A | |
| abstraction [Term] | abstraction v tm is \v. tm.
|
| add [Dl_number.T] |
Numberic addition.
|
| add [Index.Set] | add s e adds element e to the set s in (amortized)
constant time.
|
| add [Index.Map] | add m k x modifies m by mapping the index of k to x.
|
| add [Bunch] |
Add an element to a bunch.
|
| add [Bihashtbl.S] | add b k e adds an entry mapping k to e to b.
|
| add_balanced [Bunch] |
Add an element to a bunch.
|
| add_clause [Dpll_core] |
Adds the clause (disjunction of literals) to the solver.
|
| add_interface_literal [Cc_core] | add_interface_literal s (x, y) records an interest in the
literals x = y and x != y.
|
| add_interface_variable [Dpll_core] | add_interface_variables s v treats the variable v and its
negation as interface literals.
|
| add_literal [Dl_core.T] |
Add an interface literal to the solver.
|
| application [Term] |
The application of the given terms.
|
| application [Smtlib_syntax] |
Application of a named function to a list of arguments.
|
| application_argument [Term] |
The argument in an application.
|
| application_function [Term] |
The function in an application.
|
| arity [Symbol] | arity s is the arity declared for s.
|
| arity [Constant] |
Arity of a constant.
|
| assumptions [Smtlib_attribute] |
A list of all the assumptions in a collection of attributes.
|
B | |
| backjump [Dpll_core] |
Resolve a conflict by backjumping to undo conflicting
assignments from the current partial model.
|
| backjump [Cc_core] |
Backjumps to the given level.
|
| backjump_possible [Dpll_core] |
Might a backjump be used to resolve a conflict?
|
| backtrack [Dl_core.T] |
Backtrack to the given decision level.
|
| beta_normal_form [Term] |
The term obtained by reducing all beta-redexes in a term.
|
| binary_application [Term] | binary_application f x y is equivalent to application
(application f x) y.
|
| bool_of_ternary [Ternary] | bool_of_ternary t is the boolean corresponding to a known ternary t.
|
C | |
| classify [Option] |
Classify a value by placing it in an option.
|
| clear [Vec] | clear v removes all elements from v.
|
| clear [Priority_queue] |
Removes all elements from the queue.
|
| clear [Index.Set] |
Makes the set empty in (amortized) constant time.
|
| clear [Bihashtbl.S] |
Remove all entries from a hash table.
|
| compact_print_term [Term] |
Compactly print a term using
std_formatter.
|
| compare [Variable] |
An arbitrary ordering on variables.
|
| compare [Util.ComparedType] |
An arbitrary order on values.
|
| compare [Symbol] |
An arbitrary ordering on symbols.
|
| compare [Id.T] | compare x y is an arbitrary order for x and y
|
| compare [Dl_number.T] |
Comparison of numbers.
|
| compare [Constant] |
An arbitrary ordering on constants.
|
| compose [Function] |
Function composition.
|
| conditional [Term_logic.Constructor] |
Conditional expression: Boolean condition, and Boolean alternatives.
|
| conditional [Term_constant] |
Logical if-then-else.
|
| conditional [Symbol.Primitive] | |
| conflict_clause [Cc_core] |
An explanation for a conflict.
|
| conflict_detected [Dpll_core] |
Has the solver deduced that the current (partial) model cannot
be (extended to) a satisfying variable assignment?
|
| conflict_detected [Dl_core.T] |
Has a conflict been detected in the solver?
|
| conflict_detected [Cc_core] |
Has a conflict been detected in the current solver state?
|
| conjunction [Ternary] |
Conjunction of ternary values.
|
| conjunction [Term_logic.Constructor] |
Conjunction of two terms.
|
| conjunction [Term_constant] |
Logical conjunction.
|
| conjunction [Symbol.Primitive] | |
| connection [Smtlib_syntax] |
Application of a named logical connective to a list of arguments.
|
| constant [Term] |
A constant.
|
| constant [Smtlib_syntax] |
A symbolic constant.
|
| constant [Function] |
Constant function.
|
| constant_value [Term] | constant_value t is the value of a constant.
|
| copy [Vec] | copy v is a copy of v; the elements are shared by v and
the copy.
|
| copy [Index.Map] |
A copy of the map.
|
| copy [Bihashtbl.S] |
A copy of the given hash table.
|
| count [List_util] | count p l is the number of elements in l for which p holds.
|
| count [Id.Generator] |
The number of identifiers produced by this generator.
|
| couple [Bunch] |
A bunch with the two elements provided.
|
| create [Vec] |
Synonym for
Vec.make.
|
| create [Union_find.S] |
A new union-find data structure.
|
| create [Priority_queue] | create c is a new priority queue, where the priority among
elements is defined by the comparison function c.
|
| create [Index.PriorityQueue] |
An empty queue.
|
| create [Index.Set] |
Create an empty set in constant time.
|
| create [Index.Map2] | create n m creates a new, empty map.
|
| create [Index.Map] | create x is a new, empty map.
