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lvzhengyang
riscv-gcc-1
Commits
37ba3390
Commit
37ba3390
authored
Dec 23, 1991
by
Richard Stallman
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From-SVN: r129
parent
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37ba3390
/* Output sdb-format symbol table information from GNU compiler.
Copyright (C) 1988-1990 Free Software Foundation, Inc.
This file is part of GNU CC.
GNU CC 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 2, or (at your option)
any later version.
GNU CC 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 GNU CC; see the file COPYING. If not, write to
the Free Software Foundation, 675 Mass Ave, Cambridge, MA 02139, USA. */
/* mike@tredysvr.Tredydev.Unisys.COM says:
I modified the struct.c example and have a nm of a .o resulting from the
AT&T C compiler. From the example below I would conclude the following:
1. All .defs from structures are emitted as scanned. The example below
clearly shows the symbol table entries for BoxRec2 are after the first
function.
2. All functions and their locals (including statics) are emitted as scanned.
3. All nested unnamed union and structure .defs must be emitted before
the structure in which they are nested. The AT&T assembler is a
one pass beast as far as symbolics are concerned.
4. All structure .defs are emitted before the typedefs that refer to them.
5. All top level static and external variable definitions are moved to the
end of file with all top level statics occuring first before externs.
6. All undefined references are at the end of the file.
*/
#include "config.h"
#ifdef SDB_DEBUGGING_INFO
#include "tree.h"
#include "rtl.h"
#include <stdio.h>
#include "regs.h"
#include "flags.h"
#include "insn-config.h"
#include "reload.h"
/* Mips systems use the SDB functions to dump out it's symbols, but
do not supply usable syms.h include files. */
#if defined(USG) && !defined(MIPS)
#include <syms.h>
/* Use T_INT if we don't have T_VOID. */
#ifndef T_VOID
#define T_VOID T_INT
#endif
#else
/* not USG, or MIPS */
#include "gsyms.h"
#endif
/* not USG, or MIPS */
/* #include <storclass.h> used to be this instead of syms.h. */
/* 1 if PARM is passed to this function in memory. */
#define PARM_PASSED_IN_MEMORY(PARM) \
(GET_CODE (DECL_INCOMING_RTL (PARM)) == MEM)
/* A C expression for the integer offset value of an automatic variable
(C_AUTO) having address X (an RTX). */
#ifndef DEBUGGER_AUTO_OFFSET
#define DEBUGGER_AUTO_OFFSET(X) \
(GET_CODE (X) == PLUS ? INTVAL (XEXP (X, 1)) : 0)
#endif
/* A C expression for the integer offset value of an argument (C_ARG)
having address X (an RTX). The nominal offset is OFFSET. */
#ifndef DEBUGGER_ARG_OFFSET
#define DEBUGGER_ARG_OFFSET(OFFSET, X) (OFFSET)
#endif
/* Line number of beginning of current function, minus one.
Negative means not in a function or not using sdb. */
int
sdb_begin_function_line
=
-
1
;
/* Counter to generate unique "names" for nameless struct members. */
static
int
unnamed_struct_number
=
0
;
extern
FILE
*
asm_out_file
;
extern
tree
current_function_decl
;
void
sdbout_init
();
void
sdbout_symbol
();
void
sdbout_types
();
static
void
sdbout_typedefs
();
static
void
sdbout_syms
();
static
void
sdbout_one_type
();
static
void
sdbout_queue_anonymous_type
();
static
void
sdbout_dequeue_anonymous_type
();
static
int
plain_type_1
();
/* Define the default sizes for various types. */
#ifndef CHAR_TYPE_SIZE
#define CHAR_TYPE_SIZE BITS_PER_UNIT
#endif
#ifndef SHORT_TYPE_SIZE
#define SHORT_TYPE_SIZE (BITS_PER_UNIT * MIN ((UNITS_PER_WORD + 1) / 2, 2))
#endif
#ifndef INT_TYPE_SIZE
#define INT_TYPE_SIZE BITS_PER_WORD
#endif
#ifndef LONG_TYPE_SIZE
#define LONG_TYPE_SIZE BITS_PER_WORD
#endif
#ifndef LONG_LONG_TYPE_SIZE
#define LONG_LONG_TYPE_SIZE (BITS_PER_WORD * 2)
#endif
#ifndef FLOAT_TYPE_SIZE
#define FLOAT_TYPE_SIZE BITS_PER_WORD
#endif
#ifndef DOUBLE_TYPE_SIZE
#define DOUBLE_TYPE_SIZE (BITS_PER_WORD * 2)
#endif
#ifndef LONG_DOUBLE_TYPE_SIZE
#define LONG_DOUBLE_TYPE_SIZE (BITS_PER_WORD * 2)
#endif
/* Random macros describing parts of SDB data. */
/* Put something here if lines get too long */
#define CONTIN
/* Default value of delimiter is ";". */
#ifndef SDB_DELIM
#define SDB_DELIM ";"
#endif
/* Maximum number of dimensions the assembler will allow. */
#ifndef SDB_MAX_DIM
#define SDB_MAX_DIM 4
#endif
#ifndef PUT_SDB_SCL
#define PUT_SDB_SCL(a) fprintf(asm_out_file, "\t.scl\t%d%s", (a), SDB_DELIM)
#endif
#ifndef PUT_SDB_INT_VAL
#define PUT_SDB_INT_VAL(a) fprintf (asm_out_file, "\t.val\t%d%s", (a), SDB_DELIM)
#endif
#ifndef PUT_SDB_VAL
#define PUT_SDB_VAL(a) \
( fputs ("\t.val\t", asm_out_file), \
