[binutils.git] / bfd / trad-core.c

/* BFD back end for traditional Unix core files (U-area and raw sections)
   Copyright (C) 1988, 1989, 1991 Free Software Foundation, Inc.
   Written by John Gilmore of Cygnus Support.

This file is part of BFD, the Binary File Descriptor library.

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 2 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, write to the Free Software
Foundation, Inc., 675 Mass Ave, Cambridge, MA 02139, USA.  */

/* To use this file on a particular host, configure the host with these
   parameters in the config/h-HOST file:

	HDEFINES=-DTRAD_CORE
	HDEPFILES=trad-core.o

 */

#include "bfd.h"
#include "sysdep.h"
#include "libbfd.h"
#include "libaout.h"           /* BFD a.out internal data structures */

#include <stdio.h>
#include <sys/types.h>
#include <sys/param.h>
#include <sys/dir.h>
#include <signal.h>
#include <machine/reg.h>

#include <sys/user.h>		/* After a.out.h  */
#include <sys/file.h>

#include <errno.h>

/* These are stored in the bfd's tdata */
struct core_data {
  struct user *upage;             /* core file header */
  asection *data_section;
  asection *stack_section;
  asection *reg_section;
};

#define core_hdr(bfd) (((struct core_data *) (bfd->tdata))->hdr)
#define core_upage(bfd) (((struct core_data *) ((bfd)->tdata))->upage)
#define core_datasec(bfd) (((struct core_data *) ((bfd)->tdata))->data_section)
#define core_stacksec(bfd) (((struct core_data*)((bfd)->tdata))->stack_section)
#define core_regsec(bfd) (((struct core_data *) ((bfd)->tdata))->reg_section)

/* Handle 4.2-style (and perhaps also sysV-style) core dump file.  */

/* ARGSUSED */
bfd_target *
trad_unix_core_file_p (abfd)
     bfd *abfd;
{
  int val;
  struct user u;
  unsigned int reg_offset, fp_reg_offset;
  /* This struct is just for allocating two things with one zalloc, so
     they will be freed together, without violating alignment constraints. */
  struct core_user {
	struct core_data	coredata;
	struct user		u;
  } *rawptr;

  val = bfd_read ((void *)&u, 1, sizeof u, abfd);
  if (val != sizeof u)
    return 0;			/* Too small to be a core file */

  /* Sanity check perhaps??? */
  if (u.u_dsize > 0x1000000)	/* Remember, it's in pages... */
    return 0;
  if (u.u_ssize > 0x1000000)
    return 0;
  /* Check that the size claimed is no greater than the file size. FIXME. */

  /* OK, we believe you.  You're a core file (sure, sure).  */

  /* Allocate both the upage and the struct core_data at once, so
     a single free() will free them both.  */
  rawptr = (struct core_user *)bfd_zalloc (abfd, sizeof (struct core_user));
  if (rawptr == NULL) {
    bfd_error = no_memory;
    return 0;
  }
  
  set_tdata (abfd, &rawptr->coredata);
  core_upage (abfd) = &rawptr->u;
  *core_upage (abfd) = u;		/* Save that upage! */

  /* Create the sections.  This is raunchy, but bfd_close wants to free
     them separately.  */
  core_stacksec (abfd) = (asection *) zalloc (sizeof (asection));
  if (core_stacksec (abfd) == NULL) {
loser:
    bfd_error = no_memory;
    free ((void *)rawptr);
    return 0;
  }
  core_datasec (abfd) = (asection *) zalloc (sizeof (asection));
  if (core_datasec (abfd) == NULL) {
loser1:
    free ((void *)core_stacksec (abfd));
    goto loser;
  }
  core_regsec (abfd) = (asection *) zalloc (sizeof (asection));
  if (core_regsec (abfd) == NULL) {
loser2:
    free ((void *)core_datasec (abfd));
    goto loser1;
  }

  core_stacksec (abfd)->name = ".stack";
  core_datasec (abfd)->name = ".data";
  core_regsec (abfd)->name = ".reg";

  core_stacksec (abfd)->flags = SEC_ALLOC + SEC_LOAD + SEC_HAS_CONTENTS;
  core_datasec (abfd)->flags = SEC_ALLOC + SEC_LOAD + SEC_HAS_CONTENTS;
  core_regsec (abfd)->flags = SEC_ALLOC + SEC_HAS_CONTENTS;

  core_datasec (abfd)->size =  NBPG * u.u_dsize;
  core_stacksec (abfd)->size = NBPG * u.u_ssize;
  core_regsec (abfd)->size = NBPG * UPAGES;  /* Larger than sizeof struct u */

