1 /* Definitions for symbol file management in GDB.
3 Copyright (C) 1992-2014 Free Software Foundation, Inc.
5 This file is part of GDB.
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 3 of the License, or
10 (at your option) any later version.
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.
17 You should have received a copy of the GNU General Public License
18 along with this program. If not, see <http://www.gnu.org/licenses/>. */
20 #if !defined (OBJFILES_H)
23 #include "gdb_obstack.h" /* For obstack internals. */
24 #include "symfile.h" /* For struct psymbol_allocation_list. */
25 #include "progspace.h"
34 /* This structure maintains information on a per-objfile basis about the
35 "entry point" of the objfile, and the scope within which the entry point
36 exists. It is possible that gdb will see more than one objfile that is
37 executable, each with its own entry point.
39 For example, for dynamically linked executables in SVR4, the dynamic linker
40 code is contained within the shared C library, which is actually executable
41 and is run by the kernel first when an exec is done of a user executable
42 that is dynamically linked. The dynamic linker within the shared C library
43 then maps in the various program segments in the user executable and jumps
44 to the user executable's recorded entry point, as if the call had been made
45 directly by the kernel.
47 The traditional gdb method of using this info was to use the
48 recorded entry point to set the entry-file's lowpc and highpc from
49 the debugging information, where these values are the starting
50 address (inclusive) and ending address (exclusive) of the
51 instruction space in the executable which correspond to the
52 "startup file", i.e. crt0.o in most cases. This file is assumed to
53 be a startup file and frames with pc's inside it are treated as
54 nonexistent. Setting these variables is necessary so that
55 backtraces do not fly off the bottom of the stack.
57 NOTE: cagney/2003-09-09: It turns out that this "traditional"
58 method doesn't work. Corinna writes: ``It turns out that the call
59 to test for "inside entry file" destroys a meaningful backtrace
60 under some conditions. E.g. the backtrace tests in the asm-source
61 testcase are broken for some targets. In this test the functions
62 are all implemented as part of one file and the testcase is not
63 necessarily linked with a start file (depending on the target).
64 What happens is, that the first frame is printed normaly and
65 following frames are treated as being inside the enttry file then.
66 This way, only the #0 frame is printed in the backtrace output.''
67 Ref "frame.c" "NOTE: vinschen/2003-04-01".
69 Gdb also supports an alternate method to avoid running off the bottom
72 There are two frames that are "special", the frame for the function
73 containing the process entry point, since it has no predecessor frame,
74 and the frame for the function containing the user code entry point
75 (the main() function), since all the predecessor frames are for the
76 process startup code. Since we have no guarantee that the linked
77 in startup modules have any debugging information that gdb can use,
78 we need to avoid following frame pointers back into frames that might
79 have been built in the startup code, as we might get hopelessly
80 confused. However, we almost always have debugging information
83 These variables are used to save the range of PC values which are
84 valid within the main() function and within the function containing
85 the process entry point. If we always consider the frame for
86 main() as the outermost frame when debugging user code, and the
87 frame for the process entry point function as the outermost frame
88 when debugging startup code, then all we have to do is have
89 DEPRECATED_FRAME_CHAIN_VALID return false whenever a frame's
90 current PC is within the range specified by these variables. In
91 essence, we set "ceilings" in the frame chain beyond which we will
92 not proceed when following the frame chain back up the stack.
