#ifndef _FeatureGroup_HeaderFile
#define _FeatureGroup_HeaderFile
#include <cadex/Geom/Direction.hxx>
#include <cadex/MTKBase_Feature.hxx>
#include <cadex/MTKBase_FeatureComparator.hxx>
#include <algorithm>
#include <array>
#include <functional>
#include <iomanip>
#include <iostream>
#include <map>
#include <sstream>
#include <vector>
using namespace std;
typedef std::pair<double, double> PairType;
typedef std::array<double, 3> ArrayType;
inline std::ostream& operator<< (std::ostream& theStream, const PairType& thePair)
{
return theStream << thePair.first << " x " << thePair.second;
}
inline std::ostream& operator<< (std::ostream& theStream, const ArrayType& theArray)
{
return theStream << theArray[0] << " x " << theArray[1] << " x " << theArray[2];
}
inline std::ostream& operator<< (std::ostream& theStream,
const Geom::Direction& theDir)
{
stringstream aStream;
aStream << setprecision(2) << fixed <<
"(" << theDir.
X() <<
", " << theDir.
Y() <<
", " << theDir.
Z() <<
")";
return theStream << aStream.str();
}
class FeatureGroupManager
{
public:
void AddFeature (const char* theGroupName,
const char* theSubgroupName,
bool theHasParameters,
{
auto aRes = std::find_if (myGroups.begin(), myGroups.end(),
[&] (const FeatureGroup& theGroup) { return theGroup.myName == theGroupName; });
if (aRes == myGroups.end()) {
aRes = myGroups.insert (aRes, FeatureGroup (theGroupName, theSubgroupName, theHasParameters));
}
auto& aGroup = *aRes;
++aGroup.myFeatureSubgroups[theFeature];
}
void Print (
const char* theFeatureType, function<
void (
MTKBase_Feature)> thePrintFeatureParameters)
{
sort (myGroups.begin(), myGroups.end(), FeatureGroupComparator());
cout << setprecision(6);
size_t aTotalCount = 0;
for (const auto& aFeatureGroup : myGroups) {
size_t aFeatureCount = aFeatureGroup.FeatureCount();
aTotalCount += aFeatureCount;
cout << " " << aFeatureGroup.myName << ": " << aFeatureCount << endl;
if (!aFeatureGroup.myHasParameters) {
continue;
}
const char* aSubgroupName = aFeatureGroup.mySubgroupName.c_str();
for (const auto& aFeatureSubgroup : aFeatureGroup.myFeatureSubgroups) {
cout << " " << aFeatureSubgroup.second << " " << aSubgroupName << " with" << endl;
thePrintFeatureParameters (aFeatureSubgroup.first);
}
}
cout << "\n Total " << theFeatureType << ": " << aTotalCount << "\n" << endl;
}
template <typename T>
static void PrintFeatureParameter (const char* theName, const T& theValue, const char* theUnits)
{
cout << " " << theName << ": " << theValue << " " << theUnits << endl;
}
private:
class FeatureGroup
{
public:
FeatureGroup (const std::string& theName, const std::string& theSubgroupName, bool theHasParameters) :
myName (theName), mySubgroupName (theSubgroupName), myHasParameters (theHasParameters)
{}
size_t FeatureCount() const
{
size_t aCount = 0;
for (const auto& aFeatureSubgroup : myFeatureSubgroups) {
aCount += aFeatureSubgroup.second;
}
return aCount;
}
string myName;
string mySubgroupName;
bool myHasParameters;
map<MTKBase_Feature, size_t, MTKBase_FeatureComparator> myFeatureSubgroups;
};
class FeatureGroupComparator
{
public:
bool operator() (const FeatureGroup& theA, const FeatureGroup& theB) const
{
const auto& anAName = theA.myName;
const auto& aBName = theB.myName;
if (anAName == aBName) {
return false;
}
const auto& anAFeatureSubgroups = theA.myFeatureSubgroups;
const auto& aBFeatureSubgroups = theB.myFeatureSubgroups;
if (anAFeatureSubgroups.empty() || aBFeatureSubgroups.empty()) {
return anAName < aBName;
}
aBFeatureSubgroups.begin()->first);
}
};
vector<FeatureGroup> myGroups;
};
#endif
Defines a 3D Direction.
Definition Direction.hxx:34
Provides possibility to compare MTK based features depending on their type and parameters.
Definition MTKBase_FeatureComparator.hxx:29
Describes a base class of MTK based features.