  /* What a hack... we'd like to steal it from the exec file,
     since the upage does not seem to provide it.  FIXME.  */
#ifdef HOST_DATA_START_ADDR
  core_datasec (abfd)->vma = HOST_DATA_START_ADDR;
#else
  core_datasec (abfd)->vma = HOST_TEXT_START_ADDR + (NBPG * u.u_tsize);
#endif
  core_stacksec (abfd)->vma = HOST_STACK_END_ADDR - (NBPG * u.u_ssize);
  /* This is tricky.  As the "register section", we give them the entire
     upage and stack.  u.u_ar0 points to where "register 0" is stored.
     There are two tricks with this, though.  One is that the rest of the
     registers might be at positive or negative (or both) displacements
     from *u_ar0.  The other is that u_ar0 is sometimes an absolute address
     in kernel memory, and on other systems it is an offset from the beginning
     of the `struct user'.

     As a practical matter, we don't know where the registers actually are,
     so we have to pass the whole area to GDB.  We encode the value of u_ar0
     by setting the .regs section up so that its virtual memory address
     0 is at the place pointed to by u_ar0 (by setting the vma of the start
     of the section to -u_ar0).  GDB uses this info to locate the regs,
     using minor trickery to get around the offset-or-absolute-addr problem. */
  core_regsec (abfd)->vma = 0 - (int) u.u_ar0;

  core_datasec (abfd)->filepos = NBPG * UPAGES;
  core_stacksec (abfd)->filepos = (NBPG * UPAGES) + NBPG * u.u_dsize;
  core_regsec (abfd)->filepos = 0;	/* Register segment is the upage */

  /* Align to word at least */
  core_stacksec (abfd)->alignment_power = 2;
  core_datasec (abfd)->alignment_power = 2;
  core_regsec (abfd)->alignment_power = 2;

  abfd->sections = core_stacksec (abfd);
  core_stacksec (abfd)->next = core_datasec (abfd);
  core_datasec (abfd)->next = core_regsec (abfd);
  abfd->section_count = 3;

  return abfd->xvec;
}

char *
trad_unix_core_file_failing_command (abfd)
     bfd *abfd;
{
  if (*core_upage (abfd)->u_comm)
    return core_upage (abfd)->u_comm;
  else
    return 0;
}

/* ARGSUSED */
int
trad_unix_core_file_failing_signal (ignore_abfd)
     bfd *ignore_abfd;
{
  return -1;		/* FIXME, where is it? */
}

/* ARGSUSED */
boolean
trad_unix_core_file_matches_executable_p  (core_bfd, exec_bfd)
     bfd *core_bfd, *exec_bfd;
{
  return true;		/* FIXME, We have no way of telling at this point */
}
\f
/* No archive file support via this BFD */
#define	trad_unix_openr_next_archived_file	bfd_generic_openr_next_archived_file
#define	trad_unix_generic_stat_arch_elt		bfd_generic_stat_arch_elt
#define	trad_unix_slurp_armap			bfd_false
#define	trad_unix_slurp_extended_name_table	bfd_true
#define	trad_unix_write_armap			(PROTO (boolean, (*),	\
     (bfd *arch, unsigned int elength, struct orl *map, int orl_count,	\
      int stridx))) bfd_false
#define	trad_unix_truncate_arname		bfd_dont_truncate_arname
#define	aout_32_openr_next_archived_file	bfd_generic_openr_next_archived_file

