Files
bison/tests/calc.at
Akim Demaille f443673450 yacc.c: add support for parse.error detailed
"detailed" error messages are almost like "verbose", except that we
don't double escape them, they don't get inner quotes, we don't use
yytnamerr, and we hide the table.

"custom" is exposed with the "detailed" tokens, not the "verbose"
ones: they are not double-quoted.

Because there's a risk that some people use yytname even without
"verbose", let's keep yytname (instead of yys_name) in "simple"
parse.error.

* src/output.c (prepare_symbol_names): Be ready to output symbol names
unquoted.
(prepare_symbol_names): Output both the old tname table, and the new
symbol_names one.
* data/skeletons/bison.m4: Accept 'detailed'.
* data/skeletons/yacc.c: When parse.error is 'detailed', don't emit
yytname and yytnamerr, just yysymbol_name with the table inside.
* tests/calc.at: Adjust.
2020-01-19 14:51:14 +01:00

971 lines
30 KiB
Plaintext

# Simple calculator. -*- Autotest -*-
# Copyright (C) 2000-2015, 2018-2020 Free Software Foundation, Inc.
# This program is free software: you can redistribute it and/or modify
# it under the terms of the GNU General Public License as published by
# the Free Software Foundation, either version 3 of the License, or
# (at your option) any later version.
#
# This program is distributed in the hope that it will be useful,
# but WITHOUT ANY WARRANTY; without even the implied warranty of
# MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
# GNU General Public License for more details.
#
# You should have received a copy of the GNU General Public License
# along with this program. If not, see <http://www.gnu.org/licenses/>.
## ---------------------------------------------------- ##
## Compile the grammar described in the documentation. ##
## ---------------------------------------------------- ##
# -------------- #
# AT_CALC_MAIN. #
# -------------- #
m4_pushdef([AT_CALC_MAIN], [AT_LANG_DISPATCH([$0], $@)])
m4_define([AT_CALC_MAIN(c)],
[[#include <assert.h>
#include <unistd.h>
]AT_CXX_IF([[
namespace
{
/* A C++ ]AT_NAME_PREFIX[parse that simulates the C signature. */
int
]AT_NAME_PREFIX[parse (]AT_PARAM_IF([semantic_value *result, int *count, int *nerrs]))[
{
]AT_NAME_PREFIX[::parser parser]AT_PARAM_IF([ (result, count, nerrs)])[;
#if ]AT_API_PREFIX[DEBUG
parser.set_debug_level (1);
#endif
return parser.parse ();
}
}
]])[
/* Value of the last computation. */
semantic_value global_result = 0;
/* Total number of computations. */
int global_count = 0;
/* Total number of errors. */
int global_nerrs = 0;
/* A C main function. */
int
main (int argc, const char **argv)
{]AT_PARAM_IF([[
semantic_value result = 0;
int count = 0;
int nerrs = 0;]])[
int status;
/* This used to be alarm (10), but that isn't enough time for a July
1995 vintage DEC Alphastation 200 4/100 system, according to
Nelson H. F. Beebe. 100 seconds was enough for regular users,
but the Hydra build farm, which is heavily loaded needs more. */
alarm (200);
if (argc == 2)
input = fopen (argv[1], "r");
else
input = stdin;
if (!input)
{
perror (argv[1]);
return 3;
}
]AT_CXX_IF([], [AT_DEBUG_IF([ ]AT_NAME_PREFIX[debug = 1;])])[
status = ]AT_NAME_PREFIX[parse (]AT_PARAM_IF([[&result, &count, &nerrs]])[);
if (fclose (input))
perror ("fclose");]AT_PARAM_IF([[
assert (global_result == result); (void) result;
assert (global_count == count); (void) count;
assert (global_nerrs == nerrs); (void) nerrs;
printf ("final: %d %d %d\n", global_result, global_count, global_nerrs);]])[
return status;
}
]])
m4_copy([AT_CALC_MAIN(c)], [AT_CALC_MAIN(c++)])
m4_define([AT_CALC_MAIN(d)],
[[int main (string[] args)
{]AT_PARAM_IF([[
semantic_value result = 0;
int count = 0;]])[
File input = args.length == 2 ? File (args[1], "r") : stdin;
auto l = calcLexer (input);
auto p = new YYParser (l);]AT_DEBUG_IF([[
p.setDebugLevel (1);]])[
return !p.parse ();
}
]])
# --------------- #
# AT_CALC_YYLEX. #
# --------------- #
m4_pushdef([AT_CALC_YYLEX], [AT_LANG_DISPATCH([$0], $@)])
m4_define([AT_CALC_YYLEX(c)],
[[#include <ctype.h>
]AT_YYLEX_DECLARE_EXTERN[
]AT_LOCATION_IF([
static AT_YYLTYPE last_yylloc;
])[
static int
get_char (]AT_YYLEX_FORMALS[)
{
int res = getc (input);
]AT_USE_LEX_ARGS[;
]AT_LOCATION_IF([
last_yylloc = AT_LOC;
if (res == '\n')
{
AT_LOC_LAST_LINE++;
AT_LOC_LAST_COLUMN = 1;
}
else
AT_LOC_LAST_COLUMN++;
])[
return res;
}
static void
unget_char (]AT_YYLEX_PRE_FORMALS[ int c)
{
]AT_USE_LEX_ARGS[;
]AT_LOCATION_IF([
/* Wrong when C == '\n'. */
AT_LOC = last_yylloc;
])[
ungetc (c, input);
}
static int
read_integer (]AT_YYLEX_FORMALS[)
{
int c = get_char (]AT_YYLEX_ARGS[);
int res = 0;
]AT_USE_LEX_ARGS[;
while (isdigit (c))
{
res = 10 * res + (c - '0');
c = get_char (]AT_YYLEX_ARGS[);
}
unget_char (]AT_YYLEX_PRE_ARGS[ c);
return res;
}
/*---------------------------------------------------------------.
