CFx SDK Documentation  2022 SP0
Public Member Functions | List of all members
OdGeTorus Class Reference

#include <GeTorus.h>

Inheritance diagram for OdGeTorus:
OdGeSurface OdGeEntity3d

Public Member Functions

 OdGeTorus ()
 
 OdGeTorus (double majorRadius, double minorRadius, const OdGePoint3d &center, const OdGeVector3d &axisOfSymmetry)
 
 OdGeTorus (double majorRadius, double minorRadius, const OdGePoint3d &center, const OdGeVector3d &axisOfSymmetry, const OdGeVector3d &refAxis, double startAngleU, double endAngleU, double startAngleV, double endAngleV)
 
 OdGeTorus (const OdGeTorus &source)
 
double majorRadius () const
 
double minorRadius () const
 
void getAnglesInU (double &startAngleU, double &endAngleU) const
 
void getAnglesInV (double &startAngleV, double &endAngleV) const
 
OdGePoint3d center () const
 
OdGeVector3d axisOfSymmetry () const
 
OdGeVector3d refAxis () const
 
bool isOuterNormal () const
 
OdGeTorussetMajorRadius (double radius)
 
OdGeTorussetMinorRadius (double radius)
 
OdGeTorussetAnglesInU (double startAngleU, double endAngleU)
 
OdGeTorussetAnglesInV (double startAngleV, double endAngleV)
 
OdGeTorusset (double majorRadius, double minorRadius, const OdGePoint3d &center, const OdGeVector3d &axisOfSymmetry)
 
OdGeTorusset (double majorRadius, double minorRadius, const OdGePoint3d &center, const OdGeVector3d &axisOfSymmetry, const OdGeVector3d &refAxis, double startAngleU, double endAngleU, double startAngleV, double endAngleV)
 
OdGeTorusoperator= (const OdGeTorus &torus)
 
bool intersectWith (const OdGeLinearEnt3d &linEnt, int &numInt, OdGePoint3d &p1, OdGePoint3d &p2, OdGePoint3d &p3, OdGePoint3d &p4, const OdGeTol &tol=OdGeContext::gTol) const
 
bool isLemon () const
 
bool isApple () const
 
bool isVortex () const
 
bool isDoughnut () const
 
bool isDegenerate () const
 
bool isHollow () const
 
bool isReverseV () const
 
void setReverseV (bool isReverseV)
 
- Public Member Functions inherited from OdGeSurface
OdGePoint2d paramOf (const OdGePoint3d &point, const OdGeTol &tol=OdGeContext::gTol) const
 
 TD_USING (OdGeEntity3d::isOn)
 
bool isOn (const OdGePoint3d &point, OdGePoint2d &paramPoint, const OdGeTol &tol=OdGeContext::gTol) const
 
OdGePoint3d closestPointTo (const OdGePoint3d &point, const OdGeTol &tol=OdGeContext::gTol) const
 
void getClosestPointTo (const OdGePoint3d &point, OdGePointOnSurface &pntOnSurface, const OdGeTol &tol=OdGeContext::gTol) const
 
double distanceTo (const OdGePoint3d &point, const OdGeTol &tol=OdGeContext::gTol) const
 
bool isNormalReversed () const
 
OdGeSurfacereverseNormal ()
 
void getEnvelope (OdGeInterval &intrvlU, OdGeInterval &intrvlV) const
 
bool isClosedInU (const OdGeTol &tol=OdGeContext::gTol) const
 
bool isClosedInV (const OdGeTol &tol=OdGeContext::gTol) const
 
OdGePoint3d evalPoint (const OdGePoint2d &param) const
 
OdGePoint3d evalPoint (const OdGePoint2d &param, int numDeriv, OdGeVector3dArray &derivatives) const
 
OdGePoint3d evalPoint (const OdGePoint2d &param, int numDeriv, OdGeVector3dArray &derivatives, OdGeVector3d &normal) const
 