#define	trad_unix_close_and_cleanup		bfd_generic_close_and_cleanup
#define	trad_unix_set_section_contents		(PROTO(boolean, (*),	\
         (bfd *abfd, asection *section, PTR data, file_ptr offset,	\
         bfd_size_type count))) bfd_false
#define	trad_unix_get_section_contents		bfd_generic_get_section_contents
#define	trad_unix_new_section_hook		(PROTO (boolean, (*),	\
	(bfd *, sec_ptr))) bfd_true
#define	trad_unix_get_symtab_upper_bound	bfd_0u
#define	trad_unix_get_symtab			(PROTO (unsigned int, (*), \
        (bfd *, struct symbol_cache_entry **))) bfd_0u
#define	trad_unix_get_reloc_upper_bound		(PROTO (unsigned int, (*), \
	(bfd *, sec_ptr))) bfd_0u
#define	trad_unix_canonicalize_reloc		(PROTO (unsigned int, (*), \
	(bfd *, sec_ptr, arelent **, struct symbol_cache_entry**))) bfd_0u
#define	trad_unix_make_empty_symbol		(PROTO (		\
	struct symbol_cache_entry *, (*), (bfd *))) bfd_false
#define	trad_unix_print_symbol			(PROTO (void, (*),	\
	(bfd *, PTR, struct symbol_cache_entry  *,			\
	 bfd_print_symbol_type))) bfd_false
#define	trad_unix_get_lineno			(PROTO (alent *, (*),	\
	(bfd *, struct symbol_cache_entry *))) bfd_nullvoidptr
#define	trad_unix_set_arch_mach			(PROTO (boolean, (*),	\
	(bfd *, enum bfd_architecture, unsigned long))) bfd_false
#define	trad_unix_find_nearest_line		(PROTO (boolean, (*),	\
        (bfd *abfd, struct sec  *section,				\
         struct symbol_cache_entry  **symbols,bfd_vma offset,		\
         CONST char **file, CONST char **func, unsigned int *line))) bfd_false
#define	trad_unix_sizeof_headers		(PROTO (int, (*),	\
	(bfd *, boolean))) bfd_0

#define trad_unix_bfd_debug_info_start		bfd_void
#define trad_unix_bfd_debug_info_end		bfd_void
#define trad_unix_bfd_debug_info_accumulate	(PROTO (void, (*),	\
	(bfd *, struct sec *))) bfd_void

/* If somebody calls any byte-swapping routines, shoot them.  */
void
swap_abort()
{
  abort(); /* This way doesn't require any declaration for ANSI to fuck up */
}
#define	NO_GET	((PROTO(bfd_vma, (*), (         bfd_byte *))) swap_abort )
#define	NO_PUT	((PROTO(void,    (*), (bfd_vma, bfd_byte *))) swap_abort )

bfd_target trad_core_vec =
  {
    "trad-core",
    bfd_target_unknown_flavour,
    true,			/* target byte order */
    true,			/* target headers byte order */
    (HAS_RELOC | EXEC_P |	/* object flags */
     HAS_LINENO | HAS_DEBUG |
     HAS_SYMS | HAS_LOCALS | DYNAMIC | WP_TEXT | D_PAGED),
    (SEC_HAS_CONTENTS | SEC_ALLOC | SEC_LOAD | SEC_RELOC), /* section flags */
    ' ',						   /* ar_pad_char */
    16,							   /* ar_max_namelen */
    3,							   /* minimum alignment power */
    NO_GET, NO_PUT, NO_GET, NO_PUT, NO_GET, NO_PUT, /* data */
    NO_GET, NO_PUT, NO_GET, NO_PUT, NO_GET, NO_PUT, /* hdrs */

    {_bfd_dummy_target, _bfd_dummy_target,
     _bfd_dummy_target, trad_unix_core_file_p},
    {bfd_false, bfd_false,	/* bfd_create_object */
     bfd_false, bfd_false},
    {bfd_false, bfd_false,	/* bfd_write_contents */
     bfd_false, bfd_false},
    
