The procstat AUXV core dump note in FreeBSD consists of 32-bit integer
followed by an array of auxiliary vector entries.
bfd/ChangeLog:
* elf.c (elfcore_grok_freebsd_note): Handle NT_FREEBSD_PROCSTAT_AUXV
notes.
Move parsing of FreeBSD-specific ELF core notes out of elfcore_grok_note
into a new elfcore_grok_freebsd_note function. Add core note grok routines
for FreeBSD's psinfo and prstatus notes while here rather than depending
on the native handling in elfcore_grok_note.
bfd/ChangeLog:
* elf.c (elfcore_grok_note): Remove handling of NT_X86_XSTATE for
FreeBSD. Remove case for NT_FREEBSD_THRMISC.
(elfcore_grok_freebsd_psinfo): New function.
(elfcore_grok_freebsd_prstatus): New function.
(elfcore_grok_freebsd_note): New function.
(elf_parse_notes): Use "elfcore_grok_freebsd_note" for "FreeBSD"
notes.
Some MIPS targets use a named section symbol rather than a symbol with
no name as is used with most ELF targets. When renaming sections, the
named section symbol needs to be renamed too.
Rather than fix this bug, I'd originally intended to just correct the
xfail added recently for update-1.o vs update4.o in update-section.exp,
using the same set of targets for the localize-hidden-1 mips xfail.
I'd extracted that target test into a new function, is_bad_symtab. It
turns out to be useful in readelf.exp too.
bfd/
* config.bfd: Delete mips vxworks patterns matched earlier.
Combine mips*-*-none with mips*-*-elf*.
binutils/
* objcopy.c (find_section_rename): Forward declare. Remove
ibfd and sec_ptr param. Add old_name param. Allow for NULL
returned_flags. Move read of section name and flags to..
(setup_section): ..here. Update find_section_rename call.
(filter_symbols): Rename section symbols for renamed sections.
(copy_object): Call filter_symbols when renamed sections.
* testsuite/lib/binutils-common.exp (is_bad_symtab): New.
* testsuite/binutils-all/update-section.exp: Revert 96037eb0
mips xfail.
* testsuite/binutils-all/objcopy.exp (copy_executable): Use
is_bad_symtab.
(localize-hidden-1): xfail if is_bad_symtab.
* testsuite/binutils-all/readelf.exp: Use is_bad_symtab to select
between mips/tmips.
As with commit ed53407eec ("MIPS/BFD: Don't stop processing on
`bfd_reloc_outofrange'") don't bail out right away and instead continue
processing on a cross-mode jump conversion error, so that any further
issues are also reported. Adjust message formatting accordingly, using
`%X' to abort processing at conclusion. Remove the full stop from the
end of the message, for consistency across error reporting.
Adjust the corresponding test case accordingly and make it trigger the
error twice.
bfd/
* elfxx-mips.c (mips_elf_perform_relocation): Call
`info->callbacks->einfo' rather than `*_bfd_error_handler' and
use the `%X%H' format for the cross-mode jump conversion error
message. Remove the full stop from the end of the message.
Continue processing rather than returning failure.
ld/
* testsuite/ld-mips-elf/mode-change-error-1a.s: Trigger an error
twice rather than once.
* testsuite/ld-mips-elf/mode-change-error-1.d: Adjust
accordingly. Remove the full stop from the end of the message.
ELF linker shouldn't skip the IR object when searching the symbol table
of an archive element. If linker doesn't know if the object file is an
IR object, it should give LTO plugin a chance to get the correct symbol
table and use the IR symbol table if the input is an IR object.
bfd/
PR ld/18250
PR ld/20267
* elflink.c: Include plugin.h if BFD_SUPPORTS_PLUGINS is
defined.
(elf_link_is_defined_archive_symbol): Call
bfd_link_plugin_object_p on unknown plugin object and use the
IR symbol table if the input is an IR object.
* plugin.c (bfd_link_plugin_object_p): New function.
* plugin.h (bfd_link_plugin_object_p): New prototype.
ld/
PR ld/20267
* testsuite/ld-plugin/lto.exp (lto_link_tests): Add test for
PR ld/20267.
(lto_run_tests): Likewise.
* testsuite/ld-plugin/pr20267a.c: New file.
* testsuite/ld-plugin/pr20267b.c: Likewise.
