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type binary_primitive = expression -> expression -> Debuginfo . t -> expression
type assignment_kind = | Caml_modify | Caml_modify_local | Simple of initialization_or_assignment
let assignment_kind ( ptr : Lambda . immediate_or_pointer ) ( init : Lambda . initialization_or_assignment ) = match init , ptr with | Assignment Alloc_heap , Pointer -> Caml_modify | Assignment Alloc_local , Pointer -> assert Config . stack_allocation ; Caml_modify_local | Heap_initializa...
let setfield n ptr init arg1 arg2 dbg = match assignment_kind ptr init with | Caml_modify -> return_unit dbg ( Cop ( Cextcall ( " caml_modify " , typ_void , [ ] , false ) , [ field_address arg1 n dbg ; arg2 ] , dbg ) ) | Caml_modify_local -> return_unit dbg ( Cop ( Cextcall ...
let setfloatfield n init arg1 arg2 dbg = let init = match init with | Lambda . Assignment _ -> Assignment | Lambda . Heap_initialization | Lambda . Root_initialization -> Initialization in return_unit dbg ( Cop ( Cstore ( Double , init ) , [ if n = 0 then arg1 else Cop ( Cadda , [ ar...
let add_int_caml arg1 arg2 dbg = decr_int ( add_int arg1 arg2 dbg ) dbg
let offsetint n arg dbg = if Misc . no_overflow_lsl n 1 then add_const arg ( n lsl 1 ) dbg else add_int_caml arg ( int_const dbg n ) dbg
let sub_int_caml arg1 arg2 dbg = incr_int ( sub_int arg1 arg2 dbg ) dbg
let mul_int_caml arg1 arg2 dbg = match arg1 , arg2 with | Cconst_int _ as c1 , c2 -> incr_int ( mul_int ( untag_int c1 dbg ) ( decr_int c2 dbg ) dbg ) dbg | c1 , c2 -> incr_int ( mul_int ( decr_int c1 dbg ) ( untag_int c2 dbg ) dbg ) dbg
let div_int_caml is_safe arg1 arg2 dbg = tag_int ( div_int ( untag_int arg1 dbg ) ( untag_int arg2 dbg ) is_safe dbg ) dbg
let mod_int_caml is_safe arg1 arg2 dbg = tag_int ( mod_int ( untag_int arg1 dbg ) ( untag_int arg2 dbg ) is_safe dbg ) dbg
let and_int_caml arg1 arg2 dbg = Cop ( Cand , [ arg1 ; arg2 ] , dbg )
let or_int_caml arg1 arg2 dbg = Cop ( Cor , [ arg1 ; arg2 ] , dbg )
let xor_int_caml arg1 arg2 dbg = Cop ( Cor , [ Cop ( Cxor , [ ignore_low_bit_int arg1 ; ignore_low_bit_int arg2 ] , dbg ) ; Cconst_int ( 1 , dbg ) ] , dbg )
let lsl_int_caml arg1 arg2 dbg = incr_int ( lsl_int ( decr_int arg1 dbg ) ( untag_int arg2 dbg ) dbg ) dbg
let lsr_int_caml arg1 arg2 dbg = Cop ( Cor , [ lsr_int arg1 ( untag_int arg2 dbg ) dbg ; Cconst_int ( 1 , dbg ) ] , dbg )
let asr_int_caml arg1 arg2 dbg = Cop ( Cor , [ asr_int arg1 ( untag_int arg2 dbg ) dbg ; Cconst_int ( 1 , dbg ) ] , dbg )
let int_comp_caml cmp arg1 arg2 dbg = tag_int ( Cop ( Ccmpi cmp , [ arg1 ; arg2 ] , dbg ) ) dbg
let stringref_unsafe arg1 arg2 dbg = tag_int ( Cop ( Cload ( Byte_unsigned , Mutable ) , [ add_int arg1 ( untag_int arg2 dbg ) dbg ] , dbg ) ) dbg
let stringref_safe arg1 arg2 dbg = tag_int ( bind " index " ( untag_int arg2 dbg ) ( fun idx -> bind " str " arg1 ( fun str -> Csequence ( make_checkbound dbg [ string_length str dbg ; idx ] , Cop ( Cload ( Byte_unsigned , Mutable ) , [ add_int str idx dbg ] , dbg ) ) ...
