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[deliverable/binutils-gdb.git] / bfd / rs6000-core.c
1 /* IBM RS/6000 "XCOFF" back-end for BFD.
2 Copyright 1990, 91, 92, 93, 94, 95, 96, 97, 98, 2000, 2001
3 Free Software Foundation, Inc.
4 FIXME: Can someone provide a transliteration of this name into ASCII?
5 Using the following chars caused a compiler warning on HIUX (so I replaced
6 them with octal escapes), and isn't useful without an understanding of what
7 character set it is.
8 Written by Metin G. Ozisik, Mimi Ph\373\364ng-Th\345o V\365,
9 and John Gilmore.
10 Archive support from Damon A. Permezel.
11 Contributed by IBM Corporation and Cygnus Support.
12
13 This file is part of BFD, the Binary File Descriptor library.
14
15 This program is free software; you can redistribute it and/or modify
16 it under the terms of the GNU General Public License as published by
17 the Free Software Foundation; either version 2 of the License, or
18 (at your option) any later version.
19
20 This program is distributed in the hope that it will be useful,
21 but WITHOUT ANY WARRANTY; without even the implied warranty of
22 MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
23 GNU General Public License for more details.
24
25 You should have received a copy of the GNU General Public License
26 along with this program; if not, write to the Free Software
27 Foundation, Inc., 59 Temple Place - Suite 330, Boston, MA 02111-1307, USA. */
28
29 /* This port currently only handles reading object files, except when
30 compiled on an RS/6000 host. -- no archive support, no core files.
31 In all cases, it does not support writing.
32
33 This is in a separate file from coff-rs6000.c, because it includes
34 system include files that conflict with coff/rs6000.h. */
35
36 /* Internalcoff.h and coffcode.h modify themselves based on this flag. */
37 #define RS6000COFF_C 1
38
39 /* The AIX 4.1 kernel is obviously compiled with -D_LONG_LONG, so
40 we have to define _LONG_LONG for older versions of gcc to get the
41 proper alignments in the user structure. */
42 #if defined(_AIX41) && !defined(_LONG_LONG)
43 #define _LONG_LONG
44 #endif
45
46 #include "bfd.h"
47 #include "sysdep.h"
48 #include "libbfd.h"
49
50 #ifdef AIX_CORE
51
52 /* AOUTHDR is defined by the above. We need another defn of it, from the
53 system include files. Punt the old one and get us a new name for the
54 typedef in the system include files. */
55 #ifdef AOUTHDR
56 #undef AOUTHDR
57 #endif
58 #define AOUTHDR second_AOUTHDR
59
60 #undef SCNHDR
61
62 /* ------------------------------------------------------------------------ */
63 /* Support for core file stuff.. */
64 /* ------------------------------------------------------------------------ */
65
66 #include <sys/user.h>
67 #define __LDINFO_PTRACE32__ /* for __ld_info32 */
68 #define __LDINFO_PTRACE64__ /* for __ld_info64 */
69 #include <sys/ldr.h>
70 #include <sys/core.h>
71 #include <sys/systemcfg.h>
72
73 #define core_hdr(bfd) ((CoreHdr *) bfd->tdata.any)
74
75 /* AIX 4.1 changed the names and locations of a few items in the core file.
76 AIX 4.3 defined an entirely new structure, core_dumpx, but kept support for
77 the previous 4.1 structure, core_dump.