output_addr_const (asm_out_file, (a)), \
fprintf (asm_out_file, SDB_DELIM))
#endif
#ifndef PUT_SDB_DEF
#define PUT_SDB_DEF(a) \
do { fprintf (asm_out_file, "\t.def\t"); \
ASM_OUTPUT_LABELREF (asm_out_file, a); \
fprintf (asm_out_file, SDB_DELIM); } while (0)
#endif
#ifndef PUT_SDB_PLAIN_DEF
#define PUT_SDB_PLAIN_DEF(a) fprintf(asm_out_file,"\t.def\t.%s%s",a, SDB_DELIM)
#endif
#ifndef PUT_SDB_ENDEF
#define PUT_SDB_ENDEF fputs("\t.endef\n", asm_out_file)
#endif
#ifndef PUT_SDB_TYPE
#define PUT_SDB_TYPE(a) fprintf(asm_out_file, "\t.type\t0%o%s", a, SDB_DELIM)
#endif
#ifndef PUT_SDB_SIZE
#define PUT_SDB_SIZE(a) fprintf(asm_out_file, "\t.size\t%d%s", a, SDB_DELIM)
#endif
#ifndef PUT_SDB_START_DIM
#define PUT_SDB_START_DIM fprintf(asm_out_file, "\t.dim\t")
#endif
#ifndef PUT_SDB_NEXT_DIM
#define PUT_SDB_NEXT_DIM(a) fprintf(asm_out_file, "%d,", a)
#endif
#ifndef PUT_SDB_LAST_DIM
#define PUT_SDB_LAST_DIM(a) fprintf(asm_out_file, "%d%s", a, SDB_DELIM)
#endif
#ifndef PUT_SDB_TAG
#define PUT_SDB_TAG(a) \
do { fprintf (asm_out_file, "\t.tag\t"); \
ASM_OUTPUT_LABELREF (asm_out_file, a); \
fprintf (asm_out_file, SDB_DELIM); } while (0)
#endif
#ifndef PUT_SDB_BLOCK_START
#define PUT_SDB_BLOCK_START(LINE) \
fprintf (asm_out_file, \
"\t.def\t.bb%s\t.val\t.%s\t.scl\t100%s\t.line\t%d%s\t.endef\n", \
SDB_DELIM, SDB_DELIM, SDB_DELIM, (LINE), SDB_DELIM)
#endif
#ifndef PUT_SDB_BLOCK_END
#define PUT_SDB_BLOCK_END(LINE) \
fprintf (asm_out_file, \
"\t.def\t.eb%s\t.val\t.%s\t.scl\t100%s\t.line\t%d%s\t.endef\n", \
SDB_DELIM, SDB_DELIM, SDB_DELIM, (LINE), SDB_DELIM)
#endif
#ifndef PUT_SDB_FUNCTION_START
#define PUT_SDB_FUNCTION_START(LINE) \
fprintf (asm_out_file, \
"\t.def\t.bf%s\t.val\t.%s\t.scl\t101%s\t.line\t%d%s\t.endef\n", \
SDB_DELIM, SDB_DELIM, SDB_DELIM, (LINE), SDB_DELIM)
#endif
#ifndef PUT_SDB_FUNCTION_END
#define PUT_SDB_FUNCTION_END(LINE) \
fprintf (asm_out_file, \
"\t.def\t.ef%s\t.val\t.%s\t.scl\t101%s\t.line\t%d%s\t.endef\n", \
SDB_DELIM, SDB_DELIM, SDB_DELIM, (LINE), SDB_DELIM)
#endif
#ifndef PUT_SDB_EPILOGUE_END
#define PUT_SDB_EPILOGUE_END(NAME) \
do { fprintf (asm_out_file, "\t.def\t"); \
ASM_OUTPUT_LABELREF (asm_out_file, NAME); \
fprintf (asm_out_file, \
"%s\t.val\t.%s\t.scl\t-1%s\t.endef\n", \
SDB_DELIM, SDB_DELIM, SDB_DELIM); } while (0)
#endif
#ifndef SDB_GENERATE_FAKE
#define SDB_GENERATE_FAKE(BUFFER, NUMBER) \
sprintf ((BUFFER), ".%dfake", (NUMBER));
#endif
/* Return the sdb tag identifier string for TYPE
if TYPE has already been defined; otherwise return a null pointer. */
#define KNOWN_TYPE_TAG(type) (char *)(TYPE_SYMTAB_ADDRESS (type))
/* Set the sdb tag identifier string for TYPE to NAME. */
#define SET_KNOWN_TYPE_TAG(TYPE, NAME) \
(TYPE_SYMTAB_ADDRESS (TYPE) = (int)(NAME))
/* Return the name (a string) of the struct, union or enum tag
described by the TREE_LIST node LINK. This is 0 for an anonymous one. */
#define TAG_NAME(link) \
(((link) && TREE_PURPOSE ((link)) \
&& IDENTIFIER_POINTER (TREE_PURPOSE ((link)))) \
? IDENTIFIER_POINTER (TREE_PURPOSE ((link))) : (char *) 0)
/* Ensure we don't output a negative line number. */
#define MAKE_LINE_SAFE(line) \
if (line <= sdb_begin_function_line) line = sdb_begin_function_line + 1
/* Set up for SDB output at the start of compilation. */
void
sdbout_init
(
asm_file
,
input_file_name
,
syms
)
FILE
*
asm_file
;
char
*
input_file_name
;
tree
syms
;
{
#if 0 /* Nothing need be output for the predefined types. */
/* Get all permanent types that have typedef names,
and output them all, except for those already output. */
sdbout_typedefs (syms);
#endif
}
#if 0
/* return the tag identifier for type
*/
char *
tag_of_ru_type (type,link)
tree type,link;
{
if (TYPE_SYMTAB_ADDRESS (type))
return (char *)TYPE_SYMTAB_ADDRESS (type);
if (link && TREE_PURPOSE (link)
&& IDENTIFIER_POINTER (TREE_PURPOSE (link)))
TYPE_SYMTAB_ADDRESS (type)
= (int)IDENTIFIER_POINTER (TREE_PURPOSE (link));
else
return (char *) TYPE_SYMTAB_ADDRESS (type);
}
#endif
/* Return a unique string to name an anonymous type. */
static
char
*
gen_fake_label
()
{
char
label
[
10
];
char
*
labelstr
;
SDB_GENERATE_FAKE
(
label
,
unnamed_struct_number
);
unnamed_struct_number
++
;
labelstr
=
(
char
*
)
permalloc
(
strlen
(
label
)
+
1
);
strcpy
(
labelstr
,
label
);
return
labelstr
;
}
/* Return the number which describes TYPE for SDB.
For pointers, etc., this function is recursive.
Each record, union or enumeral type must already have had a
tag number output. */
/* The number is given by d6d5d4d3d2d1bbbb
where bbbb is 4 bit basic type, and di indicate one of notype,ptr,fn,array.
Thus, char *foo () has bbbb=T_CHAR
d1=D_FCN
d2=D_PTR
N_BTMASK= 017 1111 basic type field.