| Lexical analyzer returns an integer on the stack and the token |
| NUM, or the ASCII character read if not a number. Skips all |
| blanks and tabs, returns 0 for EOF. |
`---------------------------------------------------------------*/
]AT_YYLEX_PROTOTYPE[
{
int c;
/* Skip white spaces. */
do
{
]AT_LOCATION_IF(
[ AT_LOC_FIRST_COLUMN = AT_LOC_LAST_COLUMN;
AT_LOC_FIRST_LINE = AT_LOC_LAST_LINE;
])[
}
while ((c = get_char (]AT_YYLEX_ARGS[)) == ' ' || c == '\t');
/* Process numbers. */
if (isdigit (c))
{
unget_char (]AT_YYLEX_PRE_ARGS[ c);
]AT_VAL[.ival = read_integer (]AT_YYLEX_ARGS[);
return ]AT_TOKEN_PREFIX[NUM;
}
/* Return end-of-file. */
if (c == EOF)
return ]AT_TOKEN_PREFIX[CALC_EOF;
/* Return single chars. */
return c;
}
]])
m4_copy([AT_CALC_YYLEX(c)], [AT_CALC_YYLEX(c++)])
m4_define([AT_CALC_YYLEX(d)],
[[import std.range.primitives;
import std.stdio;
auto calcLexer(R)(R range)
if (isInputRange!R && is (ElementType!R : dchar))
{
return new CalcLexer!R(range);
}
auto calcLexer (File f)
{
import std.algorithm : map, joiner;
import std.utf : byDchar;
return f.byChunk(1024) // avoid making a syscall roundtrip per char
.map!(chunk => cast(char[]) chunk) // because byChunk returns ubyte[]
.joiner // combine chunks into a single virtual range of char
.calcLexer; // forward to other overload
}
class CalcLexer(R) : Lexer
if (isInputRange!R && is (ElementType!R : dchar))
{
R input;
this(R r) {
input = r;
}
]AT_YYERROR_DEFINE[
YYSemanticType semanticVal_;]AT_LOCATION_IF([[
YYLocation location = new YYLocation;
public final @property YYPosition startPos()
{
return location.begin;
}
public final @property YYPosition endPos()
{
return location.end;
}
]])[
public final @property YYSemanticType semanticVal()
{
return semanticVal_;
}
int parseInt ()
{
auto res = 0;
import std.uni : isNumber;
while (input.front.isNumber)
{
res = res * 10 + (input.front - '0');]AT_LOCATION_IF([[
location.end.column += 1;]])[
input.popFront;
}
return res;
}
int yylex ()
{]AT_LOCATION_IF([[
location.begin = location.end;]])[
import std.uni : isWhite, isNumber;
// Skip initial spaces
while (!input.empty && input.front != '\n' && isWhite (input.front))
{
input.popFront;]AT_LOCATION_IF([[
location.begin.column += 1;
location.end.column += 1;]])[
}
// Handle EOF.
if (input.empty)
return YYTokenType.EOF;
// Numbers.