Definition MTKBase_Feature.hxx:33
Defines classes, namespaces, enums, types, and global functions related to Manufacturing Toolkit.
Definition LicenseManager_LicenseError.hxx:30
#ifndef _ShapeProcessor_HeaderFile
#define _ShapeProcessor_HeaderFile
#include <cadex/Base/UTF16String.hxx>
#include <cadex/ModelData/Body.hxx>
#include <cadex/ModelData/Model.hxx>
#include <cadex/ModelData/Part.hxx>
#include <cadex/ModelData/Shell.hxx>
#include <cadex/ModelData/Solid.hxx>
#include <cadex/WallThickness_Data.hxx>
#include <iostream>
using namespace std;
{
public:
{
size_t aBodyNumber = 0;
const auto& aBodies = thePart.
Bodies();
for (const auto& aBody : aBodies) {
while (aShapeIt.
HasNext()) {
const auto& aShape = aShapeIt.
Next();
if (aShape.Type() == ModelData::ShapeType::Solid) {
cout << "Part #" << myPartIndex << " [\"" << aPartName << "\"] - solid #" << std::to_string (aBodyNumber) << " has:" << endl;
ProcessSolid (ModelData::Solid::Cast (aShape));
} else if (aShape.Type() == ModelData::ShapeType::Shell) {
cout << "Part #" << myPartIndex << " [\"" << aPartName << "\"] - shell #" << std::to_string (aBodyNumber) << " has:" << endl;
ProcessShell (ModelData::Shell::Cast (aShape));
}
}
++aBodyNumber;
}
++myPartIndex;
}
private:
size_t myPartIndex = 0;
};
{
public:
{
size_t aBodyNumber = 0;
const auto& aBodies = thePart.Bodies();
for (const auto& aBody : aBodies) {
while (aShapeIt.HasNext()) {
const auto& aShape = aShapeIt.Next();
if (aShape.Type() == ModelData::ShapeType::Solid) {
cout << "Part #" << myPartIndex << " [\"" << aPartName << "\"] - solid #" << std::to_string (aBodyNumber++) << " has:" << endl;
ProcessSolid (ModelData::Solid::Cast (aShape));
}
}
}
++myPartIndex;
}
private:
size_t myPartIndex = 0;
};
{
public:
{
size_t aBodyNumber = 0;
const auto& aBodies = thePart.Bodies();
for (const auto& aBody : aBodies) {
while (aShapeIt.HasNext()) {
const auto& aShape = aShapeIt.Next();
if (aShape.Type() == ModelData::ShapeType::Solid) {
cout << "Part #" << myPartIndex << " [\"" << aPartName << "\"] - solid #" << std::to_string (aBodyNumber++) << " has:" << endl;
ProcessSolid (ModelData::Solid::Cast (aShape), aPartName, aBodyNumber);
}
}
}
++myPartIndex;
}
const UTF16String& thePartName,
size_t theShapeIndex) = 0;
protected:
size_t myPartIndex = 0;
};
#endif
UTF16String Name() const
Returns a name.
Definition ModelElement.cxx:55
Element visitor with empty implementation.
Definition ModelElementVisitor.hxx:64
Defines a leaf node in the scene graph hiearchy.
Definition Part.hxx:34
Iterates over subshapes in a shape.
Definition ShapeIterator.hxx:32
Defines a connected set of faces.
Definition Shell.hxx:32
Defines a topological solid.
Definition Solid.hxx:32
Defines a Unicode (UTF-16) string wrapping a standard string.
Definition UTF16String.hxx:30
bool IsEmpty() const
Returns true if the string is empty.