N_TSHIFT= 2 derived type shift
N_BTSHFT= 4 Basic type shift */
/* Produce the number that describes a pointer, function or array type.
PREV is the number describing the target, value or element type.
DT_type describes how to transform that type. */
#define PUSH_DERIVED_LEVEL(DT_type,PREV) \
((((PREV)&~N_BTMASK)<<N_TSHIFT)|(DT_type<<N_BTSHFT)|(PREV&N_BTMASK))
/* Number of elements used in sdb_dims. */
static
int
sdb_n_dims
=
0
;
/* Table of array dimensions of current type. */
static
int
sdb_dims
[
SDB_MAX_DIM
];
/* Size of outermost array currently being processed. */
static
int
sdb_type_size
=
-
1
;
static
int
plain_type
(
type
)
tree
type
;
{
int
val
=
plain_type_1
(
type
);
/* If we have already saved up some array dimensions, print them now. */
if
(
sdb_n_dims
>
0
)
{
int
i
;
PUT_SDB_START_DIM
;
for
(
i
=
sdb_n_dims
-
1
;
i
>
0
;
i
--
)
PUT_SDB_NEXT_DIM
(
sdb_dims
[
i
]);
PUT_SDB_LAST_DIM
(
sdb_dims
[
0
]);
sdb_n_dims
=
0
;
sdb_type_size
=
int_size_in_bytes
(
type
);
/* Don't kill sdb if type is not laid out or has variable size. */
if
(
sdb_type_size
<
0
)
sdb_type_size
=
0
;
}
/* If we have computed the size of an array containing this type,
print it now. */
if
(
sdb_type_size
>=
0
)
{
PUT_SDB_SIZE
(
sdb_type_size
);
sdb_type_size
=
-
1
;
}
return
val
;
}
static
void
sdbout_record_type_name
(
type
)
tree
type
;
{
char
*
name
=
0
;
int
no_name
;
if
(
KNOWN_TYPE_TAG
(
type
))
return
;
if
(
TYPE_NAME
(
type
)
!=
0
)
{
tree
t
=
0
;
/* Find the IDENTIFIER_NODE for the type name. */
if
(
TREE_CODE
(
TYPE_NAME
(
type
))
==
IDENTIFIER_NODE
)
{
t
=
TYPE_NAME
(
type
);
}
#if 0 /* Don't use typedef names. */
else if (TREE_CODE (TYPE_NAME (type)) == TYPE_DECL)
{
t = DECL_NAME (TYPE_NAME (type));
}
#endif
/* Now get the name as a string, or invent one. */
if
(
t
!=
0
)
name
=
IDENTIFIER_POINTER
(
t
);
}
no_name
=
(
name
==
0
||
*
name
==
0
);
if
(
no_name
)
name
=
gen_fake_label
();
SET_KNOWN_TYPE_TAG
(
type
,
name
);
#ifdef SDB_ALLOW_FORWARD_REFERENCES
if
(
no_name
)
sdbout_queue_anonymous_type
(
type
);
#endif
}
static
int
plain_type_1
(
type
)
tree
type
;
{
if
(
type
==
0
)
type
=
void_type_node
;
if
(
type
==
error_mark_node
)
type
=
integer_type_node
;
type
=
TYPE_MAIN_VARIANT
(
type
);
switch
(
TREE_CODE
(
type
))
{
case
VOID_TYPE
:
return
T_VOID
;
case
INTEGER_TYPE
:
{
int
size
=
int_size_in_bytes
(
type
)
*
BITS_PER_UNIT
;
if
(
size
==
CHAR_TYPE_SIZE
)
return
(
TREE_UNSIGNED
(
type
)
?
T_UCHAR
:
T_CHAR
);
if
(
size
==
SHORT_TYPE_SIZE
)
return
(
TREE_UNSIGNED
(
type
)
?
T_USHORT
:
T_SHORT
);
if
(
size
==
INT_TYPE_SIZE
)
return
(
TREE_UNSIGNED
(
type
)
?
T_UINT
:
T_INT
);
return
0
;
}
case
REAL_TYPE
:
{
int
size
=
int_size_in_bytes
(
type
)
*
BITS_PER_UNIT
;
if
(
size
==
FLOAT_TYPE_SIZE
)
return
T_FLOAT
;
if
(
size
==
DOUBLE_TYPE_SIZE
)
return
T_DOUBLE
;
return
0
;
}
case
ARRAY_TYPE
:
{
int
m
;
m
=
plain_type_1
(
TREE_TYPE
(
type
));
if
(
sdb_n_dims
<
SDB_MAX_DIM
)
sdb_dims
[
sdb_n_dims
++
]
=
(
TYPE_DOMAIN
(
type
)
?
TREE_INT_CST_LOW
(
TYPE_MAX_VALUE
(
TYPE_DOMAIN
(
type
)))
+
1
:
0
);
return
PUSH_DERIVED_LEVEL
(
DT_ARY
,
m
);
}
case
RECORD_TYPE
:
case
UNION_TYPE
:
case
ENUMERAL_TYPE
:
{
char
*
tag
;
#ifdef SDB_ALLOW_FORWARD_REFERENCES
sdbout_record_type_name
(
type
);
#endif
#ifndef SDB_ALLOW_UNKNOWN_REFERENCES
if
((
TREE_ASM_WRITTEN
(
type
)
&&
KNOWN_TYPE_TAG
(
type
)
!=
0
)
#ifdef SDB_ALLOW_FORWARD_REFERENCES
||
TYPE_MODE
(
type
)
!=
VOIDmode
#endif
)
#endif
{
/* Output the referenced structure tag name
only if the .def has already been finished.
At least on 386, the Unix assembler
cannot handle forward references to tags. */
/* But the 88100, it requires them, sigh... */
/* And the MIPS requires unknown refs as well... */
tag
=
KNOWN_TYPE_TAG
(
type
);
PUT_SDB_TAG
(
tag
);
/* These 3 lines used to follow the close brace.
However, a size of 0 without a tag implies a tag of 0,
so if we don't know a tag, we can't mention the size. */
sdb_type_size
=
int_size_in_bytes
(
type
);
if
(
sdb_type_size
<
0
)
sdb_type_size
=
0
;
}
return
((
TREE_CODE
(
type
)
==
RECORD_TYPE
)
?
T_STRUCT
:
(
TREE_CODE
(
type
)
==
UNION_TYPE
)
?
