() const { return TT::VertexType::HasNormal();}
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typedef float QualityType;
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QualityType &Q() { assert(0); static QualityType dummyQuality(0); return dummyQuality; }
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QualityType Q() const { assert(0); static QualityType dummyQuality(0); return dummyQuality; }
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const QualityType &cQ() const { assert(0); static QualityType dummyQuality(0); return dummyQuality; }
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static bool HasQuality() { return false; }
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inline bool IsQualityEnabled() const { return TT::VertexType::HasQuality();}
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typedef vcg::Color4b ColorType;
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ColorType &C() { static ColorType dumcolor(vcg::Color4b::White); assert(0); return dumcolor; }
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ColorType C() const { static ColorType dumcolor(vcg::Color4b::White); assert(0); return dumcolor; }
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const ColorType &cC() const { static ColorType dumcolor(vcg::Color4b::White); assert(0); return dumcolor; }
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static bool HasColor() { return false; }
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inline bool IsColorEnabled() const { return TT::VertexType::HasColor();}
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typedef int MarkType;
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void InitIMark() { }
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int cIMark() const { assert(0); static int tmp=-1; return tmp;}
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int IMark() const { assert(0); static int tmp=-1; return tmp;}
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int &IMark() { assert(0); static int tmp=-1; return tmp;}
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static bool HasMark() { return false; }
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inline bool IsMarkEnabled() const { return TT::VertexType::HasMark();}
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typedef ScalarType RadiusType;
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RadiusType &R() { static ScalarType v = 0.0; assert(0 && "the radius component is not available"); return v; }
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RadiusType R() const { static const ScalarType v = 0.0; assert(0 && "the radius component is not available"); return v; }
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const RadiusType &cR() const { static const ScalarType v = 0.0; assert(0 && "the radius component is not available"); return v; }
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static bool HasRadius() { return false; }
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inline bool IsRadiusEnabled() const { return TT::VertexType::HasRadius();}
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typedef vcg::TexCoord2<float,1> TexCoordType;
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TexCoordType &T() { static TexCoordType dummy_texcoord; assert(0); return dummy_texcoord; }
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TexCoordType T() const { static TexCoordType dummy_texcoord; assert(0); return dummy_texcoord; }
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const TexCoordType &cT() const { static TexCoordType dummy_texcoord; assert(0); return dummy_texcoord; }
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static bool HasTexCoord() { return false; }
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inline bool IsTexCoordEnabled() const { return TT::VertexType::HasTexCoord();}
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typename TT::TetraPointer &VTp() { static typename TT::TetraPointer tp = 0; assert(0); return tp; }
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const typename TT::TetraPointer &cVTp() const { static typename TT::TetraPointer tp = 0; assert(0); return tp; }
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int &VTi() { static int z = 0; assert(0); return z; }
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int VTi() const { static int z = 0; assert(0); return z; }
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int cVTi() const { static int z = 0; assert(0); return z; }
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static bool HasVTAdjacency() { return false; }
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bool IsVTInitialized() const {return static_cast<const typename TT::VertexType *>(this)->cVTi()!=-1;}
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void VTClear() {
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if(IsVTInitialized()) {
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static_cast<typename TT::VertexPointer>(this)->VTp()=0;
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static_cast<typename TT::VertexPointer>(this)->VTi()=-1;
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}
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}
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typename TT::FacePointer &VFp() { static typename TT::FacePointer fp=0; assert(0); return fp; }
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const typename TT::FacePointer &cVFp() const { static typename TT::FacePointer fp=0; assert(0); return fp; }
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int &VFi() { static int z=-1; assert(0); return z;}
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int VFi() const { static int z=-1; assert(0); return z;}
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int cVFi() const { static int z=-1; assert(0); return z;}
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bool IsNull() const { return true; }
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static bool HasVFAdjacency() { return false; }
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bool IsVFInitialized() const {return static_cast<const typename TT::VertexType *>(this)->cVFi()!=-1;}
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void VFClear() {
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if(IsVFInitialized()) {
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static_cast<typename TT::VertexPointer>(this)->VFp()=0;
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static_cast<typename TT::VertexPointer>(this)->VFi()=-1;
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}
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}
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typename TT::EdgePointer &VEp() { static typename TT::EdgePointer ep=0; assert(0); return ep; }
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typename TT::EdgePointer cVEp() const { static typename TT::EdgePointer ep=0; assert(0); return ep; }
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int &VEi() { static int z=-1; return z;}
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int VEi() const { static int z=-1; return z;}
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int cVEi() const { static int z=-1; return z;}
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static bool HasVEAdjacency() { return false; }