let string_load size unsafe mode arg1 arg2 dbg = box_sized size mode dbg ( bind " index " ( untag_int arg2 dbg ) ( fun idx -> bind " str " arg1 ( fun str -> check_bound unsafe size dbg ( string_length str dbg ) idx ( unaligned_load size str idx dbg ) ) ) )
let bigstring_load size unsafe mode arg1 arg2 dbg = box_sized size mode dbg ( bind " index " ( untag_int arg2 dbg ) ( fun idx -> bind " ba " arg1 ( fun ba -> bind " ba_data " ( Cop ( Cload ( Word_int , Mutable ) , [ field_address ba 1 dbg ] , dbg ) ) ( fun ba_data -> c...
let arrayref_unsafe kind arg1 arg2 dbg = match ( kind : Lambda . array_kind ) with | Pgenarray -> bind " index " arg2 ( fun idx -> bind " arr " arg1 ( fun arr -> Cifthenelse ( is_addr_array_ptr arr dbg , dbg , addr_array_ref arr idx dbg , dbg , float_array_ref arr idx dbg , dbg ) )...
let arrayref_safe kind arg1 arg2 dbg = match ( kind : Lambda . array_kind ) with | Pgenarray -> bind " index " arg2 ( fun idx -> bind " arr " arg1 ( fun arr -> bind " header " ( get_header_without_profinfo arr dbg ) ( fun hdr -> if wordsize_shift = numfloat_shift then Csequence ( m...
type ternary_primitive = expression -> expression -> expression -> Debuginfo . t -> expression
let setfield_computed ptr init arg1 arg2 arg3 dbg = match assignment_kind ptr init with | Caml_modify -> return_unit dbg ( addr_array_set arg1 arg2 arg3 dbg ) | Caml_modify_local -> return_unit dbg ( addr_array_set_local arg1 arg2 arg3 dbg ) | Simple _ -> return_unit dbg ( int_array_set arg1 arg2 arg3...
let bytesset_unsafe arg1 arg2 arg3 dbg = return_unit dbg ( Cop ( Cstore ( Byte_unsigned , Assignment ) , [ add_int arg1 ( untag_int arg2 dbg ) dbg ; ignore_high_bit_int ( untag_int arg3 dbg ) ] , dbg ) )
let bytesset_safe arg1 arg2 arg3 dbg = return_unit dbg ( bind " newval " ( untag_int arg3 dbg ) ( fun newval -> bind " index " ( untag_int arg2 dbg ) ( fun idx -> bind " str " arg1 ( fun str -> Csequence ( make_checkbound dbg [ string_length str dbg ; idx ] , Cop ( Cstore ( ...
let arrayset_unsafe kind arg1 arg2 arg3 dbg = return_unit dbg ( match ( kind : Lambda . array_kind ) with | Pgenarray -> bind " newval " arg3 ( fun newval -> bind " index " arg2 ( fun index -> bind " arr " arg1 ( fun arr -> Cifthenelse ( is_addr_array_ptr arr dbg , dbg , addr_arra...
let arrayset_safe kind arg1 arg2 arg3 dbg = return_unit dbg ( match ( kind : Lambda . array_kind ) with | Pgenarray -> bind " newval " arg3 ( fun newval -> bind " index " arg2 ( fun idx -> bind " arr " arg1 ( fun arr -> bind " header " ( get_header_without_profinfo arr dbg ) ( ...