Also, don't check alignment on symbol from plugin dummy input.
bfd/
PR ld/20276
* elflink.c (elf_link_add_object_symbols): Don't check alignment
on symbol from plugin dummy input.
ld/
PR ld/20276
* plugin.c (plugin_notice): Set non_ir_ref on common symbols.
* testsuite/ld-plugin/lto.exp (lto_link_tests): Add test for
PR ld/20276.
(lto_run_tests): Likewise.
* testsuite/ld-plugin/pass.out: New file.
* testsuite/ld-plugin/pr20276a.c: Likewise.
* testsuite/ld-plugin/pr20276b.c: Likewise.
2016-06-17 Thomas Preud'homme <thomas.preudhomme@arm.com>
Tony Wang <tony.wang@arm.com>
bfd/
* elf32-arm.c (elf32_arm_stub_long_branch_thumb2_only): Define stub
sequence.
(stub_long_branch_thumb2_only): Define stub.
(arm_stub_is_thumb): Add case for arm_stub_long_branch_thumb2_only.
(arm_stub_long_branch_thumb2_only): Likewise.
(arm_type_of_stub): Use arm_stub_long_branch_thumb2_only for Thumb-2
capable targets.
ld/
* testsuite/ld-arm/arm-elf.exp (Thumb-Thumb farcall M profile):
Assemble for ARMv6-M.
(Thumb2-Thumb2 farcall M profile): New testcase.
* testsuite/ld-arm/farcall-thumb2-thumb2-m.d: New file.
* testsuite/ld-arm/jump-reloc-veneers-cond-long-backward.d: Update to
reflect the use of Thumb-2 veneers for Thumb-2 capable targets.
* testsuite/ld-arm/jump-reloc-veneers-cond-long.d: Likewise.
This patch adds support for the opcode architectures
SPARC_OPCODE_ARCH_V9{C,D,E,V,M} and its associated BFD machine numbers
bfd_mach_sparc_v9{c,d,e,v,m} and bfd_mach_sparc_v8plus{c,d,e,v,m}.
Note that for arches up to v9b (UltraSPARC III), the detection of the
BFD machine type was based on the bits in the e_machine field of the ELF
header. However, there are no more available bits in that field, so
this patch takes the approach of using the hardware capabilities stored
in the object attributes HWCAPS/HWCAPS2 in order to characterize the
machine the object was built for.
bfd/ChangeLog:
2016-06-17 Jose E. Marchesi <jose.marchesi@oracle.com>
* archures.c (bfd_mach_sparc_v8plusc): Define.
(bfd_mach_sparc_v9c): Likewise.
(bfd_mach_sparc_v8plusd): Likewise.
(bfd_mach_sparc_v9d): Likewise.
(bfd_mach_sparc_v8pluse): Likewise.
(bfd_mach_sparc_v9e): Likewise.
(bfd_mach_sparc_v8plusv): Likewise
(bfd_mach_sparc_v9v): Likewise.
(bfd_mach_sparc_v8plusm): Likewise.
(bfd_mach_sparc_v9m): Likewise.
(bfd_mach_sparc_v9_p): Adapt to v8plusm and v9m.
(bfd_mach_sparc_64bit_p): Likewise.
* bfd-in2.h: Regenerate.
* cpu-sparc.c (arch_info_struct): Add entries for
bfd_mach_sparc_v8plus{c,d,e,v,m} and bfd_mach_sparc_v9{c,d,e,v,m}.
* aoutx.h (machine_type): Handle bfd_mach_sparc_v8plus{c,d,e,v,m}
and bfd_mach_sparc_v9{c,d,e,v,m}.
* elf32-sparc.c (elf32_sparc_final_write_processing): Likewise.
* elfxx-sparc.c (_bfd_sparc_elf_object_p): Likewise.
include/ChangeLog:
2016-06-17 Jose E. Marchesi <jose.marchesi@oracle.com>
* opcode/sparc.h (enum sparc_opcode_arch_val): Add
SPARC_OPCODE_ARCH_V9C, SPARC_OPCODE_ARCH_V9D,
SPARC_OPCODE_ARCH_V9E, SPARC_OPCODE_ARCH_V9V and
SPARC_OPCODE_ARCH_V9M.
opcodes/ChangeLog:
2016-06-17 Jose E. Marchesi <jose.marchesi@oracle.com>
* sparc-dis.c (MASK_V9): Add SPARC_OPCODE_ARCH_V9{C,D,E,V,M}.
(compute_arch_mask): Handle bfd_mach_sparc_v8plus{c,d,e,v,m} and
bfd_mach_sparc_v9{c,d,e,v,m}.