if (input.front.isNumber)
{
semanticVal_.ival = parseInt;
return YYTokenType.NUM;
}
// Individual characters
auto c = input.front;]AT_LOCATION_IF([[
if (c == '\n')
{
location.end.line += 1;
location.end.column = 1;
}
else
location.end.column += 1;]])[
input.popFront;
return c;
}
}
]])
# -------------- #
# AT_DATA_CALC. #
# -------------- #
# _AT_DATA_CALC_Y($1, $2, $3, [BISON-DIRECTIVES])
# -----------------------------------------------
# Produce 'calc.y' and, if %defines was specified, 'calc-lex.c' or
# 'calc-lex.cc'.
#
# Don't call this macro directly, because it contains some occurrences
# of '$1' etc. which will be interpreted by m4. So you should call it
# with $1, $2, and $3 as arguments, which is what AT_DATA_CALC_Y does.
#
# When %defines is not passed, generate a single self-contained file.
# Otherwise, generate three: calc.y with the parser, calc-lex.c with
# the scanner, and calc-main.c with "main()". This is in order to
# stress the use of the generated parser header. To avoid code
# duplication, AT_CALC_YYLEX and AT_CALC_MAIN contain the body of these
# two later files.
m4_define([_AT_DATA_CALC_Y],
[m4_if([$1$2$3], $[1]$[2]$[3], [],
[m4_fatal([$0: Invalid arguments: $@])])dnl
AT_DATA_GRAMMAR([calc.y],
[[/* Infix notation calculator--calc */
]$4[
]AT_CXX_IF([%define global_tokens_and_yystype])[
]AT_D_IF([[
%code imports {
alias semantic_value = int;
}
]], [[
%code requires
{
]AT_LOCATION_TYPE_SPAN_IF([[
typedef struct
{
int l;
int c;
} Point;
typedef struct
{
Point first;
Point last;
} Span;
# define YYLLOC_DEFAULT(Current, Rhs, N) \
do \
if (N) \
{ \
(Current).first = YYRHSLOC (Rhs, 1).first; \
(Current).last = YYRHSLOC (Rhs, N).last; \
} \
else \
{ \
(Current).first = (Current).last = YYRHSLOC (Rhs, 0).last; \
} \
while (0)
]AT_C_IF(
[[#include <stdio.h>
void location_print (FILE *o, Span s);
#define LOCATION_PRINT location_print
]])[
]])[
/* Exercise pre-prologue dependency to %union. */
typedef int semantic_value;
}
]])[
/* Exercise %union. */
%union
{
semantic_value ival;
};
%printer { ]AT_CXX_IF([[yyo << $$]],
[[fprintf (yyo, "%d", $$)]])[; } <ival>;
]AT_D_IF([], [[
%code provides
{
#include <stdio.h>
/* The input. */
extern FILE *input;
extern semantic_value global_result;
extern int global_count;
extern int global_nerrs;
}
%code
{
#include <assert.h>
#include <string.h>
#define USE(Var)
FILE *input;
static int power (int base, int exponent);
]AT_YYERROR_DECLARE[
]AT_YYLEX_DECLARE_EXTERN[
}
]])[
]AT_LOCATION_TYPE_SPAN_IF([[
%initial-action
{
@$.first.l = @$.first.c = 1;
@$.last = @$.first;
}]])[
/* Bison Declarations */
%token CALC_EOF 0 "end of input"
%token <ival> NUM "number"
%type <ival> exp
%nonassoc '=' /* comparison */
%left '-' '+'
%left '*' '/'
%precedence NEG /* negation--unary minus */
%right '^' /* exponentiation */
/* Grammar follows */
%%
input:
line
| input line { ]AT_PARAM_IF([++*count; ++global_count;])[ }
;
line:
'\n'
| exp '\n' { ]AT_PARAM_IF([*result = global_result = $1;], [AT_D_IF([], [USE ($1);])])[ }
;
exp:
NUM
| exp '=' exp
{
if ($1 != $3)]AT_D_IF([
stderr.writefln ("calc: error: %d != %d", $1, $3);], [
fprintf (stderr, "calc: error: %d != %d\n", $1, $3);], [
])[
$$ = $1;
}
| exp '+' exp { $$ = $1 + $3; }
| exp '-' exp { $$ = $1 - $3; }
| exp '*' exp { $$ = $1 * $3; }
| exp '/' exp { $$ = $1 / $3; }
| '-' exp %prec NEG { $$ = -$2; }
| exp '^' exp { $$ = power ($1, $3); }
| '(' exp ')' { $$ = $2; }
| '(' error ')' { $$ = 1111; ]AT_D_IF([], [yyerrok;])[ }
| '!' { $$ = 0; ]AT_D_IF([return YYERROR], [YYERROR])[; }