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bool IsVEInitialized() const {return static_cast<const typename TT::VertexType *>(this)->cVEi()!=-1;}
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void VEClear() {
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if(IsVEInitialized()) {
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static_cast<typename TT::VertexPointer>(this)->VEp()=0;
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static_cast<typename TT::VertexPointer>(this)->VEi()=-1;
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}
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}
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typename TT::HEdgePointer &VHp() { static typename TT::HEdgePointer ep=0; assert(0); return ep; }
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typename TT::HEdgePointer cVHp() const { static typename TT::HEdgePointer ep=0; assert(0); return ep; }
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int &VHi() { static int z=0; return z;}
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int VHi() const { static int z=0; return z;}
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int cVHi() const { static int z=0; return z;}
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static bool HasVHAdjacency() { return false; }
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typedef float CurScalarType;
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typedef Point3f CurVecType;
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typedef Point2f CurvatureType;
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typedef CurvatureDirBaseType<float> CurvatureDirType;
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CurVecType &PD1() {static CurVecType v(0,0,0); assert(0);return v;}
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CurVecType &PD2() {static CurVecType v(0,0,0); assert(0);return v;}
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CurVecType PD1() const {static CurVecType v(0,0,0); assert(0);return v;}
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CurVecType PD2() const {static CurVecType v(0,0,0); assert(0);return v;}
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const CurVecType &cPD1() const {static CurVecType v(0,0,0); assert(0);return v;}
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const CurVecType &cPD2() const {static CurVecType v(0,0,0); assert(0);return v;}
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CurScalarType &K1() {static ScalarType v = 0.0;assert(0);return v;}
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CurScalarType &K2() {static ScalarType v = 0.0;assert(0);return v;}
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CurScalarType K1() const {static ScalarType v = 0.0;assert(0);return v;}
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CurScalarType K2() const {static ScalarType v = 0.0;assert(0);return v;}
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const CurScalarType &cK1() const {static ScalarType v = 0.0;assert(0);return v;}
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const CurScalarType &cK2() const {static ScalarType v = 0.0;assert(0);return v;}
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static bool HasCurvatureDir() { return false; }
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inline bool IsCurvatureDirEnabled() const { return TT::VertexType::HasCurvatureDir();}
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template < class RightValueType>
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void ImportData(const RightValueType & /*rVert*/ ) {
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// TT::ImportData( rVert);
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}
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static void Name(std::vector<std::string> & name){TT::Name(name);}
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};
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/*-------------------------- COORD ----------------------------------------*/
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/*! \brief \em Generic Component: \b Geometric \b Position of the vertex
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Templated on the coordinate class. In practice you use one of the two specialized class Coord3f and Coord3d
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You can access to the coordinate of a vertex by mean of the P(),cP() member functions.
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*/
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template <class A, class T> class Coord: public T {
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public:
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typedef A CoordType;
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typedef typename A::ScalarType ScalarType;
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/// Return a const reference to the coordinate of the vertex
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inline const CoordType &P() const { return _coord; }
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/// Return a reference to the coordinate of the vertex
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inline CoordType &P() { return _coord; }
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/// Return a const reference to the coordinate of the vertex
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inline const CoordType &cP() const { return _coord; }
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template < class RightValueType>
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void ImportData(const RightValueType & rVert ) { if(rVert.IsCoordEnabled()) P().Import(rVert.cP()); T::ImportData( rVert); }
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static bool HasCoord() { return true; }
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static void Name(std::vector<std::string> & name){name.push_back(std::string("Coord"));T::Name(name);}
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private:
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CoordType _coord;
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};
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/// Specialized Coord Component in floating point precision.
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template <class T> class Coord3f: public Coord<vcg::Point3f, T> {
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public: static void Name(std::vector<std::string> & name){name.push_back(std::string("Coord3f"));T::Name(name);}
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};
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/// Specialized Coord Component in double point precision.
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template <class T> class Coord3d: public Coord<vcg::Point3d, T> {
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public: static void Name(std::vector<std::string> & name){name.push_back(std::string("Coord3d"));T::Name(name);}
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};
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/*-------------------------- NORMAL ----------------------------------------*/
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/*! \brief \em Generic Component: \b %Normal of the vertex
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Templated on the Point3 class used to store the normal.