    JUMP_TABLE(trad_unix)
};
Commit	Line	Data
9712c6e2 SG	1	/* BFD back end for traditional Unix core files (U-area and raw sections)
	2	Copyright (C) 1988, 1989, 1991 Free Software Foundation, Inc.
	3	Written by John Gilmore of Cygnus Support.
	4
	5	This file is part of BFD, the Binary File Descriptor library.
	6
	7	This program is free software; you can redistribute it and/or modify
	8	it under the terms of the GNU General Public License as published by
	9	the Free Software Foundation; either version 2 of the License, or
	10	(at your option) any later version.
	11
	12	This program is distributed in the hope that it will be useful,
	13	but WITHOUT ANY WARRANTY; without even the implied warranty of
	14	MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
	15	GNU General Public License for more details.
	16
	17	You should have received a copy of the GNU General Public License
	18	along with this program; if not, write to the Free Software
	19	Foundation, Inc., 675 Mass Ave, Cambridge, MA 02139, USA. */
ff37ea55	20
6a469027 JG	21	/* To use this file on a particular host, configure the host with these
	22	parameters in the config/h-HOST file:
	23
637942e4	24	HDEFINES=-DTRAD_CORE
6a469027 JG	25	HDEPFILES=trad-core.o
	26
	27	*/
	28
ff37ea55	29	#include "bfd.h"
637942e4	30	#include "sysdep.h"
ff37ea55	31	#include "libbfd.h"
359f1dee	32	#include "libaout.h" /* BFD a.out internal data structures */
ff37ea55	33
637942e4	34	#include <stdio.h>
ff37ea55 JG	35	#include <sys/types.h>
	36	#include <sys/param.h>
	37	#include <sys/dir.h>
	38	#include <signal.h>
	39	#include <machine/reg.h>
	40
	41	#include <sys/user.h> /* After a.out.h */
	42	#include <sys/file.h>
ff37ea55 JG	43
	44	#include <errno.h>
	45
ff37ea55 JG	46	/* These are stored in the bfd's tdata */
	47	struct core_data {
	48	struct user upage; / core file header */
	49	asection *data_section;
	50	asection *stack_section;
	51	asection *reg_section;
	52	};
	53
6a469027 JG	54	#define core_hdr(bfd) (((struct core_data *) (bfd->tdata))->hdr)
	55	#define core_upage(bfd) (((struct core_data *) ((bfd)->tdata))->upage)
	56	#define core_datasec(bfd) (((struct core_data *) ((bfd)->tdata))->data_section)
	57	#define core_stacksec(bfd) (((struct core_data*)((bfd)->tdata))->stack_section)
	58	#define core_regsec(bfd) (((struct core_data *) ((bfd)->tdata))->reg_section)
	59
637942e4 JG	60	/* Handle 4.2-style (and perhaps also sysV-style) core dump file. */
637942e4 JG	61
7ed4093a	62	/* ARGSUSED */
ff37ea55 JG	63	bfd_target *
	64	trad_unix_core_file_p (abfd)
	65	bfd *abfd;
	66	{
ff37ea55	67	int val;
ff37ea55 JG	68	struct user u;
ff37ea55 JG	69	unsigned int reg_offset, fp_reg_offset;
637942e4 JG	70	/* This struct is just for allocating two things with one zalloc, so
	71	they will be freed together, without violating alignment constraints. */
	72	struct core_user {
	73	struct core_data coredata;
	74	struct user u;
	75	} *rawptr;
ff37ea55 JG	76
	77	val = bfd_read ((void *)&u, 1, sizeof u, abfd);
	78	if (val != sizeof u)
	79	return 0; /* Too small to be a core file */
	80
	81	/* Sanity check perhaps??? */
	82	if (u.u_dsize > 0x1000000) /* Remember, it's in pages... */
	83	return 0;
	84	if (u.u_ssize > 0x1000000)
	85	return 0;
	86	/* Check that the size claimed is no greater than the file size. FIXME. */
	87
	88	/* OK, we believe you. You're a core file (sure, sure). */
	89
	90	/* Allocate both the upage and the struct core_data at once, so
	91	a single free() will free them both. */
637942e4	92	rawptr = (struct core_user *)bfd_zalloc (abfd, sizeof (struct core_user));
ff37ea55 JG	93	if (rawptr == NULL) {
	94	bfd_error = no_memory;
	95	return 0;
	96	}
	97
637942e4 JG	98	set_tdata (abfd, &rawptr->coredata);
637942e4 JG	99	core_upage (abfd) = &rawptr->u;
ff37ea55 JG	100	core_upage (abfd) = u; / Save that upage! */
ff37ea55 JG	101