94 A nice side effect is that we can still debug startup code without
95 running off the end of the frame chain, assuming that we have usable
96 debugging information in the startup modules, and if we choose to not
97 use the block at main, or can't find it for some reason, everything
98 still works as before. And if we have no startup code debugging
99 information but we do have usable information for main(), backtraces
100 from user code don't go wandering off into the startup code. */
104 /* The unrelocated value we should use for this objfile entry point. */
105 CORE_ADDR entry_point;
107 /* The index of the section in which the entry point appears. */
108 int the_bfd_section_index;
110 /* Set to 1 iff ENTRY_POINT contains a valid value. */
111 unsigned entry_point_p : 1;
113 /* Set to 1 iff this object was initialized. */
114 unsigned initialized : 1;
117 /* Sections in an objfile. The section offsets are stored in the
122 struct bfd_section *the_bfd_section; /* BFD section pointer */
124 /* Objfile this section is part of. */
125 struct objfile *objfile;
127 /* True if this "overlay section" is mapped into an "overlay region". */
131 /* Relocation offset applied to S. */
132 #define obj_section_offset(s) \
133 (((s)->objfile->section_offsets)->offsets[gdb_bfd_section_index ((s)->objfile->obfd, (s)->the_bfd_section)])
135 /* The memory address of section S (vma + offset). */
136 #define obj_section_addr(s) \
137 (bfd_get_section_vma ((s)->objfile->obfd, s->the_bfd_section) \
138 + obj_section_offset (s))
140 /* The one-passed-the-end memory address of section S
141 (vma + size + offset). */
142 #define obj_section_endaddr(s) \
143 (bfd_get_section_vma ((s)->objfile->obfd, s->the_bfd_section) \
144 + bfd_get_section_size ((s)->the_bfd_section) \
145 + obj_section_offset (s))
147 /* The "objstats" structure provides a place for gdb to record some
148 interesting information about its internal state at runtime, on a
149 per objfile basis, such as information about the number of symbols
150 read, size of string table (if any), etc. */
154 int n_minsyms; /* Number of minimal symbols read */
155 int n_psyms; /* Number of partial symbols read */
156 int n_syms; /* Number of full symbols read */
157 int n_stabs; /* Number of ".stabs" read (if applicable) */
158 int n_types; /* Number of types */
159 int sz_strtab; /* Size of stringtable, (if applicable) */
162 #define OBJSTAT(objfile, expr) (objfile -> stats.expr)
163 #define OBJSTATS struct objstats stats
164 extern void print_objfile_statistics (void);
165 extern void print_symbol_bcache_statistics (void);
167 /* Number of entries in the minimal symbol hash table. */
168 #define MINIMAL_SYMBOL_HASH_SIZE 2039
170 /* Some objfile data is hung off the BFD. This enables sharing of the
171 data across all objfiles using the BFD. The data is stored in an
172 instance of this structure, and associated with the BFD using the
175 struct objfile_per_bfd_storage
177 /* The storage has an obstack of its own. */
179 struct obstack storage_obstack;
181 /* Byte cache for file names. */
183 struct bcache *filename_cache;
185 /* Byte cache for macros. */
186 struct bcache *macro_cache;
188 /* The gdbarch associated with the BFD. Note that this gdbarch is
189 determined solely from BFD information, without looking at target
190 information. The gdbarch determined from a running target may
191 differ from this e.g. with respect to register types and names. */
193 struct gdbarch *gdbarch;
195 /* Hash table for mapping symbol names to demangled names. Each
196 entry in the hash table is actually two consecutive strings,
197 both null-terminated; the first one is a mangled or linkage
198 name, and the second is the demangled name or just a zero byte
199 if the name doesn't demangle. */
200 struct htab *demangled_names_hash;
202 /* The per-objfile information about the entry point, the scope (file/func)
203 containing the entry point, and the scope of the user's main() func. */
205 struct entry_info ei;
207 /* The name and language of any "main" found in this objfile. The
208 name can be NULL, which means that the information was not
211 const char *name_of_main;
212 enum language language_of_main;
215 /* Master structure for keeping track of each file from which
216 gdb reads symbols. There are several ways these get allocated: 1.
217 The main symbol file, symfile_objfile, set by the symbol-file command,
218 2. Additional symbol files added by the add-symbol-file command,
219 3. Shared library objfiles, added by ADD_SOLIB, 4. symbol files
220 for modules that were loaded when GDB attached to a remote system
221 (see remote-vx.c). */
226 /* All struct objfile's are chained together by their next pointers.
227 The program space field "objfiles" (frequently referenced via
228 the macro "object_files") points to the first link in this
231 struct objfile *next;
233 /* The object file's original name as specified by the user,
234 made absolute, and tilde-expanded. However, it is not canonicalized
235 (i.e., it has not been passed through gdb_realpath).
236 This pointer is never NULL. This does not have to be freed; it is
237 guaranteed to have a lifetime at least as long as the objfile. */
243 /* Some flag bits for this objfile.