| '-' error { $$ = 0; ]AT_D_IF([return YYERROR], [YYERROR])[; }
;
%%
int
power (int base, int exponent)
{
int res = 1;
assert (0 <= exponent);
for (/* Niente */; exponent; --exponent)
res *= base;
return res;
}
]AT_LOCATION_TYPE_SPAN_IF([AT_CXX_IF([[
#include <iostream>
namespace
{
std::ostream&
operator<< (std::ostream& o, const Span& s)
{
o << s.first.l << '.' << s.first.c;
if (s.first.l != s.last.l)
o << '-' << s.last.l << '.' << s.last.c - 1;
else if (s.first.c != s.last.c - 1)
o << '-' << s.last.c - 1;
return o;
}
}
]], [[
void
location_print (FILE *o, Span s)
{
fprintf (o, "%d.%d", s.first.l, s.first.c);
if (s.first.l != s.last.l)
fprintf (o, "-%d.%d", s.last.l, s.last.c - 1);
else if (s.first.c != s.last.c - 1)
fprintf (o, "-%d", s.last.c - 1);
}
]])])[
]AT_YYERROR_DEFINE[
]AT_DEFINES_IF([],
[AT_CALC_YYLEX
AT_CALC_MAIN])])
AT_DEFINES_IF([AT_DATA_SOURCE([[calc-lex.]AT_LANG_EXT],
[[#include "calc.]AT_LANG_HDR["
]AT_CALC_YYLEX])
AT_DATA_SOURCE([[calc-main.]AT_LANG_EXT],
[[#include "calc.]AT_LANG_HDR["
]AT_CALC_MAIN])
])
])# _AT_DATA_CALC_Y
# AT_DATA_CALC_Y([BISON-OPTIONS])
# -------------------------------
# Produce 'calc.y' and, if %defines was specified, 'calc-lex.c' or
# 'calc-lex.cc'.
m4_define([AT_DATA_CALC_Y],
[_AT_DATA_CALC_Y($[1], $[2], $[3], [$1])
])
# _AT_CHECK_CALC(BISON-OPTIONS, INPUT, [STDOUT], [NUM-STDERR-LINES])
# ------------------------------------------------------------------
# Run 'calc' on INPUT and expect no STDOUT nor STDERR.
#
# If BISON-OPTIONS contains '%debug' but not '%glr-parser', then
# NUM-STDERR-LINES is the number of expected lines on stderr.
# Currently this is ignored, though, since the output format is fluctuating.
#
# We don't count GLR's traces yet, since its traces are somewhat
# different from LALR's. Likewise for D.
m4_define([_AT_CHECK_CALC],
[AT_DATA([[input]],
[[$2
]])
AT_PARSER_CHECK([calc input], 0, [AT_PARAM_IF([m4_n([$3])])], [stderr])
AT_D_IF([],
[AT_GLR_IF([],
[AT_CHECK([cat stderr | wc -l], [0], [m4_n([AT_DEBUG_IF([$4], [0])])])])])
])
# _AT_CHECK_CALC_ERROR($1 = BISON-OPTIONS, $2 = EXIT-STATUS, $3 = INPUT,
# $4 = [STDOUT],
# $5 = [NUM-STDERR-LINES],
# $6 = [CUSTOM-ERROR-MESSAGE])
# ----------------------------------------------------------------------
# Run 'calc' on INPUT, and expect a 'syntax error' message.
#
# If INPUT starts with a slash, it is used as absolute input file name,
# otherwise as contents.
#
# NUM-STDERR-LINES is the number of expected lines on stderr.
# If BISON-OPTIONS contains '%debug' but not '%glr', then NUM-STDERR-LINES
# is the number of expected lines on stderr.
#
# CUSTOM-ERROR-MESSAGE is the expected error message when parse.error
# is 'custom' and locations are enabled. Other expected formats are
# computed from it.
m4_define([_AT_CHECK_CALC_ERROR],
[m4_bmatch([$3], [^/],
[AT_PARSER_CHECK([calc $3], $2, [AT_PARAM_IF([m4_n([$4])])], [stderr])],
[AT_DATA([[input]],
[[$3
]])
AT_PARSER_CHECK([calc input], $2, [AT_PARAM_IF([m4_n([$4])])], [stderr])])
# Normalize the observed and expected error messages, depending upon the
# options.
# 1. Remove the traces from observed.
sed '/^Starting/d
/^Entering/d
/^Stack/d
/^Reading/d
/^Reducing/d
/^Return/d
/^Shifting/d
/^state/d
/^Cleanup:/d
/^Error:/d
/^Next/d
/^Now/d
/^Discarding/d
/ \$[[0-9$]]* = /d
/^yydestructor:/d' stderr >at-stderr
mv at-stderr stderr
# 2. Create the reference error message.
AT_DATA([[expout]],
[$6
])
# 3. If locations are not used, remove them.
AT_YYERROR_SEES_LOC_IF([],
[[sed 's/^[-0-9.]*: //' expout >at-expout
mv at-expout expout]])