78
79 AIX_CORE_DUMPX_CORE is defined (by configure) on AIX 4.3+, and
80 CORE_VERSION_1 is defined (by AIX core.h) as 2 on AIX 4.3+ and as 1 on AIX
81 4.1 and 4.2. AIX pre-4.1 (aka 3.x) either doesn't define CORE_VERSION_1
82 or else defines it as 0. */
83
84 #if defined(CORE_VERSION_1) && !CORE_VERSION_1
85 # undef CORE_VERSION_1
86 #endif
87
88 /* The following union and macros allow this module to compile on all AIX
89 versions and to handle both core_dumpx and core_dump on 4.3+. CNEW_*()
90 and COLD_*() macros respectively retrieve core_dumpx and core_dump
91 values. */
92
93 /* Union of 32-bit and 64-bit versions of ld_info. */
94
95 typedef union {
96 #ifdef __ld_info32
97 struct __ld_info32 l32;
98 struct __ld_info64 l64;
99 #else
100 struct ld_info l32;
101 struct ld_info l64;
102 #endif
103 } LdInfo;
104
105 /* Union of old and new core dump structures. */
106
107 typedef union {
108 #ifdef AIX_CORE_DUMPX_CORE
109 struct core_dumpx new; /* new AIX 4.3+ core dump */
110 #else
111 struct core_dump new; /* for simpler coding */
112 #endif
113 struct core_dump old; /* old AIX 4.2- core dump, still used on
114 4.3+ with appropriate SMIT config */
115 } CoreHdr;
116
117 /* Union of old and new vm_info structures. */
118
119 #ifdef CORE_VERSION_1
120 typedef union {
121 #ifdef AIX_CORE_DUMPX_CORE
122 struct vm_infox new;
123 #else
124 struct vm_info new;
125 #endif
126 struct vm_info old;
127 } VmInfo;
128 #endif
129
130 /* Return whether CoreHdr C is in new or old format. */
131
132 #ifdef AIX_CORE_DUMPX_CORE
133 # define CORE_NEW(c) (!(c).old.c_entries)
134 #else
135 # define CORE_NEW(c) 0
136 #endif
137
138 /* Return the c_stackorg field from struct core_dumpx C. */
139
140 #ifdef AIX_CORE_DUMPX_CORE
141 # define CNEW_STACKORG(c) (c).c_stackorg
142 #else
143 # define CNEW_STACKORG(c) 0
144 #endif
145
146 /* Return the offset to the loader region from struct core_dump C. */
147
148 #ifdef AIX_CORE_DUMPX_CORE
149 # define CNEW_LOADER(c) (c).c_loader
150 #else
151 # define CNEW_LOADER(c) 0
152 #endif
153
154 /* Return the offset to the loader region from struct core_dump C. */
155
156 #define COLD_LOADER(c) (c).c_tab
157
158 /* Return the c_lsize field from struct core_dumpx C. */
159
160 #ifdef AIX_CORE_DUMPX_CORE
161 # define CNEW_LSIZE(c) (c).c_lsize
162 #else
163 # define CNEW_LSIZE(c) 0
164 #endif
165
166 /* Return the c_dataorg field from struct core_dumpx C. */
167
168 #ifdef AIX_CORE_DUMPX_CORE
169 # define CNEW_DATAORG(c) (c).c_dataorg
170 #else
171 # define CNEW_DATAORG(c) 0
172 #endif
173
174 /* Return the c_datasize field from struct core_dumpx C. */
175
176 #ifdef AIX_CORE_DUMPX_CORE
177 # define CNEW_DATASIZE(c) (c).c_datasize
178 #else
179 # define CNEW_DATASIZE(c) 0
180 #endif
181
182 /* Return the c_impl field from struct core_dumpx C. */
183
184 #ifdef AIX_CORE_DUMPX_CORE
185 # define CNEW_IMPL(c) (c).c_impl
186 #else
187 # define CNEW_IMPL(c) 0
188 #endif
189
190 /* Return the command string from struct core_dumpx C. */
191
192 #ifdef AIX_CORE_DUMPX_CORE
193 # define CNEW_COMM(c) (c).c_u.U_proc.pi_comm
194 #else
195 # define CNEW_COMM(c) 0
196 #endif
197
198 /* Return the command string from struct core_dump C. */
199
200 #ifdef CORE_VERSION_1
201 # define COLD_COMM(c) (c).c_u.U_comm
202 #else
203 # define COLD_COMM(c) (c).c_u.u_comm
204 #endif
205
206 /* Return the struct __context64 pointer from struct core_dumpx C. */
207
208 #ifdef AIX_CORE_DUMPX_CORE
209 # define CNEW_CONTEXT64(c) (c).c_flt.hctx.r64
210 #else
211 # define CNEW_CONTEXT64(c) c
212 #endif
213
214 /* Return the struct mstsave pointer from struct core_dumpx C. */
215
216 #ifdef AIX_CORE_DUMPX_CORE
217 # define CNEW_MSTSAVE(c) (c).c_flt.hctx.r32
218 #else
219 # define CNEW_MSTSAVE(c) c
220 #endif
221
222 /* Return the struct mstsave pointer from struct core_dump C. */
223
224 #ifdef CORE_VERSION_1
225 # define COLD_MSTSAVE(c) (c).c_mst
226 #else
227 # define COLD_MSTSAVE(c) (c).c_u.u_save
228 #endif
229
230 /* Return whether struct core_dumpx is from a 64-bit process. */
231
232 #ifdef AIX_CORE_DUMPX_CORE
233 # define CNEW_PROC64(c) IS_PROC64(&(c).c_u.U_proc)
234 #else
235 # define CNEW_PROC64(c) 0
236 #endif
237
238 /* Magic end-of-stack addresses for old core dumps. This is _very_ fragile,
239 but I don't see any easy way to get that info right now. */
240
241 #ifdef CORE_VERSION_1
242 # define COLD_STACKEND 0x2ff23000
243 #else
244 # define COLD_STACKEND 0x2ff80000
245 #endif
246
247 /* Size of the leading portion that old and new core dump structures have in
248 common. */
249 #define CORE_COMMONSZ ((int) &((struct core_dump *) 0)->c_entries \
250 + sizeof (((struct core_dump *) 0)->c_entries))
251
252 /* Try to read into CORE the header from the core file associated with ABFD.