244 The values are defined by OBJF_*. */
246 unsigned short flags;
248 /* The program space associated with this objfile. */
250 struct program_space *pspace;
252 /* Each objfile points to a linked list of symtabs derived from this file,
253 one symtab structure for each compilation unit (source file). Each link
254 in the symtab list contains a backpointer to this objfile. */
256 struct symtab *symtabs;
258 /* Each objfile points to a linked list of partial symtabs derived from
259 this file, one partial symtab structure for each compilation unit
262 struct partial_symtab *psymtabs;
264 /* Map addresses to the entries of PSYMTABS. It would be more efficient to
265 have a map per the whole process but ADDRMAP cannot selectively remove
266 its items during FREE_OBJFILE. This mapping is already present even for
267 PARTIAL_SYMTABs which still have no corresponding full SYMTABs read. */
269 struct addrmap *psymtabs_addrmap;
271 /* List of freed partial symtabs, available for re-use. */
273 struct partial_symtab *free_psymtabs;
275 /* The object file's BFD. Can be null if the objfile contains only
276 minimal symbols, e.g. the run time common symbols for SunOS4. */
280 /* The per-BFD data. Note that this is treated specially if OBFD
283 struct objfile_per_bfd_storage *per_bfd;
285 /* The modification timestamp of the object file, as of the last time
286 we read its symbols. */
290 /* Obstack to hold objects that should be freed when we load a new symbol
291 table from this object file. */
293 struct obstack objfile_obstack;
295 /* A byte cache where we can stash arbitrary "chunks" of bytes that
298 struct psymbol_bcache *psymbol_cache; /* Byte cache for partial syms. */
300 /* Vectors of all partial symbols read in from file. The actual data
301 is stored in the objfile_obstack. */
303 struct psymbol_allocation_list global_psymbols;
304 struct psymbol_allocation_list static_psymbols;
306 /* Each file contains a pointer to an array of minimal symbols for all
307 global symbols that are defined within the file. The array is
308 terminated by a "null symbol", one that has a NULL pointer for the
309 name and a zero value for the address. This makes it easy to walk
310 through the array when passed a pointer to somewhere in the middle
311 of it. There is also a count of the number of symbols, which does
312 not include the terminating null symbol. The array itself, as well
313 as all the data that it points to, should be allocated on the
314 objfile_obstack for this file. */
316 struct minimal_symbol *msymbols;
317 int minimal_symbol_count;
319 /* This is a hash table used to index the minimal symbols by name. */
321 struct minimal_symbol *msymbol_hash[MINIMAL_SYMBOL_HASH_SIZE];
323 /* This hash table is used to index the minimal symbols by their
326 struct minimal_symbol *msymbol_demangled_hash[MINIMAL_SYMBOL_HASH_SIZE];
328 /* Structure which keeps track of functions that manipulate objfile's
329 of the same type as this objfile. I.e. the function to read partial
330 symbols for example. Note that this structure is in statically
331 allocated memory, and is shared by all objfiles that use the
332 object module reader of this type. */
334 const struct sym_fns *sf;
336 /* Per objfile data-pointers required by other GDB modules. */
340 /* Set of relocation offsets to apply to each section.
341 The table is indexed by the_bfd_section->index, thus it is generally
342 as large as the number of sections in the binary.
343 The table is stored on the objfile_obstack.
345 These offsets indicate that all symbols (including partial and
346 minimal symbols) which have been read have been relocated by this
347 much. Symbols which are yet to be read need to be relocated by it. */
349 struct section_offsets *section_offsets;
352 /* Indexes in the section_offsets array. These are initialized by the
353 *_symfile_offsets() family of functions (som_symfile_offsets,
354 xcoff_symfile_offsets, default_symfile_offsets). In theory they
355 should correspond to the section indexes used by bfd for the
356 current objfile. The exception to this for the time being is the
362 int sect_index_rodata;
364 /* These pointers are used to locate the section table, which
365 among other things, is used to map pc addresses into sections.
366 SECTIONS points to the first entry in the table, and
367 SECTIONS_END points to the first location past the last entry
368 in the table. The table is stored on the objfile_obstack. The
369 sections are indexed by the BFD section index; but the
370 structure data is only valid for certain sections
371 (e.g. non-empty, SEC_ALLOC). */
373 struct obj_section *sections, *sections_end;
375 /* GDB allows to have debug symbols in separate object files. This is
376 used by .gnu_debuglink, ELF build id note and Mach-O OSO.