|
| create [Bihashtbl.S] | create n is a new, empty bijective hash table with capacity
for n entries.
|
| curry [Function] |
Curries a function.
|
D | |
| decide [Dpll_core] |
Makes an arbitrary assignment to an unassigned variable.
|
| decision_level [Dpll_core] |
The number of variables assigned arbitrarily by
Dpll_core.decide in the
current solver state.
|
| decision_level [Dl_core.T] |
The decision level of the solver.
|
| decision_level [Cc_core] |
Decision level of the solver.
|
| decision_possible [Dpll_core] |
Might further arbitrary variable assignment decisions be
attempted?
|
| declare [Symbol] | declare n a declares a new symbol with the name n and arity a
which is interpreted by some theory.
|
| declare_constant [Smtlib_syntax] | declare_constant c declares a function symbol.
|
| declare_predicate [Smtlib_syntax] | declare_predicate p declares a predicate symbol.
|
| declare_uninterpreted [Symbol] |
like
declare, but for an uninterpreted symbol
|
| default [Option] |
The value contained in an option, or a default if there is none.
|
| delete [Vec] | delete v i removes the element at position i of v, pulling
elements above down by 1.
|
| dequeue [Index.PriorityQueue] | dequeue q removes the highest priority element from q.
|
| difference [Term_logic.Constructor] |
Logical dis-equivalence of two (Boolean) terms.
|
| difference [Term_constant] |
Exclusive or.
|
| difference [Symbol.Primitive] | |
| disjunction [Ternary] |
Disjunction of ternary values.
|
| disjunction [Term_logic.Constructor] |
Disjunction of two terms.
|
| disjunction [Term_constant] |
Logical disjunction.
|
| disjunction [Symbol.Primitive] | |
| divide [Term_constant] |
Arithmetic division.
|
| divide [Symbol.Primitive] | |
| drop [Index.PriorityQueue] | drop q removes the highest priority element from q.
|
E | |
| empty [Bunch] |
An empty bunch.
|
| enqueue [Index.PriorityQueue] | enqueue q e enqueues the element e.
|
| epoch [Time] |
Dawn of processor time.
|
| epsilon [Dl_number.T] |
A small number.
|
| equal [Variable] |
Are two variables equal?
|
| equal [Util.ComparedType] |
Are two values equal?
|
| equal [Symbol] |
Are two symbols equal?
|
| equal [Id.T] |
Are two identifiers equal?
|
| equal [Dl_number.T] |
Are the numbers equal? .
|
| equal [Dl_core.L] |
Are the two literals equal?
|
| equal [Constant] |
Are two constants equal?
|
| equal [Cc_literal] | equal l m literals l and m equal (understands that
equality and disequality are commutative)?
|
| equality [Term_logic.Constructor] |
Equality of two non-Boolean terms.
|
| equality [Term_constant] |
Equality
|
| equality [Symbol.Primitive] | |
| equivalence [Term_logic.Constructor] |
Logical equivalence of two (Boolean) terms.
|
| equivalence [Term_constant] |
Logical equivalence.
|
| equivalence [Symbol.Primitive] | |
| equivalent [Union_find.S] |
Are the two elements equivalent?
|
| exists [Vec] | exists p v holds if some element of v satisfies p.
|
| exists [Subarray] | exists p a i j is true when there is a k in the range
i...
|
| exists [Bunch] | exists p b is true if p x holds for any x in b.
|
| exists [Array_util] | exists p a is true when there is some x in a p x.
|
| exists_const [Vec] | |
| exists_const [Subarray] | exists_const p x a i j is the same as Subarray.exists (p
x) a i j, only faster because applying closures is slow.
|
| exists_const [Array_util] | exists_const p x a is the same as Array_util.exists (p x)
a, only faster because applying closures is slow.
|
| exists_unique [List_util] | exists_unique p l holds when p for exactly one element of l.
|
| explain [Dl_core.T] |
Clause explaining the propagated literal.
|
| explain_conflict [Dl_core.T] |
Conflict clause.
|
| explode [Util.String] | explode "abc..." is ['a';'b';'c';...].
|
F | |
| falsity [Ternary] |
false value.
|
| falsity [Term_constant] |
Logical false.
|
| falsity [Symbol.Primitive] | |
| fast_filter [Vec] |
Like
Vec.filter, but does not preserve the order of elements.
|
| fast_filter_const [Vec] | |
| filter [Vec] | filter p v removes those elements of v not satisfying p
|
| filter [Option] |
Filter the value in an option.
|
| filter [Bunch] | filter p b is a bunch containing all elements of b that
satisfy predicate b.
|
| filter_const [Vec] | |
| filter_const [Bunch] | |
| filteri [Vec] |
Like
Vec.filter, but the predicate takes the index of the
element as the first argument.
|
| filteri_const [Vec] | |
| final_check [Cc_core] |
Determine consistency before we declare satisfiability.
|
| find [Vec] | find p v is the first element of v satisfying p.
|
| find [Symbol] | find n is the symbol declared with name n.
|
| find [Index.Map2] | find m i j is the element m maps i and j to.
