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occt/src/TopOpeBRepDS/TopOpeBRepDS_redu.cxx
omy 1d47d8d066 0024059: Eliminate compiler warning C4701 in MSVC++ with warning level 4
Removing pPotentially uninitialized local variable
Got rid of most of warnings C4701: Potentially uninitialized local variable
Removed redundant variable definitions.
Refactored a part of AppParCurves_ResolConstraint CTOR.
Replaced 0. to Precision::Confusion for tolerance vars;
Changed values for min and max parameter vars;
Got rid of redundant variables' initialization.
2013-08-22 12:08:59 +04:00

225 lines
10 KiB
C++
Executable File

// Created on: 1998-11-25
// Created by: Xuan PHAM PHU
// Copyright (c) 1998-1999 Matra Datavision
// Copyright (c) 1999-2012 OPEN CASCADE SAS
//
// The content of this file is subject to the Open CASCADE Technology Public
// License Version 6.5 (the "License"). You may not use the content of this file
// except in compliance with the License. Please obtain a copy of the License
// at http://www.opencascade.org and read it completely before using this file.
//
// The Initial Developer of the Original Code is Open CASCADE S.A.S., having its
// main offices at: 1, place des Freres Montgolfier, 78280 Guyancourt, France.
//
// The Original Code and all software distributed under the License is
// distributed on an "AS IS" basis, without warranty of any kind, and the
// Initial Developer hereby disclaims all such warranties, including without
// limitation, any warranties of merchantability, fitness for a particular
// purpose or non-infringement. Please see the License for the specific terms
// and conditions governing the rights and limitations under the License.
#include <TopOpeBRepTool_EXPORT.hxx>
#include <TopOpeBRepTool_makeTransition.hxx>
#include <TopOpeBRepDS_define.hxx>
#include <TopOpeBRepDS_EXPORT.hxx>
#include <TopOpeBRepDS_ProcessInterferencesTool.hxx>
#include <TopoDS.hxx>
#include <Precision.hxx>
#include <BRep_Tool.hxx>
#define M_FORWARD(st) (st == TopAbs_FORWARD)
#define M_UNKNOWN(st) (st == TopAbs_UNKNOWN)
#define M_REVERSED(st) (st == TopAbs_REVERSED)
#define M_INTERNAL(st) (st == TopAbs_INTERNAL)
#define M_EXTERNAL(st) (st == TopAbs_EXTERNAL)
Standard_EXPORT void FUN_scanloi(const TopOpeBRepDS_ListOfInterference& lI,
TopOpeBRepDS_ListOfInterference& lFOR, Standard_Integer& FOR,
TopOpeBRepDS_ListOfInterference& lREV, Standard_Integer& REV,
TopOpeBRepDS_ListOfInterference& lINT, Standard_Integer& INT,
TopOpeBRepDS_ListOfInterference& lEXT, Standard_Integer& EXT)
{
lFOR.Clear(); lREV.Clear(); lINT.Clear(); lEXT.Clear();
FDS_assign(lI,lEXT);
FOR=FUN_selectTRAORIinterference(lEXT,TopAbs_FORWARD,lFOR);
REV=FUN_selectTRAORIinterference(lEXT,TopAbs_REVERSED,lREV);
INT=FUN_selectTRAORIinterference(lEXT,TopAbs_INTERNAL,lINT);
EXT = lEXT.Extent();
}
Standard_EXPORT Standard_Boolean FUN_ds_redu2d1d(const TopOpeBRepDS_DataStructure& BDS, const Standard_Integer ISE,
const Handle(TopOpeBRepDS_Interference)& I2d, const TopOpeBRepDS_ListOfInterference& l1d, TopOpeBRepDS_Transition& newT2d)
// attached to edge(ISE) : l1d = {I1d=(Tr1d(Esd),vG,Esd)}, I2d=(Tr2d(F),vG,E)
// - vG is not vertex of SE -
// purpose : I2d -> (newT2d(F),vG,E), with Esd is edge of F
// returns true if set newT2d, false elsewhere.
