Fixed regression. Enabled type annotations for all expressions

(between parentheses).

The error was to use COMMA to separate instructions in a block, instead of SEMI (semicolons), as before. This is corrected here.
This commit is contained in:
Christian Rinderknecht 2019-07-30 11:27:32 +02:00
parent 9e6bff4741
commit 6a0948a6ac
3 changed files with 758 additions and 25 deletions

View File

@ -0,0 +1,373 @@
left_assoc(item,op)
right_assoc(item,op) ::=
item
| item op right_assoc(item,op)
option(X) :=
(**)
| X
series(item,sep,term) ::=
item after_item(item,sep,term)
after_item(item,sep,term) ::=
sep item_or_closing(item,sep,term)
| term
item_or_closing(item,sep,term) ::=
term
| series(item,sep,term)
(* Compound constructs *)
par(X) ::= LPAR X RPAR
brackets(X) ::= LBRACKET X RBRACKET
(* Sequences *)
(* Possibly empty sequence of items *)
seq(X) ::=
(**)
| X seq(X)
(* Non-empty sequence of items *)
nseq(X) ::= X seq(X)
(* Non-empty separated sequence of items *)
nsepseq(X,Sep) ::=
X
| X Sep nsepseq(X,Sep)
(* Possibly empy separated sequence of items *)
sepseq(X,Sep) ::=
(**)
| nsepseq(X,Sep)
(* Main *)
contract ::=
nseq(declaration) EOF
declaration ::=
type_decl option(SEMI)
| const_decl option(SEMI)
| lambda_decl option(SEMI)
(* Type declarations *)
type_decl ::=
Type Ident (* type_name *) Is type_expr
type_expr ::=
cartesian
| sum_type
| record_type
cartesian ::=
nsepseq(function_type,TIMES)
function_type ::=
right_assoc(core_type,ARROW)
core_type ::=
Ident (* type_name *)
| Ident (* type_name *) type_tuple
| Map type_tuple
| Set par(type_expr)
| List par(type_expr)
| par(type_expr)
type_tuple ::=
par(nsepseq(type_expr,COMMA))
sum_type ::=
nsepseq(variant,VBAR)
| VBAR nsepseq(variant,VBAR)
variant ::=
Constr Of cartesian
| Constr
record_type ::=
Record series(field_decl,SEMI,End)
| Record LBRACKET series(field_decl,SEMI,RBRACKET)
field_decl ::=
Ident (* field_name *) COLON type_expr
(* Function and procedure declarations *)
lambda_decl ::=
fun_decl
| proc_decl
| entry_decl
fun_decl ::=
Function Ident (* fun_name *) parameters COLON type_expr Is
seq(local_decl)
block
With expr
entry_decl ::=
Entrypoint Ident (* fun_name *) entry_params COLON type_expr Is
seq(local_decl)
block
With expr
entry_params ::=
par(nsepseq(entry_param_decl,SEMI))
proc_decl ::=
Procedure Ident (* fun_name *) parameters Is
seq(local_decl)
block
parameters ::=
par(nsepseq(param_decl,SEMI))
param_decl ::=
Var Ident (* var *) COLON param_type
| Const Ident (* var *) COLON param_type
entry_param_decl ::=
param_decl
| Storage Ident (* var *) COLON param_type
param_type ::=
cartesian
block ::=
Begin series(statement,SEMI,End)
| Block LBRACE series(statement,SEMI,RBRACE)
statement ::=
instruction
| data_decl
data_decl ::=
const_decl
| var_decl
const_decl ::=
Const unqualified_decl(EQUAL)
var_decl ::=
Var unqualified_decl(ASS)
local_decl ::=
fun_decl option(SEMI)
| proc_decl option(SEMI)
| data_decl option(SEMI)
unqualified_decl(op) ::=
Ident (* var *) COLON type_expr op expr
instruction ::=
single_instr
| block
single_instr ::=
If expr Then if_clause option(SEMI) Else if_clause
| case(instruction)
| Ident (* proc_name *) arguments
| Ident ASS expr
| Ident brackets(expr) ASS expr
| Ident DOT nsepseq(selection,DOT) option(brackets(expr)) ASS expr
| loop
| Fail expr
| Skip
| Patch path With structure
| Remove expr From Map path
| Remove expr From Set path
injection(Kind,element) ::=