* sparc-opc.c (MASK_V9C): Define.
(MASK_V9D): Likewise.
(MASK_V9E): Likewise.
(MASK_V9V): Likewise.
(MASK_V9M): Likewise.
(v6): Add MASK_V9{C,D,E,V,M}.
(v6notlet): Likewise.
(v7): Likewise.
(v8): Likewise.
(v9): Likewise.
(v9andleon): Likewise.
(v9a): Likewise.
(v9b): Likewise.
(v9c): Define.
(v9d): Likewise.
(v9e): Likewise.
(v9v): Likewise.
(v9m): Likewise.
(sparc_opcode_archs): Add entry for v9{c,d,e,v,m}.
This was broken by 4ade44b727,
which changed the calculation to use the .rela.plt linker section
instead of its output section - thus skipping .rela.iplt .
Fix the calculations to include it.
bfd/ChangeLog:
* elf32-s390.c (elf_s390_finish_dynamic_sections): Include
.rela.iplt in DT_PLTRELSZ.
* elf64-s390.c (elf_s390_finish_dynamic_sections): Likewise,
for DT_PLTRELSZ and DT_RELASZ as well.
Don't do anything special with non-loaded, non-alloced sections.
In particular, any relocs in such sections should not affect GOT
and PLT reference counting (ie. we don't allow them to create GOT
or PLT entries), there's no possibility or desire to optimize TLS
relocs, and there's not much point in propagating relocs to shared
libs that the dynamic linker won't relocate.
* elf32-i386.c (elf_i386_check_relocs): Skip relocations in
non-loaded, non-alloced sections.
* elf64-x86-64.c (elf_x86_64_check_relocs): Likewise.
This patch fixes another edge case related to alignment property
records - reloc offsets adjacent to property record offsets were not
getting adjusted during relaxation.
bfd/
PR ld/20254
* elf32-avr.c (elf32_avr_relax_delete_bytes): Adjust reloc
offsets until reloc_toaddr.
ld/
PR ld/20254
* testsuite/ld-avr/avr-prop-6.d: New test.
* testsuite/ld-avr/avr-prop-6.s: New test.
elf_{i386|x86_64}_reloc_type_class should return reloc_class_ifunc for
R_386_IRELATIVE/R_X86_64_IRELATIVE relocations. There is no need to
check symbol type for STN_UNDEF symbol index.
* elf32-i386.c (elf_i386_reloc_type_class): Check R_386_IRELATIVE.
Don't check symbol type for STN_UNDEF symbol index.
* elf64-x86-64.c (elf_x86_64_reloc_type_class): Check
R_X86_64_IRELATIVE. Don't check symbol type for STN_UNDEF symbol
index.
2016-06-14 Thomas Preud'homme <thomas.preudhomme@arm.com>
bfd/
* elf32-arm.c (using_thumb_only): Force review of arch check logic for
new architecture.
(using_thumb2): Try Tag_THUMB_ISA_use first and check
for exact arch value then. Force review of arch check logic for new
architecture.
(arch_has_arm_nop): Update and fix arch check logic. Force review of
that logic for new architecture.
(arch_has_thumb2_nop): Remove.
(elf32_arm_tls_relax): Use using_thumb2 instead of above function.
(elf32_arm_final_link_relocate): Likewise but using thumb2.
Many more places use abfd->my_archive rather than bfd_my_archive (abfd),
so let's make the code consistently use the first idiom.
bfd/
* bfd-in.h (bfd_my_archive): Delete.
* bfd-in2.h: Regenerate.
binutils/
* ar.c: Expand uses of bfd_my_archive.
* size.c: Likewise.
ld/
* ldlang.c: Expand uses of bfd_my_archive.
* ldmain.c: Likewise.
* ldmisc.c: Likewise.
* plugin.c: Likewise.
LTO plugin support in plugin_maybe_claim wants to close the IR bfd
after replacing it with the recompiled object, but can't do so for
archive elements due to various pointers that access the archive bfd.
Thin archives have the same problem. They too cannot have their
element bfds closed.
PR ld/20241
bfd/
* archive.c (open_nested_file): Set my_archive.
* bfd.c (_bfd_default_error_handler <%B>): Exclude archive file name
for thin archives.
* bfdio.c (bfd_tell): Don't adjust origin for thin archives.
(bfd_seek): Likewise.
* bfdwin.c (bfd_get_file_window): Likewise.
