DocumentObject::~DocumentObject(void)
{
if (!PythonObject.is(Py::_None())){
// Remark: The API of Py::Object has been changed to set whether the wrapper owns the passed
// Python object or not. In the constructor we forced the wrapper to own the object so we need
// not to dec'ref the Python object any more.
// But we must still invalidate the Python object because it need not to be
// destructed right now because the interpreter can own several references to it.
Base::PyObjectBase* obj = (Base::PyObjectBase*)PythonObject.ptr();
// Call before decrementing the reference counter, otherwise a heap error can occur
obj->setInvalid();
}
}
PyObject *PropertyPartShape::getPyObject(void)
{
Base::PyObjectBase* prop;
const TopoDS_Shape& sh = _Shape._Shape;
if (sh.IsNull()) {
prop = new TopoShapePy(new TopoShape(sh));
}
else {
TopAbs_ShapeEnum type = sh.ShapeType();
switch (type)
{
case TopAbs_COMPOUND:
prop = new TopoShapeCompoundPy(new TopoShape(sh));
break;
case TopAbs_COMPSOLID:
prop = new TopoShapeCompSolidPy(new TopoShape(sh));
break;
case TopAbs_SOLID:
prop = new TopoShapeSolidPy(new TopoShape(sh));
break;
case TopAbs_SHELL:
prop = new TopoShapeShellPy(new TopoShape(sh));
break;
case TopAbs_FACE:
prop = new TopoShapeFacePy(new TopoShape(sh));
break;
case TopAbs_WIRE:
prop = new TopoShapeWirePy(new TopoShape(sh));
break;
case TopAbs_EDGE:
prop = new TopoShapeEdgePy(new TopoShape(sh));
break;
case TopAbs_VERTEX:
prop = new TopoShapeVertexPy(new TopoShape(sh));
break;
case TopAbs_SHAPE:
default:
prop = new TopoShapePy(new TopoShape(sh));
break;
}
}
if (prop) prop->setConst();
return prop;
}
PyObject* Application::sListDocuments(PyObject * /*self*/, PyObject *args,PyObject * /*kwd*/)
{
if (!PyArg_ParseTuple(args, "")) // convert args: Python->C
return NULL; // NULL triggers exception
PY_TRY {
PyObject *pDict = PyDict_New();
PyObject *pKey;
Base::PyObjectBase* pValue;
for (std::map<std::string,Document*>::const_iterator It = GetApplication().DocMap.begin();
It != GetApplication().DocMap.end();++It) {
pKey = PyString_FromString(It->first.c_str());
// GetPyObject() increments
pValue = static_cast<Base::PyObjectBase*>(It->second->getPyObject());
PyDict_SetItem(pDict, pKey, pValue);
// now we can decrement again as PyDict_SetItem also has incremented
pValue->DecRef();
}
return pDict;
} PY_CATCH;
}
QMap<QString, CallTip> CallTipsList::extractTips(const QString& context) const
{
Base::PyGILStateLocker lock;
QMap<QString, CallTip> tips;
if (context.isEmpty())
return tips;
try {
Py::Module module("__main__");
Py::Dict dict = module.getDict();
#if 0
QStringList items = context.split(QLatin1Char('.'));
QString modname = items.front();
items.pop_front();
if (!dict.hasKey(std::string(modname.toLatin1())))
return tips; // unknown object
// get the Python object we need
Py::Object obj = dict.getItem(std::string(modname.toLatin1()));
while (!items.isEmpty()) {
QByteArray name = items.front().toLatin1();
std::string attr = name.constData();
items.pop_front();
if (obj.hasAttr(attr))
obj = obj.getAttr(attr);
else
return tips;
}
#else
// Don't use hasattr & getattr because if a property is bound to a method this will be executed twice.
PyObject* code = Py_CompileString(static_cast<const char*>(context.toLatin1()), "<CallTipsList>", Py_eval_input);
if (!code) {
PyErr_Clear();
return tips;
}
PyObject* eval = 0;
if (PyCode_Check(code)) {
eval = PyEval_EvalCode(reinterpret_cast<PyCodeObject*>(code), dict.ptr(), dict.ptr());
}
Py_DECREF(code);
if (!eval) {
PyErr_Clear();
return tips;
}
Py::Object obj(eval, true);
#endif
// Checks whether the type is a subclass of PyObjectBase because to get the doc string
// of a member we must get it by its type instead of its instance otherwise we get the
// wrong string, namely that of the type of the member.
// Note: 3rd party libraries may use their own type object classes so that we cannot
// reliably use Py::Type. To be on the safe side we should use Py::Object to assign
// the used type object to.