# 4. If parse.error is not custom, turn the expected message to
# the traditional one.
AT_ERROR_CUSTOM_IF([], [
AT_PERL_REQUIRE([[-pi -e 'use strict;
s{syntax error on token \[(.*?)\] \(expected: (.*)\)}
{
my $unexp = $][1;
my @exps = $][2 =~ /\[(.*?)\]/g;
($][#exps && $][#exps < 4)
? "syntax error, unexpected $unexp, expecting @{[join(\" or \", @exps)]}"
: "syntax error, unexpected $unexp";
}eg
' expout]])
])
# 5. If parse.error is simple, strip the', unexpected....' part.
AT_ERROR_SIMPLE_IF(
[[sed 's/syntax error, .*$/syntax error/' expout >at-expout
mv at-expout expout]])
# 6. Actually check.
AT_CHECK([cat stderr], 0, [expout])
])
# AT_CHECK_SPACES([FILES])
# ------------------------
# Make sure we did not introduce bad spaces. Checked here because all
# the skeletons are (or should be) exercized here.
m4_define([AT_CHECK_SPACES],
[AT_PERL_CHECK([-ne '
chomp;
print "$ARGV:$.: {$_}\n"
if (# No starting/ending empty lines.
(eof || $. == 1) && /^\s*$/
# No trailing space.
|| /\s$/
# No tabs.
|| /\t/
)' $1
])
])
# AT_CHECK_CALC([BISON-OPTIONS], [COMPILER-OPTIONS])
# --------------------------------------------------
# Start a testing chunk which compiles 'calc' grammar with
# BISON-OPTIONS, and performs several tests over the parser.
m4_define([AT_CHECK_CALC],
[m4_ifval([$3], [m4_fatal([$0: expected at most two arguments])])
# We use integers to avoid dependencies upon the precision of doubles.
AT_SETUP([Calculator $1 $2])
AT_BISON_OPTION_PUSHDEFS([$1])
AT_DATA_CALC_Y([$1])
AT_FULL_COMPILE([calc], AT_DEFINES_IF([[lex], [main]], [[], []]), [$2], [-Wno-deprecated])
AT_CHECK_SPACES([calc.AT_LANG_EXT AT_DEFINES_IF([calc.AT_LANG_HDR])])
# Test the precedences.
_AT_CHECK_CALC([$1],
[1 + 2 * 3 = 7
1 + 2 * -3 = -5
-1^2 = -1
(-1)^2 = 1
---1 = -1
1 - 2 - 3 = -4
1 - (2 - 3) = 2
2^2^3 = 256
(2^2)^3 = 64],
[[final: 64 12 0]],
[AT_PUSH_IF([930], [846])])
# Some syntax errors.
_AT_CHECK_CALC_ERROR([$1], [1], [1 2],
[[final: 0 0 1]],
[15],
[[1.3: syntax error on token [number] (expected: ['='] ['-'] ['+'] ['*'] ['/'] ['^'] ['\n'])]])
_AT_CHECK_CALC_ERROR([$1], [1], [1//2],
[[final: 0 0 1]],
[20],
[[1.3: syntax error on token ['/'] (expected: [number] ['-'] ['('] ['!'])]])
_AT_CHECK_CALC_ERROR([$1], [1], [error],
[[final: 0 0 1]],
[5],
[[1.1: syntax error on token [$undefined] (expected: [number] ['-'] ['\n'] ['('] ['!'])]])
_AT_CHECK_CALC_ERROR([$1], [1], [1 = 2 = 3],
[[final: 0 0 1]],
[30],
[[1.7: syntax error on token ['='] (expected: ['-'] ['+'] ['*'] ['/'] ['^'])]])
_AT_CHECK_CALC_ERROR([$1], [1],
[
+1],
[[final: 0 0 1]],
[20],
[[2.1: syntax error on token ['+'] (expected: [end of input] [number] ['-'] ['\n'] ['('] ['!'])]])
# Exercise error messages with EOF: work on an empty file.
_AT_CHECK_CALC_ERROR([$1], [1], [/dev/null],
[[final: 0 0 1]],
[4],
[[1.1: syntax error on token [end of input] (expected: [number] ['-'] ['\n'] ['('] ['!'])]])
# Exercise the error token: without it, we die at the first error,
# hence be sure to
#
# - have several errors which exercise different shift/discardings
# - (): nothing to pop, nothing to discard
# - (1 + 1 + 1 +): a lot to pop, nothing to discard
# - (* * *): nothing to pop, a lot to discard
# - (1 + 2 * *): some to pop and discard
#
# - test the action associated to 'error'
#
# - check the lookahead that triggers an error is not discarded
# when we enter error recovery. Below, the lookahead causing the
# first error is ")", which is needed to recover from the error and
# produce the "0" that triggers the "0 != 1" error.
#
_AT_CHECK_CALC_ERROR([$1], [0],
[() + (1 + 1 + 1 +) + (* * *) + (1 * 2 * *) = 1],
[[final: 4444 0 4]],
[250],
[[1.2: syntax error on token [')'] (expected: [number] ['-'] ['('] ['!'])