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In practice you use one of the two specialized class Normal3f and Normal3d.
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You can access to the normal of a vertex by mean of the N(),cN() member functions.
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\note Many algorithms assume that, for sake of precision coherence,
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the type of the normal is the same with respect to the type coord component.
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*/
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template <class A, class T> class Normal: public T {
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public:
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typedef A NormalType;
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/// Return a const reference to the normal of the vertex
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inline const NormalType &N() const { return _norm; }
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/// Return a reference to the normal of the vertex
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inline NormalType &N() { return _norm; }
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/// Return a const reference to the normal of the vertex
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inline const NormalType &cN() const { return _norm; }
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template < class RightValueType>
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void ImportData(const RightValueType & rVert ){
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if(rVert.IsNormalEnabled()) N().Import(rVert.cN());
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T::ImportData( rVert);
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}
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static bool HasNormal() { return true; }
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static void Name(std::vector<std::string> & name){name.push_back(std::string("Normal"));T::Name(name);}
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private:
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NormalType _norm;
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};
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template <class T> class Normal3s: public Normal<vcg::Point3s, T> {
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public:static void Name(std::vector<std::string> & name){name.push_back(std::string("Normal3s"));T::Name(name);}
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};
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/// Specialized Normal component in floating point precision.
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template <class T> class Normal3f: public Normal<vcg::Point3f, T> {
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public: static void Name(std::vector<std::string> & name){name.push_back(std::string("Normal3f"));T::Name(name);}
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};
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/// Specialized Normal component in double point precision.
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template <class T> class Normal3d: public Normal<vcg::Point3d, T> {
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public: static void Name(std::vector<std::string> & name){name.push_back(std::string("Normal3d"));T::Name(name);}
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};
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/*-------------------------- INCREMENTAL MARK ----------------------------------------*/
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/*! \brief Per vertex \b Incremental \b Mark
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It is just an int that allows to efficently un-mark the whole mesh. \sa UnmarkAll
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*/
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template <class T> class Mark: public T {
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public:
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Mark():_imark(0){}
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/// Return a const reference to the incremental mark value
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inline const int &IMark() const { return _imark; }
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/// Return a reference to the incremental mark value
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inline int &IMark() { return _imark; }
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/// Return a const reference to the incremental mark value
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inline int cIMark() const { return _imark; }
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static bool HasMark() { return true; }
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inline void InitIMark() { _imark = 0; }
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template < class RightValueType>
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void ImportData(const RightValueType & rVert ) { if(rVert.IsMarkEnabled()) IMark() = rVert.cIMark(); T::ImportData( rVert); }
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static void Name(std::vector<std::string> & name){name.push_back(std::string("Mark"));T::Name(name);}
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private:
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int _imark;
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};
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/*-------------------------- TEXCOORD ----------------------------------------*/
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/*! \brief \em Generic Component: Per vertex \b Texture Coords
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Note that to have multiple different TexCoord for a single vertex
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(as it happens on atlas where a vertex can belong to two triangles
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mapped on different portionof the texture) you have two options:
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- explicit duplication of vertexes
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- use PerWedge Texture coords
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It is templated on the TextureCoord type. Usually you use the specialized classes TexCoord2f or TexCoord2d;
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See the TexCoord2 class to see how to access to texture coordinate values.
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*/
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template <class A, class TT> class TexCoord: public TT {
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public:
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typedef A TexCoordType;
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/// Return a const reference to the Texture Coordinate
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const TexCoordType &T() const { return _t; }
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TexCoordType &T() { return _t; }
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const TexCoordType &cT() const { return _t; }
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template < class RightValueType>
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void ImportData(const RightValueType & rVert ) { if(rVert.IsTexCoordEnabled()) T().Import(rVert.cT()); TT::ImportData(rVert); }
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static bool HasTexCoord() { return true; }
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static void Name(std::vector<std::string> & name){name.push_back(std::string("TexCoord"));TT::Name(name);}
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private:
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TexCoordType _t;
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};
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template <class TT> class TexCoord2s: public TexCoord<TexCoord2<short,1>, TT> {
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public: static void Name(std::vector<std::string> & name){name.push_back(std::string("TexCoord2s"));TT::Name(name);}
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};
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/// Specialized Texture component in floating point precision.