|
| find [Index.Map] | find m k is the mapping for the index of k in m.
|
| find [Bihashtbl.S] | find b k is the element to which k is mapped by b.
|
| find_const [Vec] | |
| find_index [List_util] | find_index p l is the index of the first element in l that
satisfies p.
|
| find_inv [Bihashtbl.S] | find_inv b e is the key that b maps to e.
|
| first [Vec] | first p v is the index of the first element of v satisfying
p.
|
| first [Subarray] | first p v is the index of the first element of a in the
range i...
|
| first_const [Vec] | |
| first_const [Subarray] | first_const p x a i j is the same as Subarray.first (p x)
a i j, only faster because applying closures is slow.
|
| fix [Function] |
Computes the fix-point for the function transformer.
|
| flatten [Option] |
Flatten a doubly optional value.
|
| flip [Function] |
Flips the order of the first two argument.
|
| fold [Index.Set] | fold f a s applies f to an accumulated value and each
element in the set s.
|
| fold [Index.Map] | fold f a m applies f to an accumulated value and each
key-value pair in the mapping m.
|
| fold [Id.Generator] |
Fold over all identifiers produced by the generator.
|
| fold [Bunch] | fold f a b folds f over every element of b using a as an
initial value.
|
| fold [Bihashtbl.S] | fold f b a is (f kN eN ... (f k1 e1 a) ... ), where b is
a collection of entries {(k1,e1) ... (kN,eN)} ordered with
respect to Bihashtbl.S.key.
|
| fold_const [Index.Set] | |
| fold_const [Index.Map] | |
| fold_left [Vec] | fold_left f l v computes f (... (f (f l (Vec.get v i))
(Vec.get v (i+1)) ...) (Vec.get v (Vec.length v - 1)).
|
| fold_left [Util.String] | fold f a "ijk...z" is f (... (f (f a 'i') 'j') ...)
'z'.
|
| fold_left [Subarray] | fold_left f l a i j computes
f (... (f (f l a.(i)) a.(i+1)) ...) a.(j-1).
|
| fold_left_const [Vec] | |
| fold_left_const [Subarray] | fold_left_const f x l a i j is Subarray.fold_left (f x) l
a i j, only faster since applying closures is slow.
|
| fold_right [Vec] | fold_right f v r computes f (Vec.get v i) (... (f
(Vec.get v (j-2)) (f (Vec.get v (Vec.length v -
1)) r)) ...)
|
| fold_right [Util.String] | fold_right f "ijk...z" a is f 'i' (f 'j' (... (f 'z' a)
...)).
|
| fold_right [Subarray] | fold_right f a i j r computes
f a.(i) (... (f a.(j-2) (f a.(j-1) r)) ...)
|
| fold_right_const [Vec] | |
| fold_right_const [Subarray] | fold_right_const f x a i j r is Subarray.fold_right (f x)
a i j r, only faster since applying closures is slow.
|
| foldi_left [Vec] | fold_lefti f l v computes f (... (f (f l i (Vec.get v
i)) (i+1) (Vec.get v (i+1))) ...) (j-1) (Vec.get v
(Vec.length v - 1)).
|
| foldi_left [Subarray] | fold_lefti f l a i j computes
f (... (f (f l i a.(i)) (i+1) a.(i+1)) ...) (j-1) a.(j-1).
|
| foldi_left_const [Vec] | |
| foldi_left_const [Subarray] | fold_lefti f x l a i j is Subarray.foldi_left (f x) l a i
j, only faster since applying closures is slow.
|
| foldi_right [Vec] | foldi_right f v r computes f i (Vec.get v i) (... (f
(j-2) (Vec.get v (j-2)) (f (j-1) (Vec.get v
(Vec.length v - 1)) r)) ...)
|
| foldi_right [Subarray] | foldi_right f a i j r computes
f i a.(i) (... (f (j-2) a.(j-2) (f (j-1) a.(j-1) r)) ...)
|
| foldi_right_const [Vec] | foldi_right_const f x v r is Vec.foldi_right (f x) v r, only
faster since applying closures is slow.
|
| foldi_right_const [Subarray] | foldi_right_const f x a i j r is Subarray.foldi_right (f
x) a i j r, only faster since applying closures is slow.
|
| for_all [Vec] | all p v holds if every element of v satisfies p.
|
| for_all [Subarray] | for_all p a i j is true when for every k in the range
i...
|
| for_all [Bunch] | for_all p b is true if p x holds for every x in b.
|
| for_all [Array_util] | for_all p a is true when for every x in a p x.
|
| for_all_const [Vec] | |
| for_all_const [Subarray] | for_all_const p x a i j is the same as Subarray.for_all (p
x) a i j, only faster because applying closures is slow.
|
| for_all_const [Array_util] | for_all_const p x a is the same as Array_util.for_all (p
x) a, only faster because applying closures is slow.
|
| forget_some_learned_clauses [Dpll_core] |
Forget some clauses learned by the solver though conflict
analysis.