// NYIxpu251198 treating interferences IB1 !=IA1, IB2 != IA2
{
TopAbs_ShapeEnum SB2,SA2; Standard_Integer IB2,IA2; TopOpeBRepDS_Kind GT2,ST2; Standard_Integer G2,S2; FDS_Idata(I2d,SB2,IB2,SA2,IA2,GT2,G2,ST2,S2);
const TopOpeBRepDS_Transition T2d = I2d->Transition();
TopAbs_Orientation O2 = T2d.Orientation(TopAbs_IN); newT2d.Index(IB2); newT2d.Set(O2);
Standard_Boolean ok2 = (IB2 == IA2)&&(SB2 == TopAbs_FACE)&&(GT2 == TopOpeBRepDS_VERTEX);
if (!ok2) return Standard_False;
const TopoDS_Edge& SE = TopoDS::Edge(BDS.Shape(ISE));
const TopoDS_Face& F = TopoDS::Face(BDS.Shape(IB2)); Standard_Real tolF = BRep_Tool::Tolerance(F)*1.e2;//nyitol
const TopoDS_Edge& E = TopoDS::Edge(BDS.Shape(S2)); Standard_Real tolE = BRep_Tool::Tolerance(E)*1.e2;//nyitol
Standard_Boolean EclosingF = FUN_tool_IsClosingE(E,F,F);
if (EclosingF) {
TopAbs_State stb = T2d.Before(), sta = T2d.After();
if (stb != sta) { // costs 1 projPonE
Standard_Real pbef=0,paft=0,factor=1.e-4;
Standard_Real parSE = FDS_Parameter(I2d);
Standard_Real parE; Standard_Boolean ok = FUN_tool_parE(SE,parSE,E,parE,tolE);
if (!ok) return Standard_False;
gp_Pnt2d uv; ok = FUN_tool_paronEF(E,parE,F,uv,tolF);
if (!ok) return Standard_False;
TopOpeBRepTool_makeTransition MKT;
TopAbs_State stb1 = TopAbs_UNKNOWN,sta1 = TopAbs_UNKNOWN;
ok = MKT.Initialize(SE,pbef,paft,parSE, F,uv, factor);
if (ok) ok = MKT.SetRest(E,parE);
if (ok) ok = MKT.MkTonE(stb1,sta1);
if (ok) {
newT2d.Before(stb1);
newT2d.After(sta1);
}
return ok;
}
return Standard_False;
}
TopOpeBRepDS_ListIteratorOfListOfInterference it1(l1d);
Standard_Boolean beforeIN1d=Standard_False, afterIN1d=Standard_False;
// ------------------------------
for (; it1.More(); it1.Next()){
const Handle(TopOpeBRepDS_Interference)& I1d = it1.Value();
TopAbs_ShapeEnum SB1,SA1; Standard_Integer IB1,IA1; TopOpeBRepDS_Kind GT1,ST1; Standard_Integer G1,S1; FDS_Idata(I1d,SB1,IB1,SA1,IA1,GT1,G1,ST1,S1);
if (IB1 != IA1) continue;
TopAbs_Orientation O1 = I1d->Transition().Orientation(TopAbs_IN);
const TopoDS_Edge& Esd = TopoDS::Edge(BDS.Shape(IB1));
Standard_Boolean isedgeF = FUN_tool_inS(Esd,F);
if (!isedgeF) continue;
Standard_Boolean bIN = M_INTERNAL(O1) || M_REVERSED(O1);
Standard_Boolean aIN = M_INTERNAL(O1) || M_FORWARD(O1);
if (bIN && aIN) return Standard_False; //NYIRAISE I1d INTERNAL -> NO I2d!!
if (bIN) beforeIN1d = Standard_True;
if (aIN) afterIN1d = Standard_True;
}//it1
if (beforeIN1d) newT2d.Before(TopAbs_IN);
if (afterIN1d) newT2d.After(TopAbs_IN);
return Standard_True;
} // redu2d1d
Standard_EXPORT Standard_Boolean FUN_ds_GetTr(
// const TopOpeBRepDS_DataStructure& BDS,
const TopOpeBRepDS_DataStructure& ,
const Standard_Integer ISE,
// const Standard_Integer G,
const Standard_Integer ,
const TopOpeBRepDS_ListOfInterference& LIG,
TopAbs_State& stb, Standard_Integer& isb, Standard_Integer& bdim,
TopAbs_State& sta, Standard_Integer& isa, Standard_Integer& adim)
// LIG = {I=(Tr,G,S)} attached to edge<ISE>
// purpose : returns newT(stb(isb,seb),sta(isa,sea)),
// we assume IN1d > I2d > I3d
// OUT3d > OUT2d > OUT1d
{
TopOpeBRepDS_ListOfInterference LIGcopy; FDS_copy(LIG,LIGcopy);
TopOpeBRepDS_ListOfInterference l3d; FDS_assign(LIG,LIGcopy);
FUN_selectSKinterference(LIGcopy,TopOpeBRepDS_FACE,l3d);
TopOpeBRepDS_ListOfInterference l2d; FDS_assign(LIG,LIGcopy);
FUN_ds_hasI2d(ISE,LIGcopy,l2d);
TopOpeBRepDS_ListOfInterference l1d; FDS_assign(LIG,LIGcopy);
FUN_selectTRASHAinterference(LIGcopy,TopAbs_EDGE,l1d);
