let tactical = Grammar.Entry.create grammar "tactical"
let tactical0 = Grammar.Entry.create grammar "tactical0"
let command = Grammar.Entry.create grammar "command"
+let alias_spec = Grammar.Entry.create grammar "alias_spec"
+let macro = Grammar.Entry.create grammar "macro"
let script = Grammar.Entry.create grammar "script"
+let statement = Grammar.Entry.create grammar "statement"
let return_term loc term = CicAst.AttributedTerm (`Loc loc, term)
-let return_tactic loc tactic = TacticAst.LocatedTactic (loc, tactic)
-let return_tactical loc tactical = TacticAst.LocatedTactical (loc, tactical)
-let return_command loc cmd = cmd (* TODO ZACK FIXME uhm ... why we drop loc? *)
let fail floc msg =
let (x, y) = CicAst.loc_of_floc floc in
| None -> None
| Some lexeme -> Some (int_of_string lexeme)
+let int_of_string s =
+ try
+ Pervasives.int_of_string s
+ with Failure _ ->
+ failwith (sprintf "Lexer failure: string_of_int \"%s\" failed" s)
+
(** the uri of an inductive type (a ".ind" uri) is not meaningful without an
* xpointer. Still, it's likely that an user who wrote "cic:/blabla/foo.ind"
* actually meant "cic:/blabla/foo.ind#xpointer(1/1)", i.e. the first inductive
vars body
EXTEND
- GLOBAL: term term0 tactic tactical tactical0 command script;
+ GLOBAL: term term0 statement;
int: [
[ num = NUM ->
try
[ PAREN "["; idents = LIST1 IDENT SEP SYMBOL ";"; PAREN "]" -> idents ]
];
reduction_kind: [
- [ [ IDENT "reduce" | IDENT "Reduce" ] -> `Reduce
- | [ IDENT "simplify" | IDENT "Simplify" ] -> `Simpl
- | [ IDENT "whd" | IDENT "Whd" ] -> `Whd ]
+ [ [ IDENT "reduce" ] -> `Reduce
+ | [ IDENT "simplify" ] -> `Simpl
+ | [ IDENT "whd" ] -> `Whd ]
];
tactic: [
- [ [ IDENT "absurd" | IDENT "Absurd" ]; t = tactic_term ->
- return_tactic loc (TacticAst.Absurd t)
- | [ IDENT "apply" | IDENT "Apply" ]; t = tactic_term ->
- return_tactic loc (TacticAst.Apply t)
- | [ IDENT "assumption" | IDENT "Assumption" ] ->
- return_tactic loc TacticAst.Assumption
- | [ IDENT "auto" | IDENT "Auto" ] -> return_tactic loc TacticAst.Auto
- | [ IDENT "change" | IDENT "Change" ];
+ [ [ IDENT "absurd" ]; t = tactic_term ->
+ TacticAst.Absurd (loc, t)
+ | [ IDENT "apply" ]; t = tactic_term ->
+ TacticAst.Apply (loc, t)
+ | [ IDENT "assumption" ] ->
+ TacticAst.Assumption loc
+ | [ IDENT "auto" ] -> TacticAst.Auto loc
+ | [ IDENT "change" ];
t1 = tactic_term; "with"; t2 = tactic_term;
where = tactic_where ->
- return_tactic loc (TacticAst.Change (t1, t2, where))
+ TacticAst.Change (loc, t1, t2, where)
(* TODO Change_pattern *)
- | [ IDENT "contradiction" | IDENT "Contradiction" ] ->
- return_tactic loc TacticAst.Contradiction
- | [ IDENT "cut" | IDENT "Cut" ];
- t = tactic_term -> return_tactic loc (TacticAst.Cut t)
- | [ IDENT "decompose" | IDENT "Decompose" ];
+ | [ IDENT "contradiction" ] ->
+ TacticAst.Contradiction loc
+ | [ IDENT "cut" ];
+ t = tactic_term ->
+ TacticAst.Cut (loc, t)
+ | [ IDENT "decompose" ];
principles = ident_list1; where = IDENT ->
- return_tactic loc (TacticAst.Decompose (where, principles))
- | [ IDENT "discriminate" | IDENT "Discriminate" ];
+ TacticAst.Decompose (loc, where, principles)
+ | [ IDENT "discriminate" ];
hyp = IDENT ->
- return_tactic loc (TacticAst.Discriminate hyp)
