Defines a non-persistent vector in 3D space. More...

#include <gp_Vec.hxx>

Public Member Functions
constexpr	gp_Vec () noexcept=default
	Creates a zero vector.
constexpr	gp_Vec (const gp_Dir &theV)
	Creates a unitary vector from a direction theV.
constexpr	gp_Vec (const gp_XYZ &theCoord) noexcept
	Creates a vector with a triplet of coordinates.
constexpr	gp_Vec (const double theXv, const double theYv, const double theZv) noexcept
	Creates a point with its three cartesian coordinates.
constexpr	gp_Vec (const gp_Pnt &theP1, const gp_Pnt &theP2)
	Creates a vector from two points. The length of the vector is the distance between theP1 and theP2.
constexpr void	SetCoord (const int theIndex, const double theXi)
	Changes the coordinate of range theIndex theIndex = 1 => X is modified theIndex = 2 => Y is modified theIndex = 3 => Z is modified Raised if theIndex != {1, 2, 3}.
constexpr void	SetCoord (const double theXv, const double theYv, const double theZv) noexcept
	For this vector, assigns.
constexpr void	SetX (const double theX) noexcept
	Assigns the given value to the X coordinate of this vector.
constexpr void	SetY (const double theY) noexcept
	Assigns the given value to the X coordinate of this vector.
constexpr void	SetZ (const double theZ) noexcept
	Assigns the given value to the X coordinate of this vector.
constexpr void	SetXYZ (const gp_XYZ &theCoord) noexcept
	Assigns the three coordinates of theCoord to this vector.
constexpr double	Coord (const int theIndex) const
	Returns the coordinate of range theIndex : theIndex = 1 => X is returned theIndex = 2 => Y is returned theIndex = 3 => Z is returned Raised if theIndex != {1, 2, 3}.
constexpr void	Coord (double &theXv, double &theYv, double &theZv) const noexcept
	For this vector returns its three coordinates theXv, theYv, and theZv inline.
constexpr double	X () const noexcept
	For this vector, returns its X coordinate.
constexpr double	Y () const noexcept
	For this vector, returns its Y coordinate.
constexpr double	Z () const noexcept
	For this vector, returns its Z coordinate.
constexpr const gp_XYZ &	XYZ () const noexcept
	For this vector, returns.
bool	IsEqual (const gp_Vec &theOther, const double theLinearTolerance, const double theAngularTolerance) const
	Returns True if the two vectors have the same magnitude value and the same direction. The precision values are theLinearTolerance for the magnitude and theAngularTolerance for the direction.
bool	IsNormal (const gp_Vec &theOther, const double theAngularTolerance) const
	Returns True if abs(<me>.Angle(theOther) - PI/2.) <= theAngularTolerance Raises VectorWithNullMagnitude if <me>.Magnitude() <= Resolution or theOther.Magnitude() <= Resolution from gp.
bool	IsOpposite (const gp_Vec &theOther, const double theAngularTolerance) const
	Returns True if PI - <me>.Angle(theOther) <= theAngularTolerance Raises VectorWithNullMagnitude if <me>.Magnitude() <= Resolution or Other.Magnitude() <= Resolution from gp.
bool	IsParallel (const gp_Vec &theOther, const double theAngularTolerance) const
	Returns True if Angle(<me>, theOther) <= theAngularTolerance or PI - Angle(<me>, theOther) <= theAngularTolerance This definition means that two parallel vectors cannot define a plane but two vectors with opposite directions are considered as parallel. Raises VectorWithNullMagnitude if <me>.Magnitude() <= Resolution or Other.Magnitude() <= Resolution from gp.
double	Angle (const gp_Vec &theOther) const
	Computes the angular value between <me> and <theOther> Returns the angle value between 0 and PI in radian. Raises VectorWithNullMagnitude if <me>.Magnitude() <= Resolution from gp or theOther.Magnitude() <= Resolution because the angular value is indefinite if one of the vectors has a null magnitude.
double	AngleWithRef (const gp_Vec &theOther, const gp_Vec &theVRef) const
	Computes the angle, in radians, between this vector and vector theOther. The result is a value between -Pi and Pi. For this, theVRef defines the positive sense of rotation: the angular value is positive, if the cross product this ^ theOther has the same orientation as theVRef relative to the plane defined by the vectors this and theOther. Otherwise, the angular value is negative. Exceptions gp_VectorWithNullMagnitude if the magnitude of this vector, the vector theOther, or the vector theVRef is less than or equal to gp::Resolution(). Standard_DomainError if this vector, the vector theOther, and the vector theVRef are coplanar, unless this vector and the vector theOther are parallel.
double	Magnitude () const
	Computes the magnitude of this vector.
constexpr double	SquareMagnitude () const noexcept
	Computes the square magnitude of this vector.
constexpr void	Add (const gp_Vec &theOther) noexcept
	Adds two vectors.
constexpr void	operator+= (const gp_Vec &theOther) noexcept
constexpr gp_Vec	Added (const gp_Vec &theOther) const noexcept
	Adds two vectors.
constexpr gp_Vec	operator+ (const gp_Vec &theOther) const noexcept
constexpr void	Subtract (const gp_Vec &theRight) noexcept
	Subtracts two vectors.
constexpr void	operator-= (const gp_Vec &theRight) noexcept
