package sarek
GPGPU kernel DSL for OCaml
Install
Dune Dependency
Authors
Maintainers
Sources
spoc_ppx-20210823.tbz
sha256=bdb247f51bce29609c0a6d7155a2f180b26cb7388489cf21961b4d6754a0eb03
sha512=1cdb37b214e06a32436d23308c4555f6ddefcd4674d73964faa4bb184f843c477c95ef719b8794ead32d12b1ee6a5b5541683ec76ab9e6b1c2e3f3d7371ba41c
doc/src/sarek.internal_kernels/gen_caml.ml.html
Source file gen_caml.ml
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open Camlp4.PreCast open Syntax open Ast open Sarek_types open Debug let rec parse_int i t= match i.e with | Id (_loc,s) -> ( let is_mutable = ref false in ( try let var = (* Id of a variable *) Hashtbl.find !current_args (string_of_ident s) in ( is_mutable := var.is_mutable; match var.var_type with | TUnknown -> var.var_type <- t | x when x = t -> () | _ -> assert (not debug); raise (TypeError (t, var.var_type, _loc))); with Not_found -> ( try (* Id of a Sarek intrinsic *) let c_const = Hashtbl.find !intrinsics_const (string_of_ident s) in (match c_const.typ with | x when x = t -> () | _ -> assert (not debug); raise (TypeError (t, c_const.typ, _loc))) with Not_found -> (assert (not debug); raise (Unbound_value ((string_of_ident s), _loc))))); (match i.t with | x when x = t -> () | TUnknown -> i.t <- t; | _ -> assert (not debug); raise (TypeError (t, i.t, i.loc))); if !is_mutable then <:expr< $(ExId (_loc, s))$.contents>> else <:expr< $(ExId (_loc, s))$>>) | Int (_loc, s) -> ( match i.t with | TInt32 -> <:expr< $(ExInt (_loc, s))$>> | _ -> assert (not debug); raise (TypeError (t, i.t, i.loc))) | Int32 (_loc, s) -> ( match i.t with | TInt32 -> <:expr< $(ExInt32 (_loc, s))$>> | _ -> assert (not debug); raise (TypeError (t, i.t, i.loc))) | Int64 (_loc, s) -> ( match i.t with | TInt64 -> <:expr< $(ExInt64 (_loc, s))$>> | _ -> assert (not debug); raise (TypeError (t, i.t, i.loc))) | Plus32 _ | Plus64 _ | Min32 _ | Min64 _ | Mul32 _ | Mul64 _ | Div32 _ | Div64 _ | Mod _ -> parse_body i | Bind (_loc, var,y, z, is_mutable) -> ( let gen_z = parse_int z t in match var.e with | Id (_loc,s) -> (<:expr<let $PaId(_loc,s)$ = $(parse_body y)$ in $gen_z$>>) | _ -> failwith "error parse_body Bind") | Ref (_loc, id) -> <:expr< ! $parse_body id$>> | VecGet (_loc, vector, index) -> ( match i.t with | x when x = t -> () | x when x = TUnknown -> i.t <- TVec t | _ -> assert (not debug); raise (TypeError (t, i.t , _loc))); (match vector.e with | Id (_loc,s) -> let var = (Hashtbl.find !current_args (string_of_ident s)) in let type_constraint = let vec_typ_to_e k = match k with | TInt32 -> <:ctyp<(int32, Bigarray.int32_elt) Spoc.Vector.vector>> | TInt64 -> <:ctyp<(int64, Bigarray.int64_elt) Spoc.Vector.vector>> | _ -> assert false in (match var.var_type with | TVec k when k = t -> ( vec_typ_to_e k ) | TVec TUnknown -> var.var_type <- TVec t; vec_typ_to_e t | _ -> assert (not debug); raise (TypeError (TVec t, var.var_type, _loc))) in <:expr<Spoc.Mem.get ($ExId(_loc,s)$:$type_constraint$) (Int32.to_int $parse_body index$)>> | _ -> assert (not debug); failwith "Unknwown vector"); | ArrGet _ -> parse_body i | RecGet _ -> parse_body i | App (_loc, e1, e2) -> parse_body i | Nat (_loc,_) -> <:expr< failwith "native_code cannot be used in ml functions">> | _ -> my_eprintf (k_expr_to_string i.e); raise (TypeError (t, i.t, i.loc)) and parse_float f t = match f.e with | App (_loc, e1, e2) -> parse_body f | Id (_loc,s) -> (let is_mutable = ref false in ( let var = ( ( try Hashtbl.find !current_args (string_of_ident s) with _ -> assert (not debug); raise (Unbound_value ((string_of_ident s),_loc)))) in is_mutable := var.is_mutable; match var.var_type with | TUnknown -> ( try (Hashtbl.find !current_args (string_of_ident s)).var_type <- t with _ -> assert (not debug); raise (Unbound_value ((string_of_ident s),_loc))) | x when x = t -> () | _ -> assert (not debug); raise (TypeError (t, var.var_type, _loc))); (match f.t with | x when x = t -> () | TUnknown -> f.t <- t | _ -> assert (not debug); raise (TypeError (t, f.t, f.loc))) ; if !is_mutable then <:expr< $(ExId (_loc, s))$.contents>> else <:expr< $(ExId (_loc, s))$>>) | Ref (_loc, id) -> <:expr< ! $parse_body id$>> | Float (_loc, s) -> ( match f.t with | TFloat32 -> <:expr<$(ExFlo(_loc, s))$>> | _ -> assert (not debug); raise (TypeError (t, f.t, f.loc))) | Float32 (_loc, s) -> ( match f.t with | TFloat32 -> <:expr< $(ExFlo (_loc, s))$>> | _ -> assert (not debug); raise (TypeError (t, f.t, f.loc))) | Float64 (_loc, s) -> ( match f.t with | TFloat64 -> <:expr< $(ExFlo (_loc, s))$>> | _ -> assert (not debug); raise (TypeError (t, f.t, f.loc))) | PlusF32 _ | PlusF64 _ | MinF32 _ | MinF64 _ | MulF32 _ | MulF64 _ | DivF32 _ | DivF64 _ | ModuleAccess _ | RecGet _ | Acc _ -> parse_body f | VecGet (_loc, vector, index) -> ( match f.t with | x when x = t -> () | TUnknown ->f.t <- t | _ -> assert (not debug); raise (TypeError (t, f.t , _loc))); (match vector.e with | Id (_loc,s) -> let var = (Hashtbl.find !current_args (string_of_ident s)) in let type_constraint = let rec aux () = (match var.var_type with | TUnknown -> (var.var_type <- TVec t; aux ()) | TVec k when k = t -> ( match k with | TFloat32 -> <:ctyp<(float, Bigarray.float32_elt) Spoc.Vector.vector>> | TFloat64 -> <:ctyp<(float, Bigarray.float64_elt) Spoc.Vector.vector>> | _ -> assert false ) | _ -> assert (not debug); raise (TypeError (TVec t, var.var_type, _loc)) ) in aux () in begin <:expr<Spoc.Mem.get ($ExId(_loc,s)$:$type_constraint$) (Int32.to_int $parse_body index$)>> end | _ -> assert (not debug); failwith "Unknwown vector"); | Nat (_loc,_) -> <:expr< failwith "native_code cannot be used in ml functions">> | _ -> my_eprintf (Printf.sprintf "(*** val %s *)\n%!" (k_expr_to_string f.e)); assert (not debug); raise (TypeError (t, f.t, f.loc)) and parse_modacc m = let res = ref m in let rec aux m = match m.e with | ModuleAccess (_loc, e1, e2) -> ExAcc(_loc, <:expr< $uid:e1$>>, aux e2) | Id _ -> parse_body m | App (_loc, e1, e2::[]) -> res:=e2; aux e1 | _ -> assert false in (aux m), !res and parse_app_ml a modu = match a.e with | Id (_loc,s) -> ExAcc(_loc, modu,ExId(_loc, s)) | ModuleAccess (_loc, s, e) -> let e = parse_app_ml e (ExAcc(_loc, modu, ExId(_loc, IdUid(_loc,s)))) in e | App (_loc, e1, e2::[]) -> let rec aux a modu = match a.e with | Id (_loc,s) -> ExApp(_loc, ExAcc(_loc, modu,ExId(_loc, s)), parse_body e2) | App (l, e1, e2::[]) -> ExApp (_loc, aux e1 modu, parse_body e2) | ModuleAccess (_loc, s, e) -> ExAcc(_loc, modu, (parse_body a)) | _ -> my_eprintf (Printf.sprintf "(* app %s *)\n%!" (k_expr_to_string a.e)); assert false in ExApp(_loc, aux e1 modu, parse_body e2) | _ -> parse_body a and parse_case (_loc,patt,e) = match patt with | Constr (s,Some i) -> let patt = <:patt<$uid:s$ $lid:string_of_ident i$>> in <:match_case< $patt$ -> $parse_body e$ >> | Constr (s,None) -> <:match_case< $uid:s$ -> $parse_body e$ >> and parse_body body = my_eprintf (Printf.sprintf"(* val %s *)\n%!" (k_expr_to_string body.e)); match body.e with | Bind (_loc, var,y, z, is_mutable) -> ( match var.e with | Id (_loc,s) -> (match y.e with | Fun (_loc,stri,tt,funv,lifted) -> parse_body z; | _ -> let y = parse_body y in let gen_z = parse_body z in if is_mutable then (<:expr<let $PaId(_loc,s)$ = ref $y$ in $gen_z$>>) else (<:expr<let $PaId(_loc,s)$ = $y$ in $gen_z$>>) ) | _ -> failwith "error parse_body Bind" ) | Plus32 (_loc, a,b) -> ( <:expr<Int32.add $(parse_int a TInt32)$ $(parse_int b TInt32)$>>) | Plus64 (_loc, a, b) -> ( <:expr<Int64.add $(parse_int a TInt64)$ $(parse_int b TInt64)$>>) | PlusF32 (_loc, a,b) -> let a_ = (parse_float a TFloat32) in let b_ = (parse_float b TFloat32) in ( <:expr<$a_$ +. $b_$>>) | PlusF64 (_loc, a,b) -> let a_ = (parse_float a TFloat64) in let b_ = (parse_float b TFloat64) in ( <:expr<$a_$ +. $b_$>>) | Min32 (_loc, a,b) -> ( <:expr<Int32.sub $(parse_int a TInt32)$ $(parse_int b TInt32)$>>) | Min64 (_loc, a, b) -> ( <:expr<Int64.sub $(parse_int a TInt64)$ $(parse_int b TInt64)$>>) | MinF32 (_loc, a,b) -> let a_ = (parse_float a TFloat32) in let b_ = (parse_float b TFloat32) in ( <:expr<$a_$ -. $b_$>>) | MinF64 (_loc, a,b) -> let a_ = (parse_float a TFloat64) in let b_ = (parse_float b TFloat64) in ( <:expr<$a_$ -. $b_$>>) | Mul32 (_loc, a,b) -> ( <:expr<Int32.mul $(parse_int a TInt32)$ $(parse_int b TInt32)$>>) | Mul64 (_loc, a, b) -> ( <:expr<Int64.mul $(parse_int a TInt64)$ $(parse_int b TInt64)$>>) | MulF32 (_loc, a,b) -> let a_ = (parse_float a TFloat32) in let b_ = (parse_float b TFloat32) in ( <:expr<$a_$ *. $b_$>>) | MulF64 (_loc, a,b) -> let a_ = (parse_float a TFloat64) in let b_ = (parse_float