253 Return success. */
254
255 static boolean
256 read_hdr (bfd *abfd, CoreHdr *core)
257 {
258 bfd_size_type size;
259
260 if (bfd_seek (abfd, 0, SEEK_SET) != 0)
261 return false;
262
263 /* Read the leading portion that old and new core dump structures have in
264 common. */
265 if (bfd_read (core, CORE_COMMONSZ, 1, abfd) != CORE_COMMONSZ)
266 return false;
267
268 /* Read the trailing portion of the structure. */
269 size = CORE_NEW (*core) ? sizeof (core->new) : sizeof (core->old)
270 - CORE_COMMONSZ;
271 return bfd_read ((char *) core + CORE_COMMONSZ, size, 1, abfd) == size;
272 }
273
274 static asection *
275 make_bfd_asection (abfd, name, flags, _raw_size, vma, filepos)
276 bfd *abfd;
277 CONST char *name;
278 flagword flags;
279 bfd_size_type _raw_size;
280 bfd_vma vma;
281 file_ptr filepos;
282 {
283 asection *asect;
284
285 asect = bfd_make_section_anyway (abfd, name);
286 if (!asect)
287 return NULL;
288
289 asect->flags = flags;
290 asect->_raw_size = _raw_size;
291 asect->vma = vma;
292 asect->filepos = filepos;
293 asect->alignment_power = 8;
294
295 return asect;
296 }
297
298 /* Decide if a given bfd represents a `core' file or not. There really is no
299 magic number or anything like, in rs6000coff. */
300
301 const bfd_target *
302 rs6000coff_core_p (abfd)
303 bfd *abfd;
304 {
305 CoreHdr core;
306 struct stat statbuf;
307 bfd_size_type size;
308 char *tmpptr;
309
310 /* Values from new and old core structures. */
311 int c_flag;
312 file_ptr c_stack, c_regoff, c_loader;
313 bfd_size_type c_size, c_regsize, c_lsize;
314 bfd_vma c_stackend;
315 void *c_regptr;
316 int proc64;
317
318 if (!read_hdr (abfd, &core))
319 {
320 if (bfd_get_error () != bfd_error_system_call)
321 bfd_set_error (bfd_error_wrong_format);
322 return NULL;
323 }
324
325 /* Copy fields from new or old core structure. */
326 if (CORE_NEW (core))
327 {
328 c_flag = core.new.c_flag;
329 c_stack = (file_ptr) core.new.c_stack;
330 c_size = core.new.c_size;
331 c_stackend = CNEW_STACKORG (core.new) + c_size;
332 c_lsize = CNEW_LSIZE (core.new);
333 c_loader = CNEW_LOADER (core.new);
334 proc64 = CNEW_PROC64 (core.new);
335 }
336 else
337 {
338 c_flag = core.old.c_flag;
339 c_stack = (file_ptr) core.old.c_stack;
340 c_size = core.old.c_size;
341 c_stackend = COLD_STACKEND;
342 c_lsize = 0x7ffffff;
343 c_loader = (file_ptr) COLD_LOADER (core.old);
344 proc64 = 0;
345 }
346
347 if (proc64)
348 {
349 c_regsize = sizeof (CNEW_CONTEXT64 (core.new));
350 c_regptr = &CNEW_CONTEXT64 (core.new);
351 }
352 else if (CORE_NEW (core))
353 {
354 c_regsize = sizeof (CNEW_MSTSAVE (core.new));
355 c_regptr = &CNEW_MSTSAVE (core.new);
356 }
357 else
358 {
359 c_regsize = sizeof (COLD_MSTSAVE (core.old));
360 c_regptr = &COLD_MSTSAVE (core.old);
361 }
362 c_regoff = (char *) c_regptr - (char *) &core;
363
364 if (bfd_stat (abfd, &statbuf) < 0)
365 {
366 bfd_set_error (bfd_error_system_call);
367 return NULL;
368 }
369
370 /* If the core file ulimit is too small, the system will first
371 omit the data segment, then omit the stack, then decline to
372 dump core altogether (as far as I know UBLOCK_VALID and LE_VALID
373 are always set) (this is based on experimentation on AIX 3.2).