377 Although this is a tree structure, GDB only support one level
378 (ie a separate debug for a separate debug is not supported). Note that
379 separate debug object are in the main chain and therefore will be
380 visited by ALL_OBJFILES & co iterators. Separate debug objfile always
381 has a non-nul separate_debug_objfile_backlink. */
383 /* Link to the first separate debug object, if any. */
384 struct objfile *separate_debug_objfile;
386 /* If this is a separate debug object, this is used as a link to the
387 actual executable objfile. */
388 struct objfile *separate_debug_objfile_backlink;
390 /* If this is a separate debug object, this is a link to the next one
391 for the same executable objfile. */
392 struct objfile *separate_debug_objfile_link;
394 /* Place to stash various statistics about this objfile. */
397 /* A linked list of symbols created when reading template types or
398 function templates. These symbols are not stored in any symbol
399 table, so we have to keep them here to relocate them
401 struct symbol *template_symbols;
404 /* Defines for the objfile flag word. */
406 /* When an object file has its functions reordered (currently Irix-5.2
407 shared libraries exhibit this behaviour), we will need an expensive
408 algorithm to locate a partial symtab or symtab via an address.
409 To avoid this penalty for normal object files, we use this flag,
410 whose setting is determined upon symbol table read in. */
412 #define OBJF_REORDERED (1 << 0) /* Functions are reordered */
414 /* Distinguish between an objfile for a shared library and a "vanilla"
415 objfile. (If not set, the objfile may still actually be a solib.
416 This can happen if the user created the objfile by using the
417 add-symbol-file command. GDB doesn't in that situation actually
418 check whether the file is a solib. Rather, the target's
419 implementation of the solib interface is responsible for setting
420 this flag when noticing solibs used by an inferior.) */
422 #define OBJF_SHARED (1 << 1) /* From a shared library */
424 /* User requested that this objfile be read in it's entirety. */
426 #define OBJF_READNOW (1 << 2) /* Immediate full read */
428 /* This objfile was created because the user explicitly caused it
429 (e.g., used the add-symbol-file command). This bit offers a way
430 for run_command to remove old objfile entries which are no longer
431 valid (i.e., are associated with an old inferior), but to preserve
432 ones that the user explicitly loaded via the add-symbol-file
435 #define OBJF_USERLOADED (1 << 3) /* User loaded */
437 /* Set if we have tried to read partial symtabs for this objfile.
438 This is used to allow lazy reading of partial symtabs. */
440 #define OBJF_PSYMTABS_READ (1 << 4)
442 /* Set if this is the main symbol file
443 (as opposed to symbol file for dynamically loaded code). */
445 #define OBJF_MAINLINE (1 << 5)
447 /* ORIGINAL_NAME and OBFD->FILENAME correspond to text description unrelated to
448 filesystem names. It can be for example "<image in memory>". */
450 #define OBJF_NOT_FILENAME (1 << 6)
452 /* Declarations for functions defined in objfiles.c */
454 extern struct objfile *allocate_objfile (bfd *, const char *name, int);
456 extern struct gdbarch *get_objfile_arch (struct objfile *);
458 extern int entry_point_address_query (CORE_ADDR *entry_p);
460 extern CORE_ADDR entry_point_address (void);
462 extern void build_objfile_section_table (struct objfile *);
464 extern void terminate_minimal_symbol_table (struct objfile *objfile);
466 extern struct objfile *objfile_separate_debug_iterate (const struct objfile *,
467 const struct objfile *);
469 extern void put_objfile_before (struct objfile *, struct objfile *);
471 extern void add_separate_debug_objfile (struct objfile *, struct objfile *);
473 extern void unlink_objfile (struct objfile *);
475 extern void free_objfile (struct objfile *);
