package catala
Compiler and library for the literate programming language for tax code specification
Install
Dune Dependency
Authors
Maintainers
Sources
0.8.0.tar.gz
md5=1408a1cce45c7d5990b981e83e7589c2
sha512=eb3b923aa1f743378b4a05e30f50be5d180dc862a716270d747a90e469017f42fa5fc41352f02fbbf59cd2560f91c4f1b32cf38d80085b105d9387b0aed2039d
doc/src/catala.lcalc/compile_with_exceptions.ml.html
Source file compile_with_exceptions.ml
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(* This file is part of the Catala compiler, a specification language for tax and social benefits computation rules. Copyright (C) 2020 Inria, contributor: Denis Merigoux <denis.merigoux@inria.fr> Licensed under the Apache License, Version 2.0 (the "License"); you may not use this file except in compliance with the License. You may obtain a copy of the License at http://www.apache.org/licenses/LICENSE-2.0 Unless required by applicable law or agreed to in writing, software distributed under the License is distributed on an "AS IS" BASIS, WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied. See the License for the specific language governing permissions and limitations under the License. *) open Catala_utils open Shared_ast module D = Dcalc.Ast module A = Ast type 'm ctx = unit (** This translation no longer needs a context at the moment, but we keep passing the argument through the functions in case the need arises with further evolutions. *) let thunk_expr (type m) (e : m A.expr boxed) : m A.expr boxed = let dummy_var = Var.make "_" in let pos = Expr.pos e in let arg_t = Marked.mark pos (TLit TUnit) in Expr.make_abs [| dummy_var |] e [arg_t] pos let translate_var : 'm D.expr Var.t -> 'm A.expr Var.t = Var.translate let rec translate_default (ctx : 'm ctx) (exceptions : 'm D.expr list) (just : 'm D.expr) (cons : 'm D.expr) (mark_default : 'm mark) : 'm A.expr boxed = let exceptions = List.map (fun except -> thunk_expr (translate_expr ctx except)) exceptions in let pos = Expr.mark_pos mark_default in let exceptions = Expr.make_app (Expr.make_var (Var.translate A.handle_default) (Expr.with_ty mark_default (Marked.mark pos TAny))) [ Expr.earray exceptions mark_default; thunk_expr (translate_expr ctx just); thunk_expr (translate_expr ctx cons); ] pos in exceptions and translate_expr (ctx : 'm ctx) (e : 'm D.expr) : 'm A.expr boxed = let m = Marked.get_mark e in match Marked.unmark e with | EVar v -> Expr.make_var (translate_var v) m | EStruct { name; fields } -> Expr.estruct name (StructField.Map.map (translate_expr ctx) fields) m | EStructAccess { name; e; field } -> Expr.estructaccess (translate_expr ctx e) field name m | ETuple es -> Expr.etuple (List.map (translate_expr ctx) es) m | ETupleAccess { e; index; size } -> Expr.etupleaccess (translate_expr ctx e) index size m | EInj { name; e; cons } -> Expr.einj (translate_expr ctx e) cons name m | EMatch { name; e; cases } -> Expr.ematch (translate_expr ctx e) name (EnumConstructor.Map.map (translate_expr ctx) cases) m | EArray es -> Expr.earray (List.map (translate_expr ctx) es) m | ELit ((LBool _ | LInt _ | LRat _ | LMoney _ | LUnit | LDate _ | LDuration _) as l) -> Expr.elit l m | ELit LEmptyError -> Expr.eraise EmptyError m | EOp { op; tys } -> Expr.eop (Operator.translate op) tys m | EIfThenElse { cond; etrue; efalse } -> Expr.eifthenelse (translate_expr ctx cond) (translate_expr ctx etrue) (translate_expr ctx efalse) m | EAssert e1 -> Expr.eassert (translate_expr ctx e1) m | EErrorOnEmpty arg -> Expr.ecatch (translate_expr ctx arg) EmptyError (Expr.eraise NoValueProvided m) m | EApp { f; args } -> Expr.eapp (translate_expr ctx f) (List.map (translate_expr ctx) args) (Marked.get_mark e) | EAbs { binder; tys } -> let vars, body = Bindlib.unmbind binder in let new_body = translate_expr ctx body in let new_binder = Expr.bind (Array.map translate_var vars) new_body in Expr.eabs new_binder tys (Marked.get_mark e) | EDefault { excepts = [exn]; just; cons } when !Cli.optimize_flag -> (* FIXME: bad place to rely on a global flag *) Expr.ecatch (translate_expr ctx exn) EmptyError (Expr.eifthenelse (translate_expr ctx just) (translate_expr ctx cons) (Expr.eraise EmptyError (Marked.get_mark e)) (Marked.get_mark e)) (Marked.get_mark e) | EDefault { excepts; just; cons } -> translate_default ctx excepts just cons (Marked.get_mark e) let rec translate_scope_lets (decl_ctx : decl_ctx) (ctx : 'm ctx) (scope_lets : 'm D.expr scope_body_expr) : 'm A.expr scope_body_expr Bindlib.box = match scope_lets with | Result e -> Bindlib.box_apply (fun e -> Result e) (Expr.Box.lift (translate_expr ctx e)) | ScopeLet scope_let -> let scope_let_var, scope_let_next = Bindlib.unbind scope_let.scope_let_next in let new_scope_let_expr = translate_expr ctx scope_let.scope_let_expr in let new_scope_next = translate_scope_lets decl_ctx ctx scope_let_next in let new_scope_next = Bindlib.bind_var (translate_var scope_let_var) new_scope_next in Bindlib.box_apply2 (fun new_scope_next new_scope_let_expr -> ScopeLet { scope_let_typ = scope_let.scope_let_typ; scope_let_kind = scope_let.scope_let_kind; scope_let_pos = scope_let.scope_let_pos; scope_let_next = new_scope_next; scope_let_expr = new_scope_let_expr; }) new_scope_next (Expr.Box.lift new_scope_let_expr) let translate_items (decl_ctx : decl_ctx) (ctx : 'm ctx) (scopes : 'm D.expr code_item_list) : 'm A.expr code_item_list Bindlib.box = Scope.map_ctx ~f: (fun ctx -> function | Topdef (name, ty, e) -> ( ctx, Bindlib.box_apply (fun e -> Topdef (name, ty, e)) (Expr.Box.lift (translate_expr ctx e)) ) | ScopeDef (name, body) -> let scope_input_var, body_expr = Bindlib.unbind body.scope_body_expr in let new_scope_body_expr = translate_scope_lets decl_ctx ctx body_expr in let new_body = Bindlib.bind_var (translate_var scope_input_var) new_scope_body_expr in ( ctx, Bindlib.box_apply (fun scope_body_expr -> ScopeDef (name, { body with scope_body_expr })) new_body )) ~varf:translate_var ctx scopes let translate_program (prgm : 'm D.program) : 'm A.program = { code_items = Bindlib.unbox (translate_items prgm.decl_ctx () prgm.code_items); decl_ctx = prgm.decl_ctx; }
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