|
| formula [Smtlib_attribute] |
Formula attribute value from a collection of attributes.
|
| free_variables [Term] |
The free variables of a term.
|
| fresh [Variable] |
A fresh variable.
|
| fresh [Id.Generator] |
An identifier not previously produced by the generator.
|
| fresh_variable [Dpll_core] |
Fresh variable in the given solver.
|
| fresh_variable [Dl_core.T] |
A fresh variable for the solver.
|
| fresh_variable [Cc_core] |
A fresh variable in the given solver.
|
G | |
| get [Vec] | get v i is the ith element v.
|
| get_lemma [Dl_core.T] |
Get a lemma from the solver.
|
| get_lemma [Cc_core] |
Choose an inferred lemma that has not been chosen before.
|
| get_lemma_possible [Dl_core.T] |
Does the solver have a lemma to propagate?
|
| get_lemma_possible [Cc_core] |
Are there any lemmas waiting to be dispatched?
|
| get_literal [Dpll_core] |
Choose an interface literal assigned true in the current partial
model that has not been chosen since it was assigned.
|
| get_literal [Dl_core.T] |
Get a literal from the solver.
|
| get_literal [Cc_core] |
Choose an inferred interface literal that has not been chosen
before.
|
| get_literal_possible [Dpll_core] |
Is there an interface literal in the current partial model that
has not been dispatched by
Dpll_core.get_literal since it was
assigned?
|
| get_literal_possible [Dl_core.T] |
Does the solver have a literal to propagate?
|
| get_literal_possible [Cc_core] |
Are there any inferred interface literals waiting to be
dispatched?
|
| greater [Term_constant] |
Greater-than relation.
|
| greater [Symbol.Primitive] | |
| greater_or_equal [Term_constant] |
Greater-than-or-equal relation.
|
| greater_or_equal [Symbol.Primitive] | |
| grow [Vec] | grow v n x grows the size of v to n, filling in the newly
created slots with x.
|
| grow_init [Vec] | grow_init v n f grows the size of v to n, filling in each newly
created slots i with f i.
|
H | |
| hash [Variable] |
Hash code of a variable.
|
| hash [Util.ComparedType] |
Hash code of a value.
|
| hash [Symbol] |
Hash code of a symbol.
|
| hash [Id.T] | hash x is the hash code for x
|
| hash [Dl_number.T] |
Hash value for number.
|
| hash [Dl_core.L] |
Hash function for literals.
|
| hash [Constant] |
Hash code of a constant.
|
| head [Index.PriorityQueue] | head q is the highest priority element of q.
|
I | |
| identity [Function] |
The identity function.
|
| imbalance [Bunch] |
The worst imbalance in the internal tree representation of a
bunch.
|
| implication [Term_logic.Constructor] |
Implication of two terms.
|
| implication [Term_constant] |
Logical implication.
|
| implication [Symbol.Primitive] | |
| implode [Util.String] | implode ['a';'b';'c';...] is "abc...".
|
| inc_priority [Index.PriorityQueue] | inc_priority q e x adds x to the priority of element e.
|
| increment_level [Dl_core.T] |
Increment the decision level of the solver.
|
| increment_level [Cc_core] |
Increment decision_level.
|
| index [Index.IndexedType] |
Indexing function for objects of type
t.
|
| infer [Dpll_core] |
Attempt to infer a unit propagation or a conflict.
|
| infer [Dl_core.T] |
Attempt to make some inferences.
|
| infer [Cc_core] |
Attempt to make inferences from currently assigned literals.
|
| inference_possible [Dpll_core] |
Might an inference be made?
|
| inference_possible [Dl_core.T] |
Might the solver attempt to make an inference?
|
| inference_possible [Cc_core] |
Might an inference be made?
|
| init [Vec] | init n f is a vector with length n.
|
| initialize [Smtlib_parser] | initialize smtlib tokenizer theory_parser logic_parser
benchmark_parser initializes the combined smtlib file parser.
|
| initialized [Smtlib_parser] |
Has the parser been initialized?
|
| insert [Vec] | insert v i x inserts x into position i of v, pushing
elements at position i and above up by 1.
|
| insert [Priority_queue] | insert q e inserts element e into the priority queue q, if
it is not already a member.
|
| integer [Smtlib_syntax] | integer i is an integer constant with value i.
|
| integer [Constant] |
Arbitrary precision integer constant.
|
| integer_constant [Term] |
Integer constant.
|
| integer_value [Term] | integer_value t is the value of an integer constant.
|
| integer_value [Constant] | integer_value c is the integer value of c.
|
| interpreted [Symbol] | |
| invalid [Id.T] |
A distinguished invalid identifier, useful for dummy values.
|
| invalid_literal [Cc_literal] |
An invalid literal.
|
| inverse [Index.IndexedType] | inverse i is the x such that index x = i.
|
| is_abstraction [Term] |
Is a term an abstraction?
|
| is_application [Term] |
Is a term an application?
|
| is_boolean_constant [Term_constant] | |
| is_constant [Term] |
Is the term a constant?