637942e4 JG	102	/* Create the sections. This is raunchy, but bfd_close wants to free
637942e4 JG	103	them separately. */
ff37ea55 JG	104	core_stacksec (abfd) = (asection *) zalloc (sizeof (asection));
	105	if (core_stacksec (abfd) == NULL) {
	106	loser:
	107	bfd_error = no_memory;
	108	free ((void *)rawptr);
	109	return 0;
	110	}
	111	core_datasec (abfd) = (asection *) zalloc (sizeof (asection));
	112	if (core_datasec (abfd) == NULL) {
	113	loser1:
	114	free ((void *)core_stacksec (abfd));
	115	goto loser;
	116	}
	117	core_regsec (abfd) = (asection *) zalloc (sizeof (asection));
	118	if (core_regsec (abfd) == NULL) {
	119	loser2:
	120	free ((void *)core_datasec (abfd));
	121	goto loser1;
	122	}
	123
	124	core_stacksec (abfd)->name = ".stack";
	125	core_datasec (abfd)->name = ".data";
	126	core_regsec (abfd)->name = ".reg";
	127
6a469027 JG	128	core_stacksec (abfd)->flags = SEC_ALLOC + SEC_LOAD + SEC_HAS_CONTENTS;
	129	core_datasec (abfd)->flags = SEC_ALLOC + SEC_LOAD + SEC_HAS_CONTENTS;
	130	core_regsec (abfd)->flags = SEC_ALLOC + SEC_HAS_CONTENTS;
ff37ea55 JG	131
	132	core_datasec (abfd)->size = NBPG * u.u_dsize;
	133	core_stacksec (abfd)->size = NBPG * u.u_ssize;
	134	core_regsec (abfd)->size = NBPG * UPAGES; /* Larger than sizeof struct u */
	135
	136	/* What a hack... we'd like to steal it from the exec file,
	137	since the upage does not seem to provide it. FIXME. */
9712c6e2 SG	138	#ifdef HOST_DATA_START_ADDR
	139	core_datasec (abfd)->vma = HOST_DATA_START_ADDR;
	140	#else
	141	core_datasec (abfd)->vma = HOST_TEXT_START_ADDR + (NBPG * u.u_tsize);
	142	#endif
	143	core_stacksec (abfd)->vma = HOST_STACK_END_ADDR - (NBPG * u.u_ssize);
637942e4 JG	144	/* This is tricky. As the "register section", we give them the entire
	145	upage and stack. u.u_ar0 points to where "register 0" is stored.
	146	There are two tricks with this, though. One is that the rest of the
	147	registers might be at positive or negative (or both) displacements
	148	from *u_ar0. The other is that u_ar0 is sometimes an absolute address
	149	in kernel memory, and on other systems it is an offset from the beginning
	150	of the `struct user'.
	151
	152	As a practical matter, we don't know where the registers actually are,
	153	so we have to pass the whole area to GDB. We encode the value of u_ar0
	154	by setting the .regs section up so that its virtual memory address
	155	0 is at the place pointed to by u_ar0 (by setting the vma of the start
	156	of the section to -u_ar0). GDB uses this info to locate the regs,
	157	using minor trickery to get around the offset-or-absolute-addr problem. */
	158	core_regsec (abfd)->vma = 0 - (int) u.u_ar0;
ff37ea55 JG	159
	160	core_datasec (abfd)->filepos = NBPG * UPAGES;
	161	core_stacksec (abfd)->filepos = (NBPG * UPAGES) + NBPG * u.u_dsize;
	162	core_regsec (abfd)->filepos = 0; /* Register segment is the upage */
	163
	164	/* Align to word at least */
	165	core_stacksec (abfd)->alignment_power = 2;
	166	core_datasec (abfd)->alignment_power = 2;
	167	core_regsec (abfd)->alignment_power = 2;
	168
	169	abfd->sections = core_stacksec (abfd);
	170	core_stacksec (abfd)->next = core_datasec (abfd);
	171	core_datasec (abfd)->next = core_regsec (abfd);
	172	abfd->section_count = 3;
	173
	174	return abfd->xvec;
ff37ea55 JG	175	}
	176
	177	char *
	178	trad_unix_core_file_failing_command (abfd)
	179	bfd *abfd;
	180	{
	181	if (*core_upage (abfd)->u_comm)
	182	return core_upage (abfd)->u_comm;
	183	else
	184	return 0;
	185	}
	186
7ed4093a	187	/* ARGSUSED */
ff37ea55	188	int
7ed4093a SC	189	trad_unix_core_file_failing_signal (ignore_abfd)
7ed4093a SC	190	bfd *ignore_abfd;
ff37ea55 JG	191	{
	192	return -1; /* FIXME, where is it? */
	193	}
	194
7ed4093a	195	/* ARGSUSED */
ff37ea55 JG	196	boolean
	197	trad_unix_core_file_matches_executable_p (core_bfd, exec_bfd)
	198	bfd core_bfd, exec_bfd;
	199	{
	200	return true; /* FIXME, We have no way of telling at this point */
