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let actns_get_filled ( actns : cnl_actions ) : ( id * cnl_kind ) list = Cnl2cnl . actns_dp_fold_over_nodes get_filled_fold_fun actns [ ]
let actn_get_filled ( actn : cnl_action ) : ( id * cnl_kind ) list = Cnl2cnl . actn_dp_fold_over_nodes get_filled_fold_fun actn [ ]
let expr_get_filled ( expr : cnl_expr ) : ( id * cnl_kind ) list = Cnl2cnl . expr_dp_fold_over_nodes get_filled_fold_fun expr [ ]
let get_rejected ( kind : cnl_kind ) ( node : ' a node ) ( acc : ( id * cnl_kind ) list ) : ( id * cnl_kind ) list = begin match node with | N_rejected ( id , _ ) -> ( id , kind ) :: acc | N_undefined _ | N_filled ( _ , _ ) | N_accepted _ -> acc end
let get_rejected_fold_fun = { Cnl2cnl . id_fold_over_node_fun with Cnl2cnl . poly_fold_fun = get_rejected }
let rule_get_rejected ( rule : cnl_rule ) : ( id * cnl_kind ) list = Cnl2cnl . rule_dp_fold_over_nodes get_rejected_fold_fun rule [ ]
let evnt_get_rejected ( evnt : cnl_event ) : ( id * cnl_kind ) list = Cnl2cnl . evnt_dp_fold_over_nodes get_rejected_fold_fun evnt [ ]
let cond_get_rejected ( cond : cnl_cond ) : ( id * cnl_kind ) list = Cnl2cnl . cond_dp_fold_over_nodes get_rejected_fold_fun cond [ ]
let actns_get_rejected ( actns : cnl_actions ) : ( id * cnl_kind ) list = Cnl2cnl . actns_dp_fold_over_nodes get_rejected_fold_fun actns [ ]
let actn_get_rejected ( actn : cnl_action ) : ( id * cnl_kind ) list = Cnl2cnl . actn_dp_fold_over_nodes get_rejected_fold_fun actn [ ]
let expr_get_rejected ( expr : cnl_expr ) : ( id * cnl_kind ) list = Cnl2cnl . expr_dp_fold_over_nodes get_rejected_fold_fun expr [ ]
let rec expr_get_cnl ( id : id ) ( expr : cnl_expr ) : cnl_ast option = begin match node_id expr . expr_node with | Some n -> if id = n then Some ( Cnl_expr expr ) else Cnl2cnl . expr_sh_fold ( fun expr acc -> begin match acc with | Some _ -> acc | None -> expr_get_cnl id expr end ) exp...
let evnt_get_cnl ( id : id ) ( evnt : cnl_event ) : cnl_ast option = begin match node_id evnt . evnt_node with | Some n -> if id = n then Some ( Cnl_evnt evnt ) else Cnl2cnl . evnt_sh_fold ( fun ( ) acc -> acc ) evnt None | None -> None end
let cond_get_cnl ( id : id ) ( cond : cnl_cond ) : cnl_ast option = begin match node_id cond . cond_node with | Some n -> if id = n then Some ( Cnl_cond cond ) else Cnl2cnl . cond_sh_fold ( fun expr acc -> begin match acc with | Some _ -> acc | None -> expr_get_cnl id expr end ) cond No...
let actn_get_cnl ( id : id ) ( actn : cnl_action ) : cnl_ast option = begin match node_id actn . actn_node with | Some n -> if id = n then Some ( Cnl_actn actn ) else Cnl2cnl . actn_sh_fold ( fun expr acc -> begin match acc with | Some _ -> acc | None -> expr_get_cnl id expr end ) actn ...
let actns_get_cnl ( id : id ) ( actns : cnl_actions ) : cnl_ast option = begin match node_id actns . actns_node with | Some n -> if id = n then Some ( Cnl_actns actns ) else Cnl2cnl . actns_sh_fold ( fun actn acc -> begin match acc with | Some _ -> acc | None -> actn_get_cnl id actn end )...
