Simple relation constraints over integer variables
[Using integer variables and constraints]

Functions
void	Gecode::rel (Home home, IntVar x0, IntRelType irt, IntVar x1, IntPropLevel ipl=IPL_DEF)
	Post propagator for $x_0 \sim_{irt} x_1$ .
void	Gecode::rel (Home home, const IntVarArgs &x, IntRelType irt, IntVar y, IntPropLevel ipl=IPL_DEF)
	Post propagator for $x_i \sim_{irt} y$ for all $0\leq i<\|x\|$ .
void	Gecode::rel (Home home, IntVar x, IntRelType irt, int c, IntPropLevel ipl=IPL_DEF)
	Propagates $x \sim_{irt} c$ .
void	Gecode::rel (Home home, const IntVarArgs &x, IntRelType irt, int c, IntPropLevel ipl=IPL_DEF)
	Propagates $x_i \sim_{irt} c$ for all $0\leq i<\|x\|$ .
void	Gecode::rel (Home home, IntVar x0, IntRelType irt, IntVar x1, Reify r, IntPropLevel ipl=IPL_DEF)
	Post propagator for $(x_0 \sim_{irt} x_1)\equiv r$ .
void	Gecode::rel (Home home, IntVar x, IntRelType irt, int c, Reify r, IntPropLevel ipl=IPL_DEF)
	Post propagator for $(x \sim_{irt} c)\equiv r$ .
void	Gecode::rel (Home home, const IntVarArgs &x, IntRelType irt, IntPropLevel ipl=IPL_DEF)
	Post propagator for relation among elements in x.
void	Gecode::rel (Home home, const IntVarArgs &x, IntRelType irt, const IntVarArgs &y, IntPropLevel ipl=IPL_DEF)
	Post propagator for relation between x and y.
void	Gecode::rel (Home home, const IntVarArgs &x, IntRelType irt, const IntArgs &y, IntPropLevel ipl=IPL_DEF)
	Post propagator for relation between x and y.
void	Gecode::rel (Home home, const IntArgs &x, IntRelType irt, const IntVarArgs &y, IntPropLevel ipl=IPL_DEF)
	Post propagator for relation between x and y.

Function Documentation

void Gecode::rel	(	Home	home,
		IntVar	x0,
		IntRelType	irt,
		IntVar	x1,
		IntPropLevel	ipl = `IPL_DEF`
	)

Post propagator for $x_0 \sim_{irt} x_1$ .

Supports both bounds (ipl = IPL_BND) and domain consistency (ipl = IPL_DOM, default).

void Gecode::rel	(	Home	home,
		const IntVarArgs &	x,
		IntRelType	irt,
		IntVar	y,
		IntPropLevel	ipl = `IPL_DEF`
	)

Post propagator for $x_i \sim_{irt} y$ for all $0\leq i<|x|$ .

Supports both bounds (ipl = IPL_BND) and domain consistency (ipl = IPL_DOM, default).

void Gecode::rel	(	Home	home,
		IntVar	x0,
		IntRelType	irt,
		int	n,
		IntPropLevel
	)

Propagates $x \sim_{irt} c$ .

void Gecode::rel	(	Home	home,
		const IntVarArgs &	x,
		IntRelType	irt,
		int	n,
		IntPropLevel
	)

Propagates $x_i \sim_{irt} c$ for all $0\leq i<|x|$ .

void Gecode::rel	(	Home	home,
		IntVar	x0,
		IntRelType	irt,
		IntVar	x1,
		Reify	r,
		IntPropLevel	ipl = `IPL_DEF`
	)

Post propagator for $(x_0 \sim_{irt} x_1)\equiv r$ .

Supports both bounds (ipl = IPL_BND) and domain consistency (ipl = IPL_DOM, default).

void Gecode::rel	(	Home	home,
		IntVar	x,
		IntRelType	irt,
		int	c,
		Reify	r,
		IntPropLevel	ipl = `IPL_DEF`
	)

Post propagator for $(x \sim_{irt} c)\equiv r$ .

Supports both bounds (ipl = IPL_BND) and domain consistency (ipl = IPL_DOM, default).

void Gecode::rel	(	Home	home,
		const IntVarArgs &	x,
		IntRelType	irt,
		IntPropLevel	ipl = `IPL_DEF`
	)

Post propagator for relation among elements in x.

States that the elements of x are in the following relation:

if r = IRT_LE, r = IRT_LQ, r = IRT_GR, or r = IRT_GQ, then the elements of x are ordered with respect to r. Supports domain consistency (ipl = IPL_DOM, default).
if r = IRT_EQ, then all elements of x must be equal. Supports both bounds (ipl = IPL_BND) and domain consistency (ipl = IPL_DOM, default).
if r = IRT_NQ, then not all elements of x must be equal. Supports domain consistency (ipl = IPL_DOM, default).

void Gecode::rel	(	Home	home,
		const IntVarArgs &	x,
		IntRelType	irt,
		const IntVarArgs &	y,
		IntPropLevel	ipl = `IPL_DEF`
	)

Post propagator for relation between x and y.

Note that for the inequality relations this corresponds to the lexical order between x and y.

Supports both bounds (ipl = IPL_BND) and domain consistency (ipl = IPL_DOM, default).

Note that the constraint is also defined if x and y are of different size. That means that if x and y are of different size, then if r = IRT_EQ the constraint is false and if r = IRT_NQ the constraint is subsumed.

void Gecode::rel	(	Home	home,
		const IntVarArgs &	x,
		IntRelType	irt,
		const IntArgs &	y,
		IntPropLevel	ipl = `IPL_DEF`
	)

Post propagator for relation between x and y.

Note that for the inequality relations this corresponds to the lexical order between x and y.

Supports domain consistency.

Note that the constraint is also defined if x and y are of different size. That means that if x and y are of different size, then if r = IRT_EQ the constraint is false and if r = IRT_NQ the constraint is subsumed.

void Gecode::rel	(	Home	home,
		const IntArgs &	x,
		IntRelType	irt,
		const IntVarArgs &	y,
		IntPropLevel	ipl = `IPL_DEF`
	)

Post propagator for relation between x and y.

Note that for the inequality relations this corresponds to the lexical order between x and y.

Supports domain consistency.

Note that the constraint is also defined if x and y are of different size. That means that if x and y are of different size, then if r = IRT_EQ the constraint is false and if r = IRT_NQ the constraint is subsumed.

Simple relation constraints over integer variables [Using integer variables and constraints]

Functions

Function Documentation

Simple relation constraints over integer variables
[Using integer variables and constraints]