477 extern void free_objfile_separate_debug (struct objfile *);
479 extern struct cleanup *make_cleanup_free_objfile (struct objfile *);
481 extern void free_all_objfiles (void);
483 extern void objfile_relocate (struct objfile *, const struct section_offsets *);
484 extern void objfile_rebase (struct objfile *, CORE_ADDR);
486 extern int objfile_has_partial_symbols (struct objfile *objfile);
488 extern int objfile_has_full_symbols (struct objfile *objfile);
490 extern int objfile_has_symbols (struct objfile *objfile);
492 extern int have_partial_symbols (void);
494 extern int have_full_symbols (void);
496 extern void objfile_set_sym_fns (struct objfile *objfile,
497 const struct sym_fns *sf);
499 extern void objfiles_changed (void);
501 extern int is_addr_in_objfile (CORE_ADDR addr, const struct objfile *objfile);
503 /* This operation deletes all objfile entries that represent solibs that
504 weren't explicitly loaded by the user, via e.g., the add-symbol-file
507 extern void objfile_purge_solibs (void);
509 /* Functions for dealing with the minimal symbol table, really a misc
510 address<->symbol mapping for things we don't have debug symbols for. */
512 extern int have_minimal_symbols (void);
514 extern struct obj_section *find_pc_section (CORE_ADDR pc);
516 /* Return non-zero if PC is in a section called NAME. */
517 extern int pc_in_section (CORE_ADDR, char *);
519 /* Return non-zero if PC is in a SVR4-style procedure linkage table
523 in_plt_section (CORE_ADDR pc)
525 return pc_in_section (pc, ".plt");
528 /* Keep a registry of per-objfile data-pointers required by other GDB
530 DECLARE_REGISTRY(objfile);
532 /* In normal use, the section map will be rebuilt by find_pc_section
533 if objfiles have been added, removed or relocated since it was last
534 called. Calling inhibit_section_map_updates will inhibit this
535 behavior until resume_section_map_updates is called. If you call
536 inhibit_section_map_updates you must ensure that every call to
537 find_pc_section in the inhibited region relates to a section that
538 is already in the section map and has not since been removed or
540 extern void inhibit_section_map_updates (struct program_space *pspace);
542 /* Resume automatically rebuilding the section map as required. */
543 extern void resume_section_map_updates (struct program_space *pspace);
545 /* Version of the above suitable for use as a cleanup. */
546 extern void resume_section_map_updates_cleanup (void *arg);
548 extern void default_iterate_over_objfiles_in_search_order
549 (struct gdbarch *gdbarch,
550 iterate_over_objfiles_in_search_order_cb_ftype *cb,
551 void *cb_data, struct objfile *current_objfile);
554 /* Traverse all object files in the current program space.
555 ALL_OBJFILES_SAFE works even if you delete the objfile during the
558 /* Traverse all object files in program space SS. */
560 #define ALL_PSPACE_OBJFILES(ss, obj) \
561 for ((obj) = ss->objfiles; (obj) != NULL; (obj) = (obj)->next)
563 #define ALL_PSPACE_OBJFILES_SAFE(ss, obj, nxt) \
564 for ((obj) = ss->objfiles; \
565 (obj) != NULL? ((nxt)=(obj)->next,1) :0; \
568 #define ALL_OBJFILES(obj) \
569 for ((obj) = current_program_space->objfiles; \
573 #define ALL_OBJFILES_SAFE(obj,nxt) \
574 for ((obj) = current_program_space->objfiles; \
575 (obj) != NULL? ((nxt)=(obj)->next,1) :0; \
578 /* Traverse all symtabs in one objfile. */
580 #define ALL_OBJFILE_SYMTABS(objfile, s) \
581 for ((s) = (objfile) -> symtabs; (s) != NULL; (s) = (s) -> next)
583 /* Traverse all primary symtabs in one objfile. */
585 #define ALL_OBJFILE_PRIMARY_SYMTABS(objfile, s) \
586 ALL_OBJFILE_SYMTABS ((objfile), (s)) \
589 /* Traverse all minimal symbols in one objfile. */
591 #define ALL_OBJFILE_MSYMBOLS(objfile, m) \
592 for ((m) = (objfile) -> msymbols; MSYMBOL_LINKAGE_NAME(m) != NULL; (m)++)
594 /* Traverse all symtabs in all objfiles in the current symbol
597 #define ALL_SYMTABS(objfile, s) \
598 ALL_OBJFILES (objfile) \