- | [ IDENT "elimType" | IDENT "ElimType" ]; t = tactic_term ->
- return_tactic loc (TacticAst.ElimType t)
- | [ IDENT "elim" | IDENT "Elim" ];
+ TacticAst.Discriminate (loc, hyp)
+ | [ IDENT "elimType" ]; t = tactic_term ->
+ TacticAst.ElimType (loc, t)
+ | [ IDENT "elim" ];
t1 = tactic_term;
using = OPT [ "using"; using = tactic_term -> using ] ->
- return_tactic loc (TacticAst.Elim (t1, using))
- | [ IDENT "exact" | IDENT "Exact" ]; t = tactic_term ->
- return_tactic loc (TacticAst.Exact t)
- | [ IDENT "exists" | IDENT "Exists" ] ->
- return_tactic loc TacticAst.Exists
- | [ IDENT "fold" | IDENT "Fold" ];
+ TacticAst.Elim (loc, t1, using)
+ | [ IDENT "exact" ]; t = tactic_term ->
+ TacticAst.Exact (loc, t)
+ | [ IDENT "exists" ] ->
+ TacticAst.Exists loc
+ | [ IDENT "fold" ];
kind = reduction_kind; t = tactic_term ->
- return_tactic loc (TacticAst.Fold (kind, t))
- | [ IDENT "fourier" | IDENT "Fourier" ] ->
- return_tactic loc TacticAst.Fourier
- | [ IDENT "hint" | IDENT "Hint" ] -> return_tactic loc TacticAst.Hint
- | [ IDENT "injection" | IDENT "Injection" ]; ident = IDENT ->
- return_tactic loc (TacticAst.Injection ident)
- | [ IDENT "intros" | IDENT "Intros" ];
+ TacticAst.Fold (loc, kind, t)
+ | [ IDENT "fourier" ] ->
+ TacticAst.Fourier loc
+ | IDENT "goal"; n = NUM -> TacticAst.Goal (loc, int_of_string n)
+ | [ IDENT "hint" ] -> TacticAst.Hint loc
+ | [ IDENT "injection" ]; ident = IDENT ->
+ TacticAst.Injection (loc, ident)
+ | [ IDENT "intros" ];
num = OPT [ num = int -> num ];
idents = OPT ident_list0 ->
let idents = match idents with None -> [] | Some idents -> idents in
- return_tactic loc (TacticAst.Intros (num, idents))
- | [ IDENT "intro" | IDENT "Intro" ] ->
- return_tactic loc (TacticAst.Intros (None, []))
- | [ IDENT "left" | IDENT "Left" ] -> return_tactic loc TacticAst.Left
+ TacticAst.Intros (loc, num, idents)
+ | [ IDENT "intro" ] ->
+ TacticAst.Intros (loc, None, [])
+ | [ IDENT "left" ] -> TacticAst.Left loc
| [ "let" | "Let" ];
t = tactic_term; "in"; where = IDENT ->
- return_tactic loc (TacticAst.LetIn (t, where))
+ TacticAst.LetIn (loc, t, where)
| kind = reduction_kind;
pat = OPT [
"in"; pat = [ IDENT "goal" -> `Goal | IDENT "hyp" -> `Everywhere ] ->
pat
];
terms = LIST0 term SEP SYMBOL "," ->
- let tac =
- (match (pat, terms) with
- | None, [] -> TacticAst.Reduce (kind, None)
- | None, terms -> TacticAst.Reduce (kind, Some (terms, `Goal))
- | Some pat, [] -> TacticAst.Reduce (kind, Some ([], pat))
- | Some pat, terms -> TacticAst.Reduce (kind, Some (terms, pat)))
- in
- return_tactic loc tac
- | [ IDENT "reflexivity" | IDENT "Reflexivity" ] ->
- return_tactic loc TacticAst.Reflexivity
- | [ IDENT "replace" | IDENT "Replace" ];
+ (match (pat, terms) with
+ | None, [] -> TacticAst.Reduce (loc, kind, None)
+ | None, terms -> TacticAst.Reduce (loc, kind, Some (terms, `Goal))
+ | Some pat, [] -> TacticAst.Reduce (loc, kind, Some ([], pat))
+ | Some pat, terms -> TacticAst.Reduce (loc, kind, Some (terms, pat)))
+ | [ IDENT "reflexivity" ] ->
+ TacticAst.Reflexivity loc
+ | [ IDENT "replace" ];
t1 = tactic_term; "with"; t2 = tactic_term ->
- return_tactic loc (TacticAst.Replace (t1, t2))
+ TacticAst.Replace (loc, t1, t2)
(* TODO Rewrite *)
(* TODO Replace_pattern *)