Definition UTF16String.cxx:337
#include <cadex/Geom/Axis1d.hxx>
#include <cadex/Geom/Axis3d.hxx>
#include <cadex/LicenseManager_Activate.h>
#include <cadex/Machining_Countersink.hxx>
#include <cadex/Machining_Face.hxx>
#include <cadex/Machining_FaceType.hxx>
#include <cadex/Machining_FeatureRecognizer.hxx>
#include <cadex/Machining_FeatureRecognizerParameters.hxx>
#include <cadex/Machining_Hole.hxx>
#include <cadex/Machining_HoleType.hxx>
#include <cadex/Machining_OperationType.hxx>
#include <cadex/Machining_Pocket.hxx>
#include <cadex/Machining_SteppedHole.hxx>
#include <cadex/Machining_TurningFace.hxx>
#include <cadex/ModelData/Model.hxx>
#include <cadex/ModelData/ModelReader.hxx>
#include <cadex/MTKBase_Boss.hxx>
#include <cadex/MTKBase_Feature.hxx>
#include <cadex/MTKBase_FeatureList.hxx>
#include <unordered_map>
#include "../../helpers/feature_group.hxx"
#include "../../helpers/shape_processor.hxx"
#include "../../mtk_license.cxx"
using namespace std;
{
switch (theType) {
case Machining_FT_FlatFaceMilled: return "Flat Face Milled Face(s)";
case Machining_FT_FlatSideMilled: return "Flat Side Milled Face(s)";
case Machining_FT_CurvedMilled: return "Curved Milled Face(s)";
case Machining_FT_CircularMilled: return "Circular Milled Face(s)";
case Machining_FT_Deburr: return "Deburr Face(s)";
case Machining_FT_ConvexProfileEdgeMilling: return "Convex Profile Edge Milling Face(s)";
case Machining_FT_ConcaveFilletEdgeMilling: return "Concave Fillet Edge Milling Face(s)";
case Machining_FT_FlatMilled: return "Flat Milled Face(s)";
case Machining_FT_TurnDiameter: return "Turn Diameter Face(s)";
case Machining_FT_TurnForm: return "Turn Form Face(s)";
case Machining_FT_TurnFace: return "Turn Face Face(s)";
case Machining_FT_Bore: return "Bore Face(s)";
default:
break;
}
return "Face(s)";
}
const char* PocketTypeToString (Machining_PocketType theType)
{
switch (theType) {
case Machining_PT_Closed: return "Closed Pocket(s)";
case Machining_PT_Open: return "Open Pocket(s)";
case Machining_PT_Through: return "Through Pocket(s)";
default:
break;
}
return "Pocket(s)";
}
{
switch (theType) {
default:
break;
}
return "Hole(s)";
}
{
FeatureGroupManager aManager;
for (size_t i = 0; i < theFeatures.Size(); i++) {
const auto& aFeature = theFeatures[i];
aManager.AddFeature (FaceTypeToString (aTurningFace.Type()), "Turning Face(s)", true, aFeature);
aManager.AddFeature (FaceTypeToString (aFace.Type()), "", false, aFeature);
aManager.AddFeature ("Countersink(s)", "Countersink(s)", true, aFeature);
aManager.AddFeature (HoleTypeToString (aHole.Type()), "Hole(s)", true, aFeature);
GroupByParameters (aSteppedHole.FeatureList());
aManager.AddFeature (PocketTypeToString (aPocket.Type()), "", true, aFeature);
aManager.AddFeature ("Boss(es)", "Boss(es)", true, aFeature);
}
}
};
GroupByParameters (theFeatureList);
{
FeatureGroupManager::PrintFeatureParameter ("radius", aTurningFace.Radius(), "mm");
FeatureGroupManager::PrintFeatureParameter ("radius", aCountersink.Radius(), "mm");
FeatureGroupManager::PrintFeatureParameter ("depth", aCountersink.Depth(), "mm");
FeatureGroupManager::PrintFeatureParameter ("axis", aCountersink.Axis().Axis(), "");
FeatureGroupManager::PrintFeatureParameter ("radius", aHole.Radius(), "mm");
FeatureGroupManager::PrintFeatureParameter ("depth", aHole.Depth(), "mm");
FeatureGroupManager::PrintFeatureParameter ("axis", aHole.Axis().Axis(), "");
FeatureGroupManager::PrintFeatureParameter ("length", aPocket.Length(), "mm");
FeatureGroupManager::PrintFeatureParameter ("width", aPocket.Width(), "mm");
FeatureGroupManager::PrintFeatureParameter ("depth", aPocket.Depth(), "mm");
FeatureGroupManager::PrintFeatureParameter ("axis", aPocket.Axis().Direction(), "");
const auto& aBoss =
static_cast<const MTKBase_Boss&
> (theFeature);
FeatureGroupManager::PrintFeatureParameter ("length", aBoss.Length(), "mm");
FeatureGroupManager::PrintFeatureParameter ("width", aBoss.Width(), "mm");
FeatureGroupManager::PrintFeatureParameter ("height", aBoss.Height(), "mm");
}
};
aManager.Print ("features", PrintFeatureParameters);
}
class PartProcessor : public SolidProcessor
{
public:
{}
{
auto aFeatureList = aRecognizer.