T_UNION
:
T_ENUM
);
}
case
POINTER_TYPE
:
case
REFERENCE_TYPE
:
{
int
m
=
plain_type_1
(
TREE_TYPE
(
type
));
return
PUSH_DERIVED_LEVEL
(
DT_PTR
,
m
);
}
case
FUNCTION_TYPE
:
case
METHOD_TYPE
:
{
int
m
=
plain_type_1
(
TREE_TYPE
(
type
));
return
PUSH_DERIVED_LEVEL
(
DT_FCN
,
m
);
}
default
:
return
0
;
}
}
/* Output the symbols defined in block number DO_BLOCK.
Set NEXT_BLOCK_NUMBER to 0 before calling.
This function works by walking the tree structure of blocks,
counting blocks until it finds the desired block. */
static
int
do_block
=
0
;
static
int
next_block_number
;
static
void
sdbout_block
(
block
)
register
tree
block
;
{
while
(
block
)
{
/* Ignore blocks never expanded or otherwise marked as real. */
if
(
TREE_USED
(
block
))
{
/* When we reach the specified block, output its symbols. */
if
(
next_block_number
==
do_block
)
{
sdbout_syms
(
BLOCK_VARS
(
block
));
}
/* If we are past the specified block, stop the scan. */
if
(
next_block_number
>
do_block
)
return
;
next_block_number
++
;
/* Scan the blocks within this block. */
sdbout_block
(
BLOCK_SUBBLOCKS
(
block
));
}
block
=
BLOCK_CHAIN
(
block
);
}
}
/* Call sdbout_symbol on each decl in the chain SYMS. */
static
void
sdbout_syms
(
syms
)
tree
syms
;
{
while
(
syms
)
{
sdbout_symbol
(
syms
,
1
);
syms
=
TREE_CHAIN
(
syms
);
}
}
/* Output SDB information for a symbol described by DECL.
LOCAL is nonzero if the symbol is not file-scope. */
void
sdbout_symbol
(
decl
,
local
)
tree
decl
;
int
local
;
{
int
letter
=
0
;
tree
type
=
TREE_TYPE
(
decl
);
tree
context
=
NULL_TREE
;
rtx
value
;
int
regno
=
-
1
;
char
*
name
;
sdbout_one_type
(
type
);
switch
(
TREE_CODE
(
decl
))
{
case
CONST_DECL
:
/* Enum values are defined by defining the enum type. */
return
;
case
FUNCTION_DECL
:
/* Don't mention a nested function under its parent. */
context
=
decl_function_context
(
decl
);
if
(
context
==
current_function_decl
)
return
;
if
(
TREE_EXTERNAL
(
decl
))
return
;
if
(
GET_CODE
(
DECL_RTL
(
decl
))
!=
MEM
||
GET_CODE
(
XEXP
(
DECL_RTL
(
decl
),
0
))
!=
SYMBOL_REF
)
return
;
PUT_SDB_DEF
(
IDENTIFIER_POINTER
(
DECL_ASSEMBLER_NAME
(
decl
)));
PUT_SDB_VAL
(
XEXP
(
DECL_RTL
(
decl
),
0
));
PUT_SDB_SCL
(
TREE_PUBLIC
(
decl
)
?
C_EXT
:
C_STAT
);
break
;
case
TYPE_DECL
:
/* Done with tagged types. */
if
(
DECL_NAME
(
decl
)
==
0
)
return
;
/* Output typedef name. */
PUT_SDB_DEF
(
IDENTIFIER_POINTER
(
DECL_NAME
(
decl
)));
PUT_SDB_SCL
(
C_TPDEF
);
break
;
case
PARM_DECL
:
/* Parm decls go in their own separate chains
and are output by sdbout_reg_parms and sdbout_parms. */
abort
();
case
VAR_DECL
:
/* Don't mention a variable that is external.
Let the file that defines it describe it. */
if
(
TREE_EXTERNAL
(
decl
))
return
;
/* If there was an error in the declaration, don't dump core
if there is no RTL associated with the variable doesn't
exist. */
if
(
DECL_RTL
(
decl
)
==
0
)
return
;
value
=
eliminate_regs
(
DECL_RTL
(
decl
),
0
,
0
);
/* Don't mention a variable at all
if it was completely optimized into nothingness.
If DECL was from an inline function, then its rtl
is not identically the rtl that was used in this
particular compilation. */
if
(
GET_CODE
(
value
)
==
REG
)
{
regno
=
REGNO
(
DECL_RTL
(
decl
));
if
(
regno
>=
FIRST_PSEUDO_REGISTER
)
regno
=
reg_renumber
[
REGNO
(
DECL_RTL
(
decl
))];
if
(
regno
<
0
)
return
;
}
else
if
(
GET_CODE
(
DECL_RTL
(
decl
))
==
SUBREG
)
{
int
offset
=
0
;
while
(
GET_CODE
(
value
)
==
SUBREG
)
{
offset
+=
SUBREG_WORD
(
value
);
value
=
SUBREG_REG
(
value
);
}
if
(
GET_CODE
(
value
)
==
REG
)
{
regno
=
REGNO
(
value
);
if
(
regno
>=
FIRST_PSEUDO_REGISTER
)
regno
=
reg_renumber
[
REGNO
(
value
)];
if
(
regno
>=
0
)
regno
+=
offset
;
}
}
/* Emit any structure, union, or enum type that has not been output.
This occurs for tag-less structs (et al) used to declare variables
within functions. */
if
(
TREE_CODE
(
type
)
==
ENUMERAL_TYPE
||
TREE_CODE
(
type
)
==
RECORD_TYPE
||
TREE_CODE
(
type
)
==
UNION_TYPE
)
{
if
(
TYPE_SIZE
(
type
)
!=
0
/* not a forward reference */
&&
KNOWN_TYPE_TAG
(
type
)
==
0
)
/* not yet declared */
sdbout_one_type
(
type
);
}
/* Defer SDB information for top-level initialized variables! */
if
(
!