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template <class TT> class TexCoord2f: public TexCoord<TexCoord2<float,1>, TT> {
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public: static void Name(std::vector<std::string> & name){name.push_back(std::string("TexCoord2f"));TT::Name(name);}
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};
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/// Specialized Texture component in double precision.
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template <class TT> class TexCoord2d: public TexCoord<TexCoord2<double,1>, TT> {
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public: static void Name(std::vector<std::string> & name){name.push_back(std::string("TexCoord2d"));TT::Name(name);}
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};
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/*------------------------- FLAGS -----------------------------------------*/
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/*! \brief \em Component: Per vertex \b Flags
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This component stores a 32 bit array of bit flags.
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These bit flags are used for keeping track of selection, deletion, visiting etc. \sa \ref flags for more details on common uses of flags.
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*/
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template <class T> class BitFlags: public T {
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public:
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BitFlags(){_flags=0;}
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typedef int FlagType;
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inline const int &Flags() const {return _flags;}
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inline int &Flags() {return _flags;}
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inline int cFlags() const {return _flags;}
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template < class RightValueType>
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void ImportData(const RightValueType & rVert ) { if(RightValueType::HasFlags()) Flags() = rVert.cFlags(); T::ImportData( rVert); }
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static bool HasFlags() { return true; }
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static void Name(std::vector<std::string> & name){name.push_back(std::string("BitFlags"));T::Name(name);}
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private:
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int _flags;
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};
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/*-------------------------- Color ----------------------------------*/
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/*! \brief \em Component: Per vertex \b Color
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*
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* Usually most of the library expects a color stored as 4 unsigned chars (so the component you use is a \c vertex::Color4b)
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* but you can also use float for the color components.
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*/
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template <class A, class T> class Color: public T {
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public:
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Color():_color(vcg::Color4b::White) {}
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typedef A ColorType;
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inline const ColorType &C() const { return _color; }
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inline ColorType &C() { return _color; }
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inline const ColorType &cC() const { return _color; }
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template < class RightValueType>
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void ImportData(const RightValueType & rVert ) { if(rVert.IsColorEnabled()) C() = rVert.cC(); T::ImportData( rVert); }
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static bool HasColor() { return true; }
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static void Name(std::vector<std::string> & name){name.push_back(std::string("Color"));T::Name(name);}
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private:
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ColorType _color;
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};
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template <class TT> class Color4b: public Color<vcg::Color4b, TT> {
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public: static void Name(std::vector<std::string> & name){name.push_back(std::string("Color4b"));TT::Name(name);}
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};
|
||||
|
||||
/*-------------------------- Quality ----------------------------------*/
|
||||
/*! \brief \em Component: Per vertex \b quality
|
||||
The Quality Component is a generic place for storing a float. The term 'quality' is a bit misleading and it is due to its original storic meaning. You should intend it as a general purpose container.
|
||||
\sa vcg::tri::UpdateColor for methods transforming quality into colors
|
||||
\sa vcg::tri::UpdateQuality for methods to manage it
|
||||
|
||||
*/
|
||||
|
||||
template <class A, class TT> class Quality: public TT {
|
||||
public:
|
||||
typedef A QualityType;
|
||||
Quality():_quality(0) {}
|
||||
|
||||
inline const QualityType &Q() const { return _quality; }
|
||||
inline QualityType &Q() { return _quality; }
|
||||
inline const QualityType &cQ() const { return _quality; }
|
||||
template < class RightValueType>
|
||||
void ImportData(const RightValueType & rVert ) { if(rVert.IsQualityEnabled()) Q() = rVert.cQ(); TT::ImportData( rVert); }
|
||||
static bool HasQuality() { return true; }
|
||||
static void Name(std::vector<std::string> & name){name.push_back(std::string("Quality"));TT::Name(name);}
|
||||
|
||||
private:
|
||||
QualityType _quality;
|
||||
};
|
||||
|
||||
template <class TT> class Qualitys: public Quality<short, TT> {
|
||||
public: static void Name(std::vector<std::string> & name){name.push_back(std::string("Qualitys"));TT::Name(name);}
|
||||
};
|
||||
template <class TT> class Qualityf: public Quality<float, TT> {
|
||||
public: static void Name(std::vector<std::string> & name){name.push_back(std::string("Qualityf"));TT::Name(name);}
|
||||
};
|
||||
template <class TT> class Qualityd: public Quality<double, TT> {
|
||||
public: static void Name(std::vector<std::string> & name){name.push_back(std::string("Qualityd"));TT::Name(name);}
|
||||
};
|
||||
|
||||
/*-------------------------- Curvature Direction ----------------------------------*/
|
||||
|
||||
/*! \brief \em Component: Per vertex \b curvature \b directions
|
||||
This component keep the principal curvature directions. Used by some of the algorithms of vcg::tri::UpdateCurvature to store the computed curvatures.