374 Now, the thing is that GDB users will be surprised
375 if segments just silently don't appear (well, maybe they would
376 think to check "info files", I don't know).
377
378 For the data segment, we have no choice but to keep going if it's
379 not there, since the default behavior is not to dump it (regardless
380 of the ulimit, it's based on SA_FULLDUMP). But for the stack segment,
381 if it's not there, we refuse to have anything to do with this core
382 file. The usefulness of a core dump without a stack segment is pretty
383 limited anyway. */
384
385 if (!(c_flag & UBLOCK_VALID)
386 || !(c_flag & LE_VALID))
387 {
388 bfd_set_error (bfd_error_wrong_format);
389 return NULL;
390 }
391
392 if (!(c_flag & USTACK_VALID))
393 {
394 bfd_set_error (bfd_error_file_truncated);
395 return NULL;
396 }
397
398 /* Don't check the core file size for a full core, AIX 4.1 includes
399 additional shared library sections in a full core. */
400 if (!(c_flag & (FULL_CORE | CORE_TRUNC)))
401 {
402 /* If the size is wrong, it means we're misinterpreting something. */
403 if (c_stack + (file_ptr) c_size != statbuf.st_size)
404 {
405 bfd_set_error (bfd_error_wrong_format);
406 return NULL;
407 }
408 }
409
410 /* Sanity check on the c_tab field. */
411 if (!CORE_NEW (core) && (c_loader < (file_ptr) sizeof core.old ||
412 c_loader >= statbuf.st_size ||
413 c_loader >= c_stack))
414 {
415 bfd_set_error (bfd_error_wrong_format);
416 return NULL;
417 }
418
419 /* Issue warning if the core file was truncated during writing. */
420 if (c_flag & CORE_TRUNC)
421 (*_bfd_error_handler) (_("%s: warning core file truncated"),
422 bfd_get_filename (abfd));
423
424 /* Allocate core file header. */
425 size = CORE_NEW (core) ? sizeof (core.new) : sizeof (core.old);
426 tmpptr = (char *) bfd_zalloc (abfd, size);
427 if (!tmpptr)
428 return NULL;
429
430 /* Copy core file header. */
431 memcpy (tmpptr, &core, size);
432 set_tdata (abfd, tmpptr);
433
434 /* Set architecture. */
435 if (CORE_NEW (core))
436 {
437 enum bfd_architecture arch;
438 unsigned long mach;
439
440 switch (CNEW_IMPL (core.new))
441 {
442 case POWER_RS1:
443 case POWER_RSC:
444 case POWER_RS2:
445 arch = bfd_arch_rs6000;
446 mach = bfd_mach_rs6k;
447 break;
448 default:
449 arch = bfd_arch_powerpc;
450 mach = bfd_mach_ppc;
451 break;
452 }
453 bfd_default_set_arch_mach (abfd, arch, mach);
454 }
455
456 /* .stack section. */
457 if (!make_bfd_asection (abfd, ".stack",
458 SEC_ALLOC | SEC_LOAD | SEC_HAS_CONTENTS,
459 c_size, c_stackend - c_size, c_stack))
460 return NULL;
461
462 /* .reg section for all registers. */
463 if (!make_bfd_asection (abfd, ".reg",
464 SEC_HAS_CONTENTS,
465 c_regsize, (bfd_vma) 0, c_regoff))
466 return NULL;
467
468 /* .ldinfo section.