let bytes_set size unsafe arg1 arg2 arg3 dbg = return_unit dbg ( bind " newval " arg3 ( fun newval -> bind " index " ( untag_int arg2 dbg ) ( fun idx -> bind " str " arg1 ( fun str -> check_bound unsafe size dbg ( string_length str dbg ) idx ( unaligned_set size str idx newval dbg ) ...
let bigstring_set size unsafe arg1 arg2 arg3 dbg = return_unit dbg ( bind " newval " arg3 ( fun newval -> bind " index " ( untag_int arg2 dbg ) ( fun idx -> bind " ba " arg1 ( fun ba -> bind " ba_data " ( Cop ( Cload ( Word_int , Mutable ) , [ field_address ba 1 dbg ] , ...
let cdefine_symbol ( symb , ( global : Cmmgen_state . is_global ) ) = match global with | Global -> [ Cglobal_symbol symb ; Cdefine_symbol symb ] | Local -> [ Cdefine_symbol symb ]
let emit_block symb white_header cont = let black_header = Nativeint . logor white_header caml_black in Cint black_header :: cdefine_symbol symb @ cont
let emit_string_constant_fields s cont = let n = size_int - 1 - ( String . length s ) mod size_int in Cstring s :: Cskip n :: Cint8 n :: cont
let emit_boxed_int32_constant_fields n cont = let n = Nativeint . of_int32 n in if size_int = 8 then Csymbol_address caml_int32_ops :: Cint32 n :: Cint32 0n :: cont else Csymbol_address caml_int32_ops :: Cint n :: cont
let emit_boxed_int64_constant_fields n cont = let lo = Int64 . to_nativeint n in if size_int = 8 then Csymbol_address caml_int64_ops :: Cint lo :: cont else begin let hi = Int64 . to_nativeint ( Int64 . shift_right n 32 ) in if big_endian then Csymbol_address caml_int64_ops :: Cint hi :: Cint lo ::...
let emit_boxed_nativeint_constant_fields n cont = Csymbol_address caml_nativeint_ops :: Cint n :: cont
let emit_float_constant symb f cont = emit_block symb float_header ( Cdouble f :: cont )
let emit_string_constant symb s cont = emit_block symb ( string_header ( String . length s ) ) ( emit_string_constant_fields s cont )
let emit_int32_constant symb n cont = emit_block symb boxedint32_header ( emit_boxed_int32_constant_fields n cont )
let emit_int64_constant symb n cont = emit_block symb boxedint64_header ( emit_boxed_int64_constant_fields n cont )
let emit_nativeint_constant symb n cont = emit_block symb boxedintnat_header ( emit_boxed_nativeint_constant_fields n cont )
let emit_float_array_constant symb fields cont = emit_block symb ( floatarray_header ( List . length fields ) ) ( Misc . map_end ( fun f -> Cdouble f ) fields cont )
let entry_point namelist = let dbg = placeholder_dbg in let cconst_int i = Cconst_int ( i , dbg ( ) ) in let cconst_symbol sym = Cconst_symbol ( sym , dbg ( ) ) in let incr_global_inited ( ) = Cop ( Cstore ( Word_int , Assignment ) , [ cconst_symbol " caml_globals_inited " ;...
let cint_zero = Cint 0n
let global_table namelist = let mksym name = Csymbol_address ( Compilenv . make_symbol ~ unitname : name ( Some " gc_roots " ) ) in Cdata ( Cglobal_symbol " caml_globals " :: Cdefine_symbol " caml_globals " :: List . map mksym namelist @ [ cint_zero ] )
let reference_symbols namelist = let mksym name = Csymbol_address name in Cdata ( List . map mksym namelist )
let global_data name v = Cdata ( emit_string_constant ( name , Global ) ( Marshal . to_string v [ ] ) [ ] )
let globals_map v = global_data " caml_globals_map " v
let frame_table namelist = let mksym name = Csymbol_address ( Compilenv . make_symbol ~ unitname : name ( Some " frametable " ) ) in Cdata ( Cglobal_symbol " caml_frametable " :: Cdefine_symbol " caml_frametable " :: List . map mksym namelist @ [ cint_zero ] )
let segment_table namelist symbol begname endname = let addsyms name lst = Csymbol_address ( Compilenv . make_symbol ~ unitname : name ( Some begname ) ) :: Csymbol_address ( Compilenv . make_symbol ~ unitname : name ( Some endname ) ) :: lst in Cdata ( Cglobal_symbol symbol :: Cdefine_sy...
