(************************************************************************) (* v * The Coq Proof Assistant / The Coq Development Team *) (* named_context -> named_context val vars_of_named_context : named_context -> identifier list val lookup_named : identifier -> named_context -> named_declaration (* number of declarations *) val named_context_length : named_context -> int (*s Recurrence on [named_context]: older declarations processed first *) val fold_named_context : (named_declaration -> 'a -> 'a) -> named_context -> init:'a -> 'a (* newer declarations first *) val fold_named_context_reverse : ('a -> named_declaration -> 'a) -> init:'a -> named_context -> 'a (*s Section-related auxiliary functions *) val instance_from_named_context : named_context -> constr array (*s Signatures of ordered optionally named variables, intended to be accessed by de Bruijn indices *) (* In [rel_context], more recent declaration is on top *) type rel_context = rel_declaration list val empty_rel_context : rel_context val add_rel_decl : rel_declaration -> rel_context -> rel_context val lookup_rel : int -> rel_context -> rel_declaration val rel_context_length : rel_context -> int val rel_context_nhyps : rel_context -> int val push_named_to_rel_context : named_context -> rel_context -> rel_context (*s Recurrence on [rel_context]: older declarations processed first *) val fold_rel_context : (rel_declaration -> 'a -> 'a) -> rel_context -> init:'a -> 'a (* newer declarations first *) val fold_rel_context_reverse : ('a -> rel_declaration -> 'a) -> init:'a -> rel_context -> 'a (*s Map function of [rel_context] *) val map_rel_context : (constr -> constr) -> rel_context -> rel_context (*s Map function of [named_context] *) val map_named_context : (constr -> constr) -> named_context -> named_context (*s Map function of [rel_context] *) val iter_rel_context : (constr -> unit) -> rel_context -> unit (*s Map function of [named_context] *) val iter_named_context : (constr -> unit) -> named_context -> unit (*s Term constructors *) val it_mkLambda_or_LetIn : constr -> rel_context -> constr val it_mkProd_or_LetIn : types -> rel_context -> types (*s Term destructors *) (* Destructs a term of the form $(x_1:T_1)..(x_n:T_n)s$ into the pair *) type arity = rel_context * sorts val destArity : types -> arity val mkArity : arity -> types val isArity : types -> bool (* Transforms a product term $(x_1:T_1)..(x_n:T_n)T$ including letins into the pair $([(x_n,T_n);...;(x_1,T_1)],T)$, where $T$ is not a product nor a let. *) val decompose_prod_assum : types -> rel_context * types (* Transforms a lambda term $[x_1:T_1]..[x_n:T_n]T$ including letins into the pair $([(x_n,T_n);...;(x_1,T_1)],T)$, where $T$ is not a lambda nor a let. *) val decompose_lam_assum : constr -> rel_context * constr (* Given a positive integer n, transforms a product term $(x_1:T_1)..(x_n:T_n)T$ into the pair $([(xn,Tn);...;(x1,T1)],T)$. *) val decompose_prod_n_assum : int -> types -> rel_context * types (* Given a positive integer $n$, transforms a lambda term $[x_1:T_1]..[x_n:T_n]T$ into the pair $([(x_n,T_n);...;(x_1,T_1)],T)$ *) val decompose_lam_n_assum : int -> constr -> rel_context * constr