let rule_get_cnl ( id : id ) ( rule : cnl_rule ) : cnl_ast option = begin match node_id rule . rule_node with | Some n -> if id = n then Some ( Cnl_rule rule ) else Cnl2cnl . rule_sh_fold ( fun evnt acc -> begin match acc with | Some _ -> acc | None -> evnt_get_cnl id evnt end ) ( fun...
let rec expr_next_focus_fold ( focus : int ) ( expr : cnl_expr ) ( ( res , id_found ) : ( int * cnl_kind ) option * bool ) : ( int * cnl_kind ) option * bool = begin match res , id_found , expr . expr_node with | Some _ , _ , _ -> ( res , id_found ) | None , tr...
let evnt_next_focus_fold ( focus : int ) ( evnt : cnl_event ) ( ( res , id_found ) : ( int * cnl_kind ) option * bool ) : ( int * cnl_kind ) option * bool = begin match res , id_found , evnt . evnt_node with | Some _ , _ , _ -> ( res , id_found ) | None , true ...
let cond_next_focus_fold ( focus : int ) ( cond : cnl_cond ) ( ( res , id_found ) : ( int * cnl_kind ) option * bool ) : ( int * cnl_kind ) option * bool = begin match res , id_found , cond . cond_node with | Some _ , _ , _ -> ( res , id_found ) | None , true ,...
let actn_next_focus_fold ( focus : int ) ( actn : cnl_action ) ( ( res , id_found ) : ( int * cnl_kind ) option * bool ) : ( int * cnl_kind ) option * bool = begin match res , id_found , actn . actn_node with | Some _ , _ , _ -> ( res , id_found ) | None , true...
let actns_next_focus_fold ( focus : int ) ( actns : cnl_actions ) ( ( res , id_found ) : ( int * cnl_kind ) option * bool ) : ( int * cnl_kind ) option * bool = begin match res , id_found , actns . actns_node with | Some _ , _ , _ -> ( res , id_found ) | None , ...
let rule_next_focus ( focus : int ) ( rule : cnl_rule ) : ( int * cnl_kind ) option = let res_opt , _ = let id_found = node_id rule . rule_node = Some ( Some focus ) in Cnl2cnl . rule_sh_fold ( evnt_next_focus_fold focus ) ( cond_next_focus_fold focus ) ( actns_next_focus_fold f...
let cond_next_focus ( focus : int ) ( rule : cnl_rule ) : ( int * cnl_kind ) option = let res_opt , _ = let id_found = node_id rule . rule_node = Some ( Some focus ) in Cnl2cnl . rule_sh_fold ( fun _ acc -> acc ) ( cond_next_focus_fold focus ) ( fun _ acc -> acc ) rule ( ...
let max_id ( rule : cnl_rule ) : id = let fold_fun kind node m_id = let id = begin match node with | N_undefined id | N_filled ( id , _ ) | N_rejected ( id , _ ) -> id | N_accepted _ -> None end in begin match id , m_id with | Some id1 , Some id2 -> Some ( max id1 id2 ) | Some i...
let next_id ( id : id ) : id = begin match id with | None -> Some 1 | Some n -> Some ( n + 1 ) end
let index_rule ( rule : cnl_rule ) : cnl_rule = let map_fold_fun kind node id = begin match node with | N_undefined None -> N_undefined id , next_id id | N_filled ( None , x ) -> N_filled ( id , x ) , next_id id | N_rejected ( None , x ) -> N_rejected ( id , x ) , next_id id ...