constexpr gp_Vec	Subtracted (const gp_Vec &theRight) const noexcept
	Subtracts two vectors.
constexpr gp_Vec	operator- (const gp_Vec &theRight) const noexcept
constexpr void	Multiply (const double theScalar) noexcept
	Multiplies a vector by a scalar.
constexpr void	operator*= (const double theScalar) noexcept
constexpr gp_Vec	Multiplied (const double theScalar) const noexcept
	Multiplies a vector by a scalar.
constexpr gp_Vec	operator* (const double theScalar) const noexcept
constexpr void	Divide (const double theScalar)
	Divides a vector by a scalar.
constexpr void	operator/= (const double theScalar)
constexpr gp_Vec	Divided (const double theScalar) const
	Divides a vector by a scalar.
constexpr gp_Vec	operator/ (const double theScalar) const
constexpr void	Cross (const gp_Vec &theRight) noexcept
	computes the cross product between two vectors
constexpr void	operator^= (const gp_Vec &theRight) noexcept
constexpr gp_Vec	Crossed (const gp_Vec &theRight) const noexcept
	computes the cross product between two vectors
constexpr gp_Vec	operator^ (const gp_Vec &theRight) const noexcept
double	CrossMagnitude (const gp_Vec &theRight) const
	Computes the magnitude of the cross product between <me> and theRight. Returns \|\| <me> ^ theRight \|\|.
constexpr double	CrossSquareMagnitude (const gp_Vec &theRight) const noexcept
	Computes the square magnitude of the cross product between <me> and theRight. Returns \|\| <me> ^ theRight \|\|**2.
constexpr void	CrossCross (const gp_Vec &theV1, const gp_Vec &theV2) noexcept
	Computes the triple vector product. <me> ^= (theV1 ^ theV2).
constexpr gp_Vec	CrossCrossed (const gp_Vec &theV1, const gp_Vec &theV2) const noexcept
	Computes the triple vector product. <me> ^ (theV1 ^ theV2).
constexpr double	Dot (const gp_Vec &theOther) const noexcept
	computes the scalar product
constexpr double	operator* (const gp_Vec &theOther) const noexcept
constexpr double	DotCross (const gp_Vec &theV1, const gp_Vec &theV2) const noexcept
	Computes the triple scalar product <me> * (theV1 ^ theV2).
void	Normalize ()
	normalizes a vector Raises an exception if the magnitude of the vector is lower or equal to Resolution from gp.
gp_Vec	Normalized () const
	normalizes a vector Raises an exception if the magnitude of the vector is lower or equal to Resolution from gp.
constexpr void	Reverse () noexcept
	Reverses the direction of a vector.
constexpr gp_Vec	Reversed () const noexcept
	Reverses the direction of a vector.
constexpr gp_Vec	operator- () const noexcept
constexpr void	SetLinearForm (const double theA1, const gp_Vec &theV1, const double theA2, const gp_Vec &theV2, const double theA3, const gp_Vec &theV3, const gp_Vec &theV4) noexcept
	<me> is set to the following linear form : theA1 * theV1 + theA2 * theV2 + theA3 * theV3 + theV4
constexpr void	SetLinearForm (const double theA1, const gp_Vec &theV1, const double theA2, const gp_Vec &theV2, const double theA3, const gp_Vec &theV3) noexcept
	<me> is set to the following linear form : theA1 * theV1 + theA2 * theV2 + theA3 * theV3
constexpr void	SetLinearForm (const double theA1, const gp_Vec &theV1, const double theA2, const gp_Vec &theV2, const gp_Vec &theV3) noexcept
	<me> is set to the following linear form : theA1 * theV1 + theA2 * theV2 + theV3
constexpr void	SetLinearForm (const double theA1, const gp_Vec &theV1, const double theA2, const gp_Vec &theV2) noexcept
	<me> is set to the following linear form : theA1 * theV1 + theA2 * theV2
constexpr void	SetLinearForm (const double theA1, const gp_Vec &theV1, const gp_Vec &theV2) noexcept
	<me> is set to the following linear form : theA1 * theV1 + theV2
constexpr void	SetLinearForm (const gp_Vec &theV1, const gp_Vec &theV2) noexcept
	<me> is set to the following linear form : theV1 + theV2
void	Mirror (const gp_Vec &theV) noexcept
gp_Vec	Mirrored (const gp_Vec &theV) const noexcept
	Performs the symmetrical transformation of a vector with respect to the vector theV which is the center of the symmetry.
void	Mirror (const gp_Ax1 &theA1) noexcept
gp_Vec	Mirrored (const gp_Ax1 &theA1) const noexcept
	Performs the symmetrical transformation of a vector with respect to an axis placement which is the axis of the symmetry.
void	Mirror (const gp_Ax2 &theA2) noexcept
gp_Vec	Mirrored (const gp_Ax2 &theA2) const noexcept
	Performs the symmetrical transformation of a vector with respect to a plane. The axis placement theA2 locates the plane of the symmetry : (Location, XDirection, YDirection).
void	Rotate (const gp_Ax1 &theA1, const double theAng)
gp_Vec	Rotated (const gp_Ax1 &theA1, const double theAng) const
	Rotates a vector. theA1 is the axis of the rotation. theAng is the angular value of the rotation in radians.
constexpr void	Scale (const double theS) noexcept
constexpr gp_Vec	Scaled (const double theS) const noexcept
	Scales a vector. theS is the scaling value.
void	Transform (const gp_Trsf &theT)
	Transforms a vector with the transformation theT.
gp_Vec	Transformed (const gp_Trsf &theT) const
	Transforms a vector with the transformation theT.
void	DumpJson (Standard_OStream &theOStream, int theDepth=-1) const
	Dumps the content of me into the stream.

Detailed Description

Defines a non-persistent vector in 3D space.

Constructor & Destructor Documentation

◆ gp_Vec() [1/5]

gp_Vec::gp_Vec ( )

constexprdefaultnoexcept

Creates a zero vector.

◆ gp_Vec() [2/5]

gp_Vec::gp_Vec ( const gp_Dir & theV )

inlineconstexpr

Creates a unitary vector from a direction theV.

◆ gp_Vec() [3/5]

gp_Vec::gp_Vec ( const gp_XYZ & theCoord )

inlineconstexprnoexcept

Creates a vector with a triplet of coordinates.

◆ gp_Vec() [4/5]

gp_Vec::gp_Vec	(	const double	theXv,
		const double	theYv,
		const double	theZv )

inlineconstexprnoexcept

Creates a point with its three cartesian coordinates.

◆ gp_Vec() [5/5]

gp_Vec::gp_Vec	(	const gp_Pnt &	theP1,
		const gp_Pnt &	theP2 )

inlineconstexpr

Creates a vector from two points. The length of the vector is the distance between theP1 and theP2.

Member Function Documentation

◆ Add()

void gp_Vec::Add ( const gp_Vec & theOther )

inlineconstexprnoexcept

Adds two vectors.

◆ Added()

gp_Vec gp_Vec::Added ( const gp_Vec & theOther ) const

inlinenodiscardconstexprnoexcept

Adds two vectors.

◆ Angle()

double gp_Vec::Angle ( const gp_Vec & theOther ) const

inline

Computes the angular value between <me> and <theOther> Returns the angle value between 0 and PI in radian. Raises VectorWithNullMagnitude if <me>.Magnitude() <= Resolution from gp or theOther.Magnitude() <= Resolution because the angular value is indefinite if one of the vectors has a null magnitude.

◆ AngleWithRef()

double gp_Vec::AngleWithRef	(	const gp_Vec &	theOther,
		const gp_Vec &	theVRef ) const

inline

Computes the angle, in radians, between this vector and vector theOther. The result is a value between -Pi and Pi. For this, theVRef defines the positive sense of rotation: the angular value is positive, if the cross product this ^ theOther has the same orientation as theVRef relative to the plane defined by the vectors this and theOther. Otherwise, the angular value is negative. Exceptions gp_VectorWithNullMagnitude if the magnitude of this vector, the vector theOther, or the vector theVRef is less than or equal to gp::Resolution(). Standard_DomainError if this vector, the vector theOther, and the vector theVRef are coplanar, unless this vector and the vector theOther are parallel.

◆ Coord() [1/2]

double gp_Vec::Coord ( const int theIndex ) const

inlineconstexpr

Returns the coordinate of range theIndex : theIndex = 1 => X is returned theIndex = 2 => Y is returned theIndex = 3 => Z is returned Raised if theIndex != {1, 2, 3}.

◆ Coord() [2/2]

void gp_Vec::Coord	(	double &	theXv,
		double &	theYv,
		double &	theZv ) const

inlineconstexprnoexcept

For this vector returns its three coordinates theXv, theYv, and theZv inline.

◆ Cross()

void gp_Vec::Cross ( const gp_Vec & theRight )

inlineconstexprnoexcept

computes the cross product between two vectors

◆ CrossCross()

void gp_Vec::CrossCross	(	const gp_Vec &	theV1,
		const gp_Vec &	theV2 )

inlineconstexprnoexcept

Computes the triple vector product. <me> ^= (theV1 ^ theV2).

◆ CrossCrossed()

gp_Vec gp_Vec::CrossCrossed	(	const gp_Vec &	theV1,
		const gp_Vec &	theV2 ) const

inlinenodiscardconstexprnoexcept

Computes the triple vector product. <me> ^ (theV1 ^ theV2).

◆ Crossed()

gp_Vec gp_Vec::Crossed ( const gp_Vec & theRight ) const

inlinenodiscardconstexprnoexcept

computes the cross product between two vectors

◆ CrossMagnitude()

double gp_Vec::CrossMagnitude ( const gp_Vec & theRight ) const

inline

Computes the magnitude of the cross product between <me> and theRight. Returns || <me> ^ theRight ||.

◆ CrossSquareMagnitude()

double gp_Vec::CrossSquareMagnitude ( const gp_Vec & theRight ) const

inlineconstexprnoexcept

Computes the square magnitude of the cross product between <me> and theRight. Returns || <me> ^ theRight ||**2.

◆ Divide()

void gp_Vec::Divide ( const double theScalar )

inlineconstexpr

Divides a vector by a scalar.

◆ Divided()

gp_Vec gp_Vec::Divided ( const double theScalar ) const

inlinenodiscardconstexpr

Divides a vector by a scalar.

◆ Dot()

double gp_Vec::Dot ( const gp_Vec & theOther ) const

inlineconstexprnoexcept

computes the scalar product

◆ DotCross()

double gp_Vec::DotCross	(	const gp_Vec &	theV1,
		const gp_Vec &	theV2 ) const

inlineconstexprnoexcept

Computes the triple scalar product <me> * (theV1 ^ theV2).

◆ DumpJson()

void gp_Vec::DumpJson	(	Standard_OStream &	theOStream,
		int	theDepth = -1 ) const

Dumps the content of me into the stream.

◆ IsEqual()

bool gp_Vec::IsEqual	(	const gp_Vec &	theOther,
		const double	theLinearTolerance,
		const double	theAngularTolerance ) const

Returns True if the two vectors have the same magnitude value and the same direction. The precision values are theLinearTolerance for the magnitude and theAngularTolerance for the direction.

◆ IsNormal()

bool gp_Vec::IsNormal	(	const gp_Vec &	theOther,
		const double	theAngularTolerance ) const

inline

Returns True if abs(<me>.Angle(theOther) - PI/2.) <= theAngularTolerance Raises VectorWithNullMagnitude if <me>.Magnitude() <= Resolution or theOther.Magnitude() <= Resolution from gp.

◆ IsOpposite()

bool gp_Vec::IsOpposite	(	const gp_Vec &	theOther,
		const double	theAngularTolerance ) const

inline

Returns True if PI - <me>.Angle(theOther) <= theAngularTolerance Raises VectorWithNullMagnitude if <me>.Magnitude() <= Resolution or Other.Magnitude() <= Resolution from gp.

◆ IsParallel()

bool gp_Vec::IsParallel	(	const gp_Vec &	theOther,
		const double	theAngularTolerance ) const

inline

Returns True if Angle(<me>, theOther) <= theAngularTolerance or PI - Angle(<me>, theOther) <= theAngularTolerance This definition means that two parallel vectors cannot define a plane but two vectors with opposite directions are considered as parallel. Raises VectorWithNullMagnitude if <me>.Magnitude() <= Resolution or Other.Magnitude() <= Resolution from gp.

◆ Magnitude()

double gp_Vec::Magnitude ( ) const

inline

Computes the magnitude of this vector.

◆ Mirror() [1/3]

void gp_Vec::Mirror ( const gp_Ax1 & theA1 )

noexcept

◆ Mirror() [2/3]

void gp_Vec::Mirror ( const gp_Ax2 & theA2 )

noexcept

◆ Mirror() [3/3]

void gp_Vec::Mirror ( const gp_Vec & theV )

noexcept

◆ Mirrored() [1/3]

gp_Vec gp_Vec::Mirrored ( const gp_Ax1 & theA1 ) const

nodiscardnoexcept

Performs the symmetrical transformation of a vector with respect to an axis placement which is the axis of the symmetry.

◆ Mirrored() [2/3]

gp_Vec gp_Vec::Mirrored ( const gp_Ax2 & theA2 ) const

nodiscardnoexcept

Performs the symmetrical transformation of a vector with respect to a plane. The axis placement theA2 locates the plane of the symmetry : (Location, XDirection, YDirection).

◆ Mirrored() [3/3]

gp_Vec gp_Vec::Mirrored ( const gp_Vec & theV ) const

nodiscardnoexcept

Performs the symmetrical transformation of a vector with respect to the vector theV which is the center of the symmetry.

◆ Multiplied()

gp_Vec gp_Vec::Multiplied ( const double theScalar ) const

inlinenodiscardconstexprnoexcept

Multiplies a vector by a scalar.

◆ Multiply()

void gp_Vec::Multiply ( const double theScalar )

inlineconstexprnoexcept

Multiplies a vector by a scalar.

◆ Normalize()

void gp_Vec::Normalize ( )

inline

normalizes a vector Raises an exception if the magnitude of the vector is lower or equal to Resolution from gp.

◆ Normalized()

gp_Vec gp_Vec::Normalized ( ) const

inlinenodiscard

normalizes a vector Raises an exception if the magnitude of the vector is lower or equal to Resolution from gp.

◆ operator*() [1/2]

gp_Vec gp_Vec::operator* ( const double theScalar ) const

inlinenodiscardconstexprnoexcept

◆ operator*() [2/2]

double gp_Vec::operator* ( const gp_Vec & theOther ) const

inlineconstexprnoexcept

◆ operator*=()

void gp_Vec::operator*= ( const double theScalar )

inlineconstexprnoexcept

◆ operator+()

gp_Vec gp_Vec::operator+ ( const gp_Vec & theOther ) const

inlinenodiscardconstexprnoexcept

◆ operator+=()

void gp_Vec::operator+= ( const gp_Vec & theOther )

inlineconstexprnoexcept

◆ operator-() [1/2]

gp_Vec gp_Vec::operator- ( ) const

inlinenodiscardconstexprnoexcept

◆ operator-() [2/2]

gp_Vec gp_Vec::operator- ( const gp_Vec & theRight ) const

inlinenodiscardconstexprnoexcept

◆ operator-=()

void gp_Vec::operator-= ( const gp_Vec & theRight )

inlineconstexprnoexcept

◆ operator/()

gp_Vec gp_Vec::operator/ ( const double theScalar ) const

inlinenodiscardconstexpr

◆ operator/=()

void gp_Vec::operator/= ( const double theScalar )

inlineconstexpr

◆ operator^()

gp_Vec gp_Vec::operator^ ( const gp_Vec & theRight ) const

inlinenodiscardconstexprnoexcept

◆ operator^=()

void gp_Vec::operator^= ( const gp_Vec & theRight )

inlineconstexprnoexcept

◆ Reverse()

void gp_Vec::Reverse ( )

inlineconstexprnoexcept

Reverses the direction of a vector.

◆ Reversed()

gp_Vec gp_Vec::Reversed ( ) const

inlinenodiscardconstexprnoexcept

Reverses the direction of a vector.

◆ Rotate()

void gp_Vec::Rotate	(	const gp_Ax1 &	theA1,
		const double	theAng )

inline

◆ Rotated()

gp_Vec gp_Vec::Rotated	(	const gp_Ax1 &	theA1,
		const double	theAng ) const

inlinenodiscard

Rotates a vector. theA1 is the axis of the rotation. theAng is the angular value of the rotation in radians.

◆ Scale()

void gp_Vec::Scale ( const double theS )

inlineconstexprnoexcept

◆ Scaled()

gp_Vec gp_Vec::Scaled ( const double theS ) const

inlinenodiscardconstexprnoexcept

Scales a vector. theS is the scaling value.

◆ SetCoord() [1/2]

void gp_Vec::SetCoord	(	const double	theXv,
		const double	theYv,
		const double	theZv )

inlineconstexprnoexcept

For this vector, assigns.

the values theXv, theYv and theZv to its three coordinates.

◆ SetCoord() [2/2]

void gp_Vec::SetCoord	(	const int	theIndex,
		const double	theXi )

inlineconstexpr

Changes the coordinate of range theIndex theIndex = 1 => X is modified theIndex = 2 => Y is modified theIndex = 3 => Z is modified Raised if theIndex != {1, 2, 3}.

◆ SetLinearForm() [1/6]

void gp_Vec::SetLinearForm	(	const double	theA1,
		const gp_Vec &	theV1,
		const double	theA2,
		const gp_Vec &	theV2 )

inlineconstexprnoexcept

<me> is set to the following linear form : theA1 * theV1 + theA2 * theV2

◆ SetLinearForm() [2/6]

void gp_Vec::SetLinearForm	(	const double	theA1,
		const gp_Vec &	theV1,
		const double	theA2,
		const gp_Vec &	theV2,
		const double	theA3,
		const gp_Vec &	theV3 )

inlineconstexprnoexcept

<me> is set to the following linear form : theA1 * theV1 + theA2 * theV2 + theA3 * theV3

◆ SetLinearForm() [3/6]

void gp_Vec::SetLinearForm	(	const double	theA1,
		const gp_Vec &	theV1,
		const double	theA2,
		const gp_Vec &	theV2,
		const double	theA3,
		const gp_Vec &	theV3,
		const gp_Vec &	theV4 )

inlineconstexprnoexcept

<me> is set to the following linear form : theA1 * theV1 + theA2 * theV2 + theA3 * theV3 + theV4

◆ SetLinearForm() [4/6]

void gp_Vec::SetLinearForm	(	const double	theA1,
		const gp_Vec &	theV1,
		const double	theA2,
		const gp_Vec &	theV2,
		const gp_Vec &	theV3 )

inlineconstexprnoexcept

<me> is set to the following linear form : theA1 * theV1 + theA2 * theV2 + theV3

◆ SetLinearForm() [5/6]

void gp_Vec::SetLinearForm	(	const double	theA1,
		const gp_Vec &	theV1,
		const gp_Vec &	theV2 )

inlineconstexprnoexcept

<me> is set to the following linear form : theA1 * theV1 + theV2

◆ SetLinearForm() [6/6]

void gp_Vec::SetLinearForm	(	const gp_Vec &	theV1,
		const gp_Vec &	theV2 )

inlineconstexprnoexcept

<me> is set to the following linear form : theV1 + theV2

◆ SetX()

void gp_Vec::SetX ( const double theX )

inlineconstexprnoexcept

Assigns the given value to the X coordinate of this vector.