TopOpeBRepDS_ListOfInterference l1dFOR,l1dREV,l1dINT,l1dEXT; Standard_Integer FOR1d,REV1d,INT1d,EXT1d;
::FUN_scanloi(l1d, l1dFOR,FOR1d, l1dREV,REV1d, l1dINT,INT1d, l1dEXT,EXT1d);
Standard_Boolean beforeIN1d = (REV1d + INT1d > 0); Standard_Boolean beforeOU1d = (FOR1d + EXT1d);
Standard_Boolean afterIN1d = (FOR1d + INT1d > 0); Standard_Boolean afterOU1d = (REV1d + EXT1d);
TopOpeBRepDS_ListOfInterference l2dFOR,l2dREV,l2dINT,l2dEXT; Standard_Integer FOR2d,REV2d,INT2d,EXT2d;
::FUN_scanloi(l2d, l2dFOR,FOR2d, l2dREV,REV2d, l2dINT,INT2d, l2dEXT,EXT2d);
Standard_Boolean beforeIN2d = (REV2d + INT2d > 0); Standard_Boolean beforeOU2d = (FOR2d + EXT2d);
Standard_Boolean afterIN2d = (FOR2d + INT2d > 0); Standard_Boolean afterOU2d = (REV2d + EXT2d);
TopOpeBRepDS_ListOfInterference l3dFOR,l3dREV,l3dINT,l3dEXT; Standard_Integer FOR3d,REV3d,INT3d,EXT3d;
::FUN_scanloi(l3d, l3dFOR,FOR3d, l3dREV,REV3d, l3dINT,INT3d, l3dEXT,EXT3d);
Standard_Boolean beforeIN3d = (REV3d + INT3d > 0); Standard_Boolean beforeOU3d = (FOR3d + EXT3d);
Standard_Boolean afterIN3d = (FOR3d + INT3d > 0); Standard_Boolean afterOU3d = (REV3d + EXT3d);
// state before
stb = TopAbs_UNKNOWN; isb=0; bdim=0;
if (beforeIN1d) {
stb = TopAbs_IN; bdim = 1;
TopOpeBRepDS_ListOfInterference l1INb; FDS_copy(l1dREV,l1INb); FDS_copy(l1dINT,l1INb);
isb = l1INb.First()->Transition().IndexBefore();
}
else if (beforeIN2d) {
stb = TopAbs_IN; bdim = 2;
TopOpeBRepDS_ListOfInterference l2INb; FDS_copy(l2dREV,l2INb); FDS_copy(l2dINT,l2INb);
isb = l2INb.First()->Transition().IndexBefore();
}
else if (beforeIN3d) {
stb = TopAbs_IN; bdim = 3;
TopOpeBRepDS_ListOfInterference l3INb; FDS_copy(l3dREV,l3INb); FDS_copy(l3dINT,l3INb);
isb = l3INb.First()->Transition().IndexBefore();
}
else if (beforeOU3d) {
stb = TopAbs_OUT; bdim = 3;
TopOpeBRepDS_ListOfInterference l3OUb; FDS_copy(l3dFOR,l3OUb); FDS_copy(l3dEXT,l3OUb);
isb = l3OUb.First()->Transition().IndexBefore();
}
else if (beforeOU2d) {
stb = TopAbs_OUT; bdim = 2;
TopOpeBRepDS_ListOfInterference l2OUb; FDS_copy(l2dFOR,l2OUb); FDS_copy(l2dEXT,l2OUb);
isb = l2OUb.First()->Transition().IndexBefore();
}
else if (beforeOU1d) {
stb = TopAbs_OUT; bdim = 1;
TopOpeBRepDS_ListOfInterference l1OUb; FDS_copy(l1dFOR,l1OUb); FDS_copy(l1dEXT,l1OUb);
isb = l1OUb.First()->Transition().IndexBefore();
}
// state after
sta = TopAbs_UNKNOWN; isa=0; adim=0;
if (afterIN1d) {
sta = TopAbs_IN; adim = 1;
TopOpeBRepDS_ListOfInterference l1INb; FDS_copy(l1dFOR,l1INb); FDS_copy(l1dINT,l1INb);
isa = l1INb.First()->Transition().IndexAfter();
}
else if (afterIN2d) {
sta = TopAbs_IN; adim = 2;
TopOpeBRepDS_ListOfInterference l2INb; FDS_copy(l2dFOR,l2INb); FDS_copy(l2dINT,l2INb);
isa = l2INb.First()->Transition().IndexAfter();
}
else if (afterIN3d) {
sta = TopAbs_IN; adim = 3;
TopOpeBRepDS_ListOfInterference l3INb; FDS_copy(l3dFOR,l3INb); FDS_copy(l3dINT,l3INb);
isa = l3INb.First()->Transition().IndexAfter();
}
else if (afterOU3d) {
sta = TopAbs_OUT; adim = 3;
TopOpeBRepDS_ListOfInterference l3OUb; FDS_copy(l3dREV,l3OUb); FDS_copy(l3dEXT,l3OUb);
isa = l3OUb.First()->Transition().IndexAfter();
}
else if (afterOU2d) {
sta = TopAbs_OUT; adim = 2;
TopOpeBRepDS_ListOfInterference l2OUb; FDS_copy(l2dREV,l2OUb); FDS_copy(l2dEXT,l2OUb);
isa = l2OUb.First()->Transition().IndexAfter();
}
else if (afterOU1d) {
sta = TopAbs_OUT; adim = 1;
TopOpeBRepDS_ListOfInterference l1OUb; FDS_copy(l1dREV,l1OUb); FDS_copy(l1dEXT,l1OUb);
isa = l1OUb.First()->Transition().IndexAfter();
}
return Standard_True;
}