Kind series(element,SEMI,End)
| Kind End
| Kind LBRACKET bracketed
bracketed ::=
series(element,SEMI,RBRACKET)
| RBRACKET
binding ::=
expr ARROW expr
if_clause ::=
instruction
| LBRACE series(statement,COMMA,RBRACE)
case(rhs) ::=
Case expr Of cases(rhs) End
| Case expr Of LBRACKET cases(rhs) RBRACKET
cases(rhs) ::=
nsepseq(case_clause(rhs),VBAR)
| VBAR nsepseq(case_clause(rhs),VBAR)
case_clause(rhs) ::=
pattern ARROW rhs
loop ::=
while_loop
| for_loop
while_loop ::=
While expr block
for_loop ::=
For Ident ASS expr option(Down) To expr option(step_clause) block
| For Ident In expr block
| For Ident ARROW Ident In expr block
step_clause ::=
Step expr
(* Expressions *)
interactive_expr ::=
expr EOF
expr ::=
case(expr)
| annot_expr
annot_expr ::=
LPAR disj_expr COLON type_expr RPAR
| disj_expr
disj_expr ::=
left_assoc(conj_expr,Or)
conj_expr ::=
left_assoc(set_membership,And)
set_membership ::=
core_expr Contains set_membership
| comp_expr
comp_expr ::=
left_assoc(cat_expr,op_comp)
op_comp ::=
LT | LEQ | GT | GEQ | EQUAL | NEQ
cat_expr ::=
right_assoc(cons_expr,CAT)
cons_expr ::=
left_assoc(add_expr,CONS)
add_expr ::=
left_assoc(mult_expr,add_op)
add_op ::=
PLUS | MINUS
mult_expr ::=
left_assoc(unary_expr,mult_op)
mult_op ::=
TIMES | SLASH | Mod
unary_expr ::=
MINUS core_expr
| Not core_expr
| core_expr
core_expr ::=
Int
| Nat
| Mtz
| Ident (* var *)
| Ident (* var *) brackets(expr) (* lookup *)
| Ident (* struct_name *) DOT nsepseq(selection,DOT) brackets(expr) (* lookup *)
| Ident (* struct_name *) DOT nsepseq(selection,DOT)
| String
| Bytes
| C_False
| C_True
| C_Unit
| tuple_expr
| list_expr
| C_None
| fun_call
| structure
| Constr arguments
| Constr
| C_Some arguments
structure ::=
injection(Map,binding)
| injection(Set,expr)
| record_expr
path ::=
Ident (* var *)
| Ident (* struct_name *) DOT nsepseq(selection,DOT)
selection ::=
Ident (* field_name *)
| Int
record_expr ::=
Record series(field_assignment,SEMI,End)
| Record LBRACKET series(field_assignment,SEMI,RBRACKET)
field_assignment ::=
Ident (* field_name *) EQUAL expr
fun_call ::=
Ident (* fun_name *) arguments
tuple_expr ::=
tuple_inj
tuple_inj ::=
par(nsepseq(expr,COMMA))
arguments ::=
tuple_inj
list_expr ::=
injection(List,expr)
| Nil
(* Patterns *)
pattern ::=
nsepseq(core_pattern,CONS)
core_pattern ::=
Ident (* var *)
| WILD
| Int
| String
| C_Unit
| C_False
| C_True
| C_None
| list_pattern
| tuple_pattern
| constr_pattern
| C_Some par(core_pattern)
list_pattern ::=
injection(List,core_pattern)
| Nil
| par(cons_pattern)
cons_pattern ::=
core_pattern CONS pattern
tuple_pattern ::=
par(nsepseq(core_pattern,COMMA))
constr_pattern ::=
Constr tuple_pattern
| Constr

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@ -0,0 +1,368 @@
left_assoc(item,op)
right_assoc(item,op) ::=
item
| item op right_assoc(item,op)
option(X) :=
(**)
| X
series(item,sep,term) ::=
item after_item(item,sep,term)
after_item(item,sep,term) ::=
sep item_or_closing(item,sep,term)
| term
item_or_closing(item,sep,term) ::=
term
| series(item,sep,term)
(* Compound constructs *)
par(X) ::= LPAR X RPAR
brackets(X) ::= LBRACKET X RBRACKET
(* Sequences *)
(* Possibly empty sequence of items *)
seq(X) ::=
(**)
| X seq(X)
(* Non-empty sequence of items *)
nseq(X) ::= X seq(X)
(* Non-empty separated sequence of items *)
nsepseq(X,Sep) ::=
X
| X Sep nsepseq(X,Sep)
(* Possibly empy separated sequence of items *)
sepseq(X,Sep) ::=
(**)
| nsepseq(X,Sep)
(* Main *)
contract ::=
nseq(declaration) EOF
declaration ::=
type_decl option(SEMI)
| const_decl option(SEMI)
| lambda_decl option(SEMI)
(* Type declarations *)
type_decl ::=
Type Ident (* type_name *) Is type_expr
type_expr ::=
cartesian
| sum_type
| record_type
cartesian ::=
nsepseq(function_type,TIMES)
function_type ::=
right_assoc(core_type,ARROW)
core_type ::=
Ident (* type_name *)
| Ident (* type_name *) type_tuple
| Map type_tuple
| Set par(type_expr)
| List par(type_expr)
| par(type_expr)
type_tuple ::=
par(nsepseq(type_expr,COMMA))
sum_type ::=
nsepseq(variant,VBAR)
| VBAR nsepseq(variant,VBAR)
variant ::=
Constr Of cartesian
| Constr
record_type ::=
Record series(field_decl,SEMI,End)
| Record LBRACKET series(field_decl,SEMI,RBRACKET)
field_decl ::=
Ident (* field_name *) COLON type_expr
(* Function and procedure declarations *)
lambda_decl ::=
fun_decl
| proc_decl
| entry_decl
fun_decl ::=
Function Ident (* fun_name *) parameters COLON type_expr Is
seq(local_decl)
block
With expr
entry_decl ::=
Entrypoint Ident (* fun_name *) entry_params COLON type_expr Is
seq(local_decl)
block
With expr
entry_params ::=
par(nsepseq(entry_param_decl,SEMI))
proc_decl ::=
Procedure Ident (* fun_name *) parameters Is
seq(local_decl)
block
parameters ::=
par(nsepseq(param_decl,SEMI))
param_decl ::=
Var Ident (* var *) COLON param_type
| Const Ident (* var *) COLON param_type
entry_param_decl ::=
param_decl
| Storage Ident (* var *) COLON param_type
param_type ::=
cartesian
block ::=
Begin series(statement,SEMI,End)
| Block LBRACE series(statement,SEMI,RBRACE)
statement ::=
instruction
| data_decl
data_decl ::=
const_decl
| var_decl
const_decl ::=
Const unqualified_decl(EQUAL)
var_decl ::=
Var unqualified_decl(ASS)
local_decl ::=
fun_decl option(SEMI)
| proc_decl option(SEMI)
| data_decl option(SEMI)
unqualified_decl(op) ::=
Ident (* var *) COLON type_expr op expr
instruction ::=
single_instr
| block
single_instr ::=
If expr Then if_clause option(SEMI) Else if_clause
| case(instruction)
| Ident (* proc_name *) arguments
| Ident ASS expr
| Ident brackets(expr) ASS expr
| Ident DOT nsepseq(selection,DOT) option(brackets(expr)) ASS expr
| loop
| Fail expr
| Skip
| Patch path With structure
| Remove expr From Map path
| Remove expr From Set path
injection(Kind,element) ::=
Kind series(element,SEMI,End)
| Kind End
| Kind LBRACKET bracketed
bracketed ::=
series(element,SEMI,RBRACKET)
| RBRACKET
binding ::=
expr ARROW expr
if_clause ::=
instruction
| LBRACE series(statement,COMMA,RBRACE)
case(rhs) ::=
Case expr Of cases(rhs) End
| Case expr Of LBRACKET cases(rhs) RBRACKET
cases(rhs) ::=
nsepseq(case_clause(rhs),VBAR)
| VBAR nsepseq(case_clause(rhs),VBAR)
case_clause(rhs) ::=
pattern ARROW rhs
loop ::=
while_loop
| for_loop
while_loop ::=
While expr block
for_loop ::=
For Ident ASS expr option(Down) To expr option(step_clause) block
| For Ident In expr block
| For Ident ARROW Ident In expr block
step_clause ::=
Step expr
(* Expressions *)
interactive_expr ::=
expr EOF
expr ::=
case(expr)
| annot_expr
annot_expr ::=
LPAR disj_expr COLON type_expr RPAR
| disj_expr
disj_expr ::=
left_assoc(conj_expr,Or)
conj_expr ::=
left_assoc(set_membership,And)
set_membership ::=
core_expr Contains set_membership
| comp_expr
comp_expr ::=
left_assoc(cat_expr,op_comp)
op_comp ::=
LT | LEQ | GT | GEQ | EQUAL | NEQ
cat_expr ::=
right_assoc(cons_expr,CAT)
cons_expr ::=
left_assoc(add_expr,CONS)
add_expr ::=
left_assoc(mult_expr,add_op)
add_op ::=
PLUS | MINUS
mult_expr ::=
left_assoc(unary_expr,mult_op)
mult_op ::=
TIMES | SLASH | Mod
unary_expr ::=
MINUS core_expr
| Not core_expr
| core_expr
core_expr ::=
Int
| Nat
| Mtz
| Ident (* var *)
| Ident (* var *) brackets(expr) (* lookup *)
| Ident (* struct_name *) DOT nsepseq(selection,DOT) option(brackets(expr))
| Ident (* fun_name *) arguments
| String
| Bytes
| C_False
| C_True
| C_Unit
| C_None
| C_Some arguments
| Constr option(arguments)
| tuple_expr
| list_expr
| structure
structure ::=
injection(Map,binding)
| injection(Set,expr)
| record_expr
path ::=
Ident (* var *)
| Ident (* struct_name *) DOT nsepseq(selection,DOT)
selection ::=
Ident (* field_name *)
| Int
record_expr ::=
Record series(field_assignment,SEMI,End)
| Record LBRACKET series(field_assignment,SEMI,RBRACKET)
field_assignment ::=
Ident (* field_name *) EQUAL expr
tuple_expr ::=
tuple_inj
tuple_inj ::=
par(nsepseq(expr,COMMA))
arguments ::=
tuple_inj
list_expr ::=
injection(List,expr)
| Nil
(* Patterns *)
pattern ::=
nsepseq(core_pattern,CONS)
core_pattern ::=
Ident (* var *)
| WILD
| Int
| String
| C_Unit
| C_False
| C_True
| C_None
| list_pattern
| tuple_pattern
| constr_pattern
| C_Some par(core_pattern)
list_pattern ::=
injection(List,core_pattern)
| Nil
| par(cons_pattern)
cons_pattern ::=
core_pattern CONS pattern
tuple_pattern ::=
par(nsepseq(core_pattern,COMMA))
constr_pattern ::=
Constr tuple_pattern
| Constr

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@ -417,15 +417,9 @@ data_decl:
| var_decl { LocalVar $1 }
unqualified_decl(OP):
var COLON type_expr OP extended_expr {
let init, region =
match $5 with
`Expr e -> e, expr_to_region e
| `EList kwd_nil ->
EList (Nil kwd_nil), kwd_nil
| `ENone region ->
EConstr (NoneExpr region), region
in $1, $2, $3, $4, init, region}
var COLON type_expr OP expr {
let region = expr_to_region $5
in $1, $2, $3, $4, $5, region}
const_decl:
open_const_decl SEMI {
@ -441,12 +435,9 @@ var_decl:
}
| open_var_decl { $1 }
extended_expr:
expr { `Expr $1 }
instruction:
single_instr { Single $1 }
| block { Block $1 : instruction }
single_instr { Single $1 }
| block { Block $1 }
single_instr:
conditional { Cond $1 }
@ -590,7 +581,7 @@ if_clause:
instruction {
ClauseInstr $1
}
| LBRACE sep_or_term_list(statement,COMMA) RBRACE {
| LBRACE sep_or_term_list(statement,SEMI) RBRACE {
let region = cover $1 $3 in
let value = {
lbrace = $1;
@ -712,16 +703,7 @@ interactive_expr:
expr:
case(expr) { ECase ($1 expr_to_region) }
| annot_expr { $1 }
annot_expr:
LPAR disj_expr COLON type_expr RPAR {
let start = expr_to_region $2
and stop = type_expr_to_region $4 in
let region = cover start stop
and value = ($2 , $4) in
(EAnnot {region; value})
}
(*| annot_expr { $1 }*)
| disj_expr { $1 }
disj_expr:
@ -888,6 +870,7 @@ core_expr:
| C_False { ELogic (BoolExpr (False $1)) }
| C_True { ELogic (BoolExpr (True $1)) }
| C_Unit { EUnit $1 }
| annot_expr { EAnnot $1 }
| tuple_expr { ETuple $1 }
| list_expr { EList $1 }
| C_None { EConstr (NoneExpr $1) }
@ -907,6 +890,15 @@ core_expr:
let region = cover $1 $2.region in
EConstr (SomeApp {region; value = $1,$2})}
annot_expr:
LPAR disj_expr COLON type_expr RPAR {
let start = expr_to_region $2
and stop = type_expr_to_region $4 in
let region = cover start stop
and value = ($2 , $4)
in {region; value}
}
set_expr:
injection(Set,expr) { SetInj $1 }