module Typer = struct open Trace open Ast_typed module Errors = struct let wrong_param_number = fun name expected got -> let title () = "wrong number of params" in let full () = Format.asprintf "constant name: %s\nexpected: %d\ngot: %d\n" name expected (List.length got) in error title full let error_uncomparable_types a b () = let title () = "these types are not comparable" in let message () = "" in let data = [ ("a" , fun () -> Format.asprintf "%a" PP.type_value a) ; ("b" , fun () -> Format.asprintf "%a" PP.type_value b ) ] in error ~data title message () end open Errors type type_result = string * type_value type typer' = type_value list -> type_value option -> type_result result type typer = string * typer' let typer'_0 : name -> (type_value option -> type_value result) -> typer' = fun s f lst tv_opt -> match lst with | [] -> ( let%bind tv' = f tv_opt in ok (s , tv') ) | _ -> fail @@ wrong_param_number s 0 lst let typer_0 name f : typer = (name , typer'_0 name f) let typer'_1 : name -> (type_value -> type_value result) -> typer' = fun s f lst _ -> match lst with | [ a ] -> ( let%bind tv' = f a in ok (s , tv') ) | _ -> fail @@ wrong_param_number s 1 lst let typer_1 name f : typer = (name , typer'_1 name f) let typer'_1_opt : name -> (type_value -> type_value option -> type_value result) -> typer' = fun s f lst tv_opt -> match lst with | [ a ] -> ( let%bind tv' = f a tv_opt in ok (s , tv') ) | _ -> fail @@ wrong_param_number s 1 lst let typer_1_opt name f : typer = (name , typer'_1_opt name f) let typer'_2 : name -> (type_value -> type_value -> type_value result) -> typer' = fun s f lst _ -> match lst with | [ a ; b ] -> ( let%bind tv' = f a b in ok (s , tv') ) | _ -> fail @@ wrong_param_number s 2 lst let typer_2 name f : typer = (name , typer'_2 name f) let typer'_3 : name -> (type_value -> type_value -> type_value -> type_value result) -> typer' = fun s f lst _ -> match lst with | [ a ; b ; c ] -> ( let%bind tv' = f a b c in ok (s , tv') ) | _ -> fail @@ wrong_param_number s 3 lst let typer_3 name f : typer = (name , typer'_3 name f) let typer'_4 : name -> (type_value -> type_value -> type_value -> type_value -> type_value result) -> typer' = fun s f lst _ -> match lst with | [ a ; b ; c ; d ] -> ( let%bind tv' = f a b c d in ok (s , tv') ) | _ -> fail @@ wrong_param_number s 4 lst let typer_4 name f : typer = (name , typer'_4 name f) let typer'_5 : name -> (type_value -> type_value -> type_value -> type_value -> type_value -> type_value result) -> typer' = fun s f lst _ -> match lst with | [ a ; b ; c ; d ; e ] -> ( let%bind tv' = f a b c d e in ok (s , tv') ) | _ -> fail @@ wrong_param_number s 5 lst let typer_5 name f : typer = (name , typer'_5 name f) let typer'_6 : name -> (type_value -> type_value -> type_value -> type_value -> type_value -> type_value -> type_value result) -> typer' = fun s f lst _ -> match lst with | [ a ; b ; c ; d ; e ; f_ ] -> ( let%bind tv' = f a b c d e f_ in ok (s , tv') ) | _ -> fail @@ wrong_param_number s 6 lst let typer_6 name f : typer = (name , typer'_6 name f) let constant name cst = typer_0 name (fun _ -> ok cst) open Combinators let eq_1 a cst = type_value_eq (a , cst) let eq_2 (a , b) cst = type_value_eq (a , cst) && type_value_eq (b , cst) let assert_eq_1 a b = Assert.assert_true (eq_1 a b) let comparator : string -> typer = fun s -> typer_2 s @@ fun a b -> let%bind () = trace_strong (error_uncomparable_types a b) @@ Assert.assert_true @@ List.exists (eq_2 (a , b)) [ t_int () ; t_nat () ; t_tez () ; t_string () ; t_bytes () ; t_address () ; t_timestamp () ; ] in ok @@ t_bool () let boolean_operator_2 : string -> typer = fun s -> typer_2 s @@ fun a b -> let%bind () = trace_strong (simple_error "A isn't of type bool") @@ Assert.assert_true @@ type_value_eq (t_bool () , a) in let%bind () = trace_strong (simple_error "B isn't of type bool") @@ Assert.assert_true @@ type_value_eq (t_bool () , b) in ok @@ t_bool () end module Compiler = struct open Tezos_utils.Michelson type predicate = | Constant of michelson | Unary of michelson | Binary of michelson | Ternary of michelson | Tetrary of michelson | Pentary of michelson | Hexary of michelson let simple_constant c = Constant c let simple_unary c = Unary c let simple_binary c = Binary c let simple_ternary c = Ternary c let simple_tetrary c = Tetrary c let simple_pentary c = Pentary c let simple_hexary c = Hexary c end