#include <bab.hpp>

Classes
struct	tell_type

Public Types
using	allocator_type = typename A::allocator_type

using	sub_type = A

using	sub_ptr = abstract_ptr<sub_type>

using	best_type = B

using	best_ptr = abstract_ptr<best_type>

using	this_type = BAB<sub_type, best_type>

template<class Alloc2 >
using	ask_type = typename sub_type::template ask_type<Alloc2>

Public Member Functions
CUDA	BAB (AType atype, sub_ptr sub, best_ptr best)

template<class A2 , class B2 , class... Allocators>
CUDA NI	BAB (const BAB< A2, B2 > &other, AbstractDeps< Allocators... > &deps)

CUDA AType	aty () const

CUDA allocator_type	get_allocator () const

CUDA local::B	is_bot () const

CUDA local::B	is_top () const

template<bool diagnose = false, class F , class Env , class Alloc2 >
CUDA NI bool	interpret_tell (const F &f, Env &env, tell_type< Alloc2 > &tell, IDiagnostics &diagnostics) const

template<bool diagnose = false, class F , class Env , class Alloc2 >
CUDA NI bool	interpret_ask (const F &f, const Env &env, ask_type< Alloc2 > &ask, IDiagnostics &diagnostics) const

template<IKind kind, bool diagnose = false, class F , class Env , class I >
CUDA NI bool	interpret (const F &f, Env &env, I &intermediate, IDiagnostics &diagnostics) const

template<class Alloc >
CUDA bool	deduce (const tell_type< Alloc > &t)

template<class Alloc2 >
CUDA NI TFormula< Alloc2 >	deinterpret_best_bound (const typename best_type::universe_type &best_bound, const Alloc2 &alloc=Alloc2{}) const

template<class Alloc2 >
CUDA TFormula< Alloc2 >	deinterpret_best_bound (const Alloc2 &alloc=Alloc2{}) const

CUDA local::B	deduce (const typename best_type::universe_type &best_bound)

template<class Store1 , class Store2 >
CUDA bool	compare_bound (const Store1 &store1, const Store2 &store2) const

CUDA local::B	deduce ()

CUDA int	solutions_count () const

template<class ExtractionStrategy = NonAtomicExtraction>
CUDA bool	is_extractable (const ExtractionStrategy &strategy=ExtractionStrategy()) const

template<class AbstractBest >
CUDA void	extract (AbstractBest &ua) const

CUDA const best_type &	optimum () const

CUDA best_ptr	optimum_ptr () const

CUDA bool	is_satisfaction () const

CUDA bool	is_optimization () const

CUDA bool	is_minimization () const

CUDA bool	is_maximization () const

CUDA AVar	objective_var () const

Static Public Attributes
static constexpr const bool	is_abstract_universe = false

static constexpr const bool	sequential = sub_type::sequential

static constexpr const bool	is_totally_ordered = false

static constexpr const bool	preserve_bot = true

static constexpr const bool	preserve_top = true

static constexpr const bool	preserve_join = sub_type::preserve_join

static constexpr const bool	preserve_meet = sub_type::preserve_meet

static constexpr const bool	injective_concretization = sub_type::injective_concretization

static constexpr const bool	preserve_concrete_covers = sub_type::preserve_concrete_covers

static constexpr const char *	name = "BAB"

Friends
template<class A2 , class B2 >
class	BAB

Member Typedef Documentation

◆ allocator_type

template<class A , class B = A>

using lala::BAB< A, B >::allocator_type = typename A::allocator_type

◆ sub_type

template<class A , class B = A>

using lala::BAB< A, B >::sub_type = A

◆ sub_ptr

template<class A , class B = A>

using lala::BAB< A, B >::sub_ptr = abstract_ptr<sub_type>

◆ best_type

template<class A , class B = A>

using lala::BAB< A, B >::best_type = B

◆ best_ptr

template<class A , class B = A>

using lala::BAB< A, B >::best_ptr = abstract_ptr<best_type>

◆ this_type

template<class A , class B = A>

using lala::BAB< A, B >::this_type = BAB<sub_type, best_type>

◆ ask_type

template<class A , class B = A>

template<class Alloc2 >

using lala::BAB< A, B >::ask_type = typename sub_type::template ask_type<Alloc2>

Constructor & Destructor Documentation

◆ BAB() [1/2]

template<class A , class B = A>

CUDA lala::BAB< A, B >::BAB	(	AType	atype,
		sub_ptr	sub,
		best_ptr	best )

inline

◆ BAB() [2/2]

template<class A , class B = A>

template<class A2 , class B2 , class... Allocators>

CUDA NI lala::BAB< A, B >::BAB	(	const BAB< A2, B2 > &	other,
		AbstractDeps< Allocators... > &	deps )

inline

Construct BAB by copying other. The best solution is copied using a fresh AbstractDeps, and thus is not intended to be shared with other abstract domains. For instance, if best is a VStore, it shares the same AType than the VStore underlying sub. Hence, if we copy it using deps, both VStore will be shared which is not the intended behavior.

Member Function Documentation

◆ aty()

template<class A , class B = A>

CUDA AType lala::BAB< A, B >::aty ( ) const

inline

◆ get_allocator()

template<class A , class B = A>

CUDA allocator_type lala::BAB< A, B >::get_allocator ( ) const

inline

◆ is_bot()

template<class A , class B = A>

CUDA local::B lala::BAB< A, B >::is_bot ( ) const

inline

◆ is_top()

template<class A , class B = A>

CUDA local::B lala::BAB< A, B >::is_top ( ) const

inline

◆ interpret_tell()

template<class A , class B = A>

template<bool diagnose = false, class F , class Env , class Alloc2 >

CUDA NI bool lala::BAB< A, B >::interpret_tell	(	const F &	f,
		Env &	env,
		tell_type< Alloc2 > &	tell,
		IDiagnostics &	diagnostics ) const

inline

◆ interpret_ask()

template<class A , class B = A>

template<bool diagnose = false, class F , class Env , class Alloc2 >

CUDA NI bool lala::BAB< A, B >::interpret_ask	(	const F &	f,
		const Env &	env,
		ask_type< Alloc2 > &	ask,
		IDiagnostics &	diagnostics ) const

inline

◆ interpret()

template<class A , class B = A>

template<IKind kind, bool diagnose = false, class F , class Env , class I >

CUDA NI bool lala::BAB< A, B >::interpret	(	const F &	f,
		Env &	env,
		I &	intermediate,
		IDiagnostics &	diagnostics ) const

inline

◆ deduce() [1/3]

template<class A , class B = A>

template<class Alloc >

CUDA bool lala::BAB< A, B >::deduce ( const tell_type< Alloc > & t )

inline

◆ deinterpret_best_bound() [1/2]

template<class A , class B = A>

template<class Alloc2 >

CUDA NI TFormula< Alloc2 > lala::BAB< A, B >::deinterpret_best_bound	(	const typename best_type::universe_type &	best_bound,
		const Alloc2 &	alloc = Alloc2{} ) const

inline

◆ deinterpret_best_bound() [2/2]

template<class A , class B = A>

template<class Alloc2 >

CUDA TFormula< Alloc2 > lala::BAB< A, B >::deinterpret_best_bound ( const Alloc2 & alloc = Alloc2{} ) const

inline

◆ deduce() [2/3]

template<class A , class B = A>

CUDA local::B lala::BAB< A, B >::deduce ( const typename best_type::universe_type & best_bound )

inline

Update the variable to optimize objective_var() with a new bound.

◆ compare_bound()

template<class A , class B = A>

template<class Store1 , class Store2 >

CUDA bool lala::BAB< A, B >::compare_bound	(	const Store1 &	store1,
		const Store2 &	store2 ) const

inline

Compare the best bound of two stores on the objective variable represented in this BAB abstract element.

Precondition: is_optimization() must be true.

Returns: true if store1 is strictly better than store2, false otherwise.

◆ deduce() [3/3]

template<class A , class B = A>

CUDA local::B lala::BAB< A, B >::deduce ( )

inline

This deduction operator performs "branch-and-bound" by adding a constraint to the root node of the search tree to ensure the next solution is better than the current one, and store the best solution found.

Precondition: The current subelement must be extractable, and if it is an optimization problem, have a better bound than best (this is not checked here). Beware this deduction operator is not idempotent (it must only be called once on each new solution).

◆ solutions_count()

template<class A , class B = A>

CUDA int lala::BAB< A, B >::solutions_count ( ) const

inline

◆ is_extractable()

template<class A , class B = A>

template<class ExtractionStrategy = NonAtomicExtraction>

CUDA bool lala::BAB< A, B >::is_extractable ( const ExtractionStrategy & strategy = ExtractionStrategy() ) const

inline

Given an optimization problem, it is extractable only when we have explored the whole state space (indicated by the subdomain being equal to top), we have found one solution, and that solution is extractable.