Perform (theSolid);
PrintFeatures (aFeatureList);
}
private:
};
void PrintSupportedOperations()
{
cerr << "Supported operations:" << endl;
cerr << " milling:\t CNC Machining Milling feature recognition" << endl;
cerr << " turning:\t CNC Machining Lathe+Milling feature recognition" << endl;
}
{
static std::unordered_map<std::string, Machining_OperationType> aProcessMap
{
};
auto aRes = aProcessMap.find (theOperationStr);
if (aRes != aProcessMap.end()) {
return aRes->second;
}
}
int main (int argc, char* argv[])
{
auto aKey = MTKLicenseKey::Value();
if (!CADExLicense_Activate (aKey)) {
cerr << "Failed to activate Manufacturing Toolkit license." << endl;
return 1;
}
if (argc != 3) {
cerr << "Usage: " << argv[0] << " <input_file> <operation>, where:" << endl;
cerr << " <input_file> is a name of the file to be read" << endl;
cerr << " <operation> is a name of desired machining operation" << endl << endl;
PrintSupportedOperations();
return 1;
}
const char* aSource = argv[1];
if (!aReader.
Read (aSource, aModel)) {
cerr << "Failed to read the file " << aSource << endl;
return 1;
}
cout <<
"Model: " << aModel.
Name() <<
"\n" << endl;
const char* anOperationStr = argv[2];
auto anOperation = OperationType (anOperationStr);
if (anOperation == Machining_OT_Undefined) {
cerr << "Unsupported operation - " << anOperationStr << endl;
cerr << "Please use one of the following." << endl;
PrintSupportedOperations();
return 1;
}
PartProcessor aPartProcessor (anOperation);
return 0;
}
Describes a boss. In CNC Machining a boss is a protrusion or raised area on a workpiece that is creat...
Definition MTKBase_Boss.hxx:31
Defines a list of features.
Definition MTKBase_FeatureList.hxx:36
Describes a machining countersink.
Definition Machining_Countersink.hxx:33
Describes a face produced by a specified machining operation.
Definition Machining_Face.hxx:38
Provides an interface to recognizing machining features tool.
Definition Machining_FeatureRecognizer.hxx:45
MTKBase_FeatureList Perform(const ModelData::Solid &theSolid, const cadex::ProgressStatus &theProgressStatus=cadex::ProgressStatus())
Runs features recognition process.
Definition Machining_FeatureRecognizer.cxx:285
const Machining_FeatureRecognizerParameters & Parameters() const
Returns parameters.
Definition Machining_FeatureRecognizer.cxx:304
void SetOperation(Machining_OperationType theOperation)
Definition Machining_FeatureRecognizerParameters.cxx:205
Describes a machining hole of a specified type. Hole is a cylindrical feature that can be made by cut...
Definition Machining_Hole.hxx:30
Describes a machining pocket. A pocket is a feature obtained by milling the material inside an arbitr...
Definition Machining_Pocket.hxx:33
Describes a stepped hole feature.
Definition Machining_SteppedHole.hxx:33
Describes a face with radius produced by a specified machining operation. Cutting material from workp...
Definition Machining_TurningFace.hxx:29
Defines a visitor that visits each unique element only once.
Definition ModelElementVisitor.hxx:87
Provides MTK data model.
Definition Model.hxx:40
UTF16String Name() const
Returns a model name.
Definition Model.cxx:250
void Accept(ModelElementVisitor &theVisitor) const
Accepts a visitor.
Definition Model.cxx:270
Reads STEP and native format.
Definition ModelReader.hxx:29
bool Read(const UTF16String &theFilePath, ModelData::Model &theModel)
Reads the file at the specified path into the specified model.
Definition ModelReader.cxx:227
Machining_OperationType
Defines an operation type in machining.
Definition Machining_OperationType.hxx:28
@ Machining_OT_Undefined
Unknown operation type.
Definition Machining_OperationType.hxx:31
@ Machining_OT_Milling
Milling operation type.
Definition Machining_OperationType.hxx:29
@ Machining_OT_LatheMilling
Lathe + Milling operation type.
Definition Machining_OperationType.hxx:30
Machining_HoleType
Defines a hole type in machining.
Definition Machining_HoleType.hxx:28
@ Machining_HT_Partial
Partial hole type.
Definition Machining_HoleType.hxx:32
@ Machining_HT_Through
Through hole type.
Definition Machining_HoleType.hxx:29
@ Machining_HT_FlatBottom
Flat Bottom hole type.
Definition Machining_HoleType.hxx:30
@ Machining_HT_Blind
Blind hole type.
Definition Machining_HoleType.hxx:31
Machining_FaceType
Describes a face produced by a specified machining operation.
Definition Machining_FaceType.hxx:28