b TFloat64) in ( <:expr<$a_$ *. $b_$>>) | Div32 (_loc, a,b) -> ( <:expr<Int32.div $(parse_int a TInt32)$ $(parse_int b TInt32)$>>) | Div64 (_loc, a, b) -> ( <:expr<Int64.div $(parse_int a TInt64)$ $(parse_int b TInt64)$>>) | DivF32 (_loc, a,b) -> let a_ = (parse_float a TFloat32) in let b_ = (parse_float b TFloat32) in ( <:expr<$a_$ /. $b_$>>) | DivF64 (_loc, a,b) -> let a_ = (parse_float a TFloat64) in let b_ = (parse_float b TFloat64) in ( <:expr<$a_$ /. $b_$>>) | Mod (_loc, a,b) -> ( <:expr<Int32.rem $(parse_int a TInt32)$ $(parse_int b TInt32)$>>) | Id (_loc,s) -> begin try let var = (Hashtbl.find !current_args (string_of_ident s)) in if var.is_mutable then <:expr< $ExId(_loc,s)$.contents>> else <:expr<$ExId(_loc,s)$>> with Not_found -> <:expr<$ExId(_loc,s)$>> end | Int (_loc, i) -> <:expr<$ExInt(_loc, i)$>> | Int32 (_loc, i) -> <:expr<$ExInt32(_loc, i)$>> | Int64 (_loc, i) -> <:expr<$ExInt64(_loc, i)$>> | Float (_loc, f) | Float32 (_loc,f) | Float64 (_loc,f) -> <:expr<$ExFlo(_loc, f)$>> | Seq (_loc, x, y) -> let x = parse_body x in let y = parse_body y in <:expr<$x$; $y$>> | End(_loc, x) -> let res = parse_body x in <:expr<$res$>> | VecSet (_loc, vector, value) -> let gen_value = parse_body value in (match vector.e with | VecGet (_, v,idx) -> let rec vec_typ_to_e t = my_eprintf ("type : "^(ktyp_to_string t)^"\n"); let rec app_return_type = function | TApp (_,(TApp (a,b))) -> app_return_type b | TApp (_,b) -> vec_typ_to_e b | a -> vec_typ_to_e a in (match t with | TInt32 | TBool -> <:ctyp<(int32, Bigarray.int32_elt) Spoc.Vector.vector>> | TInt64 -> <:ctyp<(int64, Bigarray.int64_elt) Spoc.Vector.vector>> | TFloat32 -> <:ctyp<(float, Bigarray.float32_elt) Spoc.Vector.vector>> | TFloat64 -> <:ctyp<(float, Bigarray.float64_elt) Spoc.Vector.vector>> | Custom (_,name) -> let name = TyId(_loc,IdLid(_loc,name)) and sarek_name = TyId(_loc, IdLid(_loc,name^"_sarek")) in <:ctyp<($name$,$sarek_name$) Spoc.Vector.vector >> | TApp (a,b) -> (my_eprintf ("type : "^(ktyp_to_string t)^"\n"); app_return_type b;) | _ -> (my_eprintf (k_expr_to_string body.e); assert false) ) in (match v.e with | Id (_loc,s) -> let var = (Hashtbl.find !current_args (string_of_ident s)) in let type_constaint = (match var.var_type with | TVec k when k = value.t -> vec_typ_to_e k | _ -> (match value.t, var.var_type with | TUnknown, TUnknown -> (assert (not debug); raise (TypeError (TVec value.t, var.var_type, _loc))) | TUnknown, TVec tt -> (var.var_type <- TVec tt; vec_typ_to_e tt) | tt, TVec TUnknown -> (var.var_type <- TVec tt; vec_typ_to_e tt) | _ -> (assert (not debug); raise (TypeError (TVec value.t, var.var_type, _loc)))) ) in <:expr<Spoc.Mem.set ($parse_body v$:$type_constaint$) (Int32.to_int $parse_body idx$) $gen_value$>> | _ -> failwith "Unknwown vector"); | _ -> failwith (Printf.sprintf "erf %s" (k_expr_to_string vector.e)) ); | ArrSet (_loc, array, value) -> let gen_value = parse_body value in (match array.e with | ArrGet (_, a,idx) -> (match a.e with | Id (_loc,s) -> <:expr<($parse_body a$).