599 ALL_OBJFILE_SYMTABS (objfile, s)
601 #define ALL_PSPACE_SYMTABS(ss, objfile, s) \
602 ALL_PSPACE_OBJFILES (ss, objfile) \
603 ALL_OBJFILE_SYMTABS (objfile, s)
605 /* Traverse all symtabs in all objfiles in the current program space,
606 skipping included files (which share a blockvector with their
609 #define ALL_PRIMARY_SYMTABS(objfile, s) \
610 ALL_OBJFILES (objfile) \
611 ALL_OBJFILE_PRIMARY_SYMTABS (objfile, s)
613 #define ALL_PSPACE_PRIMARY_SYMTABS(pspace, objfile, s) \
614 ALL_PSPACE_OBJFILES (ss, objfile) \
615 ALL_OBJFILE_PRIMARY_SYMTABS (objfile, s)
617 /* Traverse all minimal symbols in all objfiles in the current symbol
620 #define ALL_MSYMBOLS(objfile, m) \
621 ALL_OBJFILES (objfile) \
622 ALL_OBJFILE_MSYMBOLS (objfile, m)
624 #define ALL_OBJFILE_OSECTIONS(objfile, osect) \
625 for (osect = objfile->sections; osect < objfile->sections_end; osect++) \
626 if (osect->the_bfd_section == NULL) \
632 /* Traverse all obj_sections in all objfiles in the current program
635 Note that this detects a "break" in the inner loop, and exits
636 immediately from the outer loop as well, thus, client code doesn't
637 need to know that this is implemented with a double for. The extra
638 hair is to make sure that a "break;" stops the outer loop iterating
639 as well, and both OBJFILE and OSECT are left unmodified:
641 - The outer loop learns about the inner loop's end condition, and
642 stops iterating if it detects the inner loop didn't reach its
643 end. In other words, the outer loop keeps going only if the
644 inner loop reached its end cleanly [(osect) ==
645 (objfile)->sections_end].
647 - OSECT is initialized in the outer loop initialization
648 expressions, such as if the inner loop has reached its end, so
649 the check mentioned above succeeds the first time.
651 - The trick to not clearing OBJFILE on a "break;" is, in the outer
652 loop's loop expression, advance OBJFILE, but iff the inner loop
653 reached its end. If not, there was a "break;", so leave OBJFILE
654 as is; the outer loop's conditional will break immediately as
655 well (as OSECT will be different from OBJFILE->sections_end). */
657 #define ALL_OBJSECTIONS(objfile, osect) \
658 for ((objfile) = current_program_space->objfiles, \
659 (objfile) != NULL ? ((osect) = (objfile)->sections_end) : 0; \
661 && (osect) == (objfile)->sections_end; \
662 ((osect) == (objfile)->sections_end \
663 ? ((objfile) = (objfile)->next, \
664 (objfile) != NULL ? (osect) = (objfile)->sections_end : 0) \
666 ALL_OBJFILE_OSECTIONS (objfile, osect)
668 #define SECT_OFF_DATA(objfile) \
669 ((objfile->sect_index_data == -1) \
670 ? (internal_error (__FILE__, __LINE__, \
671 _("sect_index_data not initialized")), -1) \
672 : objfile->sect_index_data)
674 #define SECT_OFF_RODATA(objfile) \
675 ((objfile->sect_index_rodata == -1) \
676 ? (internal_error (__FILE__, __LINE__, \
677 _("sect_index_rodata not initialized")), -1) \
678 : objfile->sect_index_rodata)
680 #define SECT_OFF_TEXT(objfile) \
681 ((objfile->sect_index_text == -1) \
682 ? (internal_error (__FILE__, __LINE__, \
683 _("sect_index_text not initialized")), -1) \
684 : objfile->sect_index_text)
686 /* Sometimes the .bss section is missing from the objfile, so we don't
687 want to die here. Let the users of SECT_OFF_BSS deal with an
688 uninitialized section index. */
689 #define SECT_OFF_BSS(objfile) (objfile)->sect_index_bss
691 /* Answer whether there is more than one object file loaded. */
693 #define MULTI_OBJFILE_P() (object_files && object_files->next)
695 /* Reset the per-BFD storage area on OBJ. */
697 void set_objfile_per_bfd (struct objfile *obj);
699 const char *objfile_name (const struct objfile *objfile);
701 /* Set the objfile's notion of the "main" name and language. */
703 extern void set_objfile_main_name (struct objfile *objfile,
704 const char *name, enum language lang);
706 #endif /* !defined (OBJFILES_H) */