1.18: syntax error on token [')'] (expected: [number] ['-'] ['('] ['!'])
1.23: syntax error on token ['*'] (expected: [number] ['-'] ['('] ['!'])
1.41: syntax error on token ['*'] (expected: [number] ['-'] ['('] ['!'])
calc: error: 4444 != 1]])
# The same, but this time exercising explicitly triggered syntax errors.
# POSIX says the lookahead causing the error should not be discarded.
_AT_CHECK_CALC_ERROR([$1], [0], [(!) + (1 2) = 1],
[[final: 2222 0 1]],
[102],
[[1.10: syntax error on token [number] (expected: ['='] ['-'] ['+'] ['*'] ['/'] ['^'] [')'])
calc: error: 2222 != 1]])
_AT_CHECK_CALC_ERROR([$1], [0], [(- *) + (1 2) = 1],
[[final: 2222 0 2]],
[113],
[[1.4: syntax error on token ['*'] (expected: [number] ['-'] ['('] ['!'])
1.12: syntax error on token [number] (expected: ['='] ['-'] ['+'] ['*'] ['/'] ['^'] [')'])
calc: error: 2222 != 1]])
# Check that yyerrok works properly: second error is not reported,
# third and fourth are. Parse status is succesful.
_AT_CHECK_CALC_ERROR([$1], [0], [(* *) + (*) + (*)],
[[final: 3333 0 3]],
[113],
[[1.2: syntax error on token ['*'] (expected: [number] ['-'] ['('] ['!'])
1.10: syntax error on token ['*'] (expected: [number] ['-'] ['('] ['!'])
1.16: syntax error on token ['*'] (expected: [number] ['-'] ['('] ['!'])]])
AT_BISON_OPTION_POPDEFS
AT_CLEANUP
])# AT_CHECK_CALC
# ------------------------ #
# Simple LALR Calculator. #
# ------------------------ #
AT_BANNER([[Simple LALR(1) Calculator.]])
# AT_CHECK_CALC_LALR([BISON-OPTIONS])
# -----------------------------------
# Start a testing chunk which compiles 'calc' grammar with
# BISON-OPTIONS, and performs several tests over the parser.
m4_define([AT_CHECK_CALC_LALR],
[AT_CHECK_CALC($@)])
AT_CHECK_CALC_LALR()
AT_CHECK_CALC_LALR([%defines])
AT_CHECK_CALC_LALR([%locations])
AT_CHECK_CALC_LALR([%locations %define api.location.type {Span}])
AT_CHECK_CALC_LALR([%name-prefix "calc"])
AT_CHECK_CALC_LALR([%verbose])
AT_CHECK_CALC_LALR([%yacc])
AT_CHECK_CALC_LALR([%define parse.error verbose])
AT_CHECK_CALC_LALR([%define api.pure full %locations])
AT_CHECK_CALC_LALR([%define api.push-pull both %define api.pure full %locations])
AT_CHECK_CALC_LALR([%define parse.error verbose %locations])
AT_CHECK_CALC_LALR([%define parse.error verbose %locations %defines %define api.prefix {calc} %verbose %yacc])
AT_CHECK_CALC_LALR([%define parse.error verbose %locations %defines %name-prefix "calc" %define api.token.prefix {TOK_} %verbose %yacc])
AT_CHECK_CALC_LALR([%debug])
AT_CHECK_CALC_LALR([%define parse.error verbose %debug %locations %defines %name-prefix "calc" %verbose %yacc])
AT_CHECK_CALC_LALR([%define parse.error verbose %debug %locations %defines %define api.prefix {calc} %verbose %yacc])
AT_CHECK_CALC_LALR([%define api.pure full %define parse.error verbose %debug %locations %defines %name-prefix "calc" %verbose %yacc])
AT_CHECK_CALC_LALR([%define api.push-pull both %define api.pure full %define parse.error verbose %debug %locations %defines %define api.prefix {calc} %verbose %yacc])
AT_CHECK_CALC_LALR([%define api.pure %define parse.error verbose %debug %locations %defines %define api.prefix {calc} %verbose %yacc %parse-param {semantic_value *result}{int *count}{int *nerrs}])
AT_CHECK_CALC_LALR([%no-lines %define api.pure %define parse.error verbose %debug %locations %defines %define api.prefix {calc} %verbose %yacc %parse-param {semantic_value *result}{int *count}{int *nerrs}])
AT_CHECK_CALC_LALR([%define parse.error custom])
AT_CHECK_CALC_LALR([%define parse.error custom %locations %define api.prefix {calc}])
AT_CHECK_CALC_LALR([%define parse.error custom %locations %define api.prefix {calc} %parse-param {semantic_value *result}{int *count}{int *nerrs}])
# ----------------------- #
# Simple GLR Calculator. #
# ----------------------- #
AT_BANNER([[Simple GLR Calculator.]])