◆ extract()

template<class A , class B = A>

template<class AbstractBest >

CUDA void lala::BAB< A, B >::extract ( AbstractBest & ua ) const

inline

Extract the best solution found in ua.

Precondition: is_extractable() must return true.

◆ optimum()

template<class A , class B = A>

CUDA const best_type & lala::BAB< A, B >::optimum ( ) const

inline

If is_extractable() is not true, the returned element might not be an optimum, and should be seen as the best optimum found so far.

◆ optimum_ptr()

template<class A , class B = A>

CUDA best_ptr lala::BAB< A, B >::optimum_ptr ( ) const

inline

◆ is_satisfaction()

template<class A , class B = A>

CUDA bool lala::BAB< A, B >::is_satisfaction ( ) const

inline

◆ is_optimization()

template<class A , class B = A>

CUDA bool lala::BAB< A, B >::is_optimization ( ) const

inline

◆ is_minimization()

template<class A , class B = A>

CUDA bool lala::BAB< A, B >::is_minimization ( ) const

inline

◆ is_maximization()

template<class A , class B = A>

CUDA bool lala::BAB< A, B >::is_maximization ( ) const

inline

◆ objective_var()

template<class A , class B = A>

CUDA AVar lala::BAB< A, B >::objective_var ( ) const

inline

Friends And Related Symbol Documentation

◆ BAB

template<class A , class B = A>

template<class A2 , class B2 >

friend class BAB

friend

Member Data Documentation

◆ is_abstract_universe

template<class A , class B = A>

const bool lala::BAB< A, B >::is_abstract_universe = false

staticconstexpr

◆ sequential

template<class A , class B = A>

const bool lala::BAB< A, B >::sequential = sub_type::sequential

staticconstexpr

◆ is_totally_ordered

template<class A , class B = A>

const bool lala::BAB< A, B >::is_totally_ordered = false

staticconstexpr

◆ preserve_bot

template<class A , class B = A>

const bool lala::BAB< A, B >::preserve_bot = true

staticconstexpr

◆ preserve_top

template<class A , class B = A>

const bool lala::BAB< A, B >::preserve_top = true

staticconstexpr

◆ preserve_join

template<class A , class B = A>

const bool lala::BAB< A, B >::preserve_join = sub_type::preserve_join

staticconstexpr

◆ preserve_meet

template<class A , class B = A>

const bool lala::BAB< A, B >::preserve_meet = sub_type::preserve_meet

staticconstexpr

◆ injective_concretization

template<class A , class B = A>

const bool lala::BAB< A, B >::injective_concretization = sub_type::injective_concretization

staticconstexpr

◆ preserve_concrete_covers

template<class A , class B = A>

const bool lala::BAB< A, B >::preserve_concrete_covers = sub_type::preserve_concrete_covers

staticconstexpr

◆ name

template<class A , class B = A>

const char* lala::BAB< A, B >::name = "BAB"

staticconstexpr

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

include/lala/bab.hpp

Classes

Public Types

Public Member Functions

Static Public Attributes

Friends

Member Typedef Documentation

◆ allocator_type

◆ sub_type

◆ sub_ptr

◆ best_type

◆ best_ptr

◆ this_type

◆ ask_type

Constructor & Destructor Documentation

◆ BAB() [1/2]

◆ BAB() [2/2]

Member Function Documentation

◆ aty()

◆ get_allocator()

◆ is_bot()

◆ is_top()

◆ interpret_tell()

◆ interpret_ask()

◆ interpret()

◆ deduce() [1/3]

◆ deinterpret_best_bound() [1/2]

◆ deinterpret_best_bound() [2/2]

◆ deduce() [2/3]

◆ compare_bound()

◆ deduce() [3/3]

◆ solutions_count()

◆ is_extractable()

◆ extract()

◆ optimum()

◆ optimum_ptr()

◆ is_satisfaction()

◆ is_optimization()

◆ is_minimization()

◆ is_maximization()

◆ objective_var()

Friends And Related Symbol Documentation

◆ BAB

Member Data Documentation

◆ is_abstract_universe

◆ sequential

◆ is_totally_ordered

◆ preserve_bot

◆ preserve_top

◆ preserve_join

◆ preserve_meet

◆ injective_concretization

◆ preserve_concrete_covers

◆ name