void ViewProviderFemMeshPy::setNodeColor(Py::Dict arg)
{
long size = arg.size();
if(size == 0)
this->getViewProviderFemMeshPtr()->resetColorByNodeId();
else {
Base::TimeInfo Start;
Base::Console().Log("Start: ViewProviderFemMeshPy::setNodeColor() =================================\n");
//std::map<long,App::Color> NodeColorMap;
//for( Py::Dict::iterator it = arg.begin(); it!= arg.end();++it){
// Py::Int id((*it).first);
// Py::Tuple color((*it).second);
// NodeColorMap[id] = App::Color(Py::Float(color[0]),Py::Float(color[1]),Py::Float(color[2]),0);
//}
std::vector<long> NodeIds(size);
std::vector<App::Color> NodeColors(size);
long i = 0;
for( Py::Dict::iterator it = arg.begin(); it!= arg.end(); ++it,i++) {
Py::Int id((*it).first);
Py::Tuple color((*it).second);
NodeIds[i] = id;
NodeColors[i] = App::Color(Py::Float(color[0]),Py::Float(color[1]),Py::Float(color[2]),0);
}
Base::Console().Log(" %f: Start ViewProviderFemMeshPy::setNodeColor() call \n",Base::TimeInfo::diffTimeF(Start,Base::TimeInfo()));
//this->getViewProviderFemMeshPtr()->setColorByNodeId(NodeColorMap);
this->getViewProviderFemMeshPtr()->setColorByNodeId(NodeIds,NodeColors);
Base::Console().Log(" %f: Finish ViewProviderFemMeshPy::setNodeColor() call \n",Base::TimeInfo::diffTimeF(Start,Base::TimeInfo()));
}
}
MapType CyPy_Element::dictAsElement(const Py::Dict& dict)
{
MapType map;
for (auto key : dict.keys()) {
map.emplace(key.str(), asElement(dict.getItem(key)));
}
return map;
}
PyObject* PythonSecurity::compile_restricted(const QString& source, const QString& filename, const QString& mode)
{
krossdebug("PythonSecurity::compile_restricted");
if(! m_pymodule)
initRestrictedPython(); // throws exception if failed
try {
Py::Dict mainmoduledict = ((PythonInterpreter*)m_interpreter)->mainModule()->getDict();
PyObject* func = PyDict_GetItemString(m_pymodule->getDict().ptr(), "compile_restricted");
if(! func)
throw Kross::Api::Exception::Ptr( new Kross::Api::Exception(QString("No such function '%1'.").arg("compile_restricted")) );
Py::Callable funcobject(func, true); // the funcobject takes care of freeing our func pyobject.
if(! funcobject.isCallable())
throw Kross::Api::Exception::Ptr( new Kross::Api::Exception(QString("Function '%1' is not callable.").arg("compile_restricted")) );
Py::Tuple args(3);
args[0] = Py::String(source.utf8());
args[1] = Py::String(filename.utf8());
args[2] = Py::String(mode.utf8());
Py::Object result = funcobject.apply(args);
PyObject* pycode = PyEval_EvalCode(
(PyCodeObject*)result.ptr(),
mainmoduledict.ptr(),
mainmoduledict.ptr()
);
if(! pycode)
throw Py::Exception();
/*
Py::List ml = mainmoduledict;
for(Py::List::size_type mi = 0; mi < ml.length(); ++mi) {
krossdebug( QString("dir() = %1").arg( ml[mi].str().as_string().c_str() ) );
//krossdebug( QString("dir().dir() = %1").arg( Py::Object(ml[mi]).dir().as_string().c_str() ) );
}
*/
Py::Object code(pycode);
krossdebug( QString("%1 callable=%2").arg(code.as_string().c_str()).arg(PyCallable_Check(code.ptr())) );
Py::List l = code.dir();
for(Py::List::size_type i = 0; i < l.length(); ++i) {
krossdebug( QString("dir() = %1").arg( l[i].str().as_string().c_str() ) );
//krossdebug( QString("dir().dir() = %1").arg( Py::Object(l[i]).dir().as_string().c_str() ) );
}
return pycode;
}
catch(Py::Exception& e) {
QString err = Py::value(e).as_string().c_str();
e.clear();
throw Kross::Api::Exception::Ptr( new Kross::Api::Exception(QString("Function '%1' failed with python exception: %2").arg("compile_restricted").arg(err) ) );
}
}
Py::Object CyPy_Element::mapAsPyObject(const MapType& map, bool useNativePythonType)
{
Py::Dict dict;
for (auto& entry : map) {
if (useNativePythonType) {
dict.setItem(entry.first, CyPy_Element::asPyObject(entry.second, useNativePythonType));
} else {
dict.setItem(entry.first, CyPy_Element::wrap(entry.second));
}
}
return dict;
}
PyObject* Application::sAddCommand(PyObject * /*self*/, PyObject *args,PyObject * /*kwd*/)
{
char* pName;
char* pSource=0;
PyObject* pcCmdObj;
if (!PyArg_ParseTuple(args, "sO|s", &pName,&pcCmdObj,&pSource)) // convert args: Python->C
return NULL; // NULL triggers exception
#if 0
std::string source = (pSource ? pSource : "");
if (source.empty()) {
try {
Py::Module module(PyImport_ImportModule("inspect"),true);
Py::Dict dict = module.getDict();
Py::Callable call(dict.getItem("getsourcelines"));
Py::Tuple arg(1);
arg.setItem(0, Py::Object(pcCmdObj).getAttr("Activated"));
Py::Tuple tuple(call.apply(arg));
Py::List lines(tuple[0]);
int pos=0;
std::string code = (std::string)(Py::String(lines[1]));
while (code[pos] == ' ' || code[pos] == '\t')
pos++;
for (Py::List::iterator it = lines.begin()+1; it != lines.end(); ++it) {
Py::String str(*it);
source += ((std::string)str).substr(pos);
}
}
catch (Py::Exception& e) {
e.clear();
}
}
Application::Instance->commandManager().addCommand(new PythonCommand(pName,pcCmdObj,source.c_str()));
#else
try {
Application::Instance->commandManager().addCommand(new PythonCommand(pName,pcCmdObj,pSource));
}
catch (const Base::Exception& e) {
PyErr_SetString(Base::BaseExceptionFreeCADError, e.what());
return 0;
}
catch (...) {
PyErr_SetString(Base::BaseExceptionFreeCADError, "Unknown C++ exception raised in Application::sAddCommand()");
return 0;
}
#endif
Py_INCREF(Py_None);
return Py_None;
}