//Py::Object type = obj.type();
Py::Object type(PyObject_Type(obj.ptr()), true);
Py::Object inst = obj; // the object instance
union PyType_Object typeobj = {&Base::PyObjectBase::Type};
union PyType_Object typedoc = {&App::DocumentObjectPy::Type};
union PyType_Object basetype = {&PyBaseObject_Type};
if (PyObject_IsSubclass(type.ptr(), typedoc.o) == 1) {
// From the template Python object we don't query its type object because there we keep
// a list of additional methods that we won't see otherwise. But to get the correct doc
// strings we query the type's dict in the class itself.
// To see if we have a template Python object we check for the existence of supportedProperties
if (!type.hasAttr("supportedProperties")) {
obj = type;
}
}
else if (PyObject_IsSubclass(type.ptr(), typeobj.o) == 1) {
obj = type;
}
else if (PyInstance_Check(obj.ptr())) {
// instances of old style classes
PyInstanceObject* inst = reinterpret_cast<PyInstanceObject*>(obj.ptr());
PyObject* classobj = reinterpret_cast<PyObject*>(inst->in_class);
obj = Py::Object(classobj);
}
else if (PyObject_IsInstance(obj.ptr(), basetype.o) == 1) {
// New style class which can be a module, type, list, tuple, int, float, ...
// Make sure it's not a type objec
union PyType_Object typetype = {&PyType_Type};
if (PyObject_IsInstance(obj.ptr(), typetype.o) != 1) {
// this should be now a user-defined Python class
// http://stackoverflow.com/questions/12233103/in-python-at-runtime-determine-if-an-object-is-a-class-old-and-new-type-instan
if (Py_TYPE(obj.ptr())->tp_flags & Py_TPFLAGS_HEAPTYPE) {
obj = type;
}
}
}
// If we have an instance of PyObjectBase then determine whether it's valid or not
if (PyObject_IsInstance(inst.ptr(), typeobj.o) == 1) {
Base::PyObjectBase* baseobj = static_cast<Base::PyObjectBase*>(inst.ptr());
const_cast<CallTipsList*>(this)->validObject = baseobj->isValid();
}
else {
// PyObject_IsInstance might set an exception
PyErr_Clear();
}
Py::List list(obj.dir());
// If we derive from PropertyContainerPy we can search for the properties in the
// C++ twin class.
union PyType_Object proptypeobj = {&App::PropertyContainerPy::Type};
if (PyObject_IsSubclass(type.ptr(), proptypeobj.o) == 1) {
// These are the attributes of the instance itself which are NOT accessible by
// its type object
extractTipsFromProperties(inst, tips);
}
// If we derive from App::DocumentPy we have direct access to the objects by their internal
// names. So, we add these names to the list, too.
union PyType_Object appdoctypeobj = {&App::DocumentPy::Type};
if (PyObject_IsSubclass(type.ptr(), appdoctypeobj.o) == 1) {
App::DocumentPy* docpy = (App::DocumentPy*)(inst.ptr());
App::Document* document = docpy->getDocumentPtr();
// Make sure that the C++ object is alive
if (document) {
std::vector<App::DocumentObject*> objects = document->getObjects();
Py::List list;
for (std::vector<App::DocumentObject*>::iterator it = objects.begin(); it != objects.end(); ++it)
list.append(Py::String((*it)->getNameInDocument()));
extractTipsFromObject(inst, list, tips);
}
}
// If we derive from Gui::DocumentPy we have direct access to the objects by their internal
// names. So, we add these names to the list, too.
union PyType_Object guidoctypeobj = {&Gui::DocumentPy::Type};
if (PyObject_IsSubclass(type.ptr(), guidoctypeobj.o) == 1) {
Gui::DocumentPy* docpy = (Gui::DocumentPy*)(inst.ptr());
if (docpy->getDocumentPtr()) {
App::Document* document = docpy->getDocumentPtr()->getDocument();
// Make sure that the C++ object is alive
if (document) {
std::vector<App::DocumentObject*> objects = document->getObjects();
Py::List list;
for (std::vector<App::DocumentObject*>::iterator it = objects.begin(); it != objects.end(); ++it)
list.append(Py::String((*it)->getNameInDocument()));
extractTipsFromObject(inst, list, tips);
}
}
}
// These are the attributes from the type object
extractTipsFromObject(obj, list, tips);
}
catch (Py::Exception& e) {
// Just clear the Python exception
e.clear();
}
return tips;
}
Py::Object TopoShapeFacePy::getSurface() const
{
const TopoDS_Face& f = TopoDS::Face(getTopoShapePtr()->getShape());
BRepAdaptor_Surface adapt(f);
Base::PyObjectBase* surface = 0;
switch(adapt.GetType())
{
case GeomAbs_Plane:
{
GeomPlane* plane = new GeomPlane();
Handle(Geom_Plane) this_surf = Handle(Geom_Plane)::DownCast
(plane->handle());
this_surf->SetPln(adapt.Plane());
surface = new PlanePy(plane);
break;
}
case GeomAbs_Cylinder:
{
GeomCylinder* cylinder = new GeomCylinder();
Handle(Geom_CylindricalSurface) this_surf = Handle(Geom_CylindricalSurface)::DownCast
(cylinder->handle());
this_surf->SetCylinder(adapt.Cylinder());
surface = new CylinderPy(cylinder);
break;
}
case GeomAbs_Cone:
{
GeomCone* cone = new GeomCone();
Handle(Geom_ConicalSurface) this_surf = Handle(Geom_ConicalSurface)::DownCast
(cone->handle());
this_surf->SetCone(adapt.Cone());
surface = new ConePy(cone);
break;
}
case GeomAbs_Sphere:
{
GeomSphere* sphere = new GeomSphere();
Handle(Geom_SphericalSurface) this_surf = Handle(Geom_SphericalSurface)::DownCast
(sphere->handle());
this_surf->SetSphere(adapt.Sphere());
surface = new SpherePy(sphere);
break;
}
case GeomAbs_Torus:
{
GeomToroid* toroid = new GeomToroid();
Handle(Geom_ToroidalSurface) this_surf = Handle(Geom_ToroidalSurface)::DownCast
(toroid->handle());
this_surf->SetTorus(adapt.Torus());
surface = new ToroidPy(toroid);
break;
}
case GeomAbs_BezierSurface:
{
GeomBezierSurface* surf = new GeomBezierSurface(adapt.Bezier());
surface = new BezierSurfacePy(surf);
break;
}
case GeomAbs_BSplineSurface:
{
GeomBSplineSurface* surf = new GeomBSplineSurface(adapt.BSpline());
surface = new BSplineSurfacePy(surf);
break;
}
case GeomAbs_SurfaceOfRevolution:
{
Handle(Geom_Surface) s = BRep_Tool::Surface(f);
Handle(Geom_SurfaceOfRevolution) rev = Handle(Geom_SurfaceOfRevolution)::DownCast(s);
if (rev.IsNull()) {
Handle(Geom_RectangularTrimmedSurface) rect = Handle(Geom_RectangularTrimmedSurface)::DownCast(s);
rev = Handle(Geom_SurfaceOfRevolution)::DownCast(rect->BasisSurface());
}
if (!rev.IsNull()) {
GeomSurfaceOfRevolution* surf = new GeomSurfaceOfRevolution(rev);
surface = new SurfaceOfRevolutionPy(surf);
break;
}
else {
throw Py::RuntimeError("Failed to convert to surface of revolution");
}
}
case GeomAbs_SurfaceOfExtrusion:
{
Handle(Geom_Surface) s = BRep_Tool::Surface(f);
Handle(Geom_SurfaceOfLinearExtrusion) ext = Handle(Geom_SurfaceOfLinearExtrusion)::DownCast(s);
if (ext.IsNull()) {
Handle(Geom_RectangularTrimmedSurface) rect = Handle(Geom_RectangularTrimmedSurface)::DownCast(s);
ext = Handle(Geom_SurfaceOfLinearExtrusion)::DownCast(rect->BasisSurface());
}
if (!ext.IsNull()) {
GeomSurfaceOfExtrusion* surf = new GeomSurfaceOfExtrusion(ext);
surface = new SurfaceOfExtrusionPy(surf);
break;
}
else {
throw Py::RuntimeError("Failed to convert to surface of extrusion");
}
}
case GeomAbs_OffsetSurface:
{
Handle(Geom_Surface) s = BRep_Tool::Surface(f);
Handle(Geom_OffsetSurface) off = Handle(Geom_OffsetSurface)::DownCast(s);
if (off.IsNull()) {
Handle(Geom_RectangularTrimmedSurface) rect = Handle(Geom_RectangularTrimmedSurface)::DownCast(s);
off = Handle(Geom_OffsetSurface)::DownCast(rect->BasisSurface());
}
if (!off.IsNull()) {
GeomOffsetSurface* surf = new GeomOffsetSurface(off);
surface = new OffsetSurfacePy(surf);
break;
}
else {
throw Py::RuntimeError("Failed to convert to offset surface");
}
}
case GeomAbs_OtherSurface:
break;
}
if (surface) {
surface->setNotTracking();
return Py::asObject(surface);
}
throw Py::TypeError("undefined surface type");
}
QMap<QString, CallTip> CallTipsList::extractTips(const QString& context) const
{
Base::PyGILStateLocker lock;
QMap<QString, CallTip> tips;
if (context.isEmpty())
return tips;
try {
QStringList items = context.split(QLatin1Char('.'));
Py::Module module("__main__");
Py::Dict dict = module.getDict();
QString modname = items.front();
items.pop_front();
if (!dict.hasKey(std::string(modname.toAscii())))
return tips; // unknown object
// get the Python object we need
Py::Object obj = dict.getItem(std::string(modname.toAscii()));
while (!items.isEmpty()) {
QByteArray name = items.front().toAscii();
std::string attr = name.constData();
items.pop_front();
if (obj.hasAttr(attr))
obj = obj.getAttr(attr);
else
return tips;
}
// Checks whether the type is a subclass of PyObjectBase because to get the doc string
// of a member we must get it by its type instead of its instance otherwise we get the
// wrong string, namely that of the type of the member.
// Note: 3rd party libraries may use their own type object classes so that we cannot
// reliably use Py::Type. To be on the safe side we should use Py::Object to assign
// the used type object to.
//Py::Object type = obj.type();
Py::Object type(PyObject_Type(obj.ptr()), true);
Py::Object inst = obj; // the object instance
union PyType_Object typeobj = {&Base::PyObjectBase::Type};
union PyType_Object typedoc = {&App::DocumentObjectPy::Type};
if (PyObject_IsSubclass(type.ptr(), typedoc.o) == 1) {
// From the template Python object we don't query its type object because there we keep
// a list of additional methods that we won't see otherwise. But to get the correct doc
// strings we query the type's dict in the class itself.
// To see if we have a template Python object we check for the existence of supportedProperties
if (!type.hasAttr("supportedProperties")) {
obj = type;
}
}
else if (PyObject_IsSubclass(type.ptr(), typeobj.o) == 1) {
obj = type;
}
// If we have an instance of PyObjectBase then determine whether it's valid or not
if (PyObject_IsInstance(inst.ptr(), typeobj.o) == 1) {
Base::PyObjectBase* baseobj = static_cast<Base::PyObjectBase*>(inst.ptr());
const_cast<CallTipsList*>(this)->validObject = baseobj->isValid();
}
else {
// PyObject_IsInstance might set an exception
PyErr_Clear();
}
Py::List list(PyObject_Dir(obj.ptr()), true);
// If we derive from PropertyContainerPy we can search for the properties in the
// C++ twin class.
union PyType_Object proptypeobj = {&App::PropertyContainerPy::Type};
if (PyObject_IsSubclass(type.ptr(), proptypeobj.o) == 1) {
// These are the attributes of the instance itself which are NOT accessible by
// its type object
extractTipsFromProperties(inst, tips);
}
// If we derive from App::DocumentPy we have direct access to the objects by their internal
// names. So, we add these names to the list, too.
union PyType_Object appdoctypeobj = {&App::DocumentPy::Type};
if (PyObject_IsSubclass(type.ptr(), appdoctypeobj.o) == 1) {
App::DocumentPy* docpy = (App::DocumentPy*)(inst.ptr());
App::Document* document = docpy->getDocumentPtr();
// Make sure that the C++ object is alive
if (document) {
std::vector<App::DocumentObject*> objects = document->getObjects();
Py::List list;
for (std::vector<App::DocumentObject*>::iterator it = objects.begin(); it != objects.end(); ++it)
list.append(Py::String((*it)->getNameInDocument()));
extractTipsFromObject(inst, list, tips);
}
}
// If we derive from Gui::DocumentPy we have direct access to the objects by their internal
// names. So, we add these names to the list, too.
union PyType_Object guidoctypeobj = {&Gui::DocumentPy::Type};
if (PyObject_IsSubclass(type.ptr(), guidoctypeobj.o) == 1) {
Gui::DocumentPy* docpy = (Gui::DocumentPy*)(inst.ptr());
if (docpy->getDocumentPtr()) {
App::Document* document = docpy->getDocumentPtr()->getDocument();
// Make sure that the C++ object is alive
if (document) {
std::vector<App::DocumentObject*> objects = document->getObjects();
Py::List list;
for (std::vector<App::DocumentObject*>::iterator it = objects.begin(); it != objects.end(); ++it)
list.append(Py::String((*it)->getNameInDocument()));
extractTipsFromObject(inst, list, tips);
}
}
}
// These are the attributes from the type object
extractTipsFromObject(obj, list, tips);
}
catch (Py::Exception& e) {
// Just clear the Python exception
e.clear();
}
return tips;
}