- | [ IDENT "right" | IDENT "Right" ] -> return_tactic loc TacticAst.Right
- | [ IDENT "ring" | IDENT "Ring" ] -> return_tactic loc TacticAst.Ring
- | [ IDENT "split" | IDENT "Split" ] -> return_tactic loc TacticAst.Split
- | [ IDENT "symmetry" | IDENT "Symmetry" ] ->
- return_tactic loc TacticAst.Symmetry
- | [ IDENT "transitivity" | IDENT "Transitivity" ];
+ | [ IDENT "right" ] -> TacticAst.Right loc
+ | [ IDENT "ring" ] -> TacticAst.Ring loc
+ | [ IDENT "split" ] -> TacticAst.Split loc
+ | [ IDENT "symmetry" ] ->
+ TacticAst.Symmetry loc
+ | [ IDENT "transitivity" ];
t = tactic_term ->
- return_tactic loc (TacticAst.Transitivity t)
+ TacticAst.Transitivity (loc, t)
]
];
- tactical0: [ [ t = tactical; SYMBOL "." -> return_tactical loc t ] ];
tactical:
- [ "command" NONA
- [ cmd = command -> return_tactical loc (TacticAst.Command cmd) ]
- | "sequence" LEFTA
- [ tactics = LIST1 NEXT SEP SYMBOL ";" ->
- (match tactics with
- | [tactic] -> tactic
- | _ -> return_tactical loc (TacticAst.Seq tactics))
+ [ "sequence" LEFTA
+ [ tacticals = LIST1 NEXT SEP SYMBOL ";" ->
+ TacticAst.Seq (loc, tacticals)
]
| "then" NONA
[ tac = tactical;
PAREN "["; tacs = LIST0 tactical SEP SYMBOL ";"; PAREN "]" ->
- return_tactical loc (TacticAst.Then (tac, tacs))
+ (TacticAst.Then (loc, tac, tacs))
]
| "loops" RIGHTA
- [ [ IDENT "do" | IDENT "Do" ]; count = int; tac = tactical ->
- return_tactical loc (TacticAst.Do (count, tac))
- | [ IDENT "repeat" | IDENT "Repeat" ]; tac = tactical ->
- return_tactical loc (TacticAst.Repeat tac)
+ [ [ IDENT "do" ]; count = int; tac = tactical ->
+ TacticAst.Do (loc, count, tac)
+ | [ IDENT "repeat" ]; tac = tactical ->
+ TacticAst.Repeat (loc, tac)
]
| "simple" NONA
- [ [ IDENT "tries" | IDENT "Tries" ];
+ [ IDENT "tries";
PAREN "["; tacs = LIST0 tactical SEP SYMBOL ";"; PAREN "]" ->
- return_tactical loc (TacticAst.Tries tacs)
- | [ IDENT "try" | IDENT "Try" ]; tac = NEXT ->
- return_tactical loc (TacticAst.Try tac)
- | [ IDENT "fail" | IDENT "Fail" ] -> return_tactical loc TacticAst.Fail
- | [ IDENT "id" | IDENT "Id" ] -> return_tactical loc TacticAst.IdTac
- | PAREN "("; tac = tactical; PAREN ")" -> return_tactical loc tac
- | tac = tactic -> return_tactical loc (TacticAst.Tactic tac)
+ TacticAst.Tries (loc, tacs)
+ | IDENT "try"; tac = NEXT ->
+ TacticAst.Try (loc, tac)
+ | IDENT "fail" -> TacticAst.Fail loc
+ | IDENT "id" -> TacticAst.IdTac loc
+ | PAREN "("; tac = tactical; PAREN ")" -> tac
+ | tac = tactic -> TacticAst.Tactic (loc, tac)
]
];
- theorem_flavour: [ (* all flavours but Goal *)
- [ [ IDENT "definition" | IDENT "Definition" ] -> `Definition
- | [ IDENT "fact" | IDENT "Fact" ] -> `Fact
- | [ IDENT "lemma" | IDENT "Lemma" ] -> `Lemma
- | [ IDENT "remark" | IDENT "Remark" ] -> `Remark
- | [ IDENT "theorem" | IDENT "Theorem" ] -> `Theorem
+ theorem_flavour: [
+ [ [ IDENT "definition" ] -> `Definition
+ | [ IDENT "fact" ] -> `Fact
+ | [ IDENT "lemma" ] -> `Lemma
+ | [ IDENT "remark" ] -> `Remark
+ | [ IDENT "theorem" ] -> `Theorem
]
];
inductive_spec: [ [
let ind_types = fst_ind_type :: tl_ind_types in
(params, ind_types)
] ];
- print_kind: [
- [ [ IDENT "Env" | IDENT "env" | IDENT "Environment" | IDENT "environment" ]
- -> `Env
- | [ IDENT "Coer" | IDENT "coer" | IDENT "Coercions" | IDENT "coercions" ]