Py::Dict TopoShapeFacePy::getPrincipalProperties(void) const
{
GProp_GProps props;
BRepGProp::SurfaceProperties(getTopoShapePtr()->getShape(), props);
GProp_PrincipalProps pprops = props.PrincipalProperties();
Py::Dict dict;
dict.setItem("SymmetryAxis", Py::Boolean(pprops.HasSymmetryAxis() ? true : false));
dict.setItem("SymmetryPoint", Py::Boolean(pprops.HasSymmetryPoint() ? true : false));
Standard_Real lx,ly,lz;
pprops.Moments(lx,ly,lz);
Py::Tuple tuple(3);
tuple.setItem(0, Py::Float(lx));
tuple.setItem(1, Py::Float(ly));
tuple.setItem(2, Py::Float(lz));
dict.setItem("Moments",tuple);
dict.setItem("FirstAxisOfInertia",Py::Vector(Base::convertTo
<Base::Vector3d>(pprops.FirstAxisOfInertia())));
dict.setItem("SecondAxisOfInertia",Py::Vector(Base::convertTo
<Base::Vector3d>(pprops.SecondAxisOfInertia())));
dict.setItem("ThirdAxisOfInertia",Py::Vector(Base::convertTo
<Base::Vector3d>(pprops.ThirdAxisOfInertia())));
Standard_Real Rxx,Ryy,Rzz;
pprops.RadiusOfGyration(Rxx,Ryy,Rzz);
Py::Tuple rog(3);
rog.setItem(0, Py::Float(Rxx));
rog.setItem(1, Py::Float(Ryy));
rog.setItem(2, Py::Float(Rzz));
dict.setItem("RadiusOfGyration",rog);
return dict;
}
PyObject* Application::sSupportedLocales(PyObject * /*self*/, PyObject *args)
{
if (!PyArg_ParseTuple(args, ""))
return NULL;
TStringMap map = Translator::instance()->supportedLocales();
Py::Dict dict;
dict.setItem(Py::String("English"), Py::String("en"));
for (const auto& it : map) {
Py::String key(it.first);
Py::String val(it.second);
dict.setItem(key, val);
}
return Py::new_reference_to(dict);
}
void ViewProviderFemMeshPy::setElementColor(Py::Dict arg)
{
if(arg.size() == 0)
this->getViewProviderFemMeshPtr()->resetColorByNodeId();
else {
std::map<long,App::Color> NodeColorMap;
for( Py::Dict::iterator it = arg.begin(); it!= arg.end(); ++it) {
Py::Int id((*it).first);
Py::Tuple color((*it).second);
NodeColorMap[id] = App::Color(Py::Float(color[0]),Py::Float(color[1]),Py::Float(color[2]),0);
}
this->getViewProviderFemMeshPtr()->setColorByElementId(NodeColorMap);
}
}
void ViewProviderFemMeshPy::setNodeDisplacement(Py::Dict arg)
{
if(arg.size() == 0)
this->getViewProviderFemMeshPtr()->resetColorByNodeId();
else {
std::map<long,Base::Vector3d> NodeDispMap;
union PyType_Object pyType = {&(Base::VectorPy::Type)};
Py::Type vType(pyType.o);
for( Py::Dict::iterator it = arg.begin(); it!= arg.end(); ++it) {
Py::Int id((*it).first);
if ((*it).second.isType(vType)) {
Py::Vector p((*it).second);
NodeDispMap[id] = p.toVector();
}
}
this->getViewProviderFemMeshPtr()->setDisplacementByNodeId(NodeDispMap);
}
}
MeshObject* MeshObject::createSphere(float radius, int sampling)
{
// load the 'BuildRegularGeoms' module
Base::PyGILStateLocker lock;
try {
Py::Module module(PyImport_ImportModule("BuildRegularGeoms"),true);
Py::Dict dict = module.getDict();
Py::Callable call(dict.getItem("Sphere"));
Py::Tuple args(2);
args.setItem(0, Py::Float(radius));
args.setItem(1, Py::Int(sampling));
Py::List list(call.apply(args));
return createMeshFromList(list);
}
catch (Py::Exception& e) {
e.clear();
}
return 0;
}
//------------------------------------------------------------
//
// DictWrapper
//
//------------------------------------------------------------
DictWrapper::DictWrapper( Py::Dict result_wrappers, const std::string &wrapper_name )
: m_wrapper_name( wrapper_name )
, m_have_wrapper( false )
, m_wrapper()
{
if( result_wrappers.hasKey( wrapper_name ) )
{
m_wrapper = result_wrappers[ wrapper_name ];
m_have_wrapper = true;
}
}
void PythonSecurity::initRestrictedPython()
{
try {
Py::Dict mainmoduledict = ((PythonInterpreter*)m_interpreter)->mainModule()->getDict();
PyObject* pymodule = PyImport_ImportModuleEx(
"RestrictedPython", // name of the module being imported (may be a dotted name)
mainmoduledict.ptr(), // reference to the current global namespace
mainmoduledict.ptr(), // reference to the local namespace
0 // PyObject *fromlist
);
if(! pymodule)
throw Py::Exception();
m_pymodule = new Py::Module(pymodule, true);
PyObject* pyrun = PyRun_String(
//"import os\n"
//"import sys\n"
"import __main__\n"
"import PythonSecurity\n"
"from RestrictedPython import compile_restricted, PrintCollector\n"
"from RestrictedPython.Eval import RestrictionCapableEval\n"
"from RestrictedPython.RCompile import RModule\n"
"setattr(__main__, '_getattr_', PythonSecurity._getattr_)\n"
"setattr(__main__, '_print_', PrintCollector)\n"
,
Py_file_input,
m_pymodule->getDict().ptr(),
m_pymodule->getDict().ptr()
);
if(! pyrun)
throw Py::Exception();
krossdebug("PythonSecurity::PythonSecurity SUCCESSFULLY LOADED");
}
catch(Py::Exception& e) {
QString err = Py::value(e).as_string().c_str();
e.clear();
throw Kross::Api::Exception::Ptr( new Kross::Api::Exception(QString("Failed to initialize PythonSecurity module: %1").arg(err) ) );
}
}
void copy(Py::Dict sourceRange, OutputIt targetIt)
{
string key;
string value;
for (auto keyPy : sourceRange.keys()) {
key = Py::String(keyPy);
value = Py::String(sourceRange[keyPy]);
*targetIt = {key, value};
++targetIt;
}
}
MeshObject* MeshObject::createCube(float length, float width, float height)
{
// load the 'BuildRegularGeoms' module
Base::PyGILStateLocker lock;
try {
Py::Module module(PyImport_ImportModule("BuildRegularGeoms"),true);
Py::Dict dict = module.getDict();
Py::Callable call(dict.getItem("Cube"));
Py::Tuple args(3);