* cache.c (cache_bmmap): Likewise.
(bfd_cache_lookup_worker): Don't look in my_archive for thin archives.
* mach-o.c (bfd_mach_o_follow_dsym): Don't open my_archive for
thin archives.
* plugin.c (try_claim): Likewise.
* xcofflink.c (xcoff_link_add_dynamic_symbols): Use import path of
file within thin archive, not the archive.
binutils/
* bucomm.c (bfd_get_archive_filename): Return file name within thin
archive.
ld/
* ldmain.c (add_archive_element): Just print file name of file within
thin archives.
* ldmisc.c (vfinfo): Likewise.
* plugin.c (plugin_object_p): Open file within thin archives.
(plugin_maybe_claim): Expand comment.
Add the GOT base for R_386_GOT32/R_386_GOT32X relocations against IFUNC
symbols if there is no base register and disallow them for PIC.
bfd/
PR ld/20244
* elf32-i386.c (elf_i386_relocate_section): Add the .got.plt
section address for R_386_GOT32/R_386_GOT32X relocations against
IFUNC symbols if there is no base register and return error for
PIC.
ld/
PR ld/20244
* testsuite/ld-i386/i386.exp: Run pr20244-2a, pr20244-2b,
pr20244-2c and pr20244-2d.
* testsuite/ld-i386/no-plt.exp: Run pr20244-3a and pr20244-3b.
* testsuite/ld-i386/pr20244-2.s: New file.
* testsuite/ld-i386/pr20244-2a.d: Likewise.
* testsuite/ld-i386/pr20244-2b.d: Likewise.
* testsuite/ld-i386/pr20244-2c.d: Likewise.
* testsuite/ld-i386/pr20244-2d.d: Likewise.
* testsuite/ld-i386/pr20244-3a.c: Likewise.
* testsuite/ld-i386/pr20244-3b.S: Likewise.
* testsuite/ld-i386/pr20244-3c.S: Likewise.
* testsuite/ld-i386/pr20244-3d.S: Likewise.
Complement:
commit b47468a6db
Author: Catherine Moore <clm@redhat.com>
Date: Mon May 6 15:25:45 2013 +0000
and the return of support for R_MIPS_PC32 there.
bfd/
* elf32-mips.c (elf_mips_gnu_pcrel32): Update comment.
- Correctly solved relocations on the .got header.
- This bug arrised from enabling RELRO (-z combreloc).
Because the .got and .got.plt sections were split in new linker
scripts the header is no longer part of sgotplt contents.
Changed the patch to sgot contents instead.
- Latest fix to .got header relocs.
bfd/
2016-06-13 Cupertino Miranda <cmiranda@synospsy.com>
* elf32-arc.c (elf_arc_finish_dynamic_sections): Changed.
Fail safe for trying to reloc GOT and PLT on non dynamic linker. Fix
issue with dynamic relocs not being generated with -pie. Removed some
structures that were not being used. Fixed typo changing RELENT to
RELAENT. Fix for all SECTOFF relocations.
bfd/
2016-06-13 Cupertino Miranda <cmiranda@synospsy.com>
* elf32-arc.c (arc_local_data, arc_local_data): Removed.
(SECTSTART): Changed.
(elf_arc_relocate_section): Fixed mistake in PIE related
condition.
(elf_arc_size_dynamic_sections): Changed DT_RELENT to DT_RELAENT.
bfd/
2016-06-13 Cupertino Miranda <cmiranda@synospsy.com>
* elf32-arc.c (elf32_arc_reloc_type_class): Defined function to
enable support for "-z combreloc" and DT_RELACOUNT.
(elf_backend_reloc_type_class): Likewise
When relocating R_386_GOT32 in "op $0, bar@GOT", we shouldn't subtract
GOT base without a base register and we should disallow it without a
base register for PIC.
bfd/
PR ld/20244
* elf32-i386.c (elf_i386_relocate_section): When relocating
R_386_GOT32, return error without a base register for PIC and
subtract the .got.plt section address only with a base register.
ld/
PR ld/20244
* testsuite/ld-i386/i386.exp: Run pr20244-1a and pr20244-1b.
* testsuite/ld-i386/pr20244-1.s: New file.
* testsuite/ld-i386/pr20244-1a.d: Likewise.
* testsuite/ld-i386/pr20244-1b.d: Likewise.
* testsuite/ld-i386/pr20244-1c.d: Likewise.
I noