mrmeshpy.TriTriDistanceResult_double Class Reference

Public Member Functions
None	__init__ (self)
None	__init__ (self, TriTriDistanceResult_double arg0)
None	__init__ (self, Vector3d a, Vector3d b, float distSq, bool overlap)
Vector3d	a (self)
None	a (self, Vector3d arg1)
Vector3d	b (self)
None	b (self, Vector3d arg1)
float	distSq (self)
None	distSq (self, float arg1)
bool	overlap (self)
None	overlap (self, bool arg1)

Static Public Member Functions
None	__init__ (*args, **kwargs)
TriTriDistanceResult_double	operator (*args, **kwargs)
TriTriDistanceResult_double	operator (*args, **kwargs)

Static Protected Attributes
typing	_offsetof_a = 0
typing	_offsetof_b = 24
typing	_offsetof_distSq = 48
typing	_offsetof_overlap = 56

Detailed Description

Generated from:  MR::TriTriDistanceResult<double>
Aliases:  TriTriDistanceResultd

Constructor & Destructor Documentation

__init__() [1/4]

None mrmeshpy.TriTriDistanceResult_double.__init__ ( * args, ** kwargs )

static

__init__() [2/4]

None mrmeshpy.TriTriDistanceResult_double.__init__

(

self

)

__init__() [3/4]

None mrmeshpy.TriTriDistanceResult_double.__init__	(		self,
		TriTriDistanceResult_double	arg0 )

Implicit copy constructor.

__init__() [4/4]

None mrmeshpy.TriTriDistanceResult_double.__init__	(		self,
		Vector3d	a,
		Vector3d	b,
		float	distSq,
		bool	overlap )

Implicit aggregate constructor.

Member Function Documentation

a() [1/2]

Vector3d mrmeshpy.TriTriDistanceResult_double.a

(

self

)

If the triangles are disjoint, these points are the closest points of
the corresponding triangles. However, if the triangles overlap, these
are basically a random pair of points from the triangles, not
coincident points on the intersection of the triangles, as might
be expected.

a() [2/2]

None mrmeshpy.TriTriDistanceResult_double.a	(		self,
		Vector3d	arg1 )

b() [1/2]

Vector3d mrmeshpy.TriTriDistanceResult_double.b

(

self

)

If the triangles are disjoint, these points are the closest points of
the corresponding triangles. However, if the triangles overlap, these
are basically a random pair of points from the triangles, not
coincident points on the intersection of the triangles, as might
be expected.

b() [2/2]

None mrmeshpy.TriTriDistanceResult_double.b	(		self,
		Vector3d	arg1 )

distSq() [1/2]

float mrmeshpy.TriTriDistanceResult_double.distSq

(

self

)

If the triangles are disjoint, it is the squared distance them
(equal to the squared distance between a and b points).
If the triangles overlap, it is zero.

distSq() [2/2]

None mrmeshpy.TriTriDistanceResult_double.distSq	(		self,
		float	arg1 )

operator() [1/2]

TriTriDistanceResult_double mrmeshpy.TriTriDistanceResult_double.operator ( * args, ** kwargs )

static

operator() [2/2]

TriTriDistanceResult_double mrmeshpy.TriTriDistanceResult_double.operator ( * args, ** kwargs )

static

overlap() [1/2]

bool mrmeshpy.TriTriDistanceResult_double.overlap

(

self

)

overlap==true means that the triangles are intersecting and not just touch one another => distSq == 0
if distSq == 0 and overlap == false, then the triangles just touch one another

overlap() [2/2]

None mrmeshpy.TriTriDistanceResult_double.overlap	(		self,
		bool	arg1 )

Member Data Documentation

_offsetof_a

typing mrmeshpy.TriTriDistanceResult_double._offsetof_a = 0

staticprotected

_offsetof_b

typing mrmeshpy.TriTriDistanceResult_double._offsetof_b = 24

staticprotected

_offsetof_distSq

typing mrmeshpy.TriTriDistanceResult_double._offsetof_distSq = 48

staticprotected

_offsetof_overlap

typing mrmeshpy.TriTriDistanceResult_double._offsetof_overlap = 56

staticprotected

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

• mrmeshpy.pyi