args.setItem(0, Py::Float(length));
args.setItem(1, Py::Float(width));
args.setItem(2, Py::Float(height));
Py::List list(call.apply(args));
return createMeshFromList(list);
}
catch (Py::Exception& e) {
e.clear();
}
return 0;
}
PyObject* Application::sGetExportType(PyObject * /*self*/, PyObject *args,PyObject * /*kwd*/)
{
char* psKey=0;
if (!PyArg_ParseTuple(args, "|s", &psKey)) // convert args: Python->C
return NULL; // NULL triggers exception
if (psKey) {
Py::List list;
std::vector<std::string> modules = GetApplication().getExportModules(psKey);
for (std::vector<std::string>::iterator it = modules.begin(); it != modules.end(); ++it) {
list.append(Py::String(*it));
}
return Py::new_reference_to(list);
}
else {
Py::Dict dict;
std::vector<std::string> types = GetApplication().getExportTypes();
for (std::vector<std::string>::iterator it = types.begin(); it != types.end(); ++it) {
std::vector<std::string> modules = GetApplication().getExportModules(it->c_str());
if (modules.empty()) {
dict.setItem(it->c_str(), Py::None());
}
else if (modules.size() == 1) {
dict.setItem(it->c_str(), Py::String(modules.front()));
}
else {
Py::List list;
for (std::vector<std::string>::iterator jt = modules.begin(); jt != modules.end(); ++jt) {
list.append(Py::String(*jt));
}
dict.setItem(it->c_str(), list);
}
}
return Py::new_reference_to(dict);
}
}
PyObject* MeshPy::foraminate(PyObject *args)
{
PyObject* pnt_p;
PyObject* dir_p;
if (!PyArg_ParseTuple(args, "OO", &pnt_p, &dir_p))
return NULL;
try {
Py::Tuple pnt_t(pnt_p);
Py::Tuple dir_t(dir_p);
Base::Vector3f pnt((float)Py::Float(pnt_t.getItem(0)),
(float)Py::Float(pnt_t.getItem(1)),
(float)Py::Float(pnt_t.getItem(2)));
Base::Vector3f dir((float)Py::Float(dir_t.getItem(0)),
(float)Py::Float(dir_t.getItem(1)),
(float)Py::Float(dir_t.getItem(2)));
Base::Vector3f res;
MeshCore::MeshFacetIterator f_it(getMeshObjectPtr()->getKernel());
int index = 0;
Py::Dict dict;
for (f_it.Begin(); f_it.More(); f_it.Next(), index++) {
if (f_it->Foraminate(pnt, dir, res)) {
Py::Tuple tuple(3);
tuple.setItem(0, Py::Float(res.x));
tuple.setItem(1, Py::Float(res.y));
tuple.setItem(2, Py::Float(res.z));
dict.setItem(Py::Int(index), tuple);
}
}
return Py::new_reference_to(dict);
}
catch (const Py::Exception&) {
return 0;
}
}
MeshObject* MeshObject::createCylinder(float radius, float length, int closed, float edgelen, int sampling)
{
// load the 'BuildRegularGeoms' module
Base::PyGILStateLocker lock;
try {
Py::Module module(PyImport_ImportModule("BuildRegularGeoms"),true);
Py::Dict dict = module.getDict();
Py::Callable call(dict.getItem("Cylinder"));
Py::Tuple args(5);
args.setItem(0, Py::Float(radius));
args.setItem(1, Py::Float(length));
args.setItem(2, Py::Int(closed));
args.setItem(3, Py::Float(edgelen));
args.setItem(4, Py::Int(sampling));
Py::List list(call.apply(args));
return createMeshFromList(list);
}
catch (Py::Exception& e) {
e.clear();
}
return 0;
}
void TooltablePy::setTools(Py::Dict arg)
{
getTooltablePtr()->Tools.clear();
PyObject* dict_copy = PyDict_Copy(arg.ptr());
PyObject *key, *value;
Py_ssize_t pos = 0;
while (PyDict_Next(dict_copy, &pos, &key, &value)) {
if ( PyObject_TypeCheck(key,&(PyInt_Type)) && (PyObject_TypeCheck(value,&(Path::ToolPy::Type))) ) {
int ckey = (int)PyInt_AsLong(key);
Path::Tool &tool = *static_cast<Path::ToolPy*>(value)->getToolPtr();
getTooltablePtr()->setTool(tool,ckey);
} else {
throw Py::Exception("The dictionary can only contain int:tool pairs");
}
}
}
/* ------------ module methods ------------- */
Py::Object _backend_agg_module::new_renderer (const Py::Tuple &args,
const Py::Dict &kws)
{
if (args.length() != 3 )
{
throw Py::RuntimeError("Incorrect # of args to RendererAgg(width, height, dpi).");
}
int debug;
if ( kws.hasKey("debug") ) debug = Py::Int( kws["debug"] );
else debug=0;
int width = Py::Int(args[0]);
int height = Py::Int(args[1]);
double dpi = Py::Float(args[2]);
return Py::asObject(new RendererAgg(width, height, dpi, debug));
}
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;
}
Py::Object approxSurface(const Py::Tuple& args, const Py::Dict& kwds)
{
PyObject *o;
// spline parameters
int uDegree = 3;
int vDegree = 3;
int uPoles = 6;
int vPoles = 6;
// smoothing
PyObject* smooth = Py_True;
double weight = 0.1;
double grad = 1.0; //0.5
double bend = 0.0; //0.2
// other parameters
int iteration = 5;
PyObject* correction = Py_True;
double factor = 1.0;
static char* kwds_approx[] = {"Points", "UDegree", "VDegree", "NbUPoles", "NbVPoles",
"Smooth", "Weight", "Grad", "Bend",
"Iterations", "Correction", "PatchFactor", NULL};
if (!PyArg_ParseTupleAndKeywords(args.ptr(), kwds.ptr(), "O|iiiiO!dddiO!d",kwds_approx,
&o,&uDegree,&vDegree,&uPoles,&vPoles,
&PyBool_Type,&smooth,&weight,&grad,&bend,
&iteration,&PyBool_Type,&correction,&factor))
throw Py::Exception();
double curvdiv = 1.0 - (grad + bend);
int uOrder = uDegree + 1;
int vOrder = vDegree + 1;
// error checking
if (grad < 0.0 || grad > 1.0) {
throw Py::ValueError("Value of Grad out of range [0,1]");
}
if (bend < 0.0 || bend > 1.0) {
throw Py::ValueError("Value of Bend out of range [0,1]");
}
if (curvdiv < 0.0 || curvdiv > 1.0) {
throw Py::ValueError("Sum of Grad and Bend out of range [0,1]");
}
if (uDegree < 1 || uOrder > uPoles) {
throw Py::ValueError("Value of uDegree out of range [1,NbUPoles-1]");
}
if (vDegree < 1 || vOrder > vPoles) {
throw Py::ValueError("Value of vDegree out of range [1,NbVPoles-1]");
}
try {
Py::Sequence l(o);
TColgp_Array1OfPnt clPoints(0, l.size()-1);
if (clPoints.Length() < uPoles * vPoles) {
throw Py::ValueError("Too less data points for the specified number of poles");
}
int index=0;
for (Py::Sequence::iterator it = l.begin(); it != l.end(); ++it) {
Py::Tuple t(*it);
clPoints(index++) = gp_Pnt(
(double)Py::Float(t.getItem(0)),
(double)Py::Float(t.getItem(1)),
(double)Py::Float(t.getItem(2)));
}
Reen::BSplineParameterCorrection pc(uOrder,vOrder,uPoles,vPoles);
Handle_Geom_BSplineSurface hSurf;
pc.EnableSmoothing(PyObject_IsTrue(smooth) ? true : false, weight, grad, bend, curvdiv);
hSurf = pc.CreateSurface(clPoints, iteration, PyObject_IsTrue(correction) ? true : false, factor);
if (!hSurf.IsNull()) {
return Py::asObject(new Part::BSplineSurfacePy(new Part::GeomBSplineSurface(hSurf)));
}
throw Py::RuntimeError("Computation of B-Spline surface failed");
}
catch (Standard_Failure &e) {
std::string str;
Standard_CString msg = e.GetMessageString();
str += typeid(e).name();
str += " ";
if (msg) {str += msg;}
else {str += "No OCCT Exception Message";}
throw Py::RuntimeError(str);
}
catch (const Base::Exception &e) {
throw Py::RuntimeError(e.what());
}
catch (...) {
throw Py::RuntimeError("Unknown C++ exception");
}
}
Py::Object meshFromShape(const Py::Tuple& args, const Py::Dict& kwds)
{
PyObject *shape;
static char* kwds_maxLength[] = {"Shape", "MaxLength",NULL};
PyErr_Clear();
double maxLength=0;
if (PyArg_ParseTupleAndKeywords(args.ptr(), kwds.ptr(), "O!d", kwds_maxLength,
&(Part::TopoShapePy::Type), &shape, &maxLength)) {
MeshPart::Mesher mesher(static_cast<Part::TopoShapePy*>(shape)->getTopoShapePtr()->getShape());
mesher.setMethod(MeshPart::Mesher::Mefisto);
mesher.setMaxLength(maxLength);
mesher.setRegular(true);
return Py::asObject(new Mesh::MeshPy(mesher.createMesh()));
}
static char* kwds_maxArea[] = {"Shape", "MaxArea",NULL};
PyErr_Clear();
double maxArea=0;
if (PyArg_ParseTupleAndKeywords(args.ptr(), kwds.ptr(), "O!d", kwds_maxArea,
&(Part::TopoShapePy::Type), &shape, &maxArea)) {
MeshPart::Mesher mesher(static_cast<Part::TopoShapePy*>(shape)->getTopoShapePtr()->getShape());
mesher.setMethod(MeshPart::Mesher::Mefisto);
mesher.setMaxArea(maxArea);
mesher.setRegular(true);
return Py::asObject(new Mesh::MeshPy(mesher.createMesh()));
}
static char* kwds_localLen[] = {"Shape", "LocalLength",NULL};
PyErr_Clear();
double localLen=0;
if (PyArg_ParseTupleAndKeywords(args.ptr(), kwds.ptr(), "O!d", kwds_localLen,
&(Part::TopoShapePy::Type), &shape, &localLen)) {
MeshPart::Mesher mesher(static_cast<Part::TopoShapePy*>(shape)->getTopoShapePtr()->getShape());
mesher.setMethod(MeshPart::Mesher::Mefisto);
mesher.setLocalLength(localLen);
mesher.setRegular(true);
return Py::asObject(new Mesh::MeshPy(mesher.createMesh()));
}
static char* kwds_deflection[] = {"Shape", "Deflection",NULL};
PyErr_Clear();
double deflection=0;
if (PyArg_ParseTupleAndKeywords(args.ptr(), kwds.ptr(), "O!d", kwds_deflection,
&(Part::TopoShapePy::Type), &shape, &deflection)) {
MeshPart::Mesher mesher(static_cast<Part::TopoShapePy*>(shape)->getTopoShapePtr()->getShape());
mesher.setMethod(MeshPart::Mesher::Mefisto);
mesher.setDeflection(deflection);
mesher.setRegular(true);
return Py::asObject(new Mesh::MeshPy(mesher.createMesh()));
}
static char* kwds_minmaxLen[] = {"Shape", "MinLength","MaxLength",NULL};
PyErr_Clear();
double minLen=0, maxLen=0;
if (PyArg_ParseTupleAndKeywords(args.ptr(), kwds.ptr(), "O!dd", kwds_minmaxLen,
&(Part::TopoShapePy::Type), &shape, &minLen, &maxLen)) {
MeshPart::Mesher mesher(static_cast<Part::TopoShapePy*>(shape)->getTopoShapePtr()->getShape());
mesher.setMethod(MeshPart::Mesher::Mefisto);
mesher.setMinMaxLengths(minLen, maxLen);
mesher.setRegular(true);
return Py::asObject(new Mesh::MeshPy(mesher.createMesh()));
}
#if defined (HAVE_NETGEN)
static char* kwds_fineness[] = {"Shape", "Fineness", "SecondOrder", "Optimize", "AllowQuad",NULL};
PyErr_Clear();
int fineness=0, secondOrder=0, optimize=1, allowquad=0;
if (PyArg_ParseTupleAndKeywords(args.ptr(), kwds.ptr(), "O!i|iii", kwds_fineness,
&(Part::TopoShapePy::Type), &shape, &fineness,
&secondOrder, &optimize, &allowquad)) {
MeshPart::Mesher mesher(static_cast<Part::TopoShapePy*>(shape)->getTopoShapePtr()->getShape());
mesher.setMethod(MeshPart::Mesher::Netgen);
mesher.setFineness(fineness);
mesher.setSecondOrder(secondOrder > 0);
mesher.setOptimize(optimize > 0);
mesher.setQuadAllowed(allowquad > 0);
return Py::asObject(new Mesh::MeshPy(mesher.createMesh()));
}
static char* kwds_user[] = {"Shape", "GrowthRate", "SegPerEdge", "SegPerRadius", "SecondOrder", "Optimize", "AllowQuad",NULL};
PyErr_Clear();
double growthRate=0, nbSegPerEdge=0, nbSegPerRadius=0;
if (PyArg_ParseTupleAndKeywords(args.ptr(), kwds.ptr(), "O!|dddiii", kwds_user,
&(Part::TopoShapePy::Type), &shape,
&growthRate, &nbSegPerEdge, &nbSegPerRadius,
&secondOrder, &optimize, &allowquad)) {
MeshPart::Mesher mesher(static_cast<Part::TopoShapePy*>(shape)->getTopoShapePtr()->getShape());
mesher.setMethod(MeshPart::Mesher::Netgen);
mesher.setGrowthRate(growthRate);
mesher.setNbSegPerEdge(nbSegPerEdge);
mesher.setNbSegPerRadius(nbSegPerRadius);
mesher.setSecondOrder(secondOrder > 0);
mesher.setOptimize(optimize > 0);
mesher.setQuadAllowed(allowquad > 0);
return Py::asObject(new Mesh::MeshPy(mesher.createMesh()));
}
#endif
PyErr_Clear();
if (PyArg_ParseTuple(args.ptr(), "O!", &(Part::TopoShapePy::Type), &shape)) {
MeshPart::Mesher mesher(static_cast<Part::TopoShapePy*>(shape)->getTopoShapePtr()->getShape());
#if defined (HAVE_NETGEN)
mesher.setMethod(MeshPart::Mesher::Netgen);
#else
mesher.setMethod(MeshPart::Mesher::Mefisto);
mesher.setRegular(true);
#endif
return Py::asObject(new Mesh::MeshPy(mesher.createMesh()));
}
throw Py::Exception(Base::BaseExceptionFreeCADError,"Wrong arguments");
}
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
Image::resize(const Py::Tuple& args, const Py::Dict& kwargs) {
_VERBOSE("Image::resize");
args.verify_length(2);
int norm = 1;
if ( kwargs.hasKey("norm") ) norm = Py::Int( kwargs["norm"] );
double radius = 4.0;
if ( kwargs.hasKey("radius") ) radius = Py::Float( kwargs["radius"] );
if (bufferIn ==NULL)
throw Py::RuntimeError("You must first load the image");
int numcols = Py::Int(args[0]);
int numrows = Py::Int(args[1]);
colsOut = numcols;
rowsOut = numrows;
size_t NUMBYTES(numrows * numcols * BPP);
delete [] bufferOut;
bufferOut = new agg::int8u[NUMBYTES];
if (bufferOut ==NULL) //todo: also handle allocation throw
throw Py::MemoryError("Image::resize could not allocate memory");
delete rbufOut;
rbufOut = new agg::rendering_buffer;
rbufOut->attach(bufferOut, numcols, numrows, numcols * BPP);
// init the output rendering/rasterizing stuff
pixfmt pixf(*rbufOut);
renderer_base rb(pixf);
rb.clear(bg);
agg::rasterizer_scanline_aa<> ras;
agg::scanline_u8 sl;
//srcMatrix *= resizingMatrix;
//imageMatrix *= resizingMatrix;
imageMatrix.invert();
interpolator_type interpolator(imageMatrix);
typedef agg::span_allocator<agg::rgba8> span_alloc_type;
span_alloc_type sa;
agg::rgba8 background(agg::rgba8(int(255*bg.r),
int(255*bg.g),
int(255*bg.b),
int(255*bg.a)));
// the image path
agg::path_storage path;
agg::int8u *bufferPad = NULL;
agg::rendering_buffer rbufPad;
double x0, y0, x1, y1;
x0 = 0.0;
x1 = colsIn;
y0 = 0.0;
y1 = rowsIn;
path.move_to(x0, y0);
path.line_to(x1, y0);
path.line_to(x1, y1);
path.line_to(x0, y1);
path.close_polygon();
agg::conv_transform<agg::path_storage> imageBox(path, srcMatrix);
ras.add_path(imageBox);
typedef agg::wrap_mode_reflect reflect_type;
typedef agg::image_accessor_wrap<pixfmt, reflect_type, reflect_type> img_accessor_type;
pixfmt pixfmtin(*rbufIn);
img_accessor_type ia(pixfmtin);
switch(interpolation)
{
case NEAREST:
{
typedef agg::span_image_filter_rgba_nn<img_accessor_type, interpolator_type> span_gen_type;
typedef agg::renderer_scanline_aa<renderer_base, span_alloc_type, span_gen_type> renderer_type;
span_gen_type sg(ia, interpolator);
renderer_type ri(rb, sa, sg);
agg::render_scanlines(ras, sl, ri);
}
break;
case BILINEAR:
case BICUBIC:
case SPLINE16:
case SPLINE36:
case HANNING:
case HAMMING:
case HERMITE:
case KAISER:
case QUADRIC:
case CATROM:
case GAUSSIAN:
case BESSEL:
case MITCHELL:
case SINC:
case LANCZOS:
case BLACKMAN:
{
agg::image_filter_lut filter;
switch(interpolation)
{
case BILINEAR: filter.calculate(agg::image_filter_bilinear(), norm); break;
case BICUBIC: filter.calculate(agg::image_filter_bicubic(), norm); break;
case SPLINE16: filter.calculate(agg::image_filter_spline16(), norm); break;
case SPLINE36: filter.calculate(agg::image_filter_spline36(), norm); break;
case HANNING: filter.calculate(agg::image_filter_hanning(), norm); break;
case HAMMING: filter.calculate(agg::image_filter_hamming(), norm); break;
case HERMITE: filter.calculate(agg::image_filter_hermite(), norm); break;
case KAISER: filter.calculate(agg::image_filter_kaiser(), norm); break;
case QUADRIC: filter.calculate(agg::image_filter_quadric(), norm); break;
case CATROM: filter.calculate(agg::image_filter_catrom(), norm); break;
case GAUSSIAN: filter.calculate(agg::image_filter_gaussian(), norm); break;
case BESSEL: filter.calculate(agg::image_filter_bessel(), norm); break;
case MITCHELL: filter.calculate(agg::image_filter_mitchell(), norm); break;
case SINC: filter.calculate(agg::image_filter_sinc(radius), norm); break;
case LANCZOS: filter.calculate(agg::image_filter_lanczos(radius), norm); break;
case BLACKMAN: filter.calculate(agg::image_filter_blackman(radius), norm); break;
}
typedef agg::span_image_filter_rgba_2x2<img_accessor_type, interpolator_type> span_gen_type;
typedef agg::renderer_scanline_aa<renderer_base, span_alloc_type, span_gen_type> renderer_type;
span_gen_type sg(ia, interpolator, filter);
renderer_type ri(rb, sa, sg);
agg::render_scanlines(ras, sl, ri);
}
break;
}
delete [] bufferPad;
return Py::Object();
}
Py::Object projectToSVG(const Py::Tuple& args, const Py::Dict& keys)
{
static char* argNames[] = {"topoShape", "direction", "type", "tolerance", "vStyle", "v0Style", "v1Style", "hStyle", "h0Style", "h1Style", NULL};
PyObject *pcObjShape = 0;
PyObject *pcObjDir = 0;
const char *extractionTypePy = 0;
ProjectionAlgos::ExtractionType extractionType = ProjectionAlgos::Plain;
const float tol = 0.1f;
PyObject* vStylePy = 0;
ProjectionAlgos::XmlAttributes vStyle;
PyObject* v0StylePy = 0;
ProjectionAlgos::XmlAttributes v0Style;
PyObject* v1StylePy = 0;
ProjectionAlgos::XmlAttributes v1Style;
PyObject* hStylePy = 0;