469 To actually find out how long this section is in this particular
470 core dump would require going down the whole list of struct ld_info's.
471 See if we can just fake it. */
472 if (!make_bfd_asection (abfd, ".ldinfo",
473 SEC_HAS_CONTENTS,
474 c_lsize, (bfd_vma) 0, c_loader))
475 return NULL;
476
477 #ifndef CORE_VERSION_1
478 /* .data section if present.
479 AIX 3 dumps the complete data section and sets FULL_CORE if the
480 ulimit is large enough, otherwise the data section is omitted.
481 AIX 4 sets FULL_CORE even if the core file is truncated, we have
482 to examine core.c_datasize below to find out the actual size of
483 the .data section. */
484 if (c_flag & FULL_CORE)
485 {
486 if (!make_bfd_asection (abfd, ".data",
487 SEC_ALLOC | SEC_LOAD | SEC_HAS_CONTENTS,
488 (bfd_size_type) core.old.c_u.u_dsize,
489 (bfd_vma)
490 CDATA_ADDR (core.old.c_u.u_dsize),
491 c_stack + c_size))
492 return NULL;
493 }
494 #endif
495
496 #ifdef CORE_VERSION_1
497 /* AIX 4 adds data sections from loaded objects to the core file,
498 which can be found by examining ldinfo, and anonymously mmapped
499 regions. */
500 {
501 LdInfo ldinfo;
502 bfd_size_type ldi_datasize;
503 file_ptr ldi_core;
504 uint ldi_next;
505 bfd_vma ldi_dataorg;
506
507 /* Fields from new and old core structures. */
508 bfd_size_type c_datasize, c_vmregions;
509 file_ptr c_data, c_vmm;
510
511 if (CORE_NEW (core))
512 {
513 c_datasize = CNEW_DATASIZE (core.new);
514 c_data = (file_ptr) core.new.c_data;
515 c_vmregions = core.new.c_vmregions;
516 c_vmm = (file_ptr) core.new.c_vmm;
517 }
518 else
519 {
520 c_datasize = core.old.c_datasize;
521 c_data = (file_ptr) core.old.c_data;
522 c_vmregions = core.old.c_vmregions;
523 c_vmm = (file_ptr) core.old.c_vmm;
524 }
525
526 /* .data section from executable. */
527 if (c_datasize)
528 {
529 if (!make_bfd_asection (abfd, ".data",
530 SEC_ALLOC | SEC_LOAD | SEC_HAS_CONTENTS,
531 c_datasize,
532 (bfd_vma) CDATA_ADDR (c_datasize),
533 c_data))
534 return NULL;
535 }
536
537 /* .data sections from loaded objects. */
538 if (proc64)
539 size = (int) ((LdInfo *) 0)->l64.ldinfo_filename;
540 else
541 size = (int) ((LdInfo *) 0)->l32.ldinfo_filename;
542
543 while (1)
544 {
545 if (bfd_seek (abfd, c_loader, SEEK_SET) != 0)
546 return NULL;
547 if (bfd_read (&ldinfo, size, 1, abfd) != size)
548 return NULL;
549
550 if (proc64)
551 {
552 ldi_core = ldinfo.l64.ldinfo_core;
553 ldi_datasize = ldinfo.l64.ldinfo_datasize;
554 ldi_dataorg = (bfd_vma) ldinfo.l64.ldinfo_dataorg;
555 ldi_next = ldinfo.l64.ldinfo_next;
556 }
557 else
558 {
559 ldi_core = ldinfo.l32.ldinfo_core;
560 ldi_datasize = ldinfo.l32.ldinfo_datasize;
561 ldi_dataorg = (bfd_vma) (long) ldinfo.l32.ldinfo_dataorg;
562 ldi_next = ldinfo.l32.ldinfo_next;
563 }
564
565 if (ldi_core)
566 if (!make_bfd_asection (abfd, ".data",
567 SEC_ALLOC | SEC_LOAD | SEC_HAS_CONTENTS,
568 ldi_datasize, ldi_dataorg, ldi_core))
569 return NULL;
570
571 if (ldi_next == 0)
572 break;
573 c_loader += ldi_next;
574 }
575
576 /* .vmdata sections from anonymously mmapped regions. */
577 if (c_vmregions)
578 {
579 bfd_size_type i;
580