◆ SetXYZ()

void gp_Vec::SetXYZ ( const gp_XYZ & theCoord )

inlineconstexprnoexcept

Assigns the three coordinates of theCoord to this vector.

◆ SetY()

void gp_Vec::SetY ( const double theY )

inlineconstexprnoexcept

Assigns the given value to the X coordinate of this vector.

◆ SetZ()

void gp_Vec::SetZ ( const double theZ )

inlineconstexprnoexcept

Assigns the given value to the X coordinate of this vector.

◆ SquareMagnitude()

double gp_Vec::SquareMagnitude ( ) const

inlineconstexprnoexcept

Computes the square magnitude of this vector.

◆ Subtract()

void gp_Vec::Subtract ( const gp_Vec & theRight )

inlineconstexprnoexcept

Subtracts two vectors.

◆ Subtracted()

gp_Vec gp_Vec::Subtracted ( const gp_Vec & theRight ) const

inlinenodiscardconstexprnoexcept

Subtracts two vectors.

◆ Transform()

void gp_Vec::Transform ( const gp_Trsf & theT )

Transforms a vector with the transformation theT.

◆ Transformed()

gp_Vec gp_Vec::Transformed ( const gp_Trsf & theT ) const

inlinenodiscard

Transforms a vector with the transformation theT.

◆ X()

double gp_Vec::X ( ) const

inlineconstexprnoexcept

For this vector, returns its X coordinate.

◆ XYZ()

const gp_XYZ & gp_Vec::XYZ ( ) const

inlineconstexprnoexcept

For this vector, returns.

its three coordinates as a number triple

◆ Y()

double gp_Vec::Y ( ) const

inlineconstexprnoexcept

For this vector, returns its Y coordinate.

◆ Z()

double gp_Vec::Z ( ) const

inlineconstexprnoexcept

For this vector, returns its Z coordinate.

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

gp_Vec.hxx

Public Member Functions

Detailed Description

Constructor & Destructor Documentation

◆ gp_Vec() [1/5]

◆ gp_Vec() [2/5]

◆ gp_Vec() [3/5]

◆ gp_Vec() [4/5]

◆ gp_Vec() [5/5]

Member Function Documentation

◆ Add()

◆ Added()

◆ Angle()

◆ AngleWithRef()

◆ Coord() [1/2]

◆ Coord() [2/2]

◆ Cross()

◆ CrossCross()

◆ CrossCrossed()

◆ Crossed()

◆ CrossMagnitude()

◆ CrossSquareMagnitude()

◆ Divide()

◆ Divided()

◆ Dot()

◆ DotCross()

◆ DumpJson()

◆ IsEqual()

◆ IsNormal()

◆ IsOpposite()

◆ IsParallel()

◆ Magnitude()

◆ Mirror() [1/3]

◆ Mirror() [2/3]

◆ Mirror() [3/3]

◆ Mirrored() [1/3]

◆ Mirrored() [2/3]

◆ Mirrored() [3/3]

◆ Multiplied()

◆ Multiply()

◆ Normalize()

◆ Normalized()

◆ operator*() [1/2]

◆ operator*() [2/2]

◆ operator*=()

◆ operator+()

◆ operator+=()

◆ operator-() [1/2]

◆ operator-() [2/2]

◆ operator-=()

◆ operator/()

◆ operator/=()

◆ operator^()

◆ operator^=()

◆ Reverse()

◆ Reversed()

◆ Rotate()

◆ Rotated()

◆ Scale()

◆ Scaled()

◆ SetCoord() [1/2]

◆ SetCoord() [2/2]

◆ SetLinearForm() [1/6]

◆ SetLinearForm() [2/6]

◆ SetLinearForm() [3/6]

◆ SetLinearForm() [4/6]

◆ SetLinearForm() [5/6]

◆ SetLinearForm() [6/6]

◆ SetX()

◆ SetXYZ()

◆ SetY()

◆ SetZ()

◆ SquareMagnitude()

◆ Subtract()

◆ Subtracted()

◆ Transform()

◆ Transformed()

◆ X()

◆ XYZ()

◆ Y()

◆ Z()