ProjectionAlgos::XmlAttributes hStyle;
PyObject* h0StylePy = 0;
ProjectionAlgos::XmlAttributes h0Style;
PyObject* h1StylePy = 0;
ProjectionAlgos::XmlAttributes h1Style;
// Get the arguments
if (!PyArg_ParseTupleAndKeywords(
args.ptr(), keys.ptr(),
"O!|O!sfOOOOOO",
argNames,
&(TopoShapePy::Type), &pcObjShape,
&(Base::VectorPy::Type), &pcObjDir,
&extractionTypePy, &tol,
&vStylePy, &v0StylePy, &v1StylePy,
&hStylePy, &h0StylePy, &h1StylePy))
throw Py::Exception();
// Convert all arguments into the right format
TopoShapePy* pShape = static_cast<TopoShapePy*>(pcObjShape);
Base::Vector3d directionVector(0,0,1);
if (pcObjDir)
directionVector = static_cast<Base::VectorPy*>(pcObjDir)->value();
if (extractionTypePy && string(extractionTypePy) == "ShowHiddenLines")
extractionType = ProjectionAlgos::WithHidden;
if (vStylePy)
copy(Py::Dict(vStylePy), inserter(vStyle, vStyle.begin()));
if (v0StylePy)
copy(Py::Dict(v0StylePy), inserter(v0Style, v0Style.begin()));
if (v1StylePy)
copy(Py::Dict(v1StylePy), inserter(v1Style, v1Style.begin()));
if (hStylePy)
copy(Py::Dict(hStylePy), inserter(hStyle, hStyle.begin()));
if (h0StylePy)
copy(Py::Dict(h0StylePy), inserter(h0Style, h0Style.begin()));
if (h1StylePy)
copy(Py::Dict(h1StylePy), inserter(h1Style, h1Style.begin()));
// Execute the SVG generation
ProjectionAlgos Alg(pShape->getTopoShapePtr()->getShape(),
directionVector);
Py::String result(Alg.getSVG(extractionType, tol,
vStyle, v0Style, v1Style,
hStyle, h0Style, h1Style));
return result;
}
PythonInterpreter::PythonInterpreter(Kross::InterpreterInfo* info)
: Kross::Interpreter(info)
, d(new PythonInterpreterPrivate())
{
// Initialize the python interpreter.
initialize();
// Set name of the program.
Py_SetProgramName(const_cast<char*>("Kross"));
/*
// Set arguments.
//char* comm[0];
const char* comm = const_cast<char*>("kross"); // name.
PySys_SetArgv(1, comm);
*/
// In the python sys.path are all module-directories are
// listed in.
QString path;
// First import the sys-module to remember it's sys.path
// list in our path QString.
Py::Module sysmod( PyImport_ImportModule( (char*)"sys" ), true );
Py::Dict sysmoddict = sysmod.getDict();
Py::Object syspath = sysmoddict.getItem("path");
if(syspath.isList()) {
Py::List syspathlist = syspath;
for(Py::List::iterator it = syspathlist.begin(); it != syspathlist.end(); ++it) {
if( ! (*it).isString() ) continue;
QString s = PythonType<QString>::toVariant(*it);
path.append( s + PYPATHDELIMITER );
}
}
else
path = Py_GetPath();
#if 0
// Determinate additional module-paths we like to add.
// First add the global Kross modules-path.
QStringList krossdirs = KGlobal::dirs()->findDirs("data", "kross/python");
for(QStringList::Iterator krossit = krossdirs.begin(); krossit != krossdirs.end(); ++krossit)
path.append(*krossit + PYPATHDELIMITER);
// Then add the application modules-path.
QStringList appdirs = KGlobal::dirs()->findDirs("appdata", "kross/python");
for(QStringList::Iterator appit = appdirs.begin(); appit != appdirs.end(); ++appit)
path.append(*appit + PYPATHDELIMITER);
#endif
// Set the extended sys.path.
PySys_SetPath( (char*) path.toLatin1().data() );
#ifdef KROSS_PYTHON_INTERPRETER_DEBUG
krossdebug(QString("Python ProgramName: %1").arg(Py_GetProgramName()));
krossdebug(QString("Python ProgramFullPath: %1").arg(Py_GetProgramFullPath()));
krossdebug(QString("Python Version: %1").arg(Py_GetVersion()));
krossdebug(QString("Python Platform: %1").arg(Py_GetPlatform()));
krossdebug(QString("Python Prefix: %1").arg(Py_GetPrefix()));
krossdebug(QString("Python ExecPrefix: %1").arg(Py_GetExecPrefix()));
//krossdebug(QString("Python Path: %1").arg(Py_GetPath()));
//krossdebug(QString("Python System Path: %1").arg(path));
#endif
// Initialize the main module.
d->mainmodule = new PythonModule(this);
// The main dictonary.
Py::Dict moduledict = d->mainmodule->getDict();
//TODO moduledict["KrossPythonVersion"] = Py::Int(KROSS_PYTHON_VERSION);
// Prepare the interpreter.
QString s =
//"# -*- coding: iso-8859-1 -*-\n"
//"import locale\n"
//"locale.setlocale(locale.LC_ALL, '')\n"
//"# -*- coding: latin-1 -*\n"
//"# -*- coding: utf-8 -*-\n"
//"import locale\n"
//"locale.setlocale(locale.LC_ALL, '')\n"
//"from __future__ import absolute_import\n"
"import sys\n"
//"import os, os.path\n"
//"sys.setdefaultencoding('latin-1')\n"
// Dirty hack to get sys.argv defined. Needed for e.g. TKinter.
"sys.argv = ['']\n"
// On the try to read something from stdin always return an empty
// string. That way such reads don't block our script.
// Deactivated since sys.stdin has the encoding attribute needed
// by e.g. LiquidWeather and those attr is missing in StringIO
// and cause it's buildin we can't just add it but would need to
// implement our own class. Grrrr, what a stupid design :-/
//"try:\n"
//" import cStringIO\n"
//" sys.stdin = cStringIO.StringIO()\n"
//"except:\n"
//" pass\n"
// Class to redirect something. We use this class e.g. to redirect
// <stdout> and <stderr> to a c++ event.
//"class Redirect:\n"
//" def __init__(self, target):\n"
//" self.target = target\n"
//" def write(self, s):\n"
//" self.target.call(s)\n"
// Wrap builtin __import__ method. All import requests are
// first redirected to our PythonModule.import method and
// if the call returns None, then we call the original
// python import mechanism.