|
| is_decided [Dpll_core] |
Has the literal been assigned by arbitrary decision?
|
| is_empty [Vec] | |
| is_empty [Priority_queue] | is_empty q holds if and only if the queue q is empty.
|
| is_empty [Index.PriorityQueue] | is_empty q is true iff there are no elements enqueued in q.
|
| is_empty [Index.Set] |
Is a set empty?
|
| is_empty [Index.Map] | is_empty m holds if the map is empty.
|
| is_empty [Bunch] |
Is a bunch empty?
|
| is_inferred [Dpll_core] |
Has the literal been inferred by unit propagation?
|
| is_inferred [Cc_core] |
Can the solver produce an explanation for a literal?
|
| is_integer [Constant] |
Is a constant an integer value?
|
| is_integer_constant [Term] |
Is a term an integer constant.
|
| is_interface_variable [Dpll_core] |
Is the variable an interface_variable?
|
| is_literal [Term_literal] |
Holds when a term is a variable or the negation of a variable.
|
| is_logical_constant [Term_constant] | |
| is_none [Option] |
Does an option contain no value?
|
| is_number [Dl_number.T] |
Does the term represent a number?
|
| is_positive [Term_literal] | is_positive l holds if the literal term t is positive.
|
| is_positive [Dpll_literal] | is_positive l is true when l is a literal positive.
|
| is_rational [Constant] |
Is a constant a rational value
|
| is_rational_constant [Term] |
Is a term a rational constant.
|
| is_representative [Union_find.S] |
Is the element the representative for its class?
|
| is_some [Option] |
Does an option contain a value?
|
| is_symbolic [Constant] |
Is a constant symbolic?.
|
| is_symbolic_constant [Term] |
Is a term a symbolic constant.
|
| is_true [Dpll_core] |
Is the literal assigned true?
|
| is_true [Dl_core.T] |
Is the literal true in the current state of the solver?
|
| is_true [Cc_core] |
Is the literal assigned true in the solver state?
|
| is_valid [Id.T] |
Is an identifier valid?
|
| is_valid_literal [Cc_literal] |
Is a literal valid.
|
| is_variable [Term] |
Is the term a variable?
|
| ite [Term_logic.Constructor] |
Conditional expression: Boolean condition, non-Boolean alternatives.
|
| ite [Term_constant] |
If-then-else
|
| ite [Symbol.Primitive] | |
| iter [Vec] | iter c v evaluates c on each element of v.
|
| iter [Subarray] | iter c a i j evaluates c a.(k) for each k in the range
i...
|
| iter [Index.Set] | iter c s applies c to all elements of s.
|
| iter [Index.Map] | iter f m applies f to all mappings in m.
|
| iter [Id.Generator] |
Iterate over all identifiers produced by the generator.
|
| iter [Bunch] | iter f b evaluates f on all the elements of b.
|
| iter [Bihashtbl.S] | iter c t applies c to every entry in b.
|
| iter_const [Vec] | |
| iter_const [Subarray] | |
| iter_const [Index.Set] | |
| iter_const [Index.Map] | |
| iter_const [Bunch] | |
| iter_pairwise [List_util] | iter_pairwise f l applies f to all pairs (a,b) such
that a occurs in l and b occurs after a in l.
|
| iteri [Vec] |
Like
Vec.iter, but the command takes the index of the element
as the first argument
|
| iteri [Subarray] | iter c a i j evaluates c k a.(k) for each k in the range
i...
|
| iteri_const [Vec] | |
| iteri_const [Subarray] | |
J | |
| join [Bunch] |
The constant time union of two bunches.
|
K | |
| k [Term_constant] |
Constant function constructor.
|
| k [Symbol.Primitive] | |
L | |
| length [Vec] | length v is the number of elements in v.
|
| length [Index.PriorityQueue] | length q is the number of elements in the queue.
|
| length [Bihashtbl.S] |
Number of entries in a bijective hash table.
|
| less [Term_constant] |
Less-than relation.
|
| less [Symbol.Primitive] | |
| less_or_equal [Term_constant] |
Less-than-or-equal relation.
|
| less_or_equal [Symbol.Primitive] | |
| level [Dpll_core] |
The decision level at which a literal was assigned.
|
| limit [Vec] |
Maximum number of elements possible in this vector.
|
| limit_for [Vec] | limit_for x is the maximum number of elements of the same type
as x that may be stored in a vector.
|
| literal [Term_literal] | literal v is the positive literal term with variable v.
|
| literal [Dpll_literal] | literal v is the positive literal corresponding to variable v.
|
| literal_explanation [Cc_core] |
An explanation clause for an assigned interface literal.
|
| literal_to_explain [Dpll_core] |
Returns the next conflict literal to explain for conflict
resolution.
|
| local_flet [Smtlib_syntax] |
Local binding of a formula variable.
|
| local_let [Smtlib_syntax] |
Local binding of an expression variable.
|
| log [Variable] | log level c is equivalent to
Log.log level pp_print c
|
| log [Log] | Log.log print level x outputs x using print, if
level <= current log level
|
| log [Dl_number.T] |
Output the number to the log.