OdGeSurfaceoperator= (const OdGeSurface &surf)
 
bool project (const OdGePoint3d &p, OdGePoint3d &projP, const OdGeTol &tol=OdGeContext::gTol) const
 
bool getReparameterization (bool &swapUV, double &uCoeffA, double &vCoeffA, double &uCoeffB, double &vCoeffB) const
 
void setReparameterization (bool swapUV=false, double uCoeffA=1., double vCoeffA=1., double uCoeffB=0., double vCoeffB=0.)
 
void getImplicitEnvelope (OdGeInterval &implicitIntrvlU, OdGeInterval &implicitIntrvlV) const
 
bool setEnvelope (const OdGeInterval &realIntrvlU, const OdGeInterval &realIntrvlV)
 
- Public Member Functions inherited from OdGeEntity3d
 ODRX_HEAP_OPERATORS ()
 
 ~OdGeEntity3d ()
 
bool isKindOf (OdGe::EntityId entType) const
 
OdGe::EntityId type () const
 
OdGeEntity3dcopy () const
 
OdGeEntity3doperator= (const OdGeEntity3d &entity)
 
bool operator== (const OdGeEntity3d &entity) const
 
bool operator!= (const OdGeEntity3d &entity) const
 
bool isEqualTo (const OdGeEntity3d &object, const OdGeTol &tol=OdGeContext::gTol) const
 
OdGeEntity3dtransformBy (const OdGeMatrix3d &xfm)
 
OdGeEntity3dtranslateBy (const OdGeVector3d &translateVec)
 
OdGeEntity3drotateBy (double angle, const OdGeVector3d &vect, const OdGePoint3d &basePoint=OdGePoint3d::kOrigin)
 
OdGeEntity3dmirror (const OdGePlane &plane)
 
OdGeEntity3dscaleBy (double scaleFactor, const OdGePoint3d &basePoint=OdGePoint3d::kOrigin)
 
bool isOn (const OdGePoint3d &point, const OdGeTol &tol=OdGeContext::gTol) const
 

Additional Inherited Members

- Protected Member Functions inherited from OdGeSurface
 OdGeSurface ()
 
 OdGeSurface (const OdGeSurface &surf)
 
- Protected Member Functions inherited from OdGeEntity3d
 OdGeEntity3d ()
 
 OdGeEntity3d (const OdGeEntity3d &)
 
void connectTo (OdGeEntity3dImpl *)
 

Detailed Description

This class represents toroidal segments.

Remarks
The torus is surface generated by revolving a circular arc about an axis of symmetry, where the plane of the circular arc contains the axis of symmetry

The torus is located in space by its center, which is a point on the axis of symmetry.

The center of the circular arc is at a distance of majorRadius from the center of the torus. The radius of the circular arc is the minorRadius.

Parameter U is the longitude (about the axis of symmetry), which for a closed torus defaults to the range [-OdaPI, OdaPI). Zero corresponds to the refAxis (which is a vector orthogonal to the axis of symmetry). Applying the right hand rule along the symmetric axis defines the increasing direction for U.

Parameter v parameterizes the circular tube, which for a closed circle defaults to the range [-OdaPI, OdaPI). Applying the right hand rule along the refAxis X-axisOfSymmetry defines the increasing direction for v.

The torus is periodic in U, v with a period of Oda2PI. [umin, umax] x [vmin, vmax] defines a four sided toroidal patch bounded by four circular arcs. Following constraints apply to the definition of a toroidal patch.

umin < umax and |umin - umax| <= Oda2PI. vmin < vmax and |vmin - vmax| <= Oda2PI

Corresponding C++ library: TD_Ge

<group OdGe_Classes>

<link ge_OdGeTorus.html, Working with Toruses>

Definition at line 72 of file GeTorus.h.

Constructor & Destructor Documentation

◆ OdGeTorus() [1/4]

OdGeTorus::OdGeTorus ( )
Parameters
majorRadius[in] The major radius of this torus.
minorRadius[in] The minor radius of this torus.
center[in] The origin of the this torus.
axisOfSymmetry[in] Axis of symmetry (rotation).
refAxis[in] defines thegle 0 about the axis of symmetry.
startAngleU[in] Start angle about the axis of symmetry.
endAngleU[in] End angle about the axis of symmetry.
startAngleV[in] Start angle about the tube.
endAngleV[in] End angle about the tube.
source[in] Object to be cloned.

◆ OdGeTorus() [2/4]

OdGeTorus::OdGeTorus ( double  majorRadius,
double  minorRadius,
const OdGePoint3d center,
const OdGeVector3d axisOfSymmetry 
)

◆ OdGeTorus() [3/4]

OdGeTorus::OdGeTorus ( double  majorRadius,
double  minorRadius,
const OdGePoint3d center,
const OdGeVector3d axisOfSymmetry,
const OdGeVector3d refAxis,
double  startAngleU,
double  endAngleU,
double  startAngleV,
double  endAngleV 
)

◆ OdGeTorus() [4/4]

OdGeTorus::OdGeTorus ( const OdGeTorus source)

Member Function Documentation

◆ axisOfSymmetry()

OdGeVector3d OdGeTorus::axisOfSymmetry ( ) const

Returns the Axis of symmetry (rotation).

◆ center()

OdGePoint3d OdGeTorus::center ( ) const

Returns the center of this torus.

◆ getAnglesInU()

void OdGeTorus::getAnglesInU ( double &  startAngleU,
double &  endAngleU 
) const

Returns the start and end angles about about the axis of symmetry.

Parameters
startAngleU[out] Receives the angle about the axis of symmetry.
endAngleU[out] Receives the end angle about the axis of symmetry.

◆ getAnglesInV()

void OdGeTorus::getAnglesInV ( double &  startAngleV,
double &  endAngleV 
) const

Returns the start and end angles about about the tube.

Parameters
startAngleV[out] Receives the start angle about the tube.
endAngleV[out] Receives the end angle about the tube.

◆ intersectWith()

bool OdGeTorus::intersectWith ( const OdGeLinearEnt3d linEnt,
int &  numInt,
OdGePoint3d p1,
OdGePoint3d p2,
OdGePoint3d p3,
OdGePoint3d p4,
const OdGeTol tol = OdGeContext::gTol 
) const

Returns True if the torus intersects with the specified line entity, and returns the number of intersections and the points of intersection.

Parameters
lineEnt[in] Any 3D line entity.
numInt[out] Receives the number of intersections.
p1[out] Receives the first intersection point.
p2[out] Receives the second intersection point.
p3[out] Receives the third intersection point.
p4[out] Receives the fourth intersection point.
tol[in] Geometric tolerance.
Remarks
p1 is valid if and only if numInt > 0. p2 is valid if and only if numInt > 1. p3 is valid if and only if numInt > 2. p4 is valid if and only if numInt > 3.

◆ isApple()

bool OdGeTorus::isApple ( ) const

Returns true if and only if (0 < majorRadius < minorRadius), creating a solid with dimples at the axis of symmetry.

Remarks
Exactly one of the following functions will be true for a given torus: isApple() isDoughnut() isLemon() isVortex()

◆ isDegenerate()

bool OdGeTorus::isDegenerate ( ) const

Returns true if and only if (minorRadius <= 0) OR (majorRadius <= -minorRadius)

◆ isDoughnut()

bool OdGeTorus::isDoughnut ( ) const

Returns true if and only if (minorRadius < majorRadius), creating a solid with a hole in the middle.

Remarks
Exactly one of the following functions will be true for a given torus: isApple() isDoughnut() isLemon() isVortex()

◆ isHollow()

bool OdGeTorus::isHollow ( ) const

Returns true if and only if there is a hole in the torus.

Returns
Returns true if and only if |majorRadius| > |minorRadius| + 1e-10

◆ isLemon()

bool OdGeTorus::isLemon ( ) const

Returns true if and only if (majorRadius < 0) and (|majorRadius| < minorRadius), producing a solid with points along the axis of symmetry.

Remarks
Exactly one of the following functions will be true for a given torus:

isApple() isDoughnut() isLemon() isVortex()

◆ isOuterNormal()

bool OdGeTorus::isOuterNormal ( ) const

Returns true if and only if the normal to this surface is pointing outward.

◆ isReverseV()

bool OdGeTorus::isReverseV ( ) const

Returns true if and only if the v-parameter is measured counterclockwise about the torus normal, rather than clockwise.

◆ isVortex()

bool OdGeTorus::isVortex ( ) const

Returns true if and only if (minorRadius == majorRadius), producing a donut. with a zero-radius hole.

Remarks
Exactly one of the following functions will be true for a given torus: isApple() isDoughnut() isLemon() isVortex()

◆ majorRadius()

double OdGeTorus::majorRadius ( ) const

Returns the major radius of this torus.

◆ minorRadius()

double OdGeTorus::minorRadius ( ) const

Returns the minor radius of this torus.

◆ operator=()

OdGeTorus& OdGeTorus::operator= ( const OdGeTorus torus)

◆ refAxis()

OdGeVector3d OdGeTorus::refAxis ( ) const

Returns the reference axis.

◆ set() [1/2]

OdGeTorus& OdGeTorus::set ( double  majorRadius,
double  minorRadius,
const OdGePoint3d center,
const OdGeVector3d axisOfSymmetry 
)

Sets the parameters for this torus according to the arguments.

Parameters
majorRadius[in] The major radius of this torus.
minorRadius[in] The minor radius of this torus.
center[in] The origin of the this torus.
axisOfSymmetry[in] Axis of symmetry (rotation).
Returns
Returns a reference to this torus.

◆ set() [2/2]

OdGeTorus& OdGeTorus::set ( double  majorRadius,
double  minorRadius,
const OdGePoint3d center,
const OdGeVector3d axisOfSymmetry,
const OdGeVector3d refAxis,
double  startAngleU,
double  endAngleU,
double  startAngleV,
double  endAngleV 
)

Sets the parameters for this torus according to the arguments.

Parameters
majorRadius[in] The major radius of this torus.
minorRadius[in] The minor radius of this torus.
center[in] The origin of the this torus.
axisOfSymmetry[in] Axis of symmetry (rotation).
refAxis[in] defines thegle 0 about the axis of symmetry.
startAngleU[in] Start angle about the axis of symmetry.
endAngleU[in] End angle about the axis of symmetry.
startAngleV[in] Start angle about the tube.
endAngleV[in] End angle about the tube.
Returns
Returns a reference to this torus.

◆ setAnglesInU()

OdGeTorus& OdGeTorus::setAnglesInU ( double  startAngleU,
double  endAngleU 
)

Sets the start and end angles about about the axis of symmetry.

Parameters
startAngleU[in] Start angle about the axis of symmetry.
endAngleU[in] End angle about the axis of symmetry.

◆ setAnglesInV()

OdGeTorus& OdGeTorus::setAnglesInV ( double  startAngleV,
double  endAngleV 
)

Sets the start and end angles about about the tube.

Parameters
startAngleV[in] Start angle about the tube.
endAngleV[in] End angle about the tube.

◆ setMajorRadius()

OdGeTorus& OdGeTorus::setMajorRadius ( double  radius)

Sets the major radius of this torus.

Parameters
majorRadius[in] The major radius of this torus.

◆ setMinorRadius()

OdGeTorus& OdGeTorus::setMinorRadius ( double  radius)

Sets the minor radius of this torus.

Parameters
minorRadius[in] The minor radius of this torus.

◆ setReverseV()

void OdGeTorus::setReverseV ( bool  isReverseV)

Sets ReverseV according to the parameter.

Parameters
isReverseV[in] Sets ReverseV.

The documentation for this class was generated from the following file: