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|
// std lib related includes
#include <tuple>
// pybind 11 related includes
#include <pybind11/pybind11.h>
#include <pybind11/stl.h>
namespace py = pybind11;
// Standard Handle
#include <Standard_Handle.hxx>
// includes to resolve forward declarations
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Geom_BSplineCurve.hxx>
#include <Geom2d_BSplineCurve.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Geom_Curve.hxx>
#include <Geom2d_Curve.hxx>
#include <Geom_Surface.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
#include <Approx_SweepFunction.hxx>
#include <AdvApprox_Cutting.hxx>
#include <Adaptor2d_Curve2d.hxx>
#include <Adaptor3d_Curve.hxx>
#include <Adaptor3d_Surface.hxx>
// module includes
#include <Approx_Array1OfAdHSurface.hxx>
#include <Approx_Array1OfGTrsf2d.hxx>
#include <Approx_Curve2d.hxx>
#include <Approx_Curve3d.hxx>
#include <Approx_CurveOnSurface.hxx>
#include <Approx_CurvilinearParameter.hxx>
#include <Approx_CurvlinFunc.hxx>
#include <Approx_FitAndDivide.hxx>
#include <Approx_FitAndDivide2d.hxx>
#include <Approx_HArray1OfAdHSurface.hxx>
#include <Approx_HArray1OfGTrsf2d.hxx>
#include <Approx_MCurvesToBSpCurve.hxx>
#include <Approx_ParametrizationType.hxx>
#include <Approx_SameParameter.hxx>
#include <Approx_SequenceOfHArray1OfReal.hxx>
#include <Approx_Status.hxx>
#include <Approx_SweepApproximation.hxx>
#include <Approx_SweepFunction.hxx>
// template related includes
// ./opencascade/Approx_Array1OfAdHSurface.hxx
#include "NCollection_tmpl.hxx"
// ./opencascade/Approx_Array1OfGTrsf2d.hxx
#include "NCollection_tmpl.hxx"
// ./opencascade/Approx_SequenceOfHArray1OfReal.hxx
#include "NCollection_tmpl.hxx"
// user-defined pre
#include "OCP_specific.inc"
// user-defined inclusion per module
// Module definiiton
void register_Approx(py::module &main_module) {
py::module m = static_cast<py::module>(main_module.attr("Approx"));
py::object klass;
//Python trampoline classes
class Py_Approx_SweepFunction : public Approx_SweepFunction{
public:
using Approx_SweepFunction::Approx_SweepFunction;
// public pure virtual
Standard_Boolean D0( const Standard_Real Param, const Standard_Real First, const Standard_Real Last,TColgp_Array1OfPnt & Poles,TColgp_Array1OfPnt2d & Poles2d,TColStd_Array1OfReal & Weigths) override { using return_type = Standard_Boolean;
PYBIND11_OVERLOAD_PURE(return_type,Approx_SweepFunction,D0,Param,First,Last,Poles,Poles2d,Weigths) };
Standard_Integer Nb2dCurves() const override { using return_type = Standard_Integer;
PYBIND11_OVERLOAD_PURE(return_type,Approx_SweepFunction,Nb2dCurves,) };
void Knots(TColStd_Array1OfReal & TKnots) const override { using return_type = void;
PYBIND11_OVERLOAD_PURE(return_type,Approx_SweepFunction,Knots,TKnots) };
void Mults(TColStd_Array1OfInteger & TMults) const override { using return_type = void;
PYBIND11_OVERLOAD_PURE(return_type,Approx_SweepFunction,Mults,TMults) };
Standard_Boolean IsRational() const override { using return_type = Standard_Boolean;
PYBIND11_OVERLOAD_PURE(return_type,Approx_SweepFunction,IsRational,) };
Standard_Integer NbIntervals( const GeomAbs_Shape S) const override { using return_type = Standard_Integer;
PYBIND11_OVERLOAD_PURE(return_type,Approx_SweepFunction,NbIntervals,S) };
void Intervals(TColStd_Array1OfReal & T, const GeomAbs_Shape S) const override { using return_type = void;
PYBIND11_OVERLOAD_PURE(return_type,Approx_SweepFunction,Intervals,T,S) };
void SetInterval( const Standard_Real First, const Standard_Real Last) override { using return_type = void;
PYBIND11_OVERLOAD_PURE(return_type,Approx_SweepFunction,SetInterval,First,Last) };
void GetTolerance( const Standard_Real BoundTol, const Standard_Real SurfTol, const Standard_Real AngleTol,TColStd_Array1OfReal & Tol3d) const override { using return_type = void;
PYBIND11_OVERLOAD_PURE(return_type,Approx_SweepFunction,GetTolerance,BoundTol,SurfTol,AngleTol,Tol3d) };
void SetTolerance( const Standard_Real Tol3d, const Standard_Real Tol2d) override { using return_type = void;
PYBIND11_OVERLOAD_PURE(return_type,Approx_SweepFunction,SetTolerance,Tol3d,Tol2d) };
void SectionShape(Standard_Integer & NbPoles,Standard_Integer & NbKnots,Standard_Integer & Degree) const override { using return_type = void;
PYBIND11_OVERLOAD_PURE(return_type,Approx_SweepFunction,SectionShape,NbPoles,NbKnots,Degree) };
// protected pure virtual
// private pure virtual
};
// classes
// Class Approx_Curve2d from ./opencascade/Approx_Curve2d.hxx
klass = m.attr("Approx_Curve2d");
// nested enums
static_cast<py::class_<Approx_Curve2d , shared_ptr<Approx_Curve2d> >>(klass)
// constructors
.def(py::init< const handle<Adaptor2d_Curve2d> &, const Standard_Real, const Standard_Real, const Standard_Real, const Standard_Real, const GeomAbs_Shape, const Standard_Integer, const Standard_Integer >() , py::arg("C2D"), py::arg("First"), py::arg("Last"), py::arg("TolU"), py::arg("TolV"), py::arg("Continuity"), py::arg("MaxDegree"), py::arg("MaxSegments") )
// custom constructors
// methods
.def("IsDone",
(Standard_Boolean (Approx_Curve2d::*)() const) static_cast<Standard_Boolean (Approx_Curve2d::*)() const>(&Approx_Curve2d::IsDone),
R"#()#"
)
.def("HasResult",
(Standard_Boolean (Approx_Curve2d::*)() const) static_cast<Standard_Boolean (Approx_Curve2d::*)() const>(&Approx_Curve2d::HasResult),
R"#()#"
)
.def("Curve",
(handle<Geom2d_BSplineCurve> (Approx_Curve2d::*)() const) static_cast<handle<Geom2d_BSplineCurve> (Approx_Curve2d::*)() const>(&Approx_Curve2d::Curve),
R"#()#"
)
.def("MaxError2dU",
(Standard_Real (Approx_Curve2d::*)() const) static_cast<Standard_Real (Approx_Curve2d::*)() const>(&Approx_Curve2d::MaxError2dU),
R"#()#"
)
.def("MaxError2dV",
(Standard_Real (Approx_Curve2d::*)() const) static_cast<Standard_Real (Approx_Curve2d::*)() const>(&Approx_Curve2d::MaxError2dV),
R"#()#"
)
// methods using call by reference i.s.o. return
// static methods
// static methods using call by reference i.s.o. return
// operators
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
;
// Class Approx_Curve3d from ./opencascade/Approx_Curve3d.hxx
klass = m.attr("Approx_Curve3d");
// nested enums
static_cast<py::class_<Approx_Curve3d , shared_ptr<Approx_Curve3d> >>(klass)
// constructors
.def(py::init< const handle<Adaptor3d_Curve> &, const Standard_Real, const GeomAbs_Shape, const Standard_Integer, const Standard_Integer >() , py::arg("Curve"), py::arg("Tol3d"), py::arg("Order"), py::arg("MaxSegments"), py::arg("MaxDegree") )
// custom constructors
// methods
.def("Curve",
(handle<Geom_BSplineCurve> (Approx_Curve3d::*)() const) static_cast<handle<Geom_BSplineCurve> (Approx_Curve3d::*)() const>(&Approx_Curve3d::Curve),
R"#()#"
)
.def("IsDone",
(Standard_Boolean (Approx_Curve3d::*)() const) static_cast<Standard_Boolean (Approx_Curve3d::*)() const>(&Approx_Curve3d::IsDone),
R"#(returns Standard_True if the approximation has been done within required tolerance)#"
)
.def("HasResult",
(Standard_Boolean (Approx_Curve3d::*)() const) static_cast<Standard_Boolean (Approx_Curve3d::*)() const>(&Approx_Curve3d::HasResult),
R"#(returns Standard_True if the approximation did come out with a result that is not NECESSARELY within the required tolerance)#"
)
.def("MaxError",
(Standard_Real (Approx_Curve3d::*)() const) static_cast<Standard_Real (Approx_Curve3d::*)() const>(&Approx_Curve3d::MaxError),
R"#(returns the Maximum Error (>0 when an approximation has been done, 0 if no approximation))#"
)
.def("Dump",
(void (Approx_Curve3d::*)( Standard_OStream & ) const) static_cast<void (Approx_Curve3d::*)( Standard_OStream & ) const>(&Approx_Curve3d::Dump),
R"#(Print on the stream o information about the object)#" , py::arg("o")
)
// methods using call by reference i.s.o. return
// static methods
// static methods using call by reference i.s.o. return
// operators
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
;
// Class Approx_CurveOnSurface from ./opencascade/Approx_CurveOnSurface.hxx
klass = m.attr("Approx_CurveOnSurface");
// nested enums
static_cast<py::class_<Approx_CurveOnSurface , shared_ptr<Approx_CurveOnSurface> >>(klass)
// constructors
.def(py::init< const handle<Adaptor2d_Curve2d> &, const handle<Adaptor3d_Surface> &, const Standard_Real, const Standard_Real, const Standard_Real, const GeomAbs_Shape, const Standard_Integer, const Standard_Integer, const Standard_Boolean, const Standard_Boolean >() , py::arg("C2D"), py::arg("Surf"), py::arg("First"), py::arg("Last"), py::arg("Tol"), py::arg("Continuity"), py::arg("MaxDegree"), py::arg("MaxSegments"), py::arg("Only3d")=static_cast< const Standard_Boolean>(Standard_False), py::arg("Only2d")=static_cast< const Standard_Boolean>(Standard_False) )
.def(py::init< const handle<Adaptor2d_Curve2d> &, const handle<Adaptor3d_Surface> &, const Standard_Real, const Standard_Real, const Standard_Real >() , py::arg("theC2D"), py::arg("theSurf"), py::arg("theFirst"), py::arg("theLast"), py::arg("theTol") )
// custom constructors
// methods
.def("IsDone",
(Standard_Boolean (Approx_CurveOnSurface::*)() const) static_cast<Standard_Boolean (Approx_CurveOnSurface::*)() const>(&Approx_CurveOnSurface::IsDone),
R"#()#"
)
.def("HasResult",
(Standard_Boolean (Approx_CurveOnSurface::*)() const) static_cast<Standard_Boolean (Approx_CurveOnSurface::*)() const>(&Approx_CurveOnSurface::HasResult),
R"#()#"
)
.def("Curve3d",
(handle<Geom_BSplineCurve> (Approx_CurveOnSurface::*)() const) static_cast<handle<Geom_BSplineCurve> (Approx_CurveOnSurface::*)() const>(&Approx_CurveOnSurface::Curve3d),
R"#()#"
)
.def("MaxError3d",
(Standard_Real (Approx_CurveOnSurface::*)() const) static_cast<Standard_Real (Approx_CurveOnSurface::*)() const>(&Approx_CurveOnSurface::MaxError3d),
R"#()#"
)
.def("Curve2d",
(handle<Geom2d_BSplineCurve> (Approx_CurveOnSurface::*)() const) static_cast<handle<Geom2d_BSplineCurve> (Approx_CurveOnSurface::*)() const>(&Approx_CurveOnSurface::Curve2d),
R"#()#"
)
.def("MaxError2dU",
(Standard_Real (Approx_CurveOnSurface::*)() const) static_cast<Standard_Real (Approx_CurveOnSurface::*)() const>(&Approx_CurveOnSurface::MaxError2dU),
R"#()#"
)
.def("MaxError2dV",
(Standard_Real (Approx_CurveOnSurface::*)() const) static_cast<Standard_Real (Approx_CurveOnSurface::*)() const>(&Approx_CurveOnSurface::MaxError2dV),
R"#(returns the maximum errors relatively to the U component or the V component of the 2d Curve)#"
)
.def("Perform",
(void (Approx_CurveOnSurface::*)( const Standard_Integer , const Standard_Integer , const GeomAbs_Shape , const Standard_Boolean , const Standard_Boolean ) ) static_cast<void (Approx_CurveOnSurface::*)( const Standard_Integer , const Standard_Integer , const GeomAbs_Shape , const Standard_Boolean , const Standard_Boolean ) >(&Approx_CurveOnSurface::Perform),
R"#(Constructs the 3d curve. Input parameters are ignored when the input curve is U-isoline or V-isoline.)#" , py::arg("theMaxSegments"), py::arg("theMaxDegree"), py::arg("theContinuity"), py::arg("theOnly3d")=static_cast< const Standard_Boolean>(Standard_False), py::arg("theOnly2d")=static_cast< const Standard_Boolean>(Standard_False)
)
// methods using call by reference i.s.o. return
// static methods
// static methods using call by reference i.s.o. return
// operators
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
;
// Class Approx_CurvilinearParameter from ./opencascade/Approx_CurvilinearParameter.hxx
klass = m.attr("Approx_CurvilinearParameter");
// nested enums
static_cast<py::class_<Approx_CurvilinearParameter , shared_ptr<Approx_CurvilinearParameter> >>(klass)
// constructors
.def(py::init< const handle<Adaptor3d_Curve> &, const Standard_Real, const GeomAbs_Shape, const Standard_Integer, const Standard_Integer >() , py::arg("C3D"), py::arg("Tol"), py::arg("Order"), py::arg("MaxDegree"), py::arg("MaxSegments") )
.def(py::init< const handle<Adaptor2d_Curve2d> &, const handle<Adaptor3d_Surface> &, const Standard_Real, const GeomAbs_Shape, const Standard_Integer, const Standard_Integer >() , py::arg("C2D"), py::arg("Surf"), py::arg("Tol"), py::arg("Order"), py::arg("MaxDegree"), py::arg("MaxSegments") )
.def(py::init< const handle<Adaptor2d_Curve2d> &, const handle<Adaptor3d_Surface> &, const handle<Adaptor2d_Curve2d> &, const handle<Adaptor3d_Surface> &, const Standard_Real, const GeomAbs_Shape, const Standard_Integer, const Standard_Integer >() , py::arg("C2D1"), py::arg("Surf1"), py::arg("C2D2"), py::arg("Surf2"), py::arg("Tol"), py::arg("Order"), py::arg("MaxDegree"), py::arg("MaxSegments") )
// custom constructors
// methods
.def("IsDone",
(Standard_Boolean (Approx_CurvilinearParameter::*)() const) static_cast<Standard_Boolean (Approx_CurvilinearParameter::*)() const>(&Approx_CurvilinearParameter::IsDone),
R"#()#"
)
.def("HasResult",
(Standard_Boolean (Approx_CurvilinearParameter::*)() const) static_cast<Standard_Boolean (Approx_CurvilinearParameter::*)() const>(&Approx_CurvilinearParameter::HasResult),
R"#()#"
)
.def("Curve3d",
(handle<Geom_BSplineCurve> (Approx_CurvilinearParameter::*)() const) static_cast<handle<Geom_BSplineCurve> (Approx_CurvilinearParameter::*)() const>(&Approx_CurvilinearParameter::Curve3d),
R"#(returns the Bspline curve corresponding to the reparametrized 3D curve)#"
)
.def("MaxError3d",
(Standard_Real (Approx_CurvilinearParameter::*)() const) static_cast<Standard_Real (Approx_CurvilinearParameter::*)() const>(&Approx_CurvilinearParameter::MaxError3d),
R"#(returns the maximum error on the reparametrized 3D curve)#"
)
.def("Curve2d1",
(handle<Geom2d_BSplineCurve> (Approx_CurvilinearParameter::*)() const) static_cast<handle<Geom2d_BSplineCurve> (Approx_CurvilinearParameter::*)() const>(&Approx_CurvilinearParameter::Curve2d1),
R"#(returns the BsplineCurve representing the reparametrized 2D curve on the first surface (case of a curve on one or two surfaces))#"
)
.def("MaxError2d1",
(Standard_Real (Approx_CurvilinearParameter::*)() const) static_cast<Standard_Real (Approx_CurvilinearParameter::*)() const>(&Approx_CurvilinearParameter::MaxError2d1),
R"#(returns the maximum error on the first reparametrized 2D curve)#"
)
.def("Curve2d2",
(handle<Geom2d_BSplineCurve> (Approx_CurvilinearParameter::*)() const) static_cast<handle<Geom2d_BSplineCurve> (Approx_CurvilinearParameter::*)() const>(&Approx_CurvilinearParameter::Curve2d2),
R"#(returns the BsplineCurve representing the reparametrized 2D curve on the second surface (case of a curve on two surfaces))#"
)
.def("MaxError2d2",
(Standard_Real (Approx_CurvilinearParameter::*)() const) static_cast<Standard_Real (Approx_CurvilinearParameter::*)() const>(&Approx_CurvilinearParameter::MaxError2d2),
R"#(returns the maximum error on the second reparametrized 2D curve)#"
)
.def("Dump",
(void (Approx_CurvilinearParameter::*)( Standard_OStream & ) const) static_cast<void (Approx_CurvilinearParameter::*)( Standard_OStream & ) const>(&Approx_CurvilinearParameter::Dump),
R"#(print the maximum errors(s))#" , py::arg("o")
)
// methods using call by reference i.s.o. return
// static methods
// static methods using call by reference i.s.o. return
// operators
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
;
// Class Approx_CurvlinFunc from ./opencascade/Approx_CurvlinFunc.hxx
klass = m.attr("Approx_CurvlinFunc");
// nested enums
static_cast<py::class_<Approx_CurvlinFunc ,opencascade::handle<Approx_CurvlinFunc> , Standard_Transient >>(klass)
// constructors
.def(py::init< const handle<Adaptor3d_Curve> &, const Standard_Real >() , py::arg("C"), py::arg("Tol") )
.def(py::init< const handle<Adaptor2d_Curve2d> &, const handle<Adaptor3d_Surface> &, const Standard_Real >() , py::arg("C2D"), py::arg("S"), py::arg("Tol") )
.def(py::init< const handle<Adaptor2d_Curve2d> &, const handle<Adaptor2d_Curve2d> &, const handle<Adaptor3d_Surface> &, const handle<Adaptor3d_Surface> &, const Standard_Real >() , py::arg("C2D1"), py::arg("C2D2"), py::arg("S1"), py::arg("S2"), py::arg("Tol") )
// custom constructors
// methods
.def("SetTol",
(void (Approx_CurvlinFunc::*)( const Standard_Real ) ) static_cast<void (Approx_CurvlinFunc::*)( const Standard_Real ) >(&Approx_CurvlinFunc::SetTol),
R"#(---Purpose Update the tolerance to used)#" , py::arg("Tol")
)
.def("FirstParameter",
(Standard_Real (Approx_CurvlinFunc::*)() const) static_cast<Standard_Real (Approx_CurvlinFunc::*)() const>(&Approx_CurvlinFunc::FirstParameter),
R"#()#"
)
.def("LastParameter",
(Standard_Real (Approx_CurvlinFunc::*)() const) static_cast<Standard_Real (Approx_CurvlinFunc::*)() const>(&Approx_CurvlinFunc::LastParameter),
R"#()#"
)
.def("NbIntervals",
(Standard_Integer (Approx_CurvlinFunc::*)( const GeomAbs_Shape ) const) static_cast<Standard_Integer (Approx_CurvlinFunc::*)( const GeomAbs_Shape ) const>(&Approx_CurvlinFunc::NbIntervals),
R"#(Returns the number of intervals for continuity <S>. May be one if Continuity(me) >= <S>)#" , py::arg("S")
)
.def("Intervals",
(void (Approx_CurvlinFunc::*)( TColStd_Array1OfReal & , const GeomAbs_Shape ) const) static_cast<void (Approx_CurvlinFunc::*)( TColStd_Array1OfReal & , const GeomAbs_Shape ) const>(&Approx_CurvlinFunc::Intervals),
R"#(Stores in <T> the parameters bounding the intervals of continuity <S>.)#" , py::arg("T"), py::arg("S")
)
.def("Trim",
(void (Approx_CurvlinFunc::*)( const Standard_Real , const Standard_Real , const Standard_Real ) ) static_cast<void (Approx_CurvlinFunc::*)( const Standard_Real , const Standard_Real , const Standard_Real ) >(&Approx_CurvlinFunc::Trim),
R"#(if First < 0 or Last > 1)#" , py::arg("First"), py::arg("Last"), py::arg("Tol")
)
.def("Length",
(void (Approx_CurvlinFunc::*)() ) static_cast<void (Approx_CurvlinFunc::*)() >(&Approx_CurvlinFunc::Length),
R"#(Computes length of the curve.)#"
)
.def("Length",
(Standard_Real (Approx_CurvlinFunc::*)( Adaptor3d_Curve & , const Standard_Real , const Standard_Real ) const) static_cast<Standard_Real (Approx_CurvlinFunc::*)( Adaptor3d_Curve & , const Standard_Real , const Standard_Real ) const>(&Approx_CurvlinFunc::Length),
R"#(Computes length of the curve segment.)#" , py::arg("C"), py::arg("FirstU"), py::arg("LasrU")
)
.def("GetLength",
(Standard_Real (Approx_CurvlinFunc::*)() const) static_cast<Standard_Real (Approx_CurvlinFunc::*)() const>(&Approx_CurvlinFunc::GetLength),
R"#()#"
)
.def("GetUParameter",
(Standard_Real (Approx_CurvlinFunc::*)( Adaptor3d_Curve & , const Standard_Real , const Standard_Integer ) const) static_cast<Standard_Real (Approx_CurvlinFunc::*)( Adaptor3d_Curve & , const Standard_Real , const Standard_Integer ) const>(&Approx_CurvlinFunc::GetUParameter),
R"#(returns original parameter corresponding S. if Case == 1 computation is performed on myC2D1 and mySurf1, otherwise it is done on myC2D2 and mySurf2.)#" , py::arg("C"), py::arg("S"), py::arg("NumberOfCurve")
)
.def("GetSParameter",
(Standard_Real (Approx_CurvlinFunc::*)( const Standard_Real ) const) static_cast<Standard_Real (Approx_CurvlinFunc::*)( const Standard_Real ) const>(&Approx_CurvlinFunc::GetSParameter),
R"#(returns original parameter corresponding S.)#" , py::arg("U")
)
.def("EvalCase1",
(Standard_Boolean (Approx_CurvlinFunc::*)( const Standard_Real , const Standard_Integer , TColStd_Array1OfReal & ) const) static_cast<Standard_Boolean (Approx_CurvlinFunc::*)( const Standard_Real , const Standard_Integer , TColStd_Array1OfReal & ) const>(&Approx_CurvlinFunc::EvalCase1),
R"#(if myCase != 1)#" , py::arg("S"), py::arg("Order"), py::arg("Result")
)
.def("EvalCase2",
(Standard_Boolean (Approx_CurvlinFunc::*)( const Standard_Real , const Standard_Integer , TColStd_Array1OfReal & ) const) static_cast<Standard_Boolean (Approx_CurvlinFunc::*)( const Standard_Real , const Standard_Integer , TColStd_Array1OfReal & ) const>(&Approx_CurvlinFunc::EvalCase2),
R"#(if myCase != 2)#" , py::arg("S"), py::arg("Order"), py::arg("Result")
)
.def("EvalCase3",
(Standard_Boolean (Approx_CurvlinFunc::*)( const Standard_Real , const Standard_Integer , TColStd_Array1OfReal & ) ) static_cast<Standard_Boolean (Approx_CurvlinFunc::*)( const Standard_Real , const Standard_Integer , TColStd_Array1OfReal & ) >(&Approx_CurvlinFunc::EvalCase3),
R"#(if myCase != 3)#" , py::arg("S"), py::arg("Order"), py::arg("Result")
)
// methods using call by reference i.s.o. return
// static methods
.def_static("get_type_name_s",
( const char * (*)() ) static_cast< const char * (*)() >(&Approx_CurvlinFunc::get_type_name),
R"#()#"
)
.def_static("get_type_descriptor_s",
( const handle<Standard_Type> & (*)() ) static_cast< const handle<Standard_Type> & (*)() >(&Approx_CurvlinFunc::get_type_descriptor),
R"#()#"
)
// static methods using call by reference i.s.o. return
// operators
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
.def("DynamicType",
( const handle<Standard_Type> & (Approx_CurvlinFunc::*)() const) static_cast< const handle<Standard_Type> & (Approx_CurvlinFunc::*)() const>(&Approx_CurvlinFunc::DynamicType),
R"#()#"
)
;
// Class Approx_FitAndDivide from ./opencascade/Approx_FitAndDivide.hxx
klass = m.attr("Approx_FitAndDivide");
// nested enums
static_cast<py::class_<Approx_FitAndDivide , shared_ptr<Approx_FitAndDivide> >>(klass)
// constructors
.def(py::init< const AppCont_Function &, const Standard_Integer, const Standard_Integer, const Standard_Real, const Standard_Real, const Standard_Boolean, const AppParCurves_Constraint, const AppParCurves_Constraint >() , py::arg("Line"), py::arg("degreemin")=static_cast< const Standard_Integer>(3), py::arg("degreemax")=static_cast< const Standard_Integer>(8), py::arg("Tolerance3d")=static_cast< const Standard_Real>(1.0e-5), py::arg("Tolerance2d")=static_cast< const Standard_Real>(1.0e-5), py::arg("cutting")=static_cast< const Standard_Boolean>(Standard_False), py::arg("FirstC")=static_cast< const AppParCurves_Constraint>(AppParCurves_TangencyPoint), py::arg("LastC")=static_cast< const AppParCurves_Constraint>(AppParCurves_TangencyPoint) )
.def(py::init< const Standard_Integer, const Standard_Integer, const Standard_Real, const Standard_Real, const Standard_Boolean, const AppParCurves_Constraint, const AppParCurves_Constraint >() , py::arg("degreemin")=static_cast< const Standard_Integer>(3), py::arg("degreemax")=static_cast< const Standard_Integer>(8), py::arg("Tolerance3d")=static_cast< const Standard_Real>(1.0e-05), py::arg("Tolerance2d")=static_cast< const Standard_Real>(1.0e-05), py::arg("cutting")=static_cast< const Standard_Boolean>(Standard_False), py::arg("FirstC")=static_cast< const AppParCurves_Constraint>(AppParCurves_TangencyPoint), py::arg("LastC")=static_cast< const AppParCurves_Constraint>(AppParCurves_TangencyPoint) )
// custom constructors
// methods
.def("Perform",
(void (Approx_FitAndDivide::*)( const AppCont_Function & ) ) static_cast<void (Approx_FitAndDivide::*)( const AppCont_Function & ) >(&Approx_FitAndDivide::Perform),
R"#(runs the algorithm after having initialized the fields.)#" , py::arg("Line")
)
.def("SetDegrees",
(void (Approx_FitAndDivide::*)( const Standard_Integer , const Standard_Integer ) ) static_cast<void (Approx_FitAndDivide::*)( const Standard_Integer , const Standard_Integer ) >(&Approx_FitAndDivide::SetDegrees),
R"#(changes the degrees of the approximation.)#" , py::arg("degreemin"), py::arg("degreemax")
)
.def("SetTolerances",
(void (Approx_FitAndDivide::*)( const Standard_Real , const Standard_Real ) ) static_cast<void (Approx_FitAndDivide::*)( const Standard_Real , const Standard_Real ) >(&Approx_FitAndDivide::SetTolerances),
R"#(Changes the tolerances of the approximation.)#" , py::arg("Tolerance3d"), py::arg("Tolerance2d")
)
.def("SetConstraints",
(void (Approx_FitAndDivide::*)( const AppParCurves_Constraint , const AppParCurves_Constraint ) ) static_cast<void (Approx_FitAndDivide::*)( const AppParCurves_Constraint , const AppParCurves_Constraint ) >(&Approx_FitAndDivide::SetConstraints),
R"#(Changes the constraints of the approximation.)#" , py::arg("FirstC"), py::arg("LastC")
)
.def("SetMaxSegments",
(void (Approx_FitAndDivide::*)( const Standard_Integer ) ) static_cast<void (Approx_FitAndDivide::*)( const Standard_Integer ) >(&Approx_FitAndDivide::SetMaxSegments),
R"#(Changes the max number of segments, which is allowed for cutting.)#" , py::arg("theMaxSegments")
)
.def("SetInvOrder",
(void (Approx_FitAndDivide::*)( const Standard_Boolean ) ) static_cast<void (Approx_FitAndDivide::*)( const Standard_Boolean ) >(&Approx_FitAndDivide::SetInvOrder),
R"#(Set inverse order of degree selection: if theInvOrdr = true, current degree is chosen by inverse order - from maxdegree to mindegree. By default inverse order is used.)#" , py::arg("theInvOrder")
)
.def("SetHangChecking",
(void (Approx_FitAndDivide::*)( const Standard_Boolean ) ) static_cast<void (Approx_FitAndDivide::*)( const Standard_Boolean ) >(&Approx_FitAndDivide::SetHangChecking),
R"#(Set value of hang checking flag if this flag = true, possible hang of algorithm is checked and algorithm is forced to stop. By default hang checking is used.)#" , py::arg("theHangChecking")
)
.def("IsAllApproximated",
(Standard_Boolean (Approx_FitAndDivide::*)() const) static_cast<Standard_Boolean (Approx_FitAndDivide::*)() const>(&Approx_FitAndDivide::IsAllApproximated),
R"#(returns False if at a moment of the approximation, the status NoApproximation has been sent by the user when more points were needed.)#"
)
.def("IsToleranceReached",
(Standard_Boolean (Approx_FitAndDivide::*)() const) static_cast<Standard_Boolean (Approx_FitAndDivide::*)() const>(&Approx_FitAndDivide::IsToleranceReached),
R"#(returns False if the status NoPointsAdded has been sent.)#"
)
.def("NbMultiCurves",
(Standard_Integer (Approx_FitAndDivide::*)() const) static_cast<Standard_Integer (Approx_FitAndDivide::*)() const>(&Approx_FitAndDivide::NbMultiCurves),
R"#(Returns the number of MultiCurve doing the approximation of the MultiLine.)#"
)
.def("Value",
(AppParCurves_MultiCurve (Approx_FitAndDivide::*)( const Standard_Integer ) const) static_cast<AppParCurves_MultiCurve (Approx_FitAndDivide::*)( const Standard_Integer ) const>(&Approx_FitAndDivide::Value),
R"#(returns the approximation MultiCurve of range <Index>.)#" , py::arg("Index")=static_cast< const Standard_Integer>(1)
)
// methods using call by reference i.s.o. return
.def("Error",
[]( Approx_FitAndDivide &self , const Standard_Integer Index ){
Standard_Real tol3d;
Standard_Real tol2d;
self.Error(Index,tol3d,tol2d);
return std::make_tuple(tol3d,tol2d); },
R"#(returns the tolerances 2d and 3d of the <Index> MultiCurve.)#" , py::arg("Index")
)
.def("Parameters",
[]( Approx_FitAndDivide &self , const Standard_Integer Index ){
Standard_Real firstp;
Standard_Real lastp;
self.Parameters(Index,firstp,lastp);
return std::make_tuple(firstp,lastp); },
R"#()#" , py::arg("Index")
)
// static methods
// static methods using call by reference i.s.o. return
// operators
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
;
// Class Approx_FitAndDivide2d from ./opencascade/Approx_FitAndDivide2d.hxx
klass = m.attr("Approx_FitAndDivide2d");
// nested enums
static_cast<py::class_<Approx_FitAndDivide2d , shared_ptr<Approx_FitAndDivide2d> >>(klass)
// constructors
.def(py::init< const AppCont_Function &, const Standard_Integer, const Standard_Integer, const Standard_Real, const Standard_Real, const Standard_Boolean, const AppParCurves_Constraint, const AppParCurves_Constraint >() , py::arg("Line"), py::arg("degreemin")=static_cast< const Standard_Integer>(3), py::arg("degreemax")=static_cast< const Standard_Integer>(8), py::arg("Tolerance3d")=static_cast< const Standard_Real>(1.0e-5), py::arg("Tolerance2d")=static_cast< const Standard_Real>(1.0e-5), py::arg("cutting")=static_cast< const Standard_Boolean>(Standard_False), py::arg("FirstC")=static_cast< const AppParCurves_Constraint>(AppParCurves_TangencyPoint), py::arg("LastC")=static_cast< const AppParCurves_Constraint>(AppParCurves_TangencyPoint) )
.def(py::init< const Standard_Integer, const Standard_Integer, const Standard_Real, const Standard_Real, const Standard_Boolean, const AppParCurves_Constraint, const AppParCurves_Constraint >() , py::arg("degreemin")=static_cast< const Standard_Integer>(3), py::arg("degreemax")=static_cast< const Standard_Integer>(8), py::arg("Tolerance3d")=static_cast< const Standard_Real>(1.0e-05), py::arg("Tolerance2d")=static_cast< const Standard_Real>(1.0e-05), py::arg("cutting")=static_cast< const Standard_Boolean>(Standard_False), py::arg("FirstC")=static_cast< const AppParCurves_Constraint>(AppParCurves_TangencyPoint), py::arg("LastC")=static_cast< const AppParCurves_Constraint>(AppParCurves_TangencyPoint) )
// custom constructors
// methods
.def("Perform",
(void (Approx_FitAndDivide2d::*)( const AppCont_Function & ) ) static_cast<void (Approx_FitAndDivide2d::*)( const AppCont_Function & ) >(&Approx_FitAndDivide2d::Perform),
R"#(runs the algorithm after having initialized the fields.)#" , py::arg("Line")
)
.def("SetDegrees",
(void (Approx_FitAndDivide2d::*)( const Standard_Integer , const Standard_Integer ) ) static_cast<void (Approx_FitAndDivide2d::*)( const Standard_Integer , const Standard_Integer ) >(&Approx_FitAndDivide2d::SetDegrees),
R"#(changes the degrees of the approximation.)#" , py::arg("degreemin"), py::arg("degreemax")
)
.def("SetTolerances",
(void (Approx_FitAndDivide2d::*)( const Standard_Real , const Standard_Real ) ) static_cast<void (Approx_FitAndDivide2d::*)( const Standard_Real , const Standard_Real ) >(&Approx_FitAndDivide2d::SetTolerances),
R"#(Changes the tolerances of the approximation.)#" , py::arg("Tolerance3d"), py::arg("Tolerance2d")
)
.def("SetConstraints",
(void (Approx_FitAndDivide2d::*)( const AppParCurves_Constraint , const AppParCurves_Constraint ) ) static_cast<void (Approx_FitAndDivide2d::*)( const AppParCurves_Constraint , const AppParCurves_Constraint ) >(&Approx_FitAndDivide2d::SetConstraints),
R"#(Changes the constraints of the approximation.)#" , py::arg("FirstC"), py::arg("LastC")
)
.def("SetMaxSegments",
(void (Approx_FitAndDivide2d::*)( const Standard_Integer ) ) static_cast<void (Approx_FitAndDivide2d::*)( const Standard_Integer ) >(&Approx_FitAndDivide2d::SetMaxSegments),
R"#(Changes the max number of segments, which is allowed for cutting.)#" , py::arg("theMaxSegments")
)
.def("SetInvOrder",
(void (Approx_FitAndDivide2d::*)( const Standard_Boolean ) ) static_cast<void (Approx_FitAndDivide2d::*)( const Standard_Boolean ) >(&Approx_FitAndDivide2d::SetInvOrder),
R"#(Set inverse order of degree selection: if theInvOrdr = true, current degree is chosen by inverse order - from maxdegree to mindegree. By default inverse order is used.)#" , py::arg("theInvOrder")
)
.def("SetHangChecking",
(void (Approx_FitAndDivide2d::*)( const Standard_Boolean ) ) static_cast<void (Approx_FitAndDivide2d::*)( const Standard_Boolean ) >(&Approx_FitAndDivide2d::SetHangChecking),
R"#(Set value of hang checking flag if this flag = true, possible hang of algorithm is checked and algorithm is forced to stop. By default hang checking is used.)#" , py::arg("theHangChecking")
)
.def("IsAllApproximated",
(Standard_Boolean (Approx_FitAndDivide2d::*)() const) static_cast<Standard_Boolean (Approx_FitAndDivide2d::*)() const>(&Approx_FitAndDivide2d::IsAllApproximated),
R"#(returns False if at a moment of the approximation, the status NoApproximation has been sent by the user when more points were needed.)#"
)
.def("IsToleranceReached",
(Standard_Boolean (Approx_FitAndDivide2d::*)() const) static_cast<Standard_Boolean (Approx_FitAndDivide2d::*)() const>(&Approx_FitAndDivide2d::IsToleranceReached),
R"#(returns False if the status NoPointsAdded has been sent.)#"
)
.def("NbMultiCurves",
(Standard_Integer (Approx_FitAndDivide2d::*)() const) static_cast<Standard_Integer (Approx_FitAndDivide2d::*)() const>(&Approx_FitAndDivide2d::NbMultiCurves),
R"#(Returns the number of MultiCurve doing the approximation of the MultiLine.)#"
)
.def("Value",
(AppParCurves_MultiCurve (Approx_FitAndDivide2d::*)( const Standard_Integer ) const) static_cast<AppParCurves_MultiCurve (Approx_FitAndDivide2d::*)( const Standard_Integer ) const>(&Approx_FitAndDivide2d::Value),
R"#(returns the approximation MultiCurve of range <Index>.)#" , py::arg("Index")=static_cast< const Standard_Integer>(1)
)
// methods using call by reference i.s.o. return
.def("Error",
[]( Approx_FitAndDivide2d &self , const Standard_Integer Index ){
Standard_Real tol3d;
Standard_Real tol2d;
self.Error(Index,tol3d,tol2d);
return std::make_tuple(tol3d,tol2d); },
R"#(returns the tolerances 2d and 3d of the <Index> MultiCurve.)#" , py::arg("Index")
)
.def("Parameters",
[]( Approx_FitAndDivide2d &self , const Standard_Integer Index ){
Standard_Real firstp;
Standard_Real lastp;
self.Parameters(Index,firstp,lastp);
return std::make_tuple(firstp,lastp); },
R"#()#" , py::arg("Index")
)
// static methods
// static methods using call by reference i.s.o. return
// operators
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
;
// Class Approx_HArray1OfAdHSurface from ./opencascade/Approx_HArray1OfAdHSurface.hxx
klass = m.attr("Approx_HArray1OfAdHSurface");
// nested enums
static_cast<py::class_<Approx_HArray1OfAdHSurface ,opencascade::handle<Approx_HArray1OfAdHSurface> , Approx_Array1OfAdHSurface , Standard_Transient >>(klass)
// constructors
.def(py::init< >() )
.def(py::init< const Standard_Integer, const Standard_Integer >() , py::arg("theLower"), py::arg("theUpper") )
.def(py::init< const Standard_Integer, const Standard_Integer, const typename NCollection_Array1<opencascade::handle<Adaptor3d_Surface>>::value_type & >() , py::arg("theLower"), py::arg("theUpper"), py::arg("theValue") )
.def(py::init< const typename NCollection_Array1<opencascade::handle<Adaptor3d_Surface>>::value_type &, const Standard_Integer, const Standard_Integer, const bool >() , py::arg("theBegin"), py::arg("theLower"), py::arg("theUpper"), py::arg("arg3") )
.def(py::init< const Approx_Array1OfAdHSurface & >() , py::arg("theOther") )
// custom constructors
// methods
// methods using call by reference i.s.o. return
// static methods
.def_static("get_type_name_s",
( const char * (*)() ) static_cast< const char * (*)() >(&Approx_HArray1OfAdHSurface::get_type_name),
R"#()#"
)
.def_static("get_type_descriptor_s",
( const handle<Standard_Type> & (*)() ) static_cast< const handle<Standard_Type> & (*)() >(&Approx_HArray1OfAdHSurface::get_type_descriptor),
R"#()#"
)
// static methods using call by reference i.s.o. return
// operators
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
.def("Array1",
( const Approx_Array1OfAdHSurface & (Approx_HArray1OfAdHSurface::*)() const) static_cast< const Approx_Array1OfAdHSurface & (Approx_HArray1OfAdHSurface::*)() const>(&Approx_HArray1OfAdHSurface::Array1),
R"#()#"
)
.def("ChangeArray1",
(Approx_Array1OfAdHSurface & (Approx_HArray1OfAdHSurface::*)() ) static_cast<Approx_Array1OfAdHSurface & (Approx_HArray1OfAdHSurface::*)() >(&Approx_HArray1OfAdHSurface::ChangeArray1),
R"#()#"
, py::return_value_policy::reference_internal
)
.def("DynamicType",
( const handle<Standard_Type> & (Approx_HArray1OfAdHSurface::*)() const) static_cast< const handle<Standard_Type> & (Approx_HArray1OfAdHSurface::*)() const>(&Approx_HArray1OfAdHSurface::DynamicType),
R"#()#"
)
;
// Class Approx_HArray1OfGTrsf2d from ./opencascade/Approx_HArray1OfGTrsf2d.hxx
klass = m.attr("Approx_HArray1OfGTrsf2d");
// nested enums
static_cast<py::class_<Approx_HArray1OfGTrsf2d ,opencascade::handle<Approx_HArray1OfGTrsf2d> , Approx_Array1OfGTrsf2d , Standard_Transient >>(klass)
// constructors
.def(py::init< >() )
.def(py::init< const Standard_Integer, const Standard_Integer >() , py::arg("theLower"), py::arg("theUpper") )
.def(py::init< const Standard_Integer, const Standard_Integer, const typename NCollection_Array1<gp_GTrsf2d>::value_type & >() , py::arg("theLower"), py::arg("theUpper"), py::arg("theValue") )
.def(py::init< const typename NCollection_Array1<gp_GTrsf2d>::value_type &, const Standard_Integer, const Standard_Integer, const bool >() , py::arg("theBegin"), py::arg("theLower"), py::arg("theUpper"), py::arg("arg3") )
.def(py::init< const Approx_Array1OfGTrsf2d & >() , py::arg("theOther") )
// custom constructors
// methods
// methods using call by reference i.s.o. return
// static methods
.def_static("get_type_name_s",
( const char * (*)() ) static_cast< const char * (*)() >(&Approx_HArray1OfGTrsf2d::get_type_name),
R"#()#"
)
.def_static("get_type_descriptor_s",
( const handle<Standard_Type> & (*)() ) static_cast< const handle<Standard_Type> & (*)() >(&Approx_HArray1OfGTrsf2d::get_type_descriptor),
R"#()#"
)
// static methods using call by reference i.s.o. return
// operators
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
.def("Array1",
( const Approx_Array1OfGTrsf2d & (Approx_HArray1OfGTrsf2d::*)() const) static_cast< const Approx_Array1OfGTrsf2d & (Approx_HArray1OfGTrsf2d::*)() const>(&Approx_HArray1OfGTrsf2d::Array1),
R"#()#"
)
.def("ChangeArray1",
(Approx_Array1OfGTrsf2d & (Approx_HArray1OfGTrsf2d::*)() ) static_cast<Approx_Array1OfGTrsf2d & (Approx_HArray1OfGTrsf2d::*)() >(&Approx_HArray1OfGTrsf2d::ChangeArray1),
R"#()#"
, py::return_value_policy::reference_internal
)
.def("DynamicType",
( const handle<Standard_Type> & (Approx_HArray1OfGTrsf2d::*)() const) static_cast< const handle<Standard_Type> & (Approx_HArray1OfGTrsf2d::*)() const>(&Approx_HArray1OfGTrsf2d::DynamicType),
R"#()#"
)
;
// Class Approx_MCurvesToBSpCurve from ./opencascade/Approx_MCurvesToBSpCurve.hxx
klass = m.attr("Approx_MCurvesToBSpCurve");
// nested enums
static_cast<py::class_<Approx_MCurvesToBSpCurve , shared_ptr<Approx_MCurvesToBSpCurve> >>(klass)
// constructors
.def(py::init< >() )
// custom constructors
// methods
.def("Reset",
(void (Approx_MCurvesToBSpCurve::*)() ) static_cast<void (Approx_MCurvesToBSpCurve::*)() >(&Approx_MCurvesToBSpCurve::Reset),
R"#()#"
)
.def("Append",
(void (Approx_MCurvesToBSpCurve::*)( const AppParCurves_MultiCurve & ) ) static_cast<void (Approx_MCurvesToBSpCurve::*)( const AppParCurves_MultiCurve & ) >(&Approx_MCurvesToBSpCurve::Append),
R"#()#" , py::arg("MC")
)
.def("Perform",
(void (Approx_MCurvesToBSpCurve::*)() ) static_cast<void (Approx_MCurvesToBSpCurve::*)() >(&Approx_MCurvesToBSpCurve::Perform),
R"#()#"
)
.def("Perform",
(void (Approx_MCurvesToBSpCurve::*)( const AppParCurves_SequenceOfMultiCurve & ) ) static_cast<void (Approx_MCurvesToBSpCurve::*)( const AppParCurves_SequenceOfMultiCurve & ) >(&Approx_MCurvesToBSpCurve::Perform),
R"#()#" , py::arg("TheSeq")
)
// methods using call by reference i.s.o. return
// static methods
// static methods using call by reference i.s.o. return
// operators
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
.def("Value",
( const AppParCurves_MultiBSpCurve & (Approx_MCurvesToBSpCurve::*)() const) static_cast< const AppParCurves_MultiBSpCurve & (Approx_MCurvesToBSpCurve::*)() const>(&Approx_MCurvesToBSpCurve::Value),
R"#(return the composite MultiCurves as a MultiBSpCurve.)#"
)
.def("ChangeValue",
( const AppParCurves_MultiBSpCurve & (Approx_MCurvesToBSpCurve::*)() ) static_cast< const AppParCurves_MultiBSpCurve & (Approx_MCurvesToBSpCurve::*)() >(&Approx_MCurvesToBSpCurve::ChangeValue),
R"#(return the composite MultiCurves as a MultiBSpCurve.)#"
)
;
// Class Approx_SameParameter from ./opencascade/Approx_SameParameter.hxx
klass = m.attr("Approx_SameParameter");
// nested enums
static_cast<py::class_<Approx_SameParameter , shared_ptr<Approx_SameParameter> >>(klass)
// constructors
.def(py::init< const handle<Geom_Curve> &, const handle<Geom2d_Curve> &, const handle<Geom_Surface> &, const Standard_Real >() , py::arg("C3D"), py::arg("C2D"), py::arg("S"), py::arg("Tol") )
.def(py::init< const handle<Adaptor3d_Curve> &, const handle<Geom2d_Curve> &, const handle<Adaptor3d_Surface> &, const Standard_Real >() , py::arg("C3D"), py::arg("C2D"), py::arg("S"), py::arg("Tol") )
.def(py::init< const handle<Adaptor3d_Curve> &, const handle<Adaptor2d_Curve2d> &, const handle<Adaptor3d_Surface> &, const Standard_Real >() , py::arg("C3D"), py::arg("C2D"), py::arg("S"), py::arg("Tol") )
// custom constructors
// methods
.def("IsDone",
(Standard_Boolean (Approx_SameParameter::*)() const) static_cast<Standard_Boolean (Approx_SameParameter::*)() const>(&Approx_SameParameter::IsDone),
R"#(Returns .false. if calculations failed, .true. if calculations succeed)#"
)
.def("TolReached",
(Standard_Real (Approx_SameParameter::*)() const) static_cast<Standard_Real (Approx_SameParameter::*)() const>(&Approx_SameParameter::TolReached),
R"#(Returns tolerance (maximal distance) between 3d curve and curve on surface, generated by 2d curve and surface.)#"
)
.def("IsSameParameter",
(Standard_Boolean (Approx_SameParameter::*)() const) static_cast<Standard_Boolean (Approx_SameParameter::*)() const>(&Approx_SameParameter::IsSameParameter),
R"#(Tells whether the original data had already the same parameter up to the tolerance : in that case nothing is done.)#"
)
.def("Curve2d",
(handle<Geom2d_Curve> (Approx_SameParameter::*)() const) static_cast<handle<Geom2d_Curve> (Approx_SameParameter::*)() const>(&Approx_SameParameter::Curve2d),
R"#(Returns the 2D curve that has the same parameter as the 3D curve once evaluated on the surface up to the specified tolerance.)#"
)
.def("Curve3d",
(handle<Adaptor3d_Curve> (Approx_SameParameter::*)() const) static_cast<handle<Adaptor3d_Curve> (Approx_SameParameter::*)() const>(&Approx_SameParameter::Curve3d),
R"#(Returns the 3D curve that has the same parameter as the 3D curve once evaluated on the surface up to the specified tolerance.)#"
)
.def("CurveOnSurface",
(handle<Adaptor3d_CurveOnSurface> (Approx_SameParameter::*)() const) static_cast<handle<Adaptor3d_CurveOnSurface> (Approx_SameParameter::*)() const>(&Approx_SameParameter::CurveOnSurface),
R"#(Returns the 3D curve on surface that has the same parameter as the 3D curve up to the specified tolerance.)#"
)
// methods using call by reference i.s.o. return
// static methods
// static methods using call by reference i.s.o. return
// operators
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
;
// Class Approx_SweepApproximation from ./opencascade/Approx_SweepApproximation.hxx
klass = m.attr("Approx_SweepApproximation");
// nested enums
static_cast<py::class_<Approx_SweepApproximation , shared_ptr<Approx_SweepApproximation> >>(klass)
// constructors
.def(py::init< const handle<Approx_SweepFunction> & >() , py::arg("Func") )
// custom constructors
// methods
.def("Perform",
(void (Approx_SweepApproximation::*)( const Standard_Real , const Standard_Real , const Standard_Real , const Standard_Real , const Standard_Real , const Standard_Real , const GeomAbs_Shape , const Standard_Integer , const Standard_Integer ) ) static_cast<void (Approx_SweepApproximation::*)( const Standard_Real , const Standard_Real , const Standard_Real , const Standard_Real , const Standard_Real , const Standard_Real , const GeomAbs_Shape , const Standard_Integer , const Standard_Integer ) >(&Approx_SweepApproximation::Perform),
R"#(Perform the Approximation [First, Last] : Approx_SweepApproximation.cdl Tol3d : Tolerance to surface approximation Tol2d : Tolerance used to perform curve approximation Normally the 2d curve are approximated with a tolerance given by the resolution on support surfaces, but if this tolerance is too large Tol2d is used. TolAngular : Tolerance (in radian) to control the angle between tangents on the section law and tangent of iso-v on approximated surface Continuity : The continuity in v waiting on the surface Degmax : The maximum degree in v required on the surface Segmax : The maximum number of span in v required on the surface Warning : The continuity ci can be obtained only if Ft is Ci)#" , py::arg("First"), py::arg("Last"), py::arg("Tol3d"), py::arg("BoundTol"), py::arg("Tol2d"), py::arg("TolAngular"), py::arg("Continuity")=static_cast< const GeomAbs_Shape>(GeomAbs_C0), py::arg("Degmax")=static_cast< const Standard_Integer>(11), py::arg("Segmax")=static_cast< const Standard_Integer>(50)
)
.def("Eval",
(Standard_Integer (Approx_SweepApproximation::*)( const Standard_Real , const Standard_Integer , const Standard_Real , const Standard_Real , Standard_Real & ) ) static_cast<Standard_Integer (Approx_SweepApproximation::*)( const Standard_Real , const Standard_Integer , const Standard_Real , const Standard_Real , Standard_Real & ) >(&Approx_SweepApproximation::Eval),
R"#(The EvaluatorFunction from AdvApprox;)#" , py::arg("Parameter"), py::arg("DerivativeRequest"), py::arg("First"), py::arg("Last"), py::arg("Result")
)
.def("IsDone",
(Standard_Boolean (Approx_SweepApproximation::*)() const) static_cast<Standard_Boolean (Approx_SweepApproximation::*)() const>(&Approx_SweepApproximation::IsDone),
R"#(returns if we have an result)#"
)
.def("Surface",
(void (Approx_SweepApproximation::*)( TColgp_Array2OfPnt & , TColStd_Array2OfReal & , TColStd_Array1OfReal & , TColStd_Array1OfReal & , TColStd_Array1OfInteger & , TColStd_Array1OfInteger & ) const) static_cast<void (Approx_SweepApproximation::*)( TColgp_Array2OfPnt & , TColStd_Array2OfReal & , TColStd_Array1OfReal & , TColStd_Array1OfReal & , TColStd_Array1OfInteger & , TColStd_Array1OfInteger & ) const>(&Approx_SweepApproximation::Surface),
R"#()#" , py::arg("TPoles"), py::arg("TWeights"), py::arg("TUKnots"), py::arg("TVKnots"), py::arg("TUMults"), py::arg("TVMults")
)
.def("UDegree",
(Standard_Integer (Approx_SweepApproximation::*)() const) static_cast<Standard_Integer (Approx_SweepApproximation::*)() const>(&Approx_SweepApproximation::UDegree),
R"#()#"
)
.def("VDegree",
(Standard_Integer (Approx_SweepApproximation::*)() const) static_cast<Standard_Integer (Approx_SweepApproximation::*)() const>(&Approx_SweepApproximation::VDegree),
R"#()#"
)
.def("MaxErrorOnSurf",
(Standard_Real (Approx_SweepApproximation::*)() const) static_cast<Standard_Real (Approx_SweepApproximation::*)() const>(&Approx_SweepApproximation::MaxErrorOnSurf),
R"#(returns the maximum error in the surface approximation.)#"
)
.def("AverageErrorOnSurf",
(Standard_Real (Approx_SweepApproximation::*)() const) static_cast<Standard_Real (Approx_SweepApproximation::*)() const>(&Approx_SweepApproximation::AverageErrorOnSurf),
R"#(returns the average error in the surface approximation.)#"
)
.def("NbCurves2d",
(Standard_Integer (Approx_SweepApproximation::*)() const) static_cast<Standard_Integer (Approx_SweepApproximation::*)() const>(&Approx_SweepApproximation::NbCurves2d),
R"#()#"
)
.def("Curve2d",
(void (Approx_SweepApproximation::*)( const Standard_Integer , TColgp_Array1OfPnt2d & , TColStd_Array1OfReal & , TColStd_Array1OfInteger & ) const) static_cast<void (Approx_SweepApproximation::*)( const Standard_Integer , TColgp_Array1OfPnt2d & , TColStd_Array1OfReal & , TColStd_Array1OfInteger & ) const>(&Approx_SweepApproximation::Curve2d),
R"#()#" , py::arg("Index"), py::arg("TPoles"), py::arg("TKnots"), py::arg("TMults")
)
.def("Curves2dDegree",
(Standard_Integer (Approx_SweepApproximation::*)() const) static_cast<Standard_Integer (Approx_SweepApproximation::*)() const>(&Approx_SweepApproximation::Curves2dDegree),
R"#()#"
)
.def("Curve2dPoles",
( const TColgp_Array1OfPnt2d & (Approx_SweepApproximation::*)( const Standard_Integer ) const) static_cast< const TColgp_Array1OfPnt2d & (Approx_SweepApproximation::*)( const Standard_Integer ) const>(&Approx_SweepApproximation::Curve2dPoles),
R"#()#" , py::arg("Index")
)
.def("Max2dError",
(Standard_Real (Approx_SweepApproximation::*)( const Standard_Integer ) const) static_cast<Standard_Real (Approx_SweepApproximation::*)( const Standard_Integer ) const>(&Approx_SweepApproximation::Max2dError),
R"#(returns the maximum error of the <Index> 2d curve approximation.)#" , py::arg("Index")
)
.def("Average2dError",
(Standard_Real (Approx_SweepApproximation::*)( const Standard_Integer ) const) static_cast<Standard_Real (Approx_SweepApproximation::*)( const Standard_Integer ) const>(&Approx_SweepApproximation::Average2dError),
R"#(returns the average error of the <Index> 2d curve approximation.)#" , py::arg("Index")
)
.def("TolCurveOnSurf",
(Standard_Real (Approx_SweepApproximation::*)( const Standard_Integer ) const) static_cast<Standard_Real (Approx_SweepApproximation::*)( const Standard_Integer ) const>(&Approx_SweepApproximation::TolCurveOnSurf),
R"#(returns the maximum 3d error of the <Index> 2d curve approximation on the Surface.)#" , py::arg("Index")
)
.def("Dump",
(void (Approx_SweepApproximation::*)( Standard_OStream & ) const) static_cast<void (Approx_SweepApproximation::*)( Standard_OStream & ) const>(&Approx_SweepApproximation::Dump),
R"#(display information on approximation.)#" , py::arg("o")
)
.def("IsDone",
(Standard_Boolean (Approx_SweepApproximation::*)() const) static_cast<Standard_Boolean (Approx_SweepApproximation::*)() const>(&Approx_SweepApproximation::IsDone),
R"#(returns if we have an result)#"
)
.def("UDegree",
(Standard_Integer (Approx_SweepApproximation::*)() const) static_cast<Standard_Integer (Approx_SweepApproximation::*)() const>(&Approx_SweepApproximation::UDegree),
R"#()#"
)
.def("VDegree",
(Standard_Integer (Approx_SweepApproximation::*)() const) static_cast<Standard_Integer (Approx_SweepApproximation::*)() const>(&Approx_SweepApproximation::VDegree),
R"#()#"
)
.def("NbCurves2d",
(Standard_Integer (Approx_SweepApproximation::*)() const) static_cast<Standard_Integer (Approx_SweepApproximation::*)() const>(&Approx_SweepApproximation::NbCurves2d),
R"#()#"
)
.def("Curves2dDegree",
(Standard_Integer (Approx_SweepApproximation::*)() const) static_cast<Standard_Integer (Approx_SweepApproximation::*)() const>(&Approx_SweepApproximation::Curves2dDegree),
R"#()#"
)
.def("Curve2dPoles",
( const TColgp_Array1OfPnt2d & (Approx_SweepApproximation::*)( const Standard_Integer ) const) static_cast< const TColgp_Array1OfPnt2d & (Approx_SweepApproximation::*)( const Standard_Integer ) const>(&Approx_SweepApproximation::Curve2dPoles),
R"#()#" , py::arg("Index")
)
// methods using call by reference i.s.o. return
.def("SurfShape",
[]( Approx_SweepApproximation &self ){
Standard_Integer UDegree;
Standard_Integer VDegree;
Standard_Integer NbUPoles;
Standard_Integer NbVPoles;
Standard_Integer NbUKnots;
Standard_Integer NbVKnots;
self.SurfShape(UDegree,VDegree,NbUPoles,NbVPoles,NbUKnots,NbVKnots);
return std::make_tuple(UDegree,VDegree,NbUPoles,NbVPoles,NbUKnots,NbVKnots); },
R"#()#"
)
.def("Curves2dShape",
[]( Approx_SweepApproximation &self ){
Standard_Integer Degree;
Standard_Integer NbPoles;
Standard_Integer NbKnots;
self.Curves2dShape(Degree,NbPoles,NbKnots);
return std::make_tuple(Degree,NbPoles,NbKnots); },
R"#()#"
)
// static methods
// static methods using call by reference i.s.o. return
// operators
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
.def("SurfPoles",
( const TColgp_Array2OfPnt & (Approx_SweepApproximation::*)() const) static_cast< const TColgp_Array2OfPnt & (Approx_SweepApproximation::*)() const>(&Approx_SweepApproximation::SurfPoles),
R"#()#"
, py::return_value_policy::reference_internal
)
.def("SurfWeights",
( const TColStd_Array2OfReal & (Approx_SweepApproximation::*)() const) static_cast< const TColStd_Array2OfReal & (Approx_SweepApproximation::*)() const>(&Approx_SweepApproximation::SurfWeights),
R"#()#"
, py::return_value_policy::reference_internal
)
.def("SurfUKnots",
( const TColStd_Array1OfReal & (Approx_SweepApproximation::*)() const) static_cast< const TColStd_Array1OfReal & (Approx_SweepApproximation::*)() const>(&Approx_SweepApproximation::SurfUKnots),
R"#()#"
, py::return_value_policy::reference_internal
)
.def("SurfVKnots",
( const TColStd_Array1OfReal & (Approx_SweepApproximation::*)() const) static_cast< const TColStd_Array1OfReal & (Approx_SweepApproximation::*)() const>(&Approx_SweepApproximation::SurfVKnots),
R"#()#"
, py::return_value_policy::reference_internal
)
.def("SurfUMults",
( const TColStd_Array1OfInteger & (Approx_SweepApproximation::*)() const) static_cast< const TColStd_Array1OfInteger & (Approx_SweepApproximation::*)() const>(&Approx_SweepApproximation::SurfUMults),
R"#()#"
, py::return_value_policy::reference_internal
)
.def("SurfVMults",
( const TColStd_Array1OfInteger & (Approx_SweepApproximation::*)() const) static_cast< const TColStd_Array1OfInteger & (Approx_SweepApproximation::*)() const>(&Approx_SweepApproximation::SurfVMults),
R"#()#"
, py::return_value_policy::reference_internal
)
.def("Curves2dKnots",
( const TColStd_Array1OfReal & (Approx_SweepApproximation::*)() const) static_cast< const TColStd_Array1OfReal & (Approx_SweepApproximation::*)() const>(&Approx_SweepApproximation::Curves2dKnots),
R"#()#"
, py::return_value_policy::reference_internal
)
.def("Curves2dMults",
( const TColStd_Array1OfInteger & (Approx_SweepApproximation::*)() const) static_cast< const TColStd_Array1OfInteger & (Approx_SweepApproximation::*)() const>(&Approx_SweepApproximation::Curves2dMults),
R"#()#"
, py::return_value_policy::reference_internal
)
.def("SurfPoles",
( const TColgp_Array2OfPnt & (Approx_SweepApproximation::*)() const) static_cast< const TColgp_Array2OfPnt & (Approx_SweepApproximation::*)() const>(&Approx_SweepApproximation::SurfPoles),
R"#()#"
, py::return_value_policy::reference_internal
)
.def("SurfWeights",
( const TColStd_Array2OfReal & (Approx_SweepApproximation::*)() const) static_cast< const TColStd_Array2OfReal & (Approx_SweepApproximation::*)() const>(&Approx_SweepApproximation::SurfWeights),
R"#()#"
, py::return_value_policy::reference_internal
)
.def("SurfUKnots",
( const TColStd_Array1OfReal & (Approx_SweepApproximation::*)() const) static_cast< const TColStd_Array1OfReal & (Approx_SweepApproximation::*)() const>(&Approx_SweepApproximation::SurfUKnots),
R"#()#"
, py::return_value_policy::reference_internal
)
.def("SurfVKnots",
( const TColStd_Array1OfReal & (Approx_SweepApproximation::*)() const) static_cast< const TColStd_Array1OfReal & (Approx_SweepApproximation::*)() const>(&Approx_SweepApproximation::SurfVKnots),
R"#()#"
, py::return_value_policy::reference_internal
)
.def("SurfUMults",
( const TColStd_Array1OfInteger & (Approx_SweepApproximation::*)() const) static_cast< const TColStd_Array1OfInteger & (Approx_SweepApproximation::*)() const>(&Approx_SweepApproximation::SurfUMults),
R"#()#"
, py::return_value_policy::reference_internal
)
.def("SurfVMults",
( const TColStd_Array1OfInteger & (Approx_SweepApproximation::*)() const) static_cast< const TColStd_Array1OfInteger & (Approx_SweepApproximation::*)() const>(&Approx_SweepApproximation::SurfVMults),
R"#()#"
, py::return_value_policy::reference_internal
)
.def("Curves2dKnots",
( const TColStd_Array1OfReal & (Approx_SweepApproximation::*)() const) static_cast< const TColStd_Array1OfReal & (Approx_SweepApproximation::*)() const>(&Approx_SweepApproximation::Curves2dKnots),
R"#()#"
, py::return_value_policy::reference_internal
)
.def("Curves2dMults",
( const TColStd_Array1OfInteger & (Approx_SweepApproximation::*)() const) static_cast< const TColStd_Array1OfInteger & (Approx_SweepApproximation::*)() const>(&Approx_SweepApproximation::Curves2dMults),
R"#()#"
, py::return_value_policy::reference_internal
)
;
// Class Approx_SweepFunction from ./opencascade/Approx_SweepFunction.hxx
klass = m.attr("Approx_SweepFunction");
// nested enums
static_cast<py::class_<Approx_SweepFunction ,opencascade::handle<Approx_SweepFunction> ,Py_Approx_SweepFunction , Standard_Transient >>(klass)
// constructors
// custom constructors
// methods
.def("D0",
(Standard_Boolean (Approx_SweepFunction::*)( const Standard_Real , const Standard_Real , const Standard_Real , TColgp_Array1OfPnt & , TColgp_Array1OfPnt2d & , TColStd_Array1OfReal & ) ) static_cast<Standard_Boolean (Approx_SweepFunction::*)( const Standard_Real , const Standard_Real , const Standard_Real , TColgp_Array1OfPnt & , TColgp_Array1OfPnt2d & , TColStd_Array1OfReal & ) >(&Approx_SweepFunction::D0),
R"#(compute the section for v = param)#" , py::arg("Param"), py::arg("First"), py::arg("Last"), py::arg("Poles"), py::arg("Poles2d"), py::arg("Weigths")
)
.def("D1",
(Standard_Boolean (Approx_SweepFunction::*)( const Standard_Real , const Standard_Real , const Standard_Real , TColgp_Array1OfPnt & , TColgp_Array1OfVec & , TColgp_Array1OfPnt2d & , TColgp_Array1OfVec2d & , TColStd_Array1OfReal & , TColStd_Array1OfReal & ) ) static_cast<Standard_Boolean (Approx_SweepFunction::*)( const Standard_Real , const Standard_Real , const Standard_Real , TColgp_Array1OfPnt & , TColgp_Array1OfVec & , TColgp_Array1OfPnt2d & , TColgp_Array1OfVec2d & , TColStd_Array1OfReal & , TColStd_Array1OfReal & ) >(&Approx_SweepFunction::D1),
R"#(compute the first derivative in v direction of the section for v = param Warning : It used only for C1 or C2 approximation)#" , py::arg("Param"), py::arg("First"), py::arg("Last"), py::arg("Poles"), py::arg("DPoles"), py::arg("Poles2d"), py::arg("DPoles2d"), py::arg("Weigths"), py::arg("DWeigths")
)
.def("D2",
(Standard_Boolean (Approx_SweepFunction::*)( const Standard_Real , const Standard_Real , const Standard_Real , TColgp_Array1OfPnt & , TColgp_Array1OfVec & , TColgp_Array1OfVec & , TColgp_Array1OfPnt2d & , TColgp_Array1OfVec2d & , TColgp_Array1OfVec2d & , TColStd_Array1OfReal & , TColStd_Array1OfReal & , TColStd_Array1OfReal & ) ) static_cast<Standard_Boolean (Approx_SweepFunction::*)( const Standard_Real , const Standard_Real , const Standard_Real , TColgp_Array1OfPnt & , TColgp_Array1OfVec & , TColgp_Array1OfVec & , TColgp_Array1OfPnt2d & , TColgp_Array1OfVec2d & , TColgp_Array1OfVec2d & , TColStd_Array1OfReal & , TColStd_Array1OfReal & , TColStd_Array1OfReal & ) >(&Approx_SweepFunction::D2),
R"#(compute the second derivative in v direction of the section for v = param Warning : It used only for C2 approximation)#" , py::arg("Param"), py::arg("First"), py::arg("Last"), py::arg("Poles"), py::arg("DPoles"), py::arg("D2Poles"), py::arg("Poles2d"), py::arg("DPoles2d"), py::arg("D2Poles2d"), py::arg("Weigths"), py::arg("DWeigths"), py::arg("D2Weigths")
)
.def("Nb2dCurves",
(Standard_Integer (Approx_SweepFunction::*)() const) static_cast<Standard_Integer (Approx_SweepFunction::*)() const>(&Approx_SweepFunction::Nb2dCurves),
R"#(get the number of 2d curves to approximate.)#"
)
.def("Knots",
(void (Approx_SweepFunction::*)( TColStd_Array1OfReal & ) const) static_cast<void (Approx_SweepFunction::*)( TColStd_Array1OfReal & ) const>(&Approx_SweepFunction::Knots),
R"#(get the Knots of the section)#" , py::arg("TKnots")
)
.def("Mults",
(void (Approx_SweepFunction::*)( TColStd_Array1OfInteger & ) const) static_cast<void (Approx_SweepFunction::*)( TColStd_Array1OfInteger & ) const>(&Approx_SweepFunction::Mults),
R"#(get the Multplicities of the section)#" , py::arg("TMults")
)
.def("IsRational",
(Standard_Boolean (Approx_SweepFunction::*)() const) static_cast<Standard_Boolean (Approx_SweepFunction::*)() const>(&Approx_SweepFunction::IsRational),
R"#(Returns if the sections are rational or not)#"
)
.def("NbIntervals",
(Standard_Integer (Approx_SweepFunction::*)( const GeomAbs_Shape ) const) static_cast<Standard_Integer (Approx_SweepFunction::*)( const GeomAbs_Shape ) const>(&Approx_SweepFunction::NbIntervals),
R"#(Returns the number of intervals for continuity <S>. May be one if Continuity(me) >= <S>)#" , py::arg("S")
)
.def("Intervals",
(void (Approx_SweepFunction::*)( TColStd_Array1OfReal & , const GeomAbs_Shape ) const) static_cast<void (Approx_SweepFunction::*)( TColStd_Array1OfReal & , const GeomAbs_Shape ) const>(&Approx_SweepFunction::Intervals),
R"#(Stores in <T> the parameters bounding the intervals of continuity <S>.)#" , py::arg("T"), py::arg("S")
)
.def("SetInterval",
(void (Approx_SweepFunction::*)( const Standard_Real , const Standard_Real ) ) static_cast<void (Approx_SweepFunction::*)( const Standard_Real , const Standard_Real ) >(&Approx_SweepFunction::SetInterval),
R"#(Sets the bounds of the parametric interval on the fonction This determines the derivatives in these values if the function is not Cn.)#" , py::arg("First"), py::arg("Last")
)
.def("GetTolerance",
(void (Approx_SweepFunction::*)( const Standard_Real , const Standard_Real , const Standard_Real , TColStd_Array1OfReal & ) const) static_cast<void (Approx_SweepFunction::*)( const Standard_Real , const Standard_Real , const Standard_Real , TColStd_Array1OfReal & ) const>(&Approx_SweepFunction::GetTolerance),
R"#(Returns the tolerance to reach in approximation to satisfy. BoundTol error at the Boundary AngleTol tangent error at the Boundary (in radian) SurfTol error inside the surface.)#" , py::arg("BoundTol"), py::arg("SurfTol"), py::arg("AngleTol"), py::arg("Tol3d")
)
.def("SetTolerance",
(void (Approx_SweepFunction::*)( const Standard_Real , const Standard_Real ) ) static_cast<void (Approx_SweepFunction::*)( const Standard_Real , const Standard_Real ) >(&Approx_SweepFunction::SetTolerance),
R"#(Is useful, if (me) have to run numerical algorithm to perform D0, D1 or D2)#" , py::arg("Tol3d"), py::arg("Tol2d")
)
.def("BarycentreOfSurf",
(gp_Pnt (Approx_SweepFunction::*)() const) static_cast<gp_Pnt (Approx_SweepFunction::*)() const>(&Approx_SweepFunction::BarycentreOfSurf),
R"#(Get the barycentre of Surface. An very poor estimation is sufficient. This information is useful to perform well conditioned rational approximation. Warning: Used only if <me> IsRational)#"
)
.def("MaximalSection",
(Standard_Real (Approx_SweepFunction::*)() const) static_cast<Standard_Real (Approx_SweepFunction::*)() const>(&Approx_SweepFunction::MaximalSection),
R"#(Returns the length of the greater section. Thisinformation is useful to G1's control. Warning: With an little value, approximation can be slower.)#"
)
.def("GetMinimalWeight",
(void (Approx_SweepFunction::*)( TColStd_Array1OfReal & ) const) static_cast<void (Approx_SweepFunction::*)( TColStd_Array1OfReal & ) const>(&Approx_SweepFunction::GetMinimalWeight),
R"#(Compute the minimal value of weight for each poles in all sections. This information is useful to control error in rational approximation. Warning: Used only if <me> IsRational)#" , py::arg("Weigths")
)
// methods using call by reference i.s.o. return
.def("SectionShape",
[]( Approx_SweepFunction &self ){
Standard_Integer NbPoles;
Standard_Integer NbKnots;
Standard_Integer Degree;
self.SectionShape(NbPoles,NbKnots,Degree);
return std::make_tuple(NbPoles,NbKnots,Degree); },
R"#(get the format of an section)#"
)
.def("Resolution",
[]( Approx_SweepFunction &self , const Standard_Integer Index, const Standard_Real Tol ){
Standard_Real TolU;
Standard_Real TolV;
self.Resolution(Index,Tol,TolU,TolV);
return std::make_tuple(TolU,TolV); },
R"#(Returns the resolutions in the sub-space 2d <Index> This information is usfull to find an good tolerance in 2d approximation.)#" , py::arg("Index"), py::arg("Tol")
)
// static methods
.def_static("get_type_name_s",
( const char * (*)() ) static_cast< const char * (*)() >(&Approx_SweepFunction::get_type_name),
R"#()#"
)
.def_static("get_type_descriptor_s",
( const handle<Standard_Type> & (*)() ) static_cast< const handle<Standard_Type> & (*)() >(&Approx_SweepFunction::get_type_descriptor),
R"#()#"
)
// static methods using call by reference i.s.o. return
// operators
// additional methods and static methods
// properties
// methods returning by ref wrapped as properties
.def("DynamicType",
( const handle<Standard_Type> & (Approx_SweepFunction::*)() const) static_cast< const handle<Standard_Type> & (Approx_SweepFunction::*)() const>(&Approx_SweepFunction::DynamicType),
R"#()#"
)
;
// functions
// ./opencascade/Approx_Array1OfAdHSurface.hxx
// ./opencascade/Approx_Array1OfGTrsf2d.hxx
// ./opencascade/Approx_Curve2d.hxx
// ./opencascade/Approx_Curve3d.hxx
// ./opencascade/Approx_CurveOnSurface.hxx
// ./opencascade/Approx_CurvilinearParameter.hxx
// ./opencascade/Approx_CurvlinFunc.hxx
// ./opencascade/Approx_FitAndDivide.hxx
// ./opencascade/Approx_FitAndDivide2d.hxx
// ./opencascade/Approx_HArray1OfAdHSurface.hxx
// ./opencascade/Approx_HArray1OfGTrsf2d.hxx
// ./opencascade/Approx_MCurvesToBSpCurve.hxx
// ./opencascade/Approx_ParametrizationType.hxx
// ./opencascade/Approx_SameParameter.hxx
// ./opencascade/Approx_SequenceOfHArray1OfReal.hxx
// ./opencascade/Approx_Status.hxx
// ./opencascade/Approx_SweepApproximation.hxx
// ./opencascade/Approx_SweepFunction.hxx
// Additional functions
// operators
// register typdefs
register_template_NCollection_Array1<opencascade::handle<Adaptor3d_Surface>>(m,"Approx_Array1OfAdHSurface");
register_template_NCollection_Array1<gp_GTrsf2d>(m,"Approx_Array1OfGTrsf2d");
register_template_NCollection_Sequence<opencascade::handle<TColStd_HArray1OfReal>>(m,"Approx_SequenceOfHArray1OfReal");
// exceptions
// user-defined post-inclusion per module in the body
};
// user-defined post-inclusion per module
// user-defined post
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