"import __builtin__\n"
"import __main__\n"
"import traceback\n"
"sys.modules['_oldmain'] = sys.modules['__main__']\n"
"_main_builtin_import_ = __main__.__builtin__.__import__\n"
"class _Importer:\n"
" def __init__(self, script):\n"
" self.script = script\n"
" self.realImporter = __main__.__builtin__.__import__\n"
" __main__.__builtin__.__import__ = self._import\n"
" def _import(self, name, globals=None, locals=None, fromlist=[], level = -1):\n"
//" try:\n"
//" print \"1===========> _Importer name=%s fromlist=%s\" % (name,fromlist)\n"
#if PY_MAJOR_VERSION >= 3 || (PY_MAJOR_VERSION >= 2 && PY_MINOR_VERSION >= 5)
" mod = __main__._import(self.script, name, globals, locals, fromlist, level)\n"
#else
" mod = __main__._import(self.script, name, globals, locals, fromlist)\n"
#endif
" if mod == None:\n"
" if name == 'qt':\n"
" raise ImportError('Import of the PyQt3 module is not allowed. Please use PyQt4 instead.')\n"
" if name == 'dcop':\n"
" raise ImportError('Import of the KDE3 DCOP module is not allowed. Please use PyQt4 DBUS instead.')\n"
#if PY_MAJOR_VERSION >= 3 || (PY_MAJOR_VERSION >= 2 && PY_MINOR_VERSION >= 5)
" mod = self.realImporter(name, globals, locals, fromlist, level)\n"
#else
" mod = self.realImporter(name, globals, locals, fromlist)\n"
#endif
" if mod != None:\n"
//" print \"3===========> _Importer name=%s fromlist=%s\" % (name,fromlist)\n"
" if globals != None and (not fromlist or len(fromlist)==0 or '*' in fromlist):\n"
" globals[name] = mod\n"
" return mod\n"
//" except ImportError:\n"
//" except:\n"
//" print \"9===========> _Importer Trying ImportError with name=%s fromlist=%s insysmodules=%s\" % (name,fromlist,name in sys.modules)\n"
//" print \" \".join( traceback.format_exception(sys.exc_info()[0],sys.exc_info()[1],sys.exc_info()[2]) )\n"
//" return None\n"
/*
" print \"_Importer name=%s fromlist=%s\" % (name,fromlist)\n"
" if fromlist == None:\n"
" mod = __main__._import(self.script, name, globals, locals, fromlist)\n"
" if mod != None:\n"
" print \"2===========> _Importer name=%s fromlist=%s\" % (name,fromlist)\n"
" globals[name] = mod\n"
" return mod\n"
//" if name in sys.modules:\n" // hack to preserve module paths, needed e.g. for "import os.path"
//" print \"3===========> _Importer name=%s fromlist=%s\" % (name,fromlist)\n"
//" return sys.modules[name]\n"
" print \"3===========> _Importer Trying realImporter with name=%s fromlist=%s insysmodules=%s\" % (name,fromlist,name in sys.modules)\n"
" try:\n"
" mod = self.realImporter(name, globals, locals, fromlist)\n"
" print \"4===========> _Importer Trying realImporter with name=%s fromlist=%s insysmodules=%s module=%s\" % (name,fromlist,name in sys.modules,mod)\n"
//" mod.__init__(name)\n"
//" globals[name] = mod\n"
//" sys.modules[name] = mod\n"
" print \"5===========> _Importer Trying realImporter with name=%s fromlist=%s insysmodules=%s module=%s\" % (name,fromlist,name in sys.modules,mod)\n"
" return mod\n"
" except ImportError:\n"
" print \"6===========> _Importer Trying ImportError with name=%s fromlist=%s insysmodules=%s\" % (name,fromlist,name in sys.modules)\n"
" n = name.split('.')\n"
" if len(n) >= 2:\n"
" print \"7===========> _Importer Trying ImportError with name=%s fromlist=%s insysmodules=%s\" % (name,fromlist,name in sys.modules)\n"
" m = self._import(\".\".join(n[:-1]),globals,locals,[n[-1],])\n"
" print \"8===========> _Importer Trying ImportError with name=%s fromlist=%s insysmodules=%s\" % (name,fromlist,name in sys.modules)\n"
" return self.realImporter(name, globals, locals, fromlist)\n"
" print \"9===========> _Importer Trying ImportError with name=%s fromlist=%s insysmodules=%s\" % (name,fromlist,name in sys.modules)\n"
" raise\n"
*/
;
PyObject* pyrun = PyRun_String(s.toLatin1().data(), Py_file_input, moduledict.ptr(), moduledict.ptr());
if(! pyrun) {
Py::Object errobj = Py::value(Py::Exception()); // get last error
setError( QString("Failed to prepare the __main__ module: %1").arg(errobj.as_string().c_str()) );
}
Py_XDECREF(pyrun); // free the reference.
}
PyObject* MeshPy::nearestFacetOnRay(PyObject *args)
{
PyObject* pnt_p;
PyObject* dir_p;
if (!PyArg_ParseTuple(args, "OO", &pnt_p, &dir_p))
return NULL;
try {
Py::Tuple pnt_t(pnt_p);
Py::Tuple dir_t(dir_p);
Py::Dict dict;
Base::Vector3f pnt((float)Py::Float(pnt_t.getItem(0)),
(float)Py::Float(pnt_t.getItem(1)),
(float)Py::Float(pnt_t.getItem(2)));
Base::Vector3f dir((float)Py::Float(dir_t.getItem(0)),
(float)Py::Float(dir_t.getItem(1)),
(float)Py::Float(dir_t.getItem(2)));
unsigned long index = 0;
Base::Vector3f res;
MeshCore::MeshAlgorithm alg(getMeshObjectPtr()->getKernel());
#if 0 // for testing only
MeshCore::MeshFacetGrid grid(getMeshObjectPtr()->getKernel(),10);
// With grids we might search in the opposite direction, too
if (alg.NearestFacetOnRay(pnt, dir, grid, res, index) ||
alg.NearestFacetOnRay(pnt, -dir, grid, res, index)) {
#else
if (alg.NearestFacetOnRay(pnt, dir, res, index)) {
#endif
Py::Tuple tuple(3);
tuple.setItem(0, Py::Float(res.x));
tuple.setItem(1, Py::Float(res.y));
tuple.setItem(2, Py::Float(res.z));
dict.setItem(Py::Int((int)index), tuple);
}
#if 0 // for testing only
char szBuf[200];
std::ofstream str("grid_test.iv");
Base::InventorBuilder builder(str);
MeshCore::MeshGridIterator g_it(grid);
for (g_it.Init(); g_it.More(); g_it.Next()) {
Base::BoundBox3f box = g_it.GetBoundBox();
unsigned long uX,uY,uZ;
g_it.GetGridPos(uX,uY,uZ);
builder.addBoundingBox(Base::Vector3f(box.MinX,box.MinY, box.MinZ),
Base::Vector3f(box.MaxX,box.MaxY, box.MaxZ));
sprintf(szBuf, "(%lu,%lu,%lu)", uX, uY, uZ);
builder.addText(box.CalcCenter(), szBuf);
}
builder.addSingleArrow(pnt-20.0f*dir, pnt+10.0f*dir);
builder.close();
str.close();
#endif
return Py::new_reference_to(dict);
}
catch (const Py::Exception&) {
return 0;
}
}
void PythonInterpreter::extractException(QStringList& errorlist, int& lineno)
{
lineno = -1;
PyObject *type, *value, *traceback;
PyErr_Fetch(&type, &value, &traceback);
Py_FlushLine();
PyErr_NormalizeException(&type, &value, &traceback);
if(traceback) {
Py::List tblist;
try {
Py::Module tbmodule( PyImport_Import(Py::String("traceback").ptr()), true );
Py::Dict tbdict = tbmodule.getDict();
Py::Callable tbfunc(tbdict.getItem("format_tb"));
Py::Tuple args(1);
args.setItem(0, Py::Object(traceback));
tblist = tbfunc.apply(args);
uint length = tblist.length();
for(Py::List::size_type i = 0; i < length; ++i)
errorlist.append( Py::Object(tblist[i]).as_string().c_str() );
}
catch(Py::Exception& e) {
QString err = Py::value(e).as_string().c_str();
e.clear(); // exception is handled. clear it now.
#ifdef KROSS_PYTHON_EXCEPTION_DEBUG
krosswarning( QString("Kross::PythonScript::toException() Failed to fetch a traceback: %1").arg(err) );
#endif
}
PyObject *next;
while (traceback && traceback != Py_None) {
PyFrameObject *frame = (PyFrameObject*)PyObject_GetAttrString(traceback, const_cast< char* >("tb_frame"));
{
PyObject *getobj = PyObject_GetAttrString(traceback, const_cast< char* >("tb_lineno") );
lineno = PyInt_AsLong(getobj);
Py_DECREF(getobj);
}
if(Py_OptimizeFlag) {
PyObject *getobj = PyObject_GetAttrString(traceback, const_cast< char* >("tb_lasti") );
int lasti = PyInt_AsLong(getobj);
Py_DECREF(getobj);
lineno = PyCode_Addr2Line(frame->f_code, lasti);
}
//const char* filename = PyString_AsString(frame->f_code->co_filename);
//const char* name = PyString_AsString(frame->f_code->co_name);
//errorlist.append( QString("%1#%2: \"%3\"").arg(filename).arg(lineno).arg(name) );
//Py_DECREF(frame); // don't free cause we don't own it.
next = PyObject_GetAttrString(traceback, const_cast< char* >("tb_next") );
Py_DECREF(traceback);
traceback = next;
}
}
if(lineno < 0 && value && PyObject_HasAttrString(value, const_cast< char* >("lineno"))) {
PyObject *getobj = PyObject_GetAttrString(value, const_cast< char* >("lineno") );
if(getobj) {
lineno = PyInt_AsLong(getobj);
Py_DECREF(getobj);
}
}
#ifdef KROSS_PYTHON_EXCEPTION_DEBUG
//krossdebug( QString("PythonInterpreter::extractException: %1").arg( Py::Object(value).as_string().c_str() ) );
krossdebug( QString("PythonInterpreter::extractException:\n%1").arg( errorlist.join("\n") ) );
#endif
PyErr_Restore(type, value, traceback);
}
Py::Object
Transformation::nonlinear_only_numerix(const Py::Tuple & args, const Py::Dict &kwargs) {
_VERBOSE("Transformation::nonlinear_only_numerix");
args.verify_length(2);
int returnMask = false;
if (kwargs.hasKey("returnMask")) {
returnMask = Py::Int(kwargs["returnMask"]);
}
Py::Object xo = args[0];
Py::Object yo = args[1];
PyArrayObject *x = (PyArrayObject *) PyArray_ContiguousFromObject(xo.ptr(), PyArray_DOUBLE, 1, 1);
if (x==NULL)
throw Py::TypeError("Transformation::nonlinear_only_numerix expected numerix array");
PyArrayObject *y = (PyArrayObject *) PyArray_ContiguousFromObject(yo.ptr(), PyArray_DOUBLE, 1, 1);
if (y==NULL)
throw Py::TypeError("Transformation::nonlinear_only_numerix expected numerix array");
size_t Nx = x->dimensions[0];
size_t Ny = y->dimensions[0];
if (Nx!=Ny)
throw Py::ValueError("x and y must be equal length sequences");
int dimensions[1];
dimensions[0] = Nx;
PyArrayObject *retx = (PyArrayObject *)PyArray_FromDims(1,dimensions,PyArray_DOUBLE);
if (retx==NULL) {
Py_XDECREF(x);
Py_XDECREF(y);
throw Py::RuntimeError("Could not create return x array");
}
PyArrayObject *rety = (PyArrayObject *)PyArray_FromDims(1,dimensions,PyArray_DOUBLE);
if (rety==NULL) {
Py_XDECREF(x);
Py_XDECREF(y);
Py_XDECREF(retx);
throw Py::RuntimeError("Could not create return x array");
}
PyArrayObject *retmask = NULL;
if (returnMask) {
retmask = (PyArrayObject *)PyArray_FromDims(1,dimensions,PyArray_UBYTE);
if (retmask==NULL) {
Py_XDECREF(x);
Py_XDECREF(y);
Py_XDECREF(retx);
Py_XDECREF(rety);
throw Py::RuntimeError("Could not create return mask array");
}
}
for (size_t i=0; i< Nx; ++i) {
double thisx = *(double *)(x->data + i*x->strides[0]);
double thisy = *(double *)(y->data + i*y->strides[0]);
try {
this->nonlinear_only_api(&thisx, &thisy);
}
catch(...) {
if (returnMask) {
*(unsigned char *)(retmask->data + i*retmask->strides[0]) = 0;
*(double *)(retx->data + i*retx->strides[0]) = 0.0;
*(double *)(rety->data + i*rety->strides[0]) = 0.0;
continue;
}
else {
throw Py::ValueError("Domain error on this->nonlinear_only_api(&thisx, &thisy) in Transformation::nonlinear_only_numerix");
}
}
*(double *)(retx->data + i*retx->strides[0]) = thisx;
*(double *)(rety->data + i*rety->strides[0]) = thisy;
if (returnMask) {
*(unsigned char *)(retmask->data + i*retmask->strides[0]) = 1;
}
}
Py_XDECREF(x);
Py_XDECREF(y);
if (returnMask) {
Py::Tuple ret(3);
ret[0] = Py::Object((PyObject*)retx);
ret[1] = Py::Object((PyObject*)rety);
ret[2] = Py::Object((PyObject*)retmask);
Py_XDECREF(retx);
Py_XDECREF(rety);
Py_XDECREF(retmask);
return ret;
}
else {
Py::Tuple ret(2);
ret[0] = Py::Object((PyObject*)retx);
ret[1] = Py::Object((PyObject*)rety);
Py_XDECREF(retx);
Py_XDECREF(rety);
return ret;
}
}