- -> `Coer
- ] ];
- command: [
- [ [ IDENT "abort" | IDENT "Abort" ] -> return_command loc TacticAst.Abort
- | [ IDENT "proof" | IDENT "Proof" ] -> return_command loc TacticAst.Proof
- | [ IDENT "quit" | IDENT "Quit" ] -> return_command loc TacticAst.Quit
- | [ IDENT "qed" | IDENT "Qed" ] ->
- return_command loc (TacticAst.Qed None)
- | [ IDENT "print" | IDENT "Print" ];
- print_kind = print_kind ->
- return_command loc (TacticAst.Print print_kind)
- | [ IDENT "save" | IDENT "Save" ]; name = IDENT ->
- return_command loc (TacticAst.Qed (Some name))
+ macro: [[
+ [ IDENT "abort" ] -> TacticAst.Abort loc
+ | [ IDENT "quit" ] -> TacticAst.Quit loc
+ | [ IDENT "print" ]; name = QSTRING -> TacticAst.Print (loc, name)
+ | [ IDENT "undo" ]; steps = OPT NUM ->
+ TacticAst.Undo (loc, int_opt steps)
+ | [ IDENT "redo" ]; steps = OPT NUM ->
+ TacticAst.Redo (loc, int_opt steps)
+ | [ IDENT "check" ]; t = term ->
+ TacticAst.Check (loc, t)
+ | [ IDENT "print" ]; name = QSTRING -> TacticAst.Print (loc, name)
+ ]];
+
+ alias_spec: [
+ [ IDENT "id"; id = QSTRING; SYMBOL "="; uri = QSTRING ->
+ let alpha = "[a-zA-Z]" in
+ let num = "[0-9]+" in
+ let ident_cont = "\\("^alpha^"\\|"^num^"\\|_\\|\\\\\\)" in
+ let ident = "\\("^alpha^ident_cont^"*\\|_"^ident_cont^"+\\)" in
+ let rex = Str.regexp ("^"^ident^"$") in
+ if Str.string_match rex id 0 then
+ let rex = Str.regexp
+ ("^\\(cic:/\\|theory:/\\)"^ident^
+ "\\(/"^ident^"+\\)*\\(\\."^ident^"\\)+"^
+ "\\(#xpointer("^ num^"\\(/"^num^"\\)+)\\)?$")
+ in
+ if Str.string_match rex uri 0 then
+ TacticAst.Ident_alias (id, uri)
+ else
+ raise (Parse_error (loc,sprintf "Not a valid uri: %s" uri))
+ else
+ raise (Parse_error (loc,sprintf "Not a valid identifier: %s" id))
+ | IDENT "symbol"; symbol = QSTRING;
+ instance = OPT [ PAREN "("; IDENT "instance"; n = NUM; PAREN ")" -> n ];
+ SYMBOL "="; dsc = QSTRING ->
+ let instance =
+ match instance with Some i -> int_of_string i | None -> 0
+ in
+ TacticAst.Symbol_alias (symbol, instance, dsc)
+ | IDENT "num";
+ instance = OPT [ PAREN "("; IDENT "instance"; n = NUM; PAREN ")" -> n ];
+ SYMBOL "="; dsc = QSTRING ->
+ let instance =
+ match instance with Some i -> int_of_string i | None -> 0
+ in
+ TacticAst.Number_alias (instance, dsc)
+ ]
+ ];
+
+ command: [[
+ [ IDENT "set" ]; n = QSTRING; v = QSTRING ->
+ TacticAst.Set (loc, n, v)
+ | [ IDENT "qed" ] -> TacticAst.Qed loc
| flavour = theorem_flavour; name = OPT IDENT; SYMBOL ":"; typ = term;
body = OPT [ SYMBOL <:unicode<def>> (* ≝ *); body = term -> body ] ->
- return_command loc (TacticAst.Theorem (flavour, name, typ, body))
+ TacticAst.Theorem (loc, flavour, name, typ, body)
| "let"; ind_kind = [ "corec" -> `CoInductive | "rec"-> `Inductive ];
defs = let_defs ->
let name,ty =
| _ -> assert false
in
let body = CicAst.Ident (name,None) in
- TacticAst.Theorem(`Definition, Some name, ty,
+ TacticAst.Theorem(loc, `Definition, Some name, ty,
Some (CicAst.LetRec (ind_kind, defs, body)))
- | [ IDENT "inductive" | IDENT "Inductive" ]; spec = inductive_spec ->
+ | [ IDENT "inductive" ]; spec = inductive_spec ->
let (params, ind_types) = spec in
- return_command loc (TacticAst.Inductive (params, ind_types))
- | [ IDENT "coinductive" | IDENT "CoInductive" ]; spec = inductive_spec ->