|
||||
*/
|
||||
|
||||
template <class A, class TT> class CurvatureDir: public TT {
|
||||
public:
|
||||
typedef A CurvatureDirType;
|
||||
typedef typename CurvatureDirType::VecType CurVecType;
|
||||
typedef typename CurvatureDirType::ScalarType CurScalarType;
|
||||
|
||||
CurVecType &PD1() { return _curv.max_dir; }
|
||||
CurVecType &PD2() { return _curv.min_dir; }
|
||||
const CurVecType &cPD1() const { return _curv.max_dir; }
|
||||
const CurVecType &cPD2() const { return _curv.min_dir; }
|
||||
|
||||
CurScalarType &K1() { return _curv.k1; }
|
||||
CurScalarType &K2() { return _curv.k2; }
|
||||
const CurScalarType &cK1() const { return _curv.k1; }
|
||||
const CurScalarType &cK2() const { return _curv.k2; }
|
||||
template < class RightValueType>
|
||||
void ImportData(const RightValueType & rVert ) {
|
||||
if(rVert.IsCurvatureDirEnabled()) {
|
||||
PD1().Import(rVert.cPD1());
|
||||
PD2().Import(rVert.cPD2());
|
||||
K1() = rVert.cK1(); K2() = rVert.cK2();
|
||||
}
|
||||
TT::ImportData( rVert);
|
||||
}
|
||||
|
||||
static bool HasCurvatureDir() { return true; }
|
||||
static void Name(std::vector<std::string> & name){name.push_back(std::string("CurvatureDir"));TT::Name(name);}
|
||||
|
||||
private:
|
||||
CurvatureDirType _curv;
|
||||
};
|
||||
|
||||
|
||||
template <class T> class CurvatureDirf: public CurvatureDir<CurvatureDirBaseType<float>, T> {
|
||||
public: static void Name(std::vector<std::string> & name){name.push_back(std::string("CurvatureDirf"));T::Name(name);}
|
||||
};
|
||||
template <class T> class CurvatureDird: public CurvatureDir<CurvatureDirBaseType<double>, T> {
|
||||
public: static void Name(std::vector<std::string> & name){name.push_back(std::string("CurvatureDird"));T::Name(name);}
|
||||
};
|
||||
|
||||
/*-------------------------- Radius ----------------------------------*/
|
||||
/*! \brief \em Component: Per vertex \b radius
|
||||
|
||||
This component keep a floating point value meant to be the average distance from the surrounding vertices. Used in point clouds by some of the point splatting and MLS surface algorithms.
|
||||
*/
|
||||
template <class A, class TT> class Radius: public TT {
|
||||
public:
|
||||
typedef A RadiusType;
|
||||
const RadiusType &R() const { return _radius; }
|
||||
RadiusType &R() { return _radius; }
|
||||
const RadiusType &cR() const { return _radius; }
|
||||
template < class RightValueType>
|
||||
void ImportData(const RightValueType & rVert ) { if(rVert.IsRadiusEnabled()) R() = rVert.cR(); TT::ImportData( rVert); }
|
||||
static bool HasRadius() { return true; }
|
||||
static void Name(std::vector<std::string> & name){name.push_back(std::string("Radius"));TT::Name(name);}
|
||||
|
||||
private:
|
||||
RadiusType _radius;
|
||||
};
|
||||
|
||||
template <class TT> class Radiusf: public Radius<float, TT> {
|
||||
public: static void Name(std::vector<std::string> & name){name.push_back(std::string("Radiusf"));TT::Name(name);}
|
||||
};
|
||||
|
||||
|
||||
/*----------------------------- VEADJ ------------------------------*/
|
||||
/*! \brief \em Component: Per vertex \b Vertex-Edge adjacency relation
|
||||
It stores a pointer to the first Edge of a list edges that is stored in a distributed way on the edges themselves.
|
||||
|
||||
\sa vcg::tri::UpdateTopology for functions that compute this relation
|
||||
\sa iterators
|
||||
*/
|
||||
|
||||
template <class T> class VEAdj: public T {
|
||||
public:
|
||||
VEAdj(){_ep=0;_zp=-1;}
|
||||
typename T::EdgePointer &VEp() {return _ep; }
|
||||
const typename T::EdgePointer &cVEp() const {return _ep; }
|
||||
int &VEi() {return _zp; }
|
||||
int VEi() const {return _zp; }
|
||||
int cVEi() const {return _zp; }
|
||||
template < class RightValueType>
|
||||
void ImportData(const RightValueType & rVert ) { T::ImportData( rVert); }
|
||||
static bool HasVEAdjacency() { return true; }
|
||||
static void Name(std::vector<std::string> & name){name.push_back(std::string("VEAdj"));T::Name(name);}
|
||||
|
||||
private:
|
||||
typename T::EdgePointer _ep ;
|
||||
int _zp ;
|
||||
};
|
||||
|
||||
/*----------------------------- VFADJ ------------------------------*/
|
||||
/*! \brief \em Component: Per vertex \b Vertex-Face adjacency relation
|
||||
|
||||
It stores a pointer to the first face of a list of faces that is stored in a distributed way on the faces themselves.
|
||||
Note that if you use this component it is expected that on the Face you use also the corresponding vcg::face::VFAdj component.
|
||||
|
||||
\sa vcg::tri::UpdateTopology for functions that compute this relation
|
||||
\sa vcg::face::VFAdj
|
||||
\sa iterators
|
||||
*/
|
||||
|
||||
template <class T> class VFAdj: public T {
|
||||
public:
|
||||
VFAdj(){_fp=0;_zp=-1;}
|
||||
typename T::FacePointer &VFp() { return _fp; }
|
||||
const typename T::FacePointer &cVFp() const { return _fp; }
|
||||
int &VFi() { return _zp; }
|
||||
int VFi() const { return _zp; }
|
||||
int cVFi() const { return _zp; }
|
||||
bool IsNull() const { return _zp==-1;}
|
||||
template < class RightValueType>
|
||||
void ImportData(const RightValueType & rVert ) { T::ImportData( rVert); }
|
||||
static bool HasVFAdjacency() { return true; }
|
||||
static void Name(std::vector<std::string> & name){name.push_back(std::string("VFAdj"));T::Name(name);}
|
||||
|
||||
private:
|
||||
typename T::FacePointer _fp ;
|
||||
int _zp ;
|
||||
};
|
||||
|
||||
/*----------------------------- VHADJ ------------------------------*/
|
||||
|
||||
template <class T> class VHAdj: public T {
|
||||
public:
|
||||
VHAdj(){_hp=0;_zp=-1;}
|
||||
typename T::HEdgePointer &VHp() {return _hp; }
|
||||
const typename T::HEdgePointer &cVHp() const {return _hp; }
|
||||
int &VHi() {return _zp; }
|
||||
template < class RightValueType>
|
||||
void ImportData(const RightValueType & rVert ) { T::ImportData( rVert); }
|
||||
static bool HasVHAdjacency() { return true; }
|
||||
static void Name(std::vector<std::string> & name){name.push_back(std::string("VHAdj"));T::Name(name);}
|
||||
|
||||
private:
|
||||
typename T::HEdgePointer _hp ;
|
||||
int _zp ;
|
||||
};
|
||||
|
||||
/*----------------------------- VTADJ ------------------------------*/
|
||||
|
||||
template <class T> class VTAdj: public T {
|
||||
public:
|
||||
VTAdj() { _tp = 0; _zp=-1;}
|
||||
typename T::TetraPointer &VTp() { return _tp; }
|
||||
const typename T::TetraPointer &cVTp() const { return _tp; }
|
||||
int &VTi() {return _zp; }
|
||||
int VTi() const { return _zp; }
|
||||
int cVTi() const { return _zp; }
|
||||
static bool HasVTAdjacency() { return true; }
|
||||
static void Name( std::vector< std::string > & name ) { name.push_back( std::string("VTAdj") ); T::Name(name); }
|
||||
|
||||
private:
|
||||
typename T::TetraPointer _tp ;
|
||||
int _zp ;
|
||||
};
|
||||
|
||||
/** @} */ // End Doxygen VertexComponentGroup
|
||||
} // end namespace vert
|
||||
}// end namespace vcg
|
||||
#endif
|
||||
Reference in new issue
Block a user