ResultPtr& theContext, const bool theAnotherDoc, const bool theWholeContext)
{
std::string aName;
- // add the result name to the name of the shape (it was in BodyBuilder, but did not work on Result rename)
- bool isNeedContextName = theContext->shape().get() != NULL;// && !theContext->shape()->isEqual(theSubSh);
+ // add the result name to the name of the shape
+ // (it was in BodyBuilder, but did not work on Result rename)
+ bool isNeedContextName = theContext->shape().get() != NULL;
+ // && !theContext->shape()->isEqual(theSubSh);
// check if the subShape is already in DF
Handle(TNaming_NamedShape) aNS = TNaming_Tool::NamedShape(theShape, myLab);
Handle(TDataStd_Name) anAttr;
// do nothing because this context name will be added later in this method
} else {
aName = TCollection_AsciiString(anAttr->Get()).ToCString();
- // indexes are added to sub-shapes not primitives (primitives must not be located at the same label)
+ // indexes are added to sub-shapes not primitives
+ // (primitives must not be located at the same label)
if(!aName.empty() && aNS->Evolution() != TNaming_PRIMITIVE && isNeedContextName) {
const TDF_Label& aLabel = aNS->Label();//theDoc->findNamingName(aName);
static const std::string aPostFix("_");
break;
case TopAbs_EDGE:
{
- // name structure: F1 & F2 [& F3 & F4], where F1 & F2 the faces which gives the Edge in trivial case
+ // name structure: F1 & F2 [& F3 & F4],
+ // where F1 & F2 the faces which gives the Edge in trivial case
// if it is not atrivial case we use localization by neighbours. F3 & F4 - neighbour faces
if (BRep_Tool::Degenerated(TopoDS::Edge(aSubShape))) {
aName = "Degenerated_Edge";
case TopAbs_VERTEX:
// name structure (Monifold Topology):
// 1) F1 | F2 | F3 - intersection of 3 faces defines a vertex - trivial case.
- // 2) F1 | F2 | F3 [|F4 [|Fn]] - redundant definition, but it should be kept as is to obtain safe recomputation
+ // 2) F1 | F2 | F3 [|F4 [|Fn]] - redundant definition,
+ // but it should be kept as is to obtain safe recomputation
// 2) F1 | F2 - intersection of 2 faces definses a vertex - applicable for case
// when 1 faces is cylindrical, conical, spherical or revolution and etc.
// 3) E1 | E2 | E3 - intersection of 3 edges defines a vertex - when we have case of a shell
}
if (aShapeTypes.find(theType) != aShapeTypes.end())
return aShapeTypes[theType];
- Events_InfoMessage("Model_SelectionNaming", "Shape type defined in XML is not implemented!").send();
+ Events_InfoMessage("Model_SelectionNaming",
+ "Shape type defined in XML is not implemented!").send();
return TopAbs_SHAPE;
}
aName.erase(std::remove(aName.begin(), aName.end(), '-'), aName.end());
aName.erase(std::remove(aName.begin(), aName.end(), '/'), aName.end());
aName.erase(std::remove(aName.begin(), aName.end(), '&'), aName.end());
- // remove the last 's', 'e', 'f' and 'r' symbols: they are used as markers of start/end/forward/rewersed indicators
+ // remove the last 's', 'e', 'f' and 'r' symbols:
+ // they are used as markers of start/end/forward/rewersed indicators
static const std::string aSyms("sefr");
std::string::iterator aSuffix = aName.end() - 1;
while(aSyms.find(*aSuffix) != std::string::npos) {
}
}
}
- if (aDoc != theDoc) { // so, the first word is the document name => reduce the string for the next manips
+ if (aDoc != theDoc) {
+ // so, the first word is the document name => reduce the string for the next manips
aSubShapeName = theSubShapeName.substr(aSlash + 1);
if (aSubShapeName.empty() && aFoundPart.get()) { // the whole Part result
theCont = aFoundPart;
case TopAbs_SOLID:
case TopAbs_SHELL:
default: {//TopAbs_SHAPE
- /// case when the whole sketch is selected, so, selection type is compound, but there is no value
+ /// case when the whole sketch is selected, so,
+ /// selection type is compound, but there is no value
if (aCont.get() && aCont->shape().get()) {
if (aCont->shape()->impl<TopoDS_Shape>().ShapeType() == aType) {
theCont = aCont;
aType == TopAbs_FACE ? "Face" : "Wire", anIDs, true))
return false;
- NCollection_DataMap<Handle(Geom_Curve), int> allCurves; // curves and orientations of edges
+ // curves and orientations of edges
+ NCollection_DataMap<Handle(Geom_Curve), int> allCurves;
const int aSubNum = aComposite->numberOfSubs();
for(int a = 0; a < aSubNum; a++) {
int aSubID = aComposite->subFeatureId(a);
theShapeToBeSelected = aFoundFW;
return true;
}
- } else if (aType == TopAbs_WIRE) { // sketch faces is identified by format "Sketch_1/Face-2f-8f-11r"
+ } else if (aType == TopAbs_WIRE) {
+ // sketch faces is identified by format "Sketch_1/Face-2f-8f-11r"
std::map<int, int> anIDs;
if (!parseSubIndices(aComposite, aSubShapeName, "Wire", anIDs))
return false;
- NCollection_DataMap<Handle(Geom_Curve), int> allCurves; // curves and orientations of edges
+ // curves and orientations of edges
+ NCollection_DataMap<Handle(Geom_Curve), int> allCurves;
const int aSubNum = aComposite->numberOfSubs();
for(int a = 0; a < aSubNum; a++) {
int aSubID = aComposite->subFeatureId(a);
}
}
}
- if (!aSelection.IsNull()) {// Select it (must be after N=0 checking, since for simple constructions the shape must be null)
+ if (!aSelection.IsNull()) {
+ // Select it (must be after N=0 checking,
+ // since for simple constructions the shape must be null)
std::shared_ptr<GeomAPI_Shape> aShapeToBeSelected(new GeomAPI_Shape());
aShapeToBeSelected->setImpl(new TopoDS_Shape(aSelection));
theShapeToBeSelected = aShapeToBeSelected;