+ TacticAst.Inductive (loc, params, ind_types)
+ | [ IDENT "coinductive" ]; spec = inductive_spec ->
let (params, ind_types) = spec in
let ind_types = (* set inductive flags to false (coinductive) *)
List.map (fun (name, _, term, ctors) -> (name, false, term, ctors))
ind_types
in
- return_command loc (TacticAst.Inductive (params, ind_types))
- | [ IDENT "coercion" | IDENT "Coercion" ] ; name = IDENT ->
- return_command loc (TacticAst.Coercion (CicAst.Ident (name,Some [])))
- | [ IDENT "coercion" | IDENT "Coercion" ] ; name = URI ->
- return_command loc (TacticAst.Coercion (CicAst.Uri (name,Some [])))
- | [ IDENT "goal" | IDENT "Goal" ]; typ = term;
- body = OPT [ SYMBOL <:unicode<def>> (* ≝ *); body = term -> body ] ->
- return_command loc (TacticAst.Theorem (`Goal, None, typ, body))
- | [ IDENT "undo" | IDENT "Undo" ]; steps = OPT NUM ->
- return_command loc (TacticAst.Undo (int_opt steps))
- | [ IDENT "redo" | IDENT "Redo" ]; steps = OPT NUM ->
- return_command loc (TacticAst.Redo (int_opt steps))
- | [ IDENT "baseuri" | IDENT "Baseuri" ]; uri = OPT QSTRING ->
- return_command loc (TacticAst.Baseuri uri)
- | [ IDENT "basedir" | IDENT "Basedir" ]; uri = OPT QSTRING ->
- return_command loc (TacticAst.Basedir uri)
- | [ IDENT "check" | IDENT "Check" ]; t = term ->
- return_command loc (TacticAst.Check t)
-(*
- | [ IDENT "alias" | IDENT "Alias" ]; spec = alias_spec ->
- return_command loc (TacticAst.Alias spec)
-*)
- ]
- ];
- script_entry: [
- [ cmd = tactical0 -> Command cmd
-(* | s = COMMENT -> Comment (loc, s) *)
+ TacticAst.Inductive (loc, params, ind_types)
+ | [ IDENT "coercion" ] ; name = IDENT ->
+ TacticAst.Coercion (loc, CicAst.Ident (name,Some []))
+ | [ IDENT "coercion" ] ; name = URI ->
+ TacticAst.Coercion (loc, CicAst.Uri (name,Some []))
+ | [ IDENT "alias" ]; spec = alias_spec ->
+ TacticAst.Alias (loc, spec)
+ ]];
+
+ statement: [
+ [ cmd = command; SYMBOL "." -> TacticAst.Command (loc, cmd)
+ | tac = tactical; SYMBOL "." -> TacticAst.Tactical (loc, tac)
+ | mac = macro; SYMBOL "." -> TacticAst.Macro (loc, mac)
]
];
- script: [ [ entries = LIST0 script_entry; EOI -> (loc, entries) ] ];
END
let exc_located_wrapper f =
let parse_term stream =
exc_located_wrapper (fun () -> (Grammar.Entry.parse term0 stream))
-let parse_tactic stream =
- exc_located_wrapper (fun () -> (Grammar.Entry.parse tactic stream))
-let parse_tactical stream =
- exc_located_wrapper (fun () -> (Grammar.Entry.parse tactical0 stream))
-let parse_script stream =
- exc_located_wrapper (fun () -> (Grammar.Entry.parse script stream))
+let parse_statement stream =
+ exc_located_wrapper (fun () -> (Grammar.Entry.parse statement stream))
(**/**)
(fun domain_item (dsc, _) acc ->
let s =
match domain_item with
- | Id id -> sprintf "alias id %s = %s" id dsc
- | Symbol (symb, instance) ->
- sprintf "alias symbol \"%s\" (instance %d) = \"%s\""
- symb instance dsc
- | Num instance ->
- sprintf "alias num (instance %d) = \"%s\"" instance dsc
+ | Id id ->
+ TacticAstPp.pp_alias (TacticAst.Ident_alias (id, dsc)) ^ "."
+ | Symbol (symb, i) ->
+ TacticAstPp.pp_alias (TacticAst.Symbol_alias (symb, i, dsc))
+ ^ "."
+ | Num i ->
+ TacticAstPp.pp_alias (TacticAst.Number_alias (i, dsc)) ^ "."
in
s :: acc)
env []
projects / helm.git / blobdiff