	201	}
6a469027 JG	202	\f
	203	/* No archive file support via this BFD */
	204	#define trad_unix_openr_next_archived_file bfd_generic_openr_next_archived_file
	205	#define trad_unix_generic_stat_arch_elt bfd_generic_stat_arch_elt
	206	#define trad_unix_slurp_armap bfd_false
	207	#define trad_unix_slurp_extended_name_table bfd_true
	208	#define trad_unix_write_armap (PROTO (boolean, (*), \
	209	(bfd arch, unsigned int elength, struct orl map, int orl_count, \
	210	int stridx))) bfd_false
	211	#define trad_unix_truncate_arname bfd_dont_truncate_arname
	212	#define aout_32_openr_next_archived_file bfd_generic_openr_next_archived_file
	213
	214	#define trad_unix_close_and_cleanup bfd_generic_close_and_cleanup
	215	#define trad_unix_set_section_contents (PROTO(boolean, (*), \
	216	(bfd abfd, asection section, PTR data, file_ptr offset, \
	217	bfd_size_type count))) bfd_false
	218	#define trad_unix_get_section_contents bfd_generic_get_section_contents
	219	#define trad_unix_new_section_hook (PROTO (boolean, (*), \
	220	(bfd *, sec_ptr))) bfd_true
	221	#define trad_unix_get_symtab_upper_bound bfd_0u
	222	#define trad_unix_get_symtab (PROTO (unsigned int, (*), \
	223	(bfd , struct symbol_cache_entry *))) bfd_0u
	224	#define trad_unix_get_reloc_upper_bound (PROTO (unsigned int, (*), \
	225	(bfd *, sec_ptr))) bfd_0u
	226	#define trad_unix_canonicalize_reloc (PROTO (unsigned int, (*), \
	227	(bfd , sec_ptr, arelent , struct symbol_cache_entry*))) bfd_0u
	228	#define trad_unix_make_empty_symbol (PROTO ( \
	229	struct symbol_cache_entry , (), (bfd *))) bfd_false
	230	#define trad_unix_print_symbol (PROTO (void, (*), \
	231	(bfd , PTR, struct symbol_cache_entry , \
	232	bfd_print_symbol_type))) bfd_false
	233	#define trad_unix_get_lineno (PROTO (alent , (), \
	234	(bfd , struct symbol_cache_entry ))) bfd_nullvoidptr
	235	#define trad_unix_set_arch_mach (PROTO (boolean, (*), \
	236	(bfd *, enum bfd_architecture, unsigned long))) bfd_false
	237	#define trad_unix_find_nearest_line (PROTO (boolean, (*), \
	238	(bfd abfd, struct sec section, \
	239	struct symbol_cache_entry **symbols,bfd_vma offset, \
	240	CONST char file, CONST char func, unsigned int *line))) bfd_false
	241	#define trad_unix_sizeof_headers (PROTO (int, (*), \
	242	(bfd *, boolean))) bfd_0
	243
	244	#define trad_unix_bfd_debug_info_start bfd_void
	245	#define trad_unix_bfd_debug_info_end bfd_void
	246	#define trad_unix_bfd_debug_info_accumulate (PROTO (void, (*), \
	247	(bfd , struct sec ))) bfd_void
	248
637942e4 JG	249	/* If somebody calls any byte-swapping routines, shoot them. */
	250	void
	251	swap_abort()
	252	{
	253	abort(); /* This way doesn't require any declaration for ANSI to fuck up */
	254	}
	255	#define NO_GET ((PROTO(bfd_vma, (), ( bfd_byte ))) swap_abort )
	256	#define NO_PUT ((PROTO(void, (), (bfd_vma, bfd_byte ))) swap_abort )
6a469027	257
637942e4	258	bfd_target trad_core_vec =
6a469027	259	{
637942e4	260	"trad-core",
6a469027 JG	261	bfd_target_unknown_flavour,
	262	true, /* target byte order */
	263	true, /* target headers byte order */
	264	(HAS_RELOC \| EXEC_P \| /* object flags */
	265	HAS_LINENO \| HAS_DEBUG \|
	266	HAS_SYMS \| HAS_LOCALS \| DYNAMIC \| WP_TEXT \| D_PAGED),
	267	(SEC_HAS_CONTENTS \| SEC_ALLOC \| SEC_LOAD \| SEC_RELOC), /* section flags */
	268	' ', /* ar_pad_char */
	269	16, /* ar_max_namelen */
	270	3, /* minimum alignment power */
637942e4 JG	271	NO_GET, NO_PUT, NO_GET, NO_PUT, NO_GET, NO_PUT, /* data */
	272	NO_GET, NO_PUT, NO_GET, NO_PUT, NO_GET, NO_PUT, /* hdrs */
	273
	274	{_bfd_dummy_target, _bfd_dummy_target,
	275	_bfd_dummy_target, trad_unix_core_file_p},
	276	{bfd_false, bfd_false, /* bfd_create_object */
	277	bfd_false, bfd_false},
	278	{bfd_false, bfd_false, /* bfd_write_contents */
	279	bfd_false, bfd_false},
6a469027 JG	280
	281	JUMP_TABLE(trad_unix)
	282	};