# AT_CHECK_CALC_GLR([BISON-OPTIONS])
# ----------------------------------
# Start a testing chunk which compiles 'calc' grammar with
# BISON-OPTIONS and %glr-parser, and performs several tests over the parser.
m4_define([AT_CHECK_CALC_GLR],
[AT_CHECK_CALC([%glr-parser] $@)])
AT_CHECK_CALC_GLR()
AT_CHECK_CALC_GLR([%defines])
AT_CHECK_CALC_GLR([%locations])
AT_CHECK_CALC_GLR([%locations %define api.location.type {Span}])
AT_CHECK_CALC_GLR([%name-prefix "calc"])
AT_CHECK_CALC_GLR([%define api.prefix {calc}])
AT_CHECK_CALC_GLR([%verbose])
AT_CHECK_CALC_GLR([%yacc])
AT_CHECK_CALC_GLR([%define parse.error verbose])
AT_CHECK_CALC_GLR([%define api.pure %locations])
AT_CHECK_CALC_GLR([%define parse.error verbose %locations])
AT_CHECK_CALC_GLR([%define parse.error verbose %locations %defines %name-prefix "calc" %verbose %yacc])
AT_CHECK_CALC_GLR([%debug])
AT_CHECK_CALC_GLR([%define parse.error verbose %debug %locations %defines %name-prefix "calc" %verbose %yacc])
AT_CHECK_CALC_GLR([%define parse.error verbose %debug %locations %defines %define api.prefix {calc} %define api.token.prefix {TOK_} %verbose %yacc])
AT_CHECK_CALC_GLR([%define api.pure %define parse.error verbose %debug %locations %defines %name-prefix "calc" %verbose %yacc])
AT_CHECK_CALC_GLR([%define api.pure %define parse.error verbose %debug %locations %defines %name-prefix "calc" %verbose %yacc %parse-param {semantic_value *result}{int *count}{int *nerrs}])
AT_CHECK_CALC_GLR([%define api.pure %define parse.error verbose %debug %locations %defines %define api.prefix {calc} %verbose %yacc %parse-param {semantic_value *result}{int *count}{int *nerrs}])
AT_CHECK_CALC_GLR([%no-lines %define api.pure %define parse.error verbose %debug %locations %defines %define api.prefix {calc} %verbose %yacc %parse-param {semantic_value *result}{int *count}{int *nerrs}])
# ----------------------------- #
# Simple LALR1 C++ Calculator. #
# ----------------------------- #
AT_BANNER([[Simple LALR(1) C++ Calculator.]])
# First let's try using %skeleton
AT_CHECK_CALC([%skeleton "lalr1.cc" %defines])
# AT_CHECK_CALC_LALR1_CC([BISON-OPTIONS])
# ---------------------------------------
# Start a testing chunk which compiles 'calc' grammar with
# the C++ skeleton, and performs several tests over the parser.
m4_define([AT_CHECK_CALC_LALR1_CC],
[AT_CHECK_CALC([%language "C++" $1], [$2])])
AT_CHECK_CALC_LALR1_CC([])
AT_CHECK_CALC_LALR1_CC([%locations])
AT_CHECK_CALC_LALR1_CC([%locations], [$NO_EXCEPTIONS_CXXFLAGS])
AT_CHECK_CALC_LALR1_CC([%locations %define api.location.type {Span}])
AT_CHECK_CALC_LALR1_CC([%defines %locations %define parse.error verbose %name-prefix "calc" %verbose %yacc])
AT_CHECK_CALC_LALR1_CC([%locations %define parse.error verbose %define api.prefix {calc} %verbose %yacc])
AT_CHECK_CALC_LALR1_CC([%locations %define parse.error verbose %debug %name-prefix "calc" %verbose %yacc])
AT_CHECK_CALC_LALR1_CC([%locations %define parse.error verbose %debug %define api.prefix {calc} %verbose %yacc])
AT_CHECK_CALC_LALR1_CC([%locations %define parse.error verbose %debug %define api.prefix {calc} %define api.token.prefix {TOK_} %verbose %yacc])
AT_CHECK_CALC_LALR1_CC([%defines %locations %define parse.error verbose %debug %name-prefix "calc" %verbose %yacc %parse-param {semantic_value *result}{int *count}{int *nerrs}])
AT_CHECK_CALC_LALR1_CC([%define parse.error verbose %debug %define api.prefix {calc} %verbose %yacc %parse-param {semantic_value *result}{int *count}{int *nerrs}])
AT_CHECK_CALC_LALR1_CC([%defines %locations %define parse.error verbose %debug %define api.prefix {calc} %verbose %yacc %parse-param {semantic_value *result}{int *count}{int *nerrs}])
AT_CHECK_CALC_LALR1_CC([%defines %locations %define api.location.file none])
AT_CHECK_CALC_LALR1_CC([%defines %locations %define api.location.file "my-location.hh"])
AT_CHECK_CALC_LALR1_CC([%no-lines %defines %locations %define api.location.file "my-location.hh"])
# --------------------------- #
# Simple GLR C++ Calculator. #
# --------------------------- #
AT_BANNER([[Simple GLR C++ Calculator.]])