|
| log [Constant] | log level c is equivalent to
Log.log level pp_print c
|
| log_bool [Log] | Log.log_bool level b logs b, if level <= current log level
|
| log_float [Log] | Log.log_float level j logs j, if level <= current log level
|
| log_flush [Log] | Log.log_flush level () flushes the log output, if level
<= current log level
|
| log_int [Log] | Log.log_int level i logs i, if level <= current log level
|
| log_newline [Log] | Log.log_newline level () outputs a new line and flushes
the log output, if level <= current log level
|
| log_string [Log] | Log.log_string level s logs s, if level <= current log level
|
| log_term [Term] | log_term level tm is equivalent to
Log.log level pp_print_term tm
|
| log_time [Log] | Log.log_time level t logs seconds of processor time since
t, if level <= current log level
|
| logic [Smtlib_attribute] |
The logic attribute of a collection of attributes.
|
M | |
| make [Vec] | make n x is a vector of length n, with each element equal to
x.
|
| map [Option] |
Map a function over the value in an option.
|
| map [Bunch] | map f a maps every element of a using f.
|
| mem [Vec] | mem x v holds if x is an element of v.
|
| mem [Subarray] | mem x a i j is true when there is a k in the range
i...
|
| mem [Index.PriorityQueue] | mem q e is true iff e is enqueued in q.
|
| mem [Index.Set] |
Determine whether element is a member of the set in constant time.
|
| mem [Index.Map2] | mem m i j if m maps the keys i and j to some value.
|
| mem [Index.Map] | mem m k is true iff there is a mapping for index k in m,
i.e.
|
| mem [Bihashtbl.S] | mem b k holds when there is an entry for k in b.
|
| mem [Array_util] | mem x a is true when x is an element of a
|
| mem_inv [Bihashtbl.S] | mem_inv b e holds when an entry in b maps some key to e.
|
| members [Union_find.S] | members s x is the bunch of all elements in the class of x.
|
| minus [Term_constant] |
Arithmetic subtraction.
|
| minus [Symbol.Primitive] | |
| mk_array [Term_constant] |
Array constants
|
| mk_array [Symbol.Primitive] | |
| model [Dpll_core] |
A model satisfying the problem.
|
| modify [Vec] | modify f v replaces each element of v with f of that element.
|
| modify [Subarray] | modify f a i j sets a.(k) to f a.(k) for each k in the
range i...
|
| modify [Index.Map] | modify f m modifies a map so that each index maps to f of its
prior value.
|
| modify_const [Vec] | |
| modify_const [Subarray] | modify_const f x a i j is Subarray.modify (f x) a i j,
only faster because applying closures is slow.
|
| modify_const [Index.Map] | modify_const f x v is modify (f x) v, only faster since applying
closures is slow.
|
N | |
| name [Smtlib_attribute] |
The name attribute of a collection of attributes.
|
| name_declared [Symbol] | name_declared n is true when a symbol has been declared with name n.
|
| named [Variable] | named n variable with the name n.
|
| nary_abstraction [Term] | nary_abstraction [v0, ... ,vn] tm is \v0. ... \vn.tm.
|
| nary_application [Term] | nary_application f args is equivalent to List.fold_left
application f args.
|
| nary_application_decomposition [Term] |
Decompose a term to yield a function and a list of arguments.
|
| negation [Ternary] |
Negation of a ternary.
|
| negation [Term_logic.Constructor] |
Negation of a term.
|
| negation [Term_literal] |
Negation of a term literal.
|
| negation [Term_constant] |
Logical negation.
|
| negation [Symbol.Primitive] | |
| negation [Dpll_literal] | negation l is the negation of literal l.
|
| negation [Dl_core.T] |
The negation of the literal.
|
| negation [Cc_literal] | negation l is the nation of l.
|
| new_generator [Id.Generator] |
A new fresh identifier generator.
|
| new_solver [Dpll_core] |
New DPLL solver.
|
| new_solver [Dl_core.T] |
A new solver for difference logic over nums.
|
| new_solver [Cc_core] |
A new solver.
|
| now [Time] |
Current processor time.
|
| num_clauses [Dpll_core] |
Number of added clauses that are tracked in current state.
|
| num_conflicts [Dpll_core] |
Number of conflicts encountered.
|
| num_decisions [Dpll_core] |
Number of arbitrary variable assignment ever tried.
|
| num_externally_set [Dpll_core] |
Number of variable assignments ever made by
Dpll_core.set_literal.
|
| num_inferences [Dpll_core] |
Number of variable assignment ever made by unit propagation.
|
| num_learneds [Dpll_core] |
Number of clauses learned through conflict analysis in current
state.
|
| num_vars [Dpll_core] |
Number of variables created.
|
| number [Dl_number.T] |
The number represented by term.
|
O | |
| of_array [Vec] | of_array a is a vector with the elements of a.
|
| of_list [Vec] | of_list l is a vector of the elements of l in their
positional order.