local
&&
GET_CODE
(
value
)
==
MEM
&&
DECL_INITIAL
(
decl
))
return
;
/* Record the name for, starting a symtab entry. */
name
=
IDENTIFIER_POINTER
(
DECL_NAME
(
decl
));
if
(
GET_CODE
(
value
)
==
MEM
&&
GET_CODE
(
XEXP
(
value
,
0
))
==
SYMBOL_REF
)
{
PUT_SDB_DEF
(
name
);
if
(
TREE_PUBLIC
(
decl
))
{
PUT_SDB_VAL
(
XEXP
(
value
,
0
));
PUT_SDB_SCL
(
C_EXT
);
}
else
{
PUT_SDB_VAL
(
XEXP
(
value
,
0
));
PUT_SDB_SCL
(
C_STAT
);
}
}
else
if
(
regno
>=
0
)
{
PUT_SDB_DEF
(
name
);
PUT_SDB_INT_VAL
(
DBX_REGISTER_NUMBER
(
regno
));
PUT_SDB_SCL
(
C_REG
);
}
else
if
(
GET_CODE
(
value
)
==
MEM
&&
(
GET_CODE
(
XEXP
(
value
,
0
))
==
MEM
||
(
GET_CODE
(
XEXP
(
value
,
0
))
==
REG
&&
REGNO
(
XEXP
(
value
,
0
))
!=
FRAME_POINTER_REGNUM
)))
/* If the value is indirect by memory or by a register
that isn't the frame pointer
then it means the object is variable-sized and address through
that register or stack slot. COFF has no way to represent this
so all we can do is output the variable as a pointer. */
{
PUT_SDB_DEF
(
name
);
if
(
GET_CODE
(
XEXP
(
value
,
0
))
==
REG
)
{
PUT_SDB_INT_VAL
(
DBX_REGISTER_NUMBER
(
REGNO
(
XEXP
(
value
,
0
))));
PUT_SDB_SCL
(
C_REG
);
}
else
{
/* DECL_RTL looks like (MEM (MEM (PLUS (REG...)
(CONST_INT...)))).
We want the value of that CONST_INT. */
/* Encore compiler hates a newline in a macro arg, it seems. */
PUT_SDB_INT_VAL
(
DEBUGGER_AUTO_OFFSET
(
XEXP
(
XEXP
(
value
,
0
),
0
)));
PUT_SDB_SCL
(
C_AUTO
);
}
type
=
build_pointer_type
(
TREE_TYPE
(
decl
));
}
else
if
(
GET_CODE
(
value
)
==
MEM
&&
GET_CODE
(
XEXP
(
value
,
0
))
==
PLUS
&&
GET_CODE
(
XEXP
(
XEXP
(
value
,
0
),
0
))
==
REG
&&
GET_CODE
(
XEXP
(
XEXP
(
value
,
0
),
1
))
==
CONST_INT
)
{
/* DECL_RTL looks like (MEM (PLUS (REG...) (CONST_INT...))).
We want the value of that CONST_INT. */
PUT_SDB_DEF
(
name
);
PUT_SDB_INT_VAL
(
DEBUGGER_AUTO_OFFSET
(
XEXP
(
value
,
0
)));
PUT_SDB_SCL
(
C_AUTO
);
}
else
{
/* It is something we don't know how to represent for SDB. */
return
;
}
break
;
}
PUT_SDB_TYPE
(
plain_type
(
type
));
PUT_SDB_ENDEF
;
}
/* Output SDB information for a top-level initialized variable
that has been delayed. */
void
sdbout_toplevel_data
(
decl
)
tree
decl
;
{
tree
type
=
TREE_TYPE
(
decl
);
if
(
!
(
TREE_CODE
(
decl
)
==
VAR_DECL
&&
GET_CODE
(
DECL_RTL
(
decl
))
==
MEM
&&
DECL_INITIAL
(
decl
)))
abort
();
PUT_SDB_DEF
(
IDENTIFIER_POINTER
(
DECL_ASSEMBLER_NAME
(
decl
)));
PUT_SDB_VAL
(
XEXP
(
DECL_RTL
(
decl
),
0
));
if
(
TREE_PUBLIC
(
decl
))
{
PUT_SDB_SCL
(
C_EXT
);
}
else
{
PUT_SDB_SCL
(
C_STAT
);
}
PUT_SDB_TYPE
(
plain_type
(
type
));
PUT_SDB_ENDEF
;
}
#ifdef SDB_ALLOW_FORWARD_REFERENCES
/* Machinery to record and output anonymous types. */
static
tree
anonymous_types
;
static
void
sdbout_queue_anonymous_type
(
type
)
tree
type
;
{
anonymous_types
=
saveable_tree_cons
(
NULL_TREE
,
type
,
anonymous_types
);
}
static
void
sdbout_dequeue_anonymous_types
()
{
register
tree
types
,
link
;
while
(
anonymous_types
)
{
types
=
nreverse
(
anonymous_types
);
anonymous_types
=
NULL_TREE
;
for
(
link
=
types
;
link
;
link
=
TREE_CHAIN
(
link
))
{
register
tree
type
=
TREE_VALUE
(
link
);
if
(
!
TREE_ASM_WRITTEN
(
type
))
sdbout_one_type
(
type
);
}
}
}
#endif
/* Given a chain of ..._TYPE nodes, all of which have names,
output definitions of those names, as typedefs. */
void
sdbout_types
(
types
)
register
tree
types
;
{
register
tree
link
;
for
(
link
=
types
;
link
;
link
=
TREE_CHAIN
(
link
))
sdbout_one_type
(
link
);
#ifdef SDB_ALLOW_FORWARD_REFERENCES
sdbout_dequeue_anonymous_types
();
#endif
}
static
void
sdbout_type
(
type
)
tree
type
;
{
register
tree
tem
;
if
(
type
==
error_mark_node
)
type
=
integer_type_node
;
PUT_SDB_TYPE
(
plain_type
(
type
));
}
/* Output types of the fields of type TYPE, if they are structs.
Formerly did not chase through pointer types, since that could be circular.
They must come before TYPE, since forward refs are not allowed.
Now james@bigtex.cactus.org says to try them. */
static
void
sdbout_field_types
(
type
)
tree
type
;
{
tree
tail
;
for
(
tail
=
TYPE_FIELDS
(
type
);
tail
;
tail
=
TREE_CHAIN
(
tail
))
if
(
TREE_CODE
(
TREE_TYPE
(
tail
))
==
POINTER_TYPE
)
sdbout_one_type
(
TREE_TYPE
(
TREE_TYPE
(
tail
)));
else
sdbout_one_type
(
TREE_TYPE
(
tail
));
}
/* Use this to put out the top level defined record and union types
for later reference. If this is a struct with a name, then put that
name out. Other unnamed structs will have .xxfake labels generated so
that they may be referred to later.