let data_segment_table namelist = segment_table namelist " caml_data_segments " " data_begin " " data_end "
let code_segment_table namelist = segment_table namelist " caml_code_segments " " code_begin " " code_end "
let predef_exception i name = let name_sym = Compilenv . new_const_symbol ( ) in let data_items = emit_string_constant ( name_sym , Local ) name [ ] in let exn_sym = " caml_exn_ " ^ name in let tag = Obj . object_tag in let size = 2 in let fields = ( Csymbol_address name_sym ) :: ( ...
let plugin_header units = let mk ( ( ui : Cmx_format . unit_infos ) , crc ) : Cmxs_format . dynunit = { dynu_name = ui . ui_name ; dynu_crc = crc ; dynu_imports_cmi = ui . ui_imports_cmi ; dynu_imports_cmx = ui . ui_imports_cmx ; dynu_defines = ui . ui_defines } in global_data...
let fundecls_size fundecls = let sz = ref ( - 1 ) in List . iter ( fun ( f : Clambda . ufunction ) -> let indirect_call_code_pointer_size = match f . arity with | Curried _ , ( 0 | 1 ) -> 0 | _ -> 1 in sz := ! sz + 1 + 2 + indirect_call_code_pointer_size ) fundecls ; ...
let emit_constant_closure ( ( _ , global_symb ) as symb ) fundecls clos_vars cont = let closure_symbol ( f : Clambda . ufunction ) = if Config . flambda then cdefine_symbol ( f . label ^ " _closure " , global_symb ) else [ ] in match ( fundecls : Clambda . ufunction list ) ...
let emit_gc_roots_table ~ symbols cont = let table_symbol = Compilenv . make_symbol ( Some " gc_roots " ) in Cdata ( Cglobal_symbol table_symbol :: Cdefine_symbol table_symbol :: List . map ( fun s -> Csymbol_address s ) symbols @ [ Cint 0n ] ) :: cont
let preallocate_block cont { Clambda . symbol ; exported ; tag ; fields } = let space = List . map ( fun field -> match field with | None -> Cint ( Nativeint . of_int 1 ) | Some ( Clambda . Uconst_field_int n ) -> cint_const n | Some ( Clambda . Uconst_field_ref label ) -> Cs...
let emit_preallocated_blocks preallocated_blocks cont = let symbols = List . map ( fun ( { Clambda . symbol } : Clambda . preallocated_block ) -> symbol ) preallocated_blocks in let c1 = emit_gc_roots_table ~ symbols cont in List . fold_left preallocate_block c1 preallocated_blocks
module Env : sig type t val init : unit -> t val handler : t -> cont : int -> arg_num : int -> t val jump : t -> cont : int -> arg_num : int -> unit val report : Format . formatter -> bool type t = { bound_handlers : int Int . Map . t ; } type error = | Unbound_handler of { cont : in...
let rec check env ( expr : Cmm . expression ) = match expr with | Cconst_int _ | Cconst_natint _ | Cconst_float _ | Cconst_symbol _ | Cvar _ -> ( ) | Clet ( _ , expr , body ) | Clet_mut ( _ , _ , expr , body ) -> check env expr ; check env body | Cphantom_let ( _ , ...
