void SL()
{
//printf("\nEnter <SL>");
S();
SLP();
//printf("\nExit <SL>");
}
CubitStatus OCCSurface::principal_curvatures(
CubitVector const& location,
double& curvature_1,
double& curvature_2,
CubitVector* closest_location )
{
BRepAdaptor_Surface asurface(*myTopoDSFace);
gp_Pnt p(location.x(), location.y(), location.z()), newP(0.0, 0.0, 0.0);
double minDist=0.0, u, v;
int i;
BRepLProp_SLProps SLP(asurface, 2, Precision::PConfusion());
Extrema_ExtPS ext(p, asurface, Precision::Approximation(), Precision::Approximation());
if (ext.IsDone() && (ext.NbExt() > 0)) {
for ( i = 1 ; i <= ext.NbExt() ; i++ ) {
if ( (i==1) || (p.Distance(ext.Point(i).Value()) < minDist) ) {
minDist = p.Distance(ext.Point(i).Value());
newP = ext.Point(i).Value();
ext.Point(i).Parameter(u, v);
SLP.SetParameters(u, v);
}
}
}
if (closest_location != NULL)
*closest_location = CubitVector(newP.X(), newP.Y(), newP.Z());
if (SLP.IsCurvatureDefined())
{
curvature_1 = SLP.MinCurvature();
curvature_2 = SLP.MaxCurvature();
}
return CUBIT_SUCCESS;
}
void SLP()
{
if(atEnd);
else if(strcmp("B_END",token))
{
S();
SLP();
}
}
//-------------------------------------------------------------------------
// Purpose : Computes the closest_point on the surface to the input
// location. Optionally, it also computes and returns
// the normal to the surface at closest_location and the
// principal curvatures(1-min, 2-max)
//
//-------------------------------------------------------------------------
CubitStatus OCCSurface::closest_point( CubitVector const& location,
CubitVector* closest_location,
CubitVector* unit_normal_ptr,
CubitVector* curvature_1,
CubitVector* curvature_2)
{
BRepAdaptor_Surface asurface(*myTopoDSFace);
gp_Pnt p(location.x(), location.y(), location.z()), newP(0.0, 0.0, 0.0);
double minDist=0.0, u, v;
int i;
BRepLProp_SLProps SLP(asurface, 2, Precision::PConfusion());
Extrema_ExtPS ext(p, asurface, Precision::Approximation(), Precision::Approximation());
if (ext.IsDone() && (ext.NbExt() > 0)) {
for ( i = 1 ; i <= ext.NbExt() ; i++ ) {
if ( (i==1) || (p.Distance(ext.Point(i).Value()) < minDist) ) {
minDist = p.Distance(ext.Point(i).Value());
newP = ext.Point(i).Value();
ext.Point(i).Parameter(u, v);
SLP.SetParameters(u, v);
}
}
if (closest_location != NULL)
*closest_location = CubitVector(newP.X(), newP.Y(), newP.Z());
if (unit_normal_ptr != NULL) {
gp_Dir normal;
//normal of a RefFace point to outside of the material
if (SLP.IsNormalDefined()) {
normal = SLP.Normal();
CubitSense sense = get_geometry_sense();
if(sense == CUBIT_REVERSED)
normal.Reverse() ;
*unit_normal_ptr = CubitVector(normal.X(), normal.Y(), normal.Z());
}
}
gp_Dir MaxD, MinD;
if (SLP.IsCurvatureDefined())
{
SLP.CurvatureDirections(MaxD, MinD);
if (curvature_1 != NULL)
*curvature_1 = CubitVector(MinD.X(), MinD.Y(), MinD.Z());
if (curvature_2 != NULL)
*curvature_2 = CubitVector(MaxD.X(), MaxD.Y(), MaxD.Z());
}
}
return CUBIT_SUCCESS;
}
void SLP()
{
//printf("\nEnter <SLP>");
if(!(strcmp(token,"CONSTANT") && strcmp(token,"BOOL_TYP") && strcmp(token,"FLT_TYP") && strcmp(token,"INT_TYP") && strcmp(token,"STR_TYP") && strcmp(token,"BOOL_TYP") && strcmp(token,"ID") && strcmp(token,"IF_") && strcmp(token,"ELSE_") && strcmp(token,"LOOP_THIS") && strcmp(token,"INPT_DATA") && strcmp(token,"PRNT_DATA") && strcmp(token,"B_START")))
{
S();
SLP();
}
else if(!strcmp(token,"B_END"));
else
{
error("Unexpected token ");
printf("%s %s. Missing a proper token",token,lexeme);
consume();
}
//printf("\nExit <SLP>");
}
void SL()
{
S();
SLP();
}
void Board::print()
{
if (!Game::debugFlag)
{
SLP(1);
CLS;
}
cout << endl;
cout << Game::mainLang.rnd << movesRecord.size() + 1 << Game::mainLang.rnd1 << ", " << (sideFlag ? Game::mainLang.blk : Game::mainLang.wht) << Game::mainLang.trn << endll;
cout << " ";
for (int i = 1; i <= 8; i++)
cout << char('@' + i) << " ";
cout << endl << " ┌───┬───┬───┬───┬───┬───┬───┬───┐" << endl;
for (int i = 1; i <= 8; i++)
{
cout << " " << i << "│";
for (int j = 1; j <= 8; j++)
{
switch (cell[i][j].stat)
{
case Black:
cout << " ● │";
break;
case White:
cout << " ○ │";
break;
case Empty:
cout << " │";
break;
case Valid:
if (Game::assistFlag && ((Game::AIFlag == AI_MODE&&sideFlag == Game::humanSide) || (Game::AIFlag == NON_AI_MODE)))
cout << " ╋ │";
else
cout << " │";
break;
default:
fatalError(1);
}
}
if (i - 8)
cout << endl << " ├───┼───┼───┼───┼───┼───┼───┼───┤";
else
cout << endl << " └───┴───┴───┴───┴───┴───┴───┴───┘";
if (i - 8) cout << endl;
}
cout << endl << left << " "
<< Game::mainLang.blk << "(●):" << setw(2) << statusCount[Black] << " "
<< Game::mainLang.wht << "(○):" << setw(2) << statusCount[White] << endl;
if (movesRecord.size() && Game::AIFlag && sideFlag == Game::humanSide && !Game::AIPass && !Game::autoFlag)
{
if (Game::debugFlag)
{
ofstream out("timecsm.txt", ios::app);
out << Game::mainLang.aps
<< movesRecord[movesRecord.size() - 1].x
<< char(movesRecord[movesRecord.size() - 1].y + '@')
<< Game::mainLang.aps1
<< endl
<< Game::mainLang.tmcsm1
<< double(clock() - startTime) / CLOCKS_PER_SEC
<< Game::mainLang.tmcsm
<< endll;
out.close();
}
cout << endl << " "
<< Game::mainLang.aps
<< movesRecord[movesRecord.size() - 1].x
<< char(movesRecord[movesRecord.size() - 1].y + '@')
<< Game::mainLang.aps1
<< endl << " "
<< Game::mainLang.tmcsm1
<< double(clock() - startTime) / CLOCKS_PER_SEC
<< Game::mainLang.tmcsm
<< endll;
}
else cout << endll;
}