(Int32.to_int $parse_body idx$) <- $gen_value$>> | _ -> failwith "Unknwown array"); | _ -> failwith (Printf.sprintf "erf_arr %s" (k_expr_to_string array.e)) ); | VecGet(_loc, vector, index) -> ignore(parse_body vector); (match vector.e with | Id (_loc, s)-> let var = (Hashtbl.find !current_args (string_of_ident s)) in let type_constraint = (match var.var_type with | TVec k -> (match k with | TInt32 | TBool -> <:ctyp<(int32, Bigarray.int32_elt) Spoc.Vector.vector>> | TInt64 -> <:ctyp<(int64, Bigarray.int64_elt) Spoc.Vector.vector>> | TFloat32 -> <:ctyp<(float, Bigarray.float32_elt) Spoc.Vector.vector>> | TFloat64 -> <:ctyp<(float, Bigarray.float64_elt) Spoc.Vector.vector>> | Custom (_,name) -> let name = TyId(_loc,IdLid(_loc,name)) and sarek_name = TyId(_loc, IdLid(_loc,name^"_sarek")) in <:ctyp<($name$,$sarek_name$) Spoc.Vector.vector >> | TVec _ | TUnknown | TUnit | TArr _ | TApp _ -> my_eprintf ("Unimplemented vecget : "^(ktyp_to_string var.var_type )^"\n"); assert false | _ -> assert false ) | _ -> assert (not debug); failwith (Printf.sprintf "strange vector %s" (ktyp_to_string var.var_type )) )in <:expr<Spoc.Mem.get ($ExId(_loc,s)$:$type_constraint$) (Int32.to_int $parse_body index$)>> | _ -> assert (not debug); failwith (Printf.sprintf "strange vector %s" (k_expr_to_string body.e ))) | ArrGet(_loc, array, index) -> ignore(parse_body array); (match array.e with | Id (_loc, s)-> let var = (Hashtbl.find !current_args (string_of_ident s)) in let type_constraint = (match var.var_type with | TArr k -> (match k with | TInt32,_ -> <:ctyp<int32 array>> | TInt64,_ -> <:ctyp<int64 array>> | TFloat32,_ -> <:ctyp<float array>> | TFloat64,_ -> <:ctyp<float array>> | _ -> assert false ) | _ -> (assert (not debug); raise (TypeError (TArr (TUnknown, Any), var.var_type, _loc))); )in <:expr<($ExId(_loc,s)$:$type_constraint$).(Int32.to_int $parse_body index$)>> | _ -> assert (not debug); failwith "strange array") | BoolEq32 (_loc, a, b) -> (<:expr<$parse_int a TInt32$ = $parse_int b TInt32$>>) | BoolEq64 (_loc, a, b) -> (<:expr<$parse_int a TInt64$ = $parse_int b TInt64$>>) | BoolEqF32 (_loc, a, b) -> (<:expr<$parse_float a TFloat32$ = $parse_float b TFloat32$>>) | BoolEqF64 (_loc, a, b) -> (<:expr<$parse_float a TFloat64$ = $parse_float b TFloat64$>>) | BoolLt (_loc, a, b) -> (<:expr<$parse_int a TInt32$ < $parse_int b TInt32$>>) | BoolLt32 (_loc, a, b) -> (<:expr<$parse_int a TInt32$ < $parse_int b TInt32$>>) | BoolLt64 (_loc, a, b) -> (<:expr<$parse_int a TInt64$ < $parse_int b TInt64$>>) | BoolLtF32 (_loc, a, b) -> (<:expr<$parse_float a TFloat32$ < $parse_float b TFloat32$>>) | BoolLtF64 (_loc, a, b) -> (<:expr<$parse_float a TFloat64$ < $parse_float b TFloat64$>>) | BoolGt (_loc, a, b) -> (<:expr<$parse_int a TInt32$ > $parse_int b TInt32$>>) | BoolGt32 (_loc, a, b) -> (<:expr<$parse_int a TInt32$ > $parse_int b TInt32$>>) | BoolGt64 (_loc, a, b) -> (<:expr<$parse_int a TInt64$ > $parse_int b TInt64$>>) | BoolGtF32 (_loc, a, b) -> (<:expr<$parse_float a TFloat32$ > $parse_float b TFloat32$>>) | BoolGtF64 (_loc, a, b) -> (<:expr<$parse_float a TFloat64$ > $parse_float b TFloat64$>>) | BoolLtE (_loc, a, b) -> (<:expr<$parse_int a TInt32$ <= $parse_int b TInt32$>>) | BoolLtE32 (_loc, a, b) -> (<:expr<$parse_int a TInt32$ <= $parse_int b TInt32$>>) | BoolLtE64 (_loc, a, b) -> (<:expr<$parse_int a TInt64$ <= $parse_int b TInt64$>>) | BoolLtEF32 (_loc, a, b) -> (<:expr<$parse_float a TFloat32$ <= $parse_float b TFloat32$>>) | BoolLtEF64 (_loc, a, b) -> (<:expr<$parse_float a TFloat64$ <= $parse_float b TFloat64$>>) | BoolGtE (_loc, a, b) -> (<:expr<$parse_int a TInt32$ >= $parse_int b TInt32$>>) | BoolGtE32 (_loc, a, b) -> (<:expr<$parse_int a TInt32$ >= $parse_int b TInt32$>>) | BoolGtE64 (_loc, a, b) -> (<:expr<$parse_int a TInt64$ >= $parse_int b TInt64$>>) | BoolGtEF32 (_loc, a, b) -> (<:expr<$parse_float a TFloat32$ >= $parse_float b TFloat32$>>) | BoolGtEF64 (_loc, a, b) -> (<:expr<$parse_float a TFloat64$ >= $parse_float b TFloat64$>>) | BoolOr (_loc, a, b) -> (<:expr<$parse_body a$ || $parse_body b$>>) | BoolAnd (_loc, a, b) -> (<:expr<$parse_body a$ && $parse_body b$>>) | Ife (_loc, cond, cons1, cons2) -> let cond = parse_body cond in let cons1 = parse_body cons1 in let cons2 = parse_body cons2 in (<:expr<if $cond$ then $cons1$ else $cons2$>>) | If (_loc, cond, cons1) -> let cond = parse_body cond in let cons1 = parse_body cons1 in (<:expr<if $cond$ then $cons1$>>) | DoLoop (_loc, ({t=_;e=Id(_,s) ;loc=_} as id), min, max, body) -> let var = (Hashtbl.find !current_args (string_of_ident s)) in var.var_type <- TInt32; let min = parse_body min in let max = parse_body max in let body = parse_body body in let string_of_id id = match id with | Id (_,s ) -> string_of_ident s | _ -> assert false in <:expr<for spoc_tmp = (Int32.to_int $min$) to (Int32.to_int $max$) do let $(PaId (_loc, IdLid(_loc, (string_of_id id.e))))$ = Int32.of_int spoc_tmp in $body$ done>> | While (_loc, cond, body) -> let cond = parse_body cond in let body = parse_body body in (<:expr< while $cond$ do $body$ done>>) | App (_loc, e1, e2) -> let gen_special a = match a.e with | (*create_array *) App (_loc,{t=typ; e= Id(_,<:ident< create_array>>); loc=_}, [b]) -> (match a.t with | TArr (TFloat64, Shared) | TArr (TFloat32, Shared) -> <:expr< Array.make (Int32.to_int $parse_body b$) 0. >> | TArr (TInt32, Shared) | TArr (TInt64, Shared) -> <:expr< Array.make (Int32.to_int $parse_body b$) 0l >> | _ -> assert false) | App (_loc, {e=App (_, {t=_; e= App (_,{t=_; e=Id(_,<:ident< map>>); loc=_}, [f]); loc=_}, [a]); _}, [b]) -> <:expr< map $parse_body f$.ml_fun $parse_body a $ $parse_body b $>>; | App (_loc, {e=App (_, {t=_; e= App (_,{t=_; e=Id(_,<:ident< reduce>>); loc=_}, [f]); loc=_}, [a]); _}, [b]) -> <:expr< reduce $parse_body f$.ml_fun $parse_body a $ $parse_body b $>>; | _ -> raise Not_found in (try gen_special body with | Not_found -> ( let rec aux e2 = match e2 with | t::[] -> parse_body t | t::q -> ExApp(_loc, (aux q), (parse_body t)) | [] -> assert false in let e2 = aux e2 in let e1 = match e1.e with | Id (_loc, s) -> (try ignore(Hashtbl.find !global_fun (string_of_ident s)); <:expr<$parse_body e1$.ml_fun>> with | Not_found -> (try let (_,_,lifted) = (Hashtbl.find !local_fun (string_of_ident s)) in let rec aux acc = function | [] -> acc | t::q -> (try ignore(Hashtbl.find !current_args t) with | Not_found -> ();); aux (<:expr< $acc$ $ExId(_loc,IdLid(_loc,t))$>>) q in aux <:expr<$parse_body e1$.ml_fun>> lifted with | Not_found -> parse_body e1) ) | _ -> parse_body e1 in <:expr<$e1$ $e2$>> )) | Open (_loc, id, e) -> let rec aux = function | IdAcc (l,a,b) -> aux a; aux b | IdUid (l,s) -> open_module s l | _ -> assert (not debug) in aux id; let e = <:expr<let open $id$ in $parse_body e$>> in let rec aux = function | IdAcc (l,a,b) -> aux b; aux a | IdUid (l,s) -> close_module s | _ -> assert (not debug) in aux id; e | Noop -> let _loc = body.loc in <:expr< ()>> | Acc (_loc, var, value) -> (match var.t with | TVec _ -> parse_body { t = body.t; e = (VecSet (_loc, var, value)); loc = body.loc} | _ -> <:expr<$parse_body var$ <- $parse_body value$>> ) | Ref (_, {loc=_; e=Id(_loc,s); t=_}) -> <:expr< ! $ExId(_loc, s)$>> | ModuleAccess (_loc, s, e) -> let s = match s with | "Vector" -> "Sarek_vector" | _ -> s in let e = parse_app_ml e <:expr< $uid:s$>> in e | Match (_loc, e, mc) -> let e = parse_body e and mc = List.map parse_case mc in <:expr< match $e$ with $list:mc$ >> | Record (_loc,fl) -> let fl = List.map ( fun (_loc,id,e) -> <:rec_binding< $lid:string_of_ident id$ = $parse_body e$>>) fl in let recb = List.fold_left (fun a b -> <:rec_binding< $a$; $b$>>) (List.hd fl) (List.tl fl) in <:expr< $ExRec(_loc,recb, ExNil _loc)$ >>(* <:expr< { $recb$ } >>*) | RecGet (_loc,e,fld) -> <:expr< $parse_body e$.$lid:string_of_ident fld$>> | RecSet (_loc,e1,e2) -> <:expr< $parse_body e1$ <- $parse_body e2$>> | True _loc -> <:expr< true >> | False _loc -> <:expr< false >> | BoolEq (_loc,e1,e2) -> <:expr< $parse_body e1$ = $parse_body e2$>> | BoolNot (_loc, e) -> <:expr< not $parse_body e$>> | TypeConstraint (_loc, e, _) -> parse_body e | Nat (_loc, code) -> <:expr< failwith "native_code cannot be used in ml functions">> | Fun (_loc,stri,tt,funv,lifted) -> <:expr< $stri$ >> | Pragma (_,_,e) -> parse_body e | _ -> assert (not debug); failwith "parse_body : unimplemented yet"
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