The label will be stored in the KNOWN_TYPE_TAG slot of a type.
It may NOT be called recursively. */
static
void
sdbout_one_type
(
type
)
tree
type
;
{
text_section
();
switch
(
TREE_CODE
(
type
))
{
case
RECORD_TYPE
:
case
UNION_TYPE
:
case
ENUMERAL_TYPE
:
type
=
TYPE_MAIN_VARIANT
(
type
);
/* Don't output a type twice. */
if
(
TREE_ASM_WRITTEN
(
type
))
/* James said test TREE_ASM_BEING_WRITTEN here. */
return
;
/* Output nothing if type is not yet defined. */
if
(
TYPE_SIZE
(
type
)
==
0
)
return
;
TREE_ASM_WRITTEN
(
type
)
=
1
;
#if 1
/* This is reputed to cause trouble with the following case,
but perhaps checking TYPE_SIZE above will fix it.
/* Here is a test case:
struct foo {
struct badstr *bbb;
} forwardref;
typedef struct intermediate {
int aaaa;
} intermediate_ref;
typedef struct badstr {
int ccccc;
} badtype; */
#if 0
TREE_ASM_BEING_WRITTEN (type) = 1;
#endif
/* This change, which ought to make better output,
used to make the COFF assembler unhappy.
Changes involving KNOWN_TYPE_TAG may fix the problem. */
/* Before really doing anything, output types we want to refer to. */
/* Note that in version 1 the following two lines
are not used if forward references are in use. */
if
(
TREE_CODE
(
type
)
!=
ENUMERAL_TYPE
)
sdbout_field_types
(
type
);
#if 0
TREE_ASM_WRITTEN (type) = 1;
#endif
#endif
/* Output a structure type. */
{
int
size
=
int_size_in_bytes
(
type
);
int
member_scl
;
tree
tem
;
/* Record the type tag, but not in its permanent place just yet. */
sdbout_record_type_name
(
type
);
PUT_SDB_DEF
(
KNOWN_TYPE_TAG
(
type
));
switch
(
TREE_CODE
(
type
))
{
case
UNION_TYPE
:
PUT_SDB_SCL
(
C_UNTAG
);
PUT_SDB_TYPE
(
T_UNION
);
member_scl
=
C_MOU
;
break
;
case
RECORD_TYPE
:
PUT_SDB_SCL
(
C_STRTAG
);
PUT_SDB_TYPE
(
T_STRUCT
);
member_scl
=
C_MOS
;
break
;
case
ENUMERAL_TYPE
:
PUT_SDB_SCL
(
C_ENTAG
);
PUT_SDB_TYPE
(
T_ENUM
);
member_scl
=
C_MOE
;
break
;
}
PUT_SDB_SIZE
(
size
);
PUT_SDB_ENDEF
;
/* output the individual fields */
if
(
TREE_CODE
(
type
)
==
ENUMERAL_TYPE
)
for
(
tem
=
TYPE_FIELDS
(
type
);
tem
;
tem
=
TREE_CHAIN
(
tem
))
{
PUT_SDB_DEF
(
IDENTIFIER_POINTER
(
TREE_PURPOSE
(
tem
)));
PUT_SDB_INT_VAL
(
TREE_INT_CST_LOW
(
TREE_VALUE
(
tem
)));
PUT_SDB_SCL
(
C_MOE
);
PUT_SDB_TYPE
(
T_MOE
);
PUT_SDB_ENDEF
;
}
else
/* record or union type */
for
(
tem
=
TYPE_FIELDS
(
type
);
tem
;
tem
=
TREE_CHAIN
(
tem
))
/* Output the name, type, position (in bits), size (in bits)
of each field. */
/* Omit here the nameless fields that are used to skip bits.
Also omit fields with variable size or position.
Also omit non FIELD_DECL nodes that GNU C++ may put here. */
if
(
TREE_CODE
(
tem
)
==
FIELD_DECL
&&
DECL_NAME
(
tem
)
!=
0
&&
TREE_CODE
(
DECL_SIZE
(
tem
))
==
INTEGER_CST
&&
TREE_CODE
(
DECL_FIELD_BITPOS
(
tem
))
==
INTEGER_CST
)
{
CONTIN
;
PUT_SDB_DEF
(
IDENTIFIER_POINTER
(
DECL_NAME
(
tem
)));
if
(
DECL_BIT_FIELD_TYPE
(
tem
))
{
PUT_SDB_INT_VAL
(
TREE_INT_CST_LOW
(
DECL_FIELD_BITPOS
(
tem
)));
PUT_SDB_SCL
(
C_FIELD
);
sdbout_type
(
DECL_BIT_FIELD_TYPE
(
tem
));
PUT_SDB_SIZE
(
TREE_INT_CST_LOW
(
DECL_SIZE
(
tem
)));
}
else
{
PUT_SDB_INT_VAL
(
TREE_INT_CST_LOW
(
DECL_FIELD_BITPOS
(
tem
))
/
BITS_PER_UNIT
);
PUT_SDB_SCL
(
member_scl
);
sdbout_type
(
TREE_TYPE
(
tem
));
}
PUT_SDB_ENDEF
;
}
/* output end of a structure,union, or enumeral definition */
PUT_SDB_PLAIN_DEF
(
"eos"
);
PUT_SDB_INT_VAL
(
size
);
PUT_SDB_SCL
(
C_EOS
);
PUT_SDB_TAG
(
KNOWN_TYPE_TAG
(
type
));
PUT_SDB_SIZE
(
size
);
PUT_SDB_ENDEF
;
break
;
}
}
}
/* The following two functions output definitions of function parameters.
Each parameter gets a definition locating it in the parameter list.
Each parameter that is a register variable gets a second definition
locating it in the register.