let run ppf ( fundecl : Cmm . fundecl ) = let env = Env . init ( ) in check env fundecl . fun_body ; Env . report ppf
let read_magic_number ic = let len_magic_number = String . length Config . cmt_magic_number in really_input_string ic len_magic_number
type binary_annots = | Packed of Types . signature * string list | Implementation of structure | Interface of signature | Partial_implementation of binary_part array | Partial_interface of binary_part array
type cmt_infos = { cmt_modname : string ; cmt_annots : binary_annots ; cmt_value_dependencies : ( Types . value_description * Types . value_description ) list ; cmt_comments : ( string * Location . t ) list ; cmt_args : string array ; cmt_sourcefile : string option ; cmt_builddir :...
type error = Not_a_typedtree of string
let need_to_clear_env = try ignore ( Sys . getenv " OCAML_BINANNOT_WITHENV " ) ; false with Not_found -> true
let cenv = { Tast_mapper . default with env = fun _sub env -> keep_only_summary env }
let clear_part = function | Partial_structure s -> Partial_structure ( cenv . structure cenv s ) | Partial_structure_item s -> Partial_structure_item ( cenv . structure_item cenv s ) | Partial_expression e -> Partial_expression ( cenv . expr cenv e ) | Partial_pattern ( category , p ) -...
let clear_env binary_annots = if need_to_clear_env then match binary_annots with | Implementation s -> Implementation ( cenv . structure cenv s ) | Interface s -> Interface ( cenv . signature cenv s ) | Packed _ -> binary_annots | Partial_implementation array -> Partial_implementation ( Array . ...
let input_cmt ic = ( input_value ic : cmt_infos )
let output_cmt oc cmt = output_string oc Config . cmt_magic_number ; output_value oc ( cmt : cmt_infos )
let read filename = let ic = open_in_bin filename in Misc . try_finally ~ always ( : fun ( ) -> close_in ic ) ( fun ( ) -> let magic_number = read_magic_number ic in let cmi , cmt = if magic_number = Config . cmt_magic_number then None , Some ( input_cmt ic ) else if magic_number = C...
let read_cmt filename = match read filename with _ , None -> raise ( Error ( Not_a_typedtree filename ) ) | _ , Some cmt -> cmt
let read_cmi filename = match read filename with None , _ -> raise ( Cmi_format . Error ( Cmi_format . Not_an_interface filename ) ) | Some cmi , _ -> cmi
let saved_types = ref [ ]
let value_deps = ref [ ]
let clear ( ) = saved_types := [ ] ; value_deps := [ ]
let add_saved_type b = saved_types := b :: ! saved_types
let get_saved_types ( ) = ! saved_types
let set_saved_types l = saved_types := l
let record_value_dependency vd1 vd2 = if vd1 . Types . val_loc <> vd2 . Types . val_loc then value_deps := ( vd1 , vd2 ) :: ! value_deps
let save_cmt filename modname binary_annots sourcefile initial_env cmi = if ! Clflags . binary_annotations && not ! Clflags . print_types then begin Misc . output_to_file_via_temporary ~ mode [ : Open_binary ] filename ( fun temp_file_name oc -> let this_crc = match cmi with | None -> None | Some...
let node_sh_map_fold ( f : ' a -> ' b -> ' c * ' b ) ( node : ' a node ) ( acc : ' b ) : ' c node * ' b = begin match node with | N_undefined id -> N_undefined id , acc | N_filled ( id , x ) -> let x , acc = f x acc in N_filled ( id , x ) , acc | N_rejected (...
let node_sh_map ( f : ' a -> ' b ) ( node : ' a node ) : ' b node = let node , ( ) = node_sh_map_fold ( fun x ( ) -> f x , ( ) ) node ( ) in node
let node_sh_fold ( f : ' a -> ' b -> ' b ) ( node : ' a node ) ( acc : ' b ) : ' b = let _ , acc = node_sh_map_fold ( fun x acc -> x , f x acc ) node acc in acc
let node_list_sh_map_fold ( f_elem : ' a -> ' b -> ' c * ' b ) ( f_closed : unit node -> ' b -> unit node * ' b ) ( l : ' a node_list ) ( acc : ' b ) : ' c node_list * ' b = let rev_l , acc = List . fold_left ( fun ( rev_l , acc ) elem -> let elem , acc ...