581 if (bfd_seek (abfd, c_vmm, SEEK_SET) != 0)
582 return NULL;
583
584 for (i = 0; i < c_vmregions; i++)
585 {
586 VmInfo vminfo;
587 bfd_size_type vminfo_size;
588 file_ptr vminfo_offset;
589 bfd_vma vminfo_addr;
590
591 size = CORE_NEW (core) ? sizeof (vminfo.new) : sizeof (vminfo.old);
592 if (bfd_read (&vminfo, size, 1, abfd) != size)
593 return NULL;
594
595 if (CORE_NEW (core))
596 {
597 vminfo_addr = (bfd_vma) vminfo.new.vminfo_addr;
598 vminfo_size = vminfo.new.vminfo_size;
599 vminfo_offset = vminfo.new.vminfo_offset;
600 }
601 else
602 {
603 vminfo_addr = (bfd_vma) (long) vminfo.old.vminfo_addr;
604 vminfo_size = vminfo.old.vminfo_size;
605 vminfo_offset = vminfo.old.vminfo_offset;
606 }
607
608 if (vminfo_offset)
609 if (!make_bfd_asection (abfd, ".vmdata",
610 SEC_ALLOC | SEC_LOAD | SEC_HAS_CONTENTS,
611 vminfo_size, vminfo_addr,
612 vminfo_offset))
613 return NULL;
614 }
615 }
616 }
617 #endif
618
619 return abfd->xvec; /* This is garbage for now. */
620 }
621
622 /* Return `true' if given core is from the given executable. */
623
624 boolean
625 rs6000coff_core_file_matches_executable_p (core_bfd, exec_bfd)
626 bfd *core_bfd;
627 bfd *exec_bfd;
628 {
629 CoreHdr core;
630 bfd_size_type size;
631 char *path, *s;
632 size_t alloc;
633 const char *str1, *str2;
634 boolean ret;
635 file_ptr c_loader;
636
637 if (!read_hdr (core_bfd, &core))
638 return false;
639
640 if (CORE_NEW (core))
641 c_loader = CNEW_LOADER (core.new);
642 else
643 c_loader = (file_ptr) COLD_LOADER (core.old);
644
645 if (CORE_NEW (core) && CNEW_PROC64 (core.new))
646 size = (int) ((LdInfo *) 0)->l64.ldinfo_filename;
647 else
648 size = (int) ((LdInfo *) 0)->l32.ldinfo_filename;
649
650 if (bfd_seek (core_bfd, c_loader + size, SEEK_SET) != 0)
651 return false;
652
653 alloc = 100;
654 path = bfd_malloc (alloc);
655 if (path == NULL)
656 return false;
657 s = path;
658
659 while (1)
660 {
661 if (bfd_read (s, 1, 1, core_bfd) != 1)
662 {
663 free (path);
664 return false;
665 }
666 if (*s == '\0')
667 break;
668 ++s;
669 if (s == path + alloc)
670 {
671 char *n;
672
673 alloc *= 2;
674 n = bfd_realloc (path, alloc);
675 if (n == NULL)
676 {
677 free (path);
678 return false;
679 }
680 s = n + (path - s);
681 path = n;
682 }
683 }
684
685 str1 = strrchr (path, '/');
686 str2 = strrchr (exec_bfd->filename, '/');
687
688 /* step over character '/' */
689 str1 = str1 != NULL ? str1 + 1 : path;
690 str2 = str2 != NULL ? str2 + 1 : exec_bfd->filename;
691
692 if (strcmp (str1, str2) == 0)
693 ret = true;
694 else
695 ret = false;
696
697 free (path);
698
699 return ret;
700 }
701
702 char *
703 rs6000coff_core_file_failing_command (abfd)
704 bfd *abfd;
705 {
706 CoreHdr *core = core_hdr (abfd);
707 char *com = CORE_NEW (*core) ?
708 CNEW_COMM (core->new) : COLD_COMM (core->old);
709
710 if (*com)
711 return com;
712 else
713 return 0;
714 }
715
716 int
717 rs6000coff_core_file_failing_signal (abfd)
718 bfd *abfd;
719 {
720 CoreHdr *core = core_hdr (abfd);
721 return CORE_NEW (*core) ? core->new.c_signo : core->old.c_signo;
722 }
723
724 #endif /* AIX_CORE */
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