let f_to_a p = begin match p with | N_undefined _ -> raise ( Failure " Cannot confirm undefined AST node " ) | N_filled ( _ , ed ) -> N_accepted ed | N_rejected _ -> raise ( Failure " Cannot confirm rejected AST node " ) | N_accepted ed -> N_accepted ed end
let expr_f_to_a ( expr : cnl_expr ) : cnl_expr = Cnl2cnl . expr_dp_map_over_nodes { Cnl2cnl . id_map_over_node_fun with Cnl2cnl . poly_map_fun = ( fun kind node -> f_to_a node ) } expr
let actn_f_to_a ( actn : cnl_action ) : cnl_action = Cnl2cnl . actn_dp_map_over_nodes { Cnl2cnl . id_map_over_node_fun with Cnl2cnl . poly_map_fun = ( fun kind node -> f_to_a node ) } actn
let evnt_f_to_a ( evnt : cnl_event ) : cnl_event = Cnl2cnl . evnt_dp_map_over_nodes { Cnl2cnl . id_map_over_node_fun with Cnl2cnl . poly_map_fun = ( fun kind node -> f_to_a node ) } evnt
let cond_f_to_a ( cond : cnl_cond ) : cnl_cond = Cnl2cnl . cond_dp_map_over_nodes { Cnl2cnl . id_map_over_node_fun with Cnl2cnl . poly_map_fun = ( fun kind node -> f_to_a node ) } cond
let actns_f_to_a ( actns : cnl_actions ) : cnl_actions = Cnl2cnl . actns_dp_map_over_nodes { Cnl2cnl . id_map_over_node_fun with Cnl2cnl . poly_map_fun = ( fun kind node -> f_to_a node ) } actns
let rule_f_to_a ( rule : cnl_rule ) : cnl_rule = Cnl2cnl . rule_dp_map_over_nodes { Cnl2cnl . id_map_over_node_fun with Cnl2cnl . poly_map_fun = ( fun kind node -> f_to_a node ) } rule
let cnl_f_to_a ( cnl : cnl_ast ) : cnl_ast = begin match cnl with | Cnl_expr expr -> Cnl_expr ( expr_f_to_a expr ) | Cnl_actn actn -> Cnl_actn ( actn_f_to_a actn ) | Cnl_evnt evnt -> Cnl_evnt ( evnt_f_to_a evnt ) | Cnl_cond cond -> Cnl_cond ( cond_f_to_a cond ) | Cnl_actns actns -> Cnl_...
let f_to_r p = begin match p with | N_undefined _ -> raise ( Failure " Cannot confirm undefined AST node " ) | N_filled ( id , ed ) -> N_rejected ( id , ed ) | N_rejected _ -> p | N_accepted ed -> N_accepted ed end
let expr_f_to_r ( expr : cnl_expr ) : cnl_expr = Cnl2cnl . expr_dp_map_over_nodes { Cnl2cnl . id_map_over_node_fun with Cnl2cnl . poly_map_fun = ( fun kind node -> f_to_r node ) } expr
let actn_f_to_r ( actn : cnl_action ) : cnl_action = Cnl2cnl . actn_dp_map_over_nodes { Cnl2cnl . id_map_over_node_fun with Cnl2cnl . poly_map_fun = ( fun kind node -> f_to_r node ) } actn
let evnt_f_to_r ( evnt : cnl_event ) : cnl_event = Cnl2cnl . evnt_dp_map_over_nodes { Cnl2cnl . id_map_over_node_fun with Cnl2cnl . poly_map_fun = ( fun kind node -> f_to_r node ) } evnt
let cond_f_to_r ( cond : cnl_cond ) : cnl_cond = Cnl2cnl . cond_dp_map_over_nodes { Cnl2cnl . id_map_over_node_fun with Cnl2cnl . poly_map_fun = ( fun kind node -> f_to_r node ) } cond
let actns_f_to_r ( actns : cnl_actions ) : cnl_actions = Cnl2cnl . actns_dp_map_over_nodes { Cnl2cnl . id_map_over_node_fun with Cnl2cnl . poly_map_fun = ( fun kind node -> f_to_r node ) } actns
let rule_f_to_r ( rule : cnl_rule ) : cnl_rule = Cnl2cnl . rule_dp_map_over_nodes { Cnl2cnl . id_map_over_node_fun with Cnl2cnl . poly_map_fun = ( fun kind node -> f_to_r node ) } rule
let cnl_f_to_r ( cnl : cnl_ast ) : cnl_ast = begin match cnl with | Cnl_expr expr -> Cnl_expr ( expr_f_to_r expr ) | Cnl_actn actn -> Cnl_actn ( actn_f_to_r actn ) | Cnl_evnt evnt -> Cnl_evnt ( evnt_f_to_r evnt ) | Cnl_cond cond -> Cnl_cond ( cond_f_to_r cond ) | Cnl_actns actns -> Cnl_...
let add_cond rule = let id , rule_desc = begin match rule . rule_node with | N_undefined id -> assert false | N_rejected ( id , _ ) -> assert false | N_accepted _ -> assert false | N_filled ( id , rule_desc ) -> id , rule_desc end in let cond = begin match rule_desc . rule_cond . cond...
let expr_prompt id expr = let rec expr_prompt_aux id txt expr = begin match node_id expr . expr_node , node_desc expr . expr_node with | Some id ' , _ when id = id ' -> raise ( Prompt txt ) | _ , None -> ( ) | _ , Some expr_desc -> begin match expr_desc with | E_lit _ -> ( ) ...
let rule_prompt id rule = Cnl2cnl . rule_sh_fold ( fun _ acc -> acc ) ( fun cond acc -> Cnl2cnl . cond_sh_fold ( fun expr acc -> begin match acc with | Some _ -> acc | None -> let s = expr_prompt id expr in if s = " " then None else Some s end ) cond acc ) ( fun actns acc -> Cnl2cnl ....
let json_of_expr expr = Yojson . Safe . to_basic ( cnl_expr_to_yojson expr )
let json_of_expr_desc desc = Yojson . Safe . to_basic ( cnl_expr_desc_to_yojson desc )
let json_of_evnt evnt = Yojson . Safe . to_basic ( cnl_event_to_yojson evnt )
let json_of_evnt_desc desc = Yojson . Safe . to_basic ( cnl_evnt_desc_to_yojson desc )
let json_of_cond cond = Yojson . Safe . to_basic ( cnl_cond_to_yojson cond )
let json_of_cond_desc desc = Yojson . Safe . to_basic ( cnl_cond_desc_to_yojson desc )
let json_of_actn actn = Yojson . Safe . to_basic ( cnl_action_to_yojson actn )
let json_of_actn_desc desc = Yojson . Safe . to_basic ( cnl_actn_desc_to_yojson desc )
let json_of_actns actns = Yojson . Safe . to_basic ( cnl_actions_to_yojson actns )
let json_of_actns_desc desc = Yojson . Safe . to_basic ( cnl_actns_desc_to_yojson desc )
let json_of_rule rule = Yojson . Safe . to_basic ( cnl_rule_to_yojson rule )
let json_of_rule_desc desc = Yojson . Safe . to_basic ( cnl_rule_desc_to_yojson desc )
let rec json_replace ( old : string ) ( new_ : string ) ( j : Yojson . Basic . json ) = begin match j with | ` Null | ` Bool _ | ` Int _ | ` Float _ -> j | ` String s -> if s = old then ` String new_ else j | ` Assoc l -> let l = List . map ( fun ( s , j ) -> l...
type t = Flambda . Function_params_and_body . t Code0 . t
let create code_id ~ params_and_body ~ free_names_of_params_and_body ~ newer_version_of ~ params_arity ~ num_trailing_local_params ~ result_arity ~ result_types ~ contains_no_escaping_local_allocs ~ stub ~ inline ~ is_a_functor ~ recursive ~ cost_metrics ~ inlining_arguments ~ dbg ~ is_tupled ~ is_my_c...
let with_params_and_body = Code0 . with_params_and_body ~ print_function_params_and_body : Flambda . Function_params_and_body . print
let apply_renaming = Code0 . apply_renaming ~ apply_renaming_function_params_and_body : Flambda . Function_params_and_body . apply_renaming
let print = Code0 . print ~ print_function_params_and_body : Flambda . Function_params_and_body . print
let all_ids_for_export = Code0 . all_ids_for_export ~ all_ids_for_export_function_params_and_body : Flambda . Function_params_and_body . all_ids_for_export
type ' function_params_and_body t = { params_and_body : ' function_params_and_body ; free_names_of_params_and_body : Name_occurrences . t ; code_metadata : Code_metadata . t }
let code_metadata t = t . code_metadata
let code_id t = Code_metadata . code_id t . code_metadata
let params_and_body t = t . params_and_body
let newer_version_of t = Code_metadata . newer_version_of t . code_metadata
let params_arity t = Code_metadata . params_arity t . code_metadata
let num_leading_heap_params t = Code_metadata . num_leading_heap_params t . code_metadata
let num_trailing_local_params t = Code_metadata . num_trailing_local_params t . code_metadata
let result_arity t = Code_metadata . result_arity t . code_metadata
let result_types t = Code_metadata . result_types t . code_metadata
let stub t = Code_metadata . stub t . code_metadata
let inline t = Code_metadata . inline t . code_metadata
let is_a_functor t = Code_metadata . is_a_functor t . code_metadata
let recursive t = Code_metadata . recursive t . code_metadata
let cost_metrics t = Code_metadata . cost_metrics t . code_metadata
let inlining_arguments t = Code_metadata . inlining_arguments t . code_metadata
let dbg t = Code_metadata . dbg t . code_metadata
let is_tupled t = Code_metadata . is_tupled t . code_metadata
let is_my_closure_used t = Code_metadata . is_my_closure_used t . code_metadata
let inlining_decision t = Code_metadata . inlining_decision t . code_metadata
let contains_no_escaping_local_allocs t = Code_metadata . contains_no_escaping_local_allocs t . code_metadata
let absolute_history t = Code_metadata . absolute_history t . code_metadata
let relative_history t = Code_metadata . relative_history t . code_metadata
let check_free_names_of_params_and_body ~ print_function_params_and_body code_id ~ params_and_body ~ free_names_of_params_and_body = if not ( Name_occurrences . no_continuations free_names_of_params_and_body && Name_occurrences . no_variables free_names_of_params_and_body ) then Misc . fatal_errorf " I...
let create ~ print_function_params_and_body code_id ~ params_and_body ~ free_names_of_params_and_body ~ newer_version_of ~ params_arity ~ num_trailing_local_params ~ result_arity ~ result_types ~ contains_no_escaping_local_allocs ~ stub ( ~ inline : Inline_attribute . t ) ~ is_a_functor ~ recursive ...
let with_code_id code_id t = { t with code_metadata = Code_metadata . with_code_id code_id t . code_metadata }
let with_params_and_body ~ print_function_params_and_body ~ params_and_body ~ free_names_of_params_and_body ~ cost_metrics t = check_free_names_of_params_and_body ~ print_function_params_and_body ( code_id t ) ~ params_and_body ~ free_names_of_params_and_body ; let code_metadata = Code_metadata . with_...
let with_newer_version_of newer_version_of t = { t with code_metadata = Code_metadata . with_newer_version_of newer_version_of t . code_metadata }
let print ~ print_function_params_and_body ppf { params_and_body ; code_metadata ; free_names_of_params_and_body = _ } = Format . fprintf ppf " [ @< hov 1 ( [ >@< hov 1 ( > code_metadata @ % a ) ] @@ % a ) ] " @ Code_metadata . print code_metadata print_function_params_and_...
let compare t1 t2 = Code_id . compare ( code_id t1 ) ( code_id t2 )
let free_names { params_and_body = _ ; free_names_of_params_and_body ; code_metadata } = Name_occurrences . union ( Code_metadata . free_names code_metadata ) free_names_of_params_and_body
let apply_renaming ~ apply_renaming_function_params_and_body ( { params_and_body ; free_names_of_params_and_body ; code_metadata } as t ) renaming = let code_metadata ' = Code_metadata . apply_renaming code_metadata renaming in let params_and_body ' = apply_renaming_function_params_and_body params...
let all_ids_for_export ~ all_ids_for_export_function_params_and_body { params_and_body ; free_names_of_params_and_body = _ ; code_metadata } = let params_and_body_ids = all_ids_for_export_function_params_and_body params_and_body in Ids_for_export . union ( Code_metadata . all_ids_for_export code_meta...
let map_result_types ( { code_metadata ; _ } as t ) ~ f = { t with code_metadata = Code_metadata . map_result_types code_metadata ~ f }
let dump_cmm = ref false