let node_list_sh_map ( f_elem : ' a -> ' b ) ( f_closed : unit node -> unit node ) ( node : ' a node_list ) : ' b node_list = let node , ( ) = node_list_sh_map_fold ( fun x ( ) -> f_elem x , ( ) ) ( fun x ( ) -> f_closed x , ( ) ) node ( ) in node
let node_list_sh_fold ( f_elem : ' a -> ' b -> ' b ) ( f_closed : unit node -> ' b -> ' b ) ( node : ' a node_list ) ( acc : ' b ) : ' b = let _ , acc = node_list_sh_map_fold ( fun x acc -> x , f_elem x acc ) ( fun x acc -> x , f_closed x acc ) node acc in acc
let rule_sh_map_fold ( f_evnt : cnl_event -> ' a -> cnl_event * ' a ) ( f_cond : cnl_cond -> ' a -> cnl_cond * ' a ) ( f_actns : cnl_actions -> ' a -> cnl_actions * ' a ) ( rule : cnl_rule ) ( acc : ' a ) : cnl_rule * ' a = let node , acc = node_sh_map_fold ( fu...
let rule_sh_map ( f_evnt : cnl_event -> cnl_event ) ( f_cond : cnl_cond -> cnl_cond ) ( f_actns : cnl_actions -> cnl_actions ) ( rule : cnl_rule ) : cnl_rule = let rule , ( ) = rule_sh_map_fold ( fun x ( ) -> f_evnt x , ( ) ) ( fun x ( ) -> f_cond x , ( ) ) ...
let rule_sh_fold ( f_evnt : cnl_event -> ' a -> ' a ) ( f_cond : cnl_cond -> ' a -> ' a ) ( f_actns : cnl_actions -> ' a -> ' a ) ( rule : cnl_rule ) ( acc : ' a ) : ' a = let _ , acc = rule_sh_map_fold ( fun x acc -> x , f_evnt x acc ) ( fun x acc -> x , ...
let evnt_sh_map_fold ( f : unit -> ' a -> unit * ' a ) ( evnt : cnl_event ) ( acc : ' a ) : cnl_event * ' a = evnt , acc
let evnt_sh_map ( f : unit -> unit ) ( evnt : cnl_event ) : cnl_event = let evnt , ( ) = evnt_sh_map_fold ( fun x ( ) -> f x , ( ) ) evnt ( ) in evnt
let evnt_sh_fold ( f : unit -> ' a -> ' a ) ( evnt : cnl_event ) ( acc : ' a ) : ' a = let _ , acc = evnt_sh_map_fold ( fun x acc -> x , f x acc ) evnt acc in acc
let cond_sh_map_fold ( f_expr : cnl_expr -> ' a -> cnl_expr * ' a ) ( cond : cnl_cond ) ( acc : ' a ) : cnl_cond * ' a = let node , acc = node_sh_map_fold ( fun desc acc -> begin match desc with | C_no_condition -> C_no_condition , acc | C_condition e -> let e , acc = f_expr ...
let cond_sh_map ( f_expr : cnl_expr -> cnl_expr ) ( cond : cnl_cond ) : cnl_cond = let cond , ( ) = cond_sh_map_fold ( fun x ( ) -> f_expr x , ( ) ) cond ( ) in cond
let cond_sh_fold ( f_expr : cnl_expr -> ' a -> ' a ) ( cond : cnl_cond ) ( acc : ' a ) : ' a = let _ , acc = cond_sh_map_fold ( fun x acc -> x , f_expr x acc ) cond acc in acc