# Again, we try also using %skeleton.
AT_CHECK_CALC([%skeleton "glr.cc"])
# AT_CHECK_CALC_GLR_CC([BISON-OPTIONS])
# -------------------------------------
# Start a testing chunk which compiles 'calc' grammar with
# the GLR C++ skeleton, and performs several tests over the parser.
m4_define([AT_CHECK_CALC_GLR_CC],
[AT_CHECK_CALC([%language "C++" %glr-parser] $@)])
AT_CHECK_CALC_GLR_CC([])
AT_CHECK_CALC_GLR_CC([%locations])
AT_CHECK_CALC_GLR_CC([%locations %define api.location.type {Span}])
AT_CHECK_CALC_GLR_CC([%defines %define parse.error verbose %name-prefix "calc" %verbose %yacc])
AT_CHECK_CALC_GLR_CC([%define parse.error verbose %define api.prefix {calc} %verbose %yacc])
AT_CHECK_CALC_GLR_CC([%debug])
AT_CHECK_CALC_GLR_CC([%define parse.error verbose %debug %name-prefix "calc" %verbose %yacc])
AT_CHECK_CALC_GLR_CC([%define parse.error verbose %debug %name-prefix "calc" %define api.token.prefix {TOK_} %verbose %yacc])
AT_CHECK_CALC_GLR_CC([%locations %defines %define parse.error verbose %debug %name-prefix "calc" %verbose %yacc %parse-param {semantic_value *result}{int *count}{int *nerrs}])
AT_CHECK_CALC_GLR_CC([%locations %defines %define parse.error verbose %debug %define api.prefix {calc} %verbose %yacc %parse-param {semantic_value *result}{int *count}{int *nerrs}])
AT_CHECK_CALC_GLR_CC([%no-lines %locations %defines %define parse.error verbose %debug %define api.prefix {calc} %verbose %yacc %parse-param {semantic_value *result}{int *count}{int *nerrs}])
# --------------------------- #
# Simple LALR1 D Calculator. #
# --------------------------- #
AT_BANNER([[Simple LALR(1) D Calculator.]])
# First let's try using %skeleton
AT_CHECK_CALC([%skeleton "lalr1.d"])
# AT_CHECK_CALC_LALR1_D([BISON-OPTIONS])
# ---------------------------------------
# Start a testing chunk which compiles 'calc' grammar with
# the C++ skeleton, and performs several tests over the parser.
m4_define([AT_CHECK_CALC_LALR1_D],
[AT_CHECK_CALC([%language "D" $1], [$2])])
AT_CHECK_CALC_LALR1_D([])
AT_CHECK_CALC_LALR1_D([%locations])
#AT_CHECK_CALC_LALR1_D([%locations %define api.location.type {Span}])
AT_CHECK_CALC_LALR1_D([%define parse.error verbose %define api.prefix {calc} %verbose])
AT_CHECK_CALC_LALR1_D([%debug])
AT_CHECK_CALC_LALR1_D([%define parse.error verbose %debug %verbose])
#AT_CHECK_CALC_LALR1_D([%define parse.error verbose %debug %define api.token.prefix {TOK_} %verbose])
#AT_CHECK_CALC_LALR1_D([%locations %define parse.error verbose %debug %verbose %parse-param {semantic_value *result}{int *count}{int *nerrs}])
#AT_CHECK_CALC_LALR1_D([%locations %define parse.error verbose %debug %define api.prefix {calc} %verbose %parse-param {semantic_value *result}{int *count}{int *nerrs}])
m4_popdef([AT_CALC_MAIN])
m4_popdef([AT_CALC_YYLEX])