Printing or argument lists in gdb uses the definitions that
locate in the parameter list. But reference to the variable in
expressions uses preferentially the definition as a register. */
/* Output definitions, referring to storage in the parmlist,
of all the parms in PARMS, which is a chain of PARM_DECL nodes. */
static
void
sdbout_parms
(
parms
)
tree
parms
;
{
for
(;
parms
;
parms
=
TREE_CHAIN
(
parms
))
if
(
DECL_NAME
(
parms
))
{
int
current_sym_value
=
0
;
char
*
name
=
IDENTIFIER_POINTER
(
DECL_NAME
(
parms
));
if
(
name
==
0
||
*
name
==
0
)
name
=
gen_fake_label
();
/* Perform any necessary register eliminations on the parameter's rtl,
so that the debugging output will be accurate. */
DECL_INCOMING_RTL
(
parms
)
=
eliminate_regs
(
DECL_INCOMING_RTL
(
parms
),
0
,
0
);
DECL_RTL
(
parms
)
=
eliminate_regs
(
DECL_RTL
(
parms
),
0
,
0
);
if
(
PARM_PASSED_IN_MEMORY
(
parms
))
{
rtx
addr
=
XEXP
(
DECL_INCOMING_RTL
(
parms
),
0
);
tree
type
;
/* ??? Here we assume that the parm address is indexed
off the frame pointer or arg pointer.
If that is not true, we produce meaningless results,
but do not crash. */
if
(
GET_CODE
(
addr
)
==
PLUS
&&
GET_CODE
(
XEXP
(
addr
,
1
))
==
CONST_INT
)
current_sym_value
=
INTVAL
(
XEXP
(
addr
,
1
));
else
current_sym_value
=
0
;
if
(
GET_CODE
(
DECL_RTL
(
parms
))
==
REG
&&
REGNO
(
DECL_RTL
(
parms
))
>=
0
&&
REGNO
(
DECL_RTL
(
parms
))
<
FIRST_PSEUDO_REGISTER
)
type
=
DECL_ARG_TYPE
(
parms
);
else
{
int
original_sym_value
=
current_sym_value
;
/* This is the case where the parm is passed as an int or
double and it is converted to a char, short or float
and stored back in the parmlist. In this case, describe
the parm with the variable's declared type, and adjust
the address if the least significant bytes (which we are
using) are not the first ones. */
#if BYTES_BIG_ENDIAN
if
(
TREE_TYPE
(
parms
)
!=
DECL_ARG_TYPE
(
parms
))
current_sym_value
+=
(
GET_MODE_SIZE
(
TYPE_MODE
(
DECL_ARG_TYPE
(
parms
)))
-
GET_MODE_SIZE
(
GET_MODE
(
DECL_RTL
(
parms
))));
#endif
if
(
GET_CODE
(
DECL_RTL
(
parms
))
==
MEM
&&
GET_CODE
(
XEXP
(
DECL_RTL
(
parms
),
0
))
==
PLUS
&&
(
GET_CODE
(
XEXP
(
XEXP
(
DECL_RTL
(
parms
),
0
),
1
))
==
CONST_INT
)
&&
(
INTVAL
(
XEXP
(
XEXP
(
DECL_RTL
(
parms
),
0
),
1
))
==
current_sym_value
))
type
=
TREE_TYPE
(
parms
);
else
{
current_sym_value
=
original_sym_value
;
type
=
DECL_ARG_TYPE
(
parms
);
}
}
PUT_SDB_DEF
(
name
);
PUT_SDB_INT_VAL
(
DEBUGGER_ARG_OFFSET
(
current_sym_value
,
addr
));
PUT_SDB_SCL
(
C_ARG
);
PUT_SDB_TYPE
(
plain_type
(
type
));
PUT_SDB_ENDEF
;
}
else
if
(
GET_CODE
(
DECL_RTL
(
parms
))
==
REG
)
{
rtx
best_rtl
;
/* Parm passed in registers and lives in registers or nowhere. */
/* If parm lives in a register, use that register;
pretend the parm was passed there. It would be more consistent
to describe the register where the parm was passed,
but in practice that register usually holds something else. */
if
(
REGNO
(
DECL_RTL
(
parms
))
>=
0
&&
REGNO
(
DECL_RTL
(
parms
))
<
FIRST_PSEUDO_REGISTER
)
best_rtl
=
DECL_RTL
(
parms
);
/* If the parm lives nowhere,
use the register where it was passed. */
else
best_rtl
=
DECL_INCOMING_RTL
(
parms
);
PUT_SDB_DEF
(
name
);
PUT_SDB_INT_VAL
(
DBX_REGISTER_NUMBER
(
REGNO
(
best_rtl
)));
PUT_SDB_SCL
(
C_REGPARM
);
PUT_SDB_TYPE
(
plain_type
(
TREE_TYPE
(
parms
),
0
));
PUT_SDB_ENDEF
;
}
else
if
(
GET_CODE
(
DECL_RTL
(
parms
))
==
MEM
&&
XEXP
(
DECL_RTL
(
parms
),
0
)
!=
const0_rtx
)
{
/* Parm was passed in registers but lives on the stack. */
/* DECL_RTL looks like (MEM (PLUS (REG...) (CONST_INT...))),
in which case we want the value of that CONST_INT,
or (MEM (REG ...)) or (MEM (MEM ...)),
in which case we use a value of zero. */
if
(
GET_CODE
(
XEXP
(
DECL_RTL
(
parms
),
0
))
==
REG
||
GET_CODE
(
XEXP
(
DECL_RTL
(
parms
),
0
))
==
MEM
)
current_sym_value
=
0
;
else
current_sym_value
=
INTVAL
(
XEXP
(
XEXP
(
DECL_RTL
(
parms
),
0
),
1
));
/* Again, this assumes the offset is based on the arg pointer. */
PUT_SDB_DEF
(
name
);
PUT_SDB_INT_VAL
(
DEBUGGER_ARG_OFFSET
(
current_sym_value
,
XEXP
(
DECL_RTL
(
parms
),
0
)));
PUT_SDB_SCL
(
C_ARG
);
PUT_SDB_TYPE
(
plain_type
(
TREE_TYPE
(
parms
),
0
));
PUT_SDB_ENDEF
;
}
}
}
/* Output definitions for the places where parms live during the function,
when different from where they were passed, when the parms were passed
in memory.
It is not useful to do this for parms passed in registers
that live during the function in different registers, because it is
impossible to look in the passed register for the passed value,
so we use the within-the-function register to begin with.