|
| of_list [Bunch] |
A bunch with all the elements in the list.
|
P | |
| parse_benchmark [Smtlib_parser] | parse_logic path parses the SMT-LIB benchmark file at the
specified path and returns the attributes of benchmark.
|
| parse_logic [Smtlib_parser] | parse_logic path parses the SMT-LIB logic file at the
specified path and returns the attributes of logic.
|
| parse_theory [Smtlib_parser] | parse_theory path parses the SMT-LIB theory file at the
specified path and returns the attributes of theory.
|
| partition [Bunch] | partition p b is a pair of bunches (b1, b2) such that b1
contains all elements of b that satisfy predicate b, and
b2 contains the rest.
|
| partition_const [Bunch] | |
| perform [Option] |
Perform a command on the value in an option.
|
| plus [Term_constant] |
Arithmetic addition.
|
| plus [Symbol.Primitive] | |
| pop [Vec] | pop v removes the last element of v.
|
| pop [Priority_queue] | pop q removes the highest priority from the queue q.
|
| potential [Dl_core.T] |
The (negation of) the value assignment to variables in the
current model.
|
| pp_compact_print_term [Term] |
Pretty-print a term, compactly by defining local lets to avoid
repetitiously printing shared sub-terms.
|
| pp_print [Variable] |
Print a variable.
|
| pp_print [Symbol] |
Pretty print a symbol.
|
| pp_print [Constant] |
Print a constant.
|
| pp_print_list [List_util] |
Given a function for printing a list element and a function for
printing a list element seperater, print a list.
|
| pp_print_term [Term] |
Pretty-print a term.
|
| predicate [Smtlib_syntax] |
Application of a named predicate to a list of arguments.
|
| prefix [Util.String] | prefix s0 s1 holds if s0 is a prefix of s1.
|
| print [Dl_number.T] |
Prints the number.
|
| print_term [Term] |
Print a term using
std_formatter.
|
| priority [Index.PriorityQueue] |
The priority of an element.
|
| promote [Priority_queue] | promote q e reorganizes the priority queue q to take into
account the newly raised priority of element e.
|
| proxy_app [Cc_core] | proxy_app s f x returns a proxy y for the application
of f to x.
|
| proxy_k [Cc_core] | proxy_k s x returns a proxy a for the constant function
evaluating to x.
|
| proxy_u [Cc_core] | proxy_u s a i x returns a proxy b for the update of a at
i with x .
|
| push [Vec] | push v x extends the length of the v by 1.
|
Q | |
| quantification [Smtlib_syntax] |
A named quantification over a list of variables.
|
R | |
| rational [Smtlib_syntax] | rational r creates a rational constant with value r.
|
| rational [Constant] |
Arbitrary precision rational constant.
|
| rational_constant [Term] |
Arbitrary precision rational constant.
|
| rational_value [Term] | rational_value t is the value of a rational constant.
|
| rational_value [Constant] | rational_value c is the rational value of c.
|
| reduce [Equality_propagation] | |
| remove [Index.Set] | remove s e removes element e from the set s in constant time.
|
| remove [Index.Map2] | remove m i j removes any value associated with i and j by m.
|
| remove_elt [Bihashtbl.S] | remove_key b y removes any entry that maps to the element
e from b.
|
| remove_key [Bihashtbl.S] | remove_key b k removes any entry that maps the key k from
b.
|
| remove_sorted_duplicates [List_util] |
A list sorted in ascending order according to a comparison
function, with duplicate elements removed.
|
| replace [Index.Map] | replace m k x updates m by mapping the index of k to x.
|
| replace [Bihashtbl.S] | replace b k e updates the entries in b so that k is
mapped to e.
|
| representative [Union_find.S] |
A representative for the class containing the element.
|
| restart [Dpll_core] |
Undo all arbitrary variable assignment decisions.
|
| restart [Cc_core] |
Backjumps to level 0 if not already there.
|
| rev [Vec] | rev v reverses the order of elements in v.
|
| rev [Subarray] | rev a i j reverses the order of the elements in the range i...
|
| rewrite [Term_logic.Rewriter] |
A term transformation.
|
S | |
| satisfied [Dpll_core] |
Has the solver deduced that the current model is a satisfying
assignment for every variable?
|
| scale [Index.PriorityQueue] | scale q x multiplies the priority of every element by the constant
factor x.
|
| select [Term_constant] |
Array select.
|
| select [Symbol.Primitive] | |
| set [Vec] | set v i x stores x as element i of v.
|
| set [Index.Map2] | set m i j x modifies m by mapping the keys i and j to x.
|
| set_all [Vec] | set_all v i j x stores x in elements i...
|
| set_all [Subarray] | set_all a i j x sets all the elements in the range i...
|
| set_all [Index.Map] | set_all m x updates m by mapping every key to x.
|
| set_conflict_clause [Dpll_core] | set_conflict_clause ls initializes the conflict clause with
the disjoined literals.
|
| set_fun [Subarray] | set_fun a i j f sets each element k in the range i...
|
| set_literal [Dpll_core] |
Attempt to make a variable assignment inferred by an external
agent.
|
| set_literal [Dl_core.T] |
Add a literal assertion to the solver.
|
| set_literal [Cc_core] |
Make a literal assignment obtained from another solver.
|
| set_literal_explanation [Dpll_core] | set_literal_explanation s ls removes Dpll_core.literal_to_explain
from the set of conflict literals using the provided explanation
ls.
|
| set_log_formatter [Log] |
Set the output destination for messages
|
| set_log_level [Log] |
Set current log level
|
| shrink [Vec] | shrink v n shrinks the size of v to n.
|
| since [Time] | since t () is user processor time, in seconds, elapsed since
t.
|
| singleton [Bunch] |
A singleton bunch.
|
| size [Index.Set] |
Cardinality of the set.
|
| size [Index.Map] | size m is the number of indices mapped by m.
|
| size [Bunch] |
Number of elements in a bunch.
|
| smtlib_logic_file [Smtlib_parser] | smtlib_logic_file name is the path to the SMT-LIB logic file
describing the logic called name.
|
| smtlib_theory_file [Smtlib_parser] | smtlib_theory_file name is the path to the SMT-LIB theory file
describing the theory called name.
|
| sort [Vec] | sort c v sorts elements of v in ascending order as defined by
the comparison function c.
|
| sort [Subarray] | sort c a i j sorts elements of a in the range i...
|
| stable_sort [Vec] | stable_sort c v sorts elements of v in ascending order as
defined by the comparison function c.
|
| stable_sort [Subarray] | stable_sort c a i j sorts elements of a in the range
i...
|
| status [Smtlib_attribute] |
The status attribute of a collection of attributes.
|
| store [Term_constant] |
Array store.
|
| store [Symbol.Primitive] | |
| string_of [Variable] |
string representation of a variable.
|
| string_of [Constant] |
String representation of a constant.
|
| string_of_symbol [Symbol] |
String representation (name) of a symbol.
|
| string_of_term [Term] |
String representation of term.
|
| subtract [Dl_number.T] |
Numeric subtraction.
|
| swap [Vec] | swap v i j swaps the elements at positions i and j of v.
|
| swap [Subarray] | swap a i j swaps the elements at positions i and j of a.
|
| swap_out [Vec] | swap_out v i replaces the element at position i of v with
the last element of v, and decreases the length of v by 1.
|
| symbolic [Constant] |
A symbolic constant.
|
| symbolic_constant [Term] |
A symbolic constant.
|
| symbolic_value [Term] | symbolic_value t is the value of a symbolic constant.
|
| symbolic_value [Constant] | symbolic_value c is the symbol underlying a symbolic constant.
|
T | |
| term_compare [Term] |
An arbitrary ordering on terms.
|
| term_equal [Term] |
Are two terms equal?
|
| term_hash [Term] |
A hash key for the term.
|
| ternary_application [Term] | ternary_application f x y z is equivalent to application
(application (application f x) y) z.
|
| ternary_of_bool [Ternary] |
Injection of a regular boolean into a ternary boolean.
|
| times [Term_constant] |
Arithmetic multiplication.
|
| times [Symbol.Primitive] | |
| to_array [Vec] | to_array v is an array with the elements of v.
|
| to_list [Vec] | to_list v is a list of the elements of v in their
positional order.
|
| to_list [Bunch] |
A list of all elements in the bunch.
|
| token [Smtlib_lexer] |
Match the next token in the lexing buffer.
|
| top [Vec] | top v is the last element of v.
|
| transform [Rational_num] | |
| transform [Ite_removal] | |
| truth [Ternary] |
true value.
|
| truth [Term_constant] |
Logical true.
|
| truth [Symbol.Primitive] | |
U | |
| unary_minus [Term_constant] |
Arithmetic unary minus.
|
| unary_minus [Symbol.Primitive] | |
| unary_minus [Dl_number.T] |
Numeric unary minus.
|
| uncurry [Function] |
Uncurry a function.
|
| uninterpret [Term] | uninterpret p tbl tm replaces "uninterpreted constants",
i.e.
|
| union [Union_find.S] | union s x y merges the equivalence classes for x and y.
|
| unknown [Ternary] |
unknown value.
|
| unsatisfiable [Dpll_core] |
Has the solver deduced that the problem is unsatisfiable?
|
| until [Function] | until p f x applies f repeatedly, starting with x,
until the predicate p evaluates to true.
|
| update [Term_constant] |
Function update operator.
|
| update [Symbol.Primitive] | |
V | |
| v [Dl_number.Integral_value] | |
| value [Option] |
The value contained in an option.
|
| variable [Term_literal] | variable l is the variable contained in a literal term.
|
| variable [Term] |
A variable.
|
| variable [Smtlib_syntax] |
A variable.
|
| variable [Dpll_literal] | variable l is the variable in literal l.
|
| variant [Variable] | variant avoid v is a variable with a name that of v, but not
occurring in avoid.
|
Z | |
| zero [Dl_number.T] |
The representation of zero.
|