Class xlifepp::Parallelepiped#

class Parallelepiped : public xlifepp::Hexahedron #

Inheritence diagram for xlifepp::Parallelepiped:

Collaboration diagram for xlifepp::Parallelepiped:

definition of a parallelepiped geometry in R^3

Parallelepiped constructors are based on a key-value system. Here are the available keys:

_v1, _v2, _v3, _v4, _v5, _v6, _v7, _v8: to define the vertices of the Parallelepiped (_v3, _v6, _v7, _v8 are optional)
_nnodes: to define the number of nodes on each edge of the Parallelepiped
_hsteps: to define the local mesh steps on the vertices of the Parallelepiped
_domain_name: to define the domain name
_side_names: to define the side names
_varnames: to define the variable names for print purpose

Subclassed by xlifepp::Cuboid

Public Functions

Parallelepiped()#: default constructor

Parallelepiped(const Parallelepiped &p)#: copy constructor

Parallelepiped(Parameter p1, Parameter p2, Parameter p3, Parameter p4)#: constructor with 4 Parameter

Parallelepiped(Parameter p1, Parameter p2, Parameter p3, Parameter p4, Parameter p5)#: constructor with 5 Parameter

Parallelepiped(Parameter p1, Parameter p2, Parameter p3, Parameter p4, Parameter p5, Parameter p6)#: constructor with 6 Parameter

Parallelepiped(Parameter p1, Parameter p2, Parameter p3, Parameter p4, Parameter p5, Parameter p6, Parameter p7)#: constructor with 7 Parameter

Parallelepiped(Parameter p1, Parameter p2, Parameter p3, Parameter p4, Parameter p5, Parameter p6, Parameter p7, Parameter p8)#: constructor with 8 Parameter

virtual string_t asString() const#: format as string

inline virtual Geometry *clone() const#: virtual copy constructor

virtual void computeMB()#: computes the minimal box

inline virtual Parallelepiped &homothetize(const Parameter &p1)#: apply a homothety on a Parallelepiped (1 key)

inline virtual Parallelepiped &homothetize(const Parameter &p1, const Parameter &p2)#: apply a homothety on a Parallelepiped (2 keys)

inline virtual Parallelepiped &homothetize(const Point &c = Point(0., 0., 0.), real_t factor = 1.)#: apply a homothety on a Parallelepiped

inline virtual Parallelepiped &homothetize(real_t factor)#: apply a homothety on a Parallelepiped

virtual real_t measure() const#: return the length/area/volume of the geometry

inline number_t n1() const#: returns number of nodes on edges 1, 3, 5 and 7

inline number_t n2() const#: returns number of nodes on edges 2, 4, 6 and 8

inline number_t n3() const#: retusn number of nodes on edges 9, 10, 11 and 12

inline virtual dimen_t nbOctants() const#: returns number of octants

inline const std::vector<Point> &p() const#: accessor to vertices

inline Point p(number_t i) const#: accessor to vertex i

inline virtual Parallelepiped *parallelepiped()#: access to child Parallelepiped object

inline virtual const Parallelepiped *parallelepiped() const#: access to child Parallelepiped object (const)

inline virtual Parallelepiped &pointReflect(const Parameter &p1)#: apply a point reflection on a Parallelepiped (1 key)

inline virtual Parallelepiped &pointReflect(const Point &c = Point(0., 0., 0.))#: apply a point reflection on a Parallelepiped

inline virtual Parallelepiped &reflect2d(const Parameter &p1)#: apply a reflection2d on a Parallelepiped (1 key)

inline virtual Parallelepiped &reflect2d(const Parameter &p1, const Parameter &p2)#: apply a reflection2d on a Parallelepiped (2 keys)

inline virtual Parallelepiped &reflect2d(const Point &c, real_t dx, real_t dy = 0.)#: apply a reflection2d on a Parallelepiped

inline virtual Parallelepiped &reflect2d(const Point &c = Point(0., 0.), std::vector<real_t> d = std::vector<real_t>(2, 0.))#: apply a reflection2d on a Parallelepiped

inline virtual Parallelepiped &reflect3d(const Parameter &p1)#: apply a reflection3d on a Parallelepiped (1 key)

inline virtual Parallelepiped &reflect3d(const Parameter &p1, const Parameter &p2)#: apply a reflection3d on a Parallelepiped (2 keys)

inline virtual Parallelepiped &reflect3d(const Point &c, real_t nx, real_t ny, real_t nz = 0.)#: apply a reflection3d on a Parallelepiped

inline virtual Parallelepiped &reflect3d(const Point &c = Point(0., 0., 0.), std::vector<real_t> n = std::vector<real_t>(3, 0.))#: apply a reflection3d on a Parallelepiped

inline virtual Parallelepiped &rotate2d(const Parameter &p1)#: apply a rotation 2D on a Parallelepiped (1 key)

inline virtual Parallelepiped &rotate2d(const Parameter &p1, const Parameter &p2)#: apply a rotation 2D on a Parallelepiped (2 keys)

inline virtual Parallelepiped &rotate2d(const Point &c, real_t angle = 0.)#: apply a rotation 2D on a Parallelepiped

inline virtual Parallelepiped &rotate3d(const Parameter &p1)#: apply a rotation 3D on a Parallelepiped (1 key)

inline virtual Parallelepiped &rotate3d(const Parameter &p1, const Parameter &p2)#: apply a rotation 3D on a Parallelepiped (2 keys)

inline virtual Parallelepiped &rotate3d(const Parameter &p1, const Parameter &p2, const Parameter &p3)#: apply a rotation 3D on a Parallelepiped (3 keys)

inline virtual Parallelepiped &rotate3d(const Point &c, real_t dx, real_t dy, real_t angle)#: apply a rotation on a Parallelepiped

inline virtual Parallelepiped &rotate3d(const Point &c, real_t dx, real_t dy, real_t dz, real_t angle)#: apply a rotation on a Parallelepiped

inline virtual Parallelepiped &rotate3d(const Point &c, std::vector<real_t> d = std::vector<real_t>(3, 0.), real_t angle = 0.)#: apply a rotation 3D on a Parallelepiped

inline virtual Parallelepiped &rotate3d(real_t dx, real_t dy, real_t angle)#: apply a rotation 3D on a Parallelepiped

inline virtual Parallelepiped &rotate3d(real_t dx, real_t dy, real_t dz, real_t angle)#: apply a rotation 3D on a Parallelepiped

virtual void setFaces()#: set the faces vector when built

virtual Parallelepiped &transform(const Transformation &t)#: apply a geometrical transformation on a Parallelepiped

inline virtual Parallelepiped &translate(const Parameter &p1)#: apply a translation on a Parallelepiped (1 key)

inline virtual Parallelepiped &translate(real_t ux, real_t uy = 0., real_t uz = 0.)#: apply a translation on a Parallelepiped (3 reals version)

inline virtual Parallelepiped &translate(std::vector<real_t> u)#: apply a translation on a Parallelepiped (vector version)

virtual std::vector<Point*> wholeNodes()#: return list of every point (non const)

virtual std::vector<const Point*> wholeNodes() const#: return list of every point (const)