PARMS is a chain of PARM_DECL nodes. */
static
void
sdbout_reg_parms
(
parms
)
tree
parms
;
{
for
(;
parms
;
parms
=
TREE_CHAIN
(
parms
))
if
(
DECL_NAME
(
parms
))
{
char
*
name
=
IDENTIFIER_POINTER
(
DECL_NAME
(
parms
));
/* Report parms that live in registers during the function
but were passed in memory. */
if
(
GET_CODE
(
DECL_RTL
(
parms
))
==
REG
&&
REGNO
(
DECL_RTL
(
parms
))
>=
0
&&
REGNO
(
DECL_RTL
(
parms
))
<
FIRST_PSEUDO_REGISTER
&&
PARM_PASSED_IN_MEMORY
(
parms
))
{
if
(
name
==
0
||
*
name
==
0
)
name
=
gen_fake_label
();
PUT_SDB_DEF
(
name
);
PUT_SDB_INT_VAL
(
DBX_REGISTER_NUMBER
(
REGNO
(
DECL_RTL
(
parms
))));
PUT_SDB_SCL
(
C_REG
);
PUT_SDB_TYPE
(
plain_type
(
TREE_TYPE
(
parms
),
0
));
PUT_SDB_ENDEF
;
}
/* Report parms that live in memory but not where they were passed. */
else
if
(
GET_CODE
(
DECL_RTL
(
parms
))
==
MEM
&&
GET_CODE
(
XEXP
(
DECL_RTL
(
parms
),
0
))
==
PLUS
&&
GET_CODE
(
XEXP
(
XEXP
(
DECL_RTL
(
parms
),
0
),
1
))
==
CONST_INT
&&
PARM_PASSED_IN_MEMORY
(
parms
)
&&
!
rtx_equal_p
(
DECL_RTL
(
parms
),
DECL_INCOMING_RTL
(
parms
)))
{
#if 0 /* ??? It is not clear yet what should replace this. */
int offset = DECL_OFFSET (parms) / BITS_PER_UNIT;
/* A parm declared char is really passed as an int,
so it occupies the least significant bytes.
On a big-endian machine those are not the low-numbered ones. */
#if BYTES_BIG_ENDIAN
if (offset != -1 && TREE_TYPE (parms) != DECL_ARG_TYPE (parms))
offset += (GET_MODE_SIZE (TYPE_MODE (DECL_ARG_TYPE (parms)))
- GET_MODE_SIZE (GET_MODE (DECL_RTL (parms))));
#endif
if (INTVAL (XEXP (XEXP (DECL_RTL (parms), 0), 1)) != offset) {...}
#endif
{
if
(
name
==
0
||
*
name
==
0
)
name
=
gen_fake_label
();
PUT_SDB_DEF
(
name
);
PUT_SDB_INT_VAL
(
DEBUGGER_AUTO_OFFSET
(
XEXP
(
DECL_RTL
(
parms
),
0
)));
PUT_SDB_SCL
(
C_AUTO
);
PUT_SDB_TYPE
(
plain_type
(
TREE_TYPE
(
parms
)));
PUT_SDB_ENDEF
;
}
}
}
}
/* Describe the beginning of an internal block within a function.
Also output descriptions of variables defined in this block.
N is the number of the block, by order of beginning, counting from 1,
and not counting the outermost (function top-level) block.
The blocks match the BLOCKs in DECL_INITIAL (current_function_decl),
if the count starts at 0 for the outermost one. */
void
sdbout_begin_block
(
file
,
line
,
n
)
FILE
*
file
;
int
line
;
int
n
;
{
tree
decl
=
current_function_decl
;
MAKE_LINE_SAFE
(
line
);
PUT_SDB_BLOCK_START
(
line
-
sdb_begin_function_line
);
if
(
n
==
1
)
{
/* Include the outermost BLOCK's variables in block 1. */
next_block_number
=
0
;
do_block
=
0
;
sdbout_block
(
DECL_INITIAL
(
decl
));
}
/* If -g1, suppress all the internal symbols of functions
except for arguments. */
if
(
debug_info_level
!=
DINFO_LEVEL_TERSE
)
{
next_block_number
=
0
;
do_block
=
n
;
sdbout_block
(
DECL_INITIAL
(
decl
));
}
#ifdef SDB_ALLOW_FORWARD_REFERENCES
sdbout_dequeue_anonymous_types
();
#endif
}
/* Describe the end line-number of an internal block within a function. */
void
sdbout_end_block
(
file
,
line
)
FILE
*
file
;
int
line
;
{
MAKE_LINE_SAFE
(
line
);
PUT_SDB_BLOCK_END
(
line
-
sdb_begin_function_line
);
}
/* Output sdb info for the current function name.
Called from assemble_start_function. */
void
sdbout_mark_begin_function
()
{
sdbout_symbol
(
current_function_decl
,
0
);
}
/* Called at beginning of function body (after prologue).
Record the function's starting line number, so we can output
relative line numbers for the other lines.
Describe beginning of outermost block.
Also describe the parameter list. */
void
sdbout_begin_function
(
line
)
int
line
;
{
sdb_begin_function_line
=
line
-
1
;
PUT_SDB_FUNCTION_START
(
line
);
sdbout_parms
(
DECL_ARGUMENTS
(
current_function_decl
));
sdbout_reg_parms
(
DECL_ARGUMENTS
(
current_function_decl
));
}
/* Called at end of function (before epilogue).
Describe end of outermost block. */
void
sdbout_end_function
(
line
)
int
line
;
{
#ifdef SDB_ALLOW_FORWARD_REFERENCES
sdbout_dequeue_anonymous_types
();
#endif
MAKE_LINE_SAFE
(
line
);
PUT_SDB_FUNCTION_END
(
line
-
sdb_begin_function_line
);
/* Indicate we are between functions, for line-number output. */
sdb_begin_function_line
=
-
1
;
}
/* Output sdb info for the absolute end of a function.
Called after the epilogue is output. */
void
sdbout_end_epilogue
()
{
char
*
name
=
IDENTIFIER_POINTER
(
DECL_ASSEMBLER_NAME
(
current_function_decl
));
PUT_SDB_EPILOGUE_END
(
name
);
}
/* Output sdb info for the given label. Called only if LABEL_NAME (insn)
is present. */
void
sdbout_label
(
insn
)
register
rtx
insn
;
{
PUT_SDB_DEF
(
LABEL_NAME
(
insn
));
PUT_SDB_VAL
(
insn
);
PUT_SDB_SCL
(
C_LABEL
);
PUT_SDB_TYPE
(
T_NULL
);
PUT_SDB_ENDEF
;
}
#endif
/* SDB_DEBUGGING_INFO */
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