module U = NUri
module H = U.UriHash
+module C = Cps
+module Y = Entity
module M = Meta
module A = Aut
(* qualified identifier: uri, name, qualifiers *)
-type qid = U.uri * M.id * M.id list
+type qid = M.uri * M.id * M.id list
type environment = M.pars H.t
type resolver = Local of int
| Global of M.pars
-let hsize = 7000 (* hash tables initial size *)
+let henv_size, hcnt_size = 7000, 4300 (* hash tables initial sizes *)
(* Internal functions *******************************************************)
-let initial_status size cover = {
+let initial_status cover = {
path = []; node = None; nodes = []; line = 1; cover = cover;
- henv = H.create size; hcnt = H.create size
+ henv = H.create henv_size; hcnt = H.create hcnt_size
}
let id_of_name (id, _, _) = id
let complete_qid f st (id, is_local, qs) =
let f qs = f (mk_qid st id qs) in
- let f path = Cps.list_rev_append f path ~tail:qs in
+ let f path = C.list_rev_append f path ~tail:qs in
let rec skip f = function
| phd :: ptl, qshd :: _ when phd = qshd -> f ptl
| _ :: ptl, _ :: _ -> skip f (ptl, qs)
let relax_qid f st (_, id, path) =
let f path = f (mk_qid st id path) in
let f = function
- | _ :: tl -> Cps.list_rev f tl
+ | _ :: tl -> C.list_rev f tl
| [] -> assert false
in
- Cps.list_rev f path
+ C.list_rev f path
let relax_opt_qid f st = function
| None -> f None
let map2 f (id, _) = resolve_lref_strict f st l lenv id in
let f tail =
let f args = f (M.GRef (l, uri_of_qid qid, args)) in
- let f defs = Cps.list_rev_map_append f map2 defs ~tail in
- Cps.list_sub_strict f defs args
+ let f defs = C.list_rev_map_append f map2 defs ~tail in
+ C.list_sub_strict f defs args
in
- Cps.list_map f map1 args
+ C.list_map f map1 args
in
let g qid = resolve_gref_relaxed g st qid in
let f = function
in
resolve_lref f st l lenv (id_of_name name)
-let xlate_entity f st = function
+let xlate_entity err f st = function
| A.Section (Some (_, name)) ->
- f {st with path = name :: st.path; nodes = st.node :: st.nodes} None
+ err {st with path = name :: st.path; nodes = st.node :: st.nodes}
| A.Section None ->
begin match st.path, st.nodes with
| _ :: ptl, nhd :: ntl ->
- f {st with path = ptl; node = nhd; nodes = ntl} None
+ err {st with path = ptl; node = nhd; nodes = ntl}
| _ -> assert false
end
| A.Context None ->
- f {st with node = None} None
+ err {st with node = None}
| A.Context (Some name) ->
- let f name = f {st with node = Some name} None in
+ let f name = err {st with node = Some name} in
complete_qid f st name
| A.Block (name, w) ->
let f qid =
let f pars =
let f ww =
H.add st.hcnt (uri_of_qid qid) ((name, ww) :: pars);
- f {st with node = Some qid} None
+ err {st with node = Some qid}
in
xlate_term f st pars w
in
let f pars =
let f qid =
let f ww =
- let entry = (st.line, pars, uri_of_qid qid, ww, None) in
H.add st.henv (uri_of_qid qid) pars;
- f {st with line = succ st.line} (Some entry)
+ let a = [Y.Mark st.line] in
+ let entry = pars, ww, None in
+ let entity = a, uri_of_qid qid, Y.Abst entry in
+ f {st with line = succ st.line} entity
in
xlate_term f st pars w
in
let f pars =
let f qid =
let f ww vv =
- let entry = (st.line, pars, uri_of_qid qid, ww, Some (trans, vv)) in
H.add st.henv (uri_of_qid qid) pars;
- f {st with line = succ st.line} (Some entry)
+ let a = Y.Mark st.line :: if trans then [] else [Y.Priv] in
+ let entry = pars, ww, Some vv in
+ let entity = a, uri_of_qid qid, Y.Abbr entry in
+ f {st with line = succ st.line} entity
in
let f ww = xlate_term (f ww) st pars v in
xlate_term f st pars w
(* Interface functions ******************************************************)
let initial_status ?(cover="") () =
- initial_status hsize cover
+ initial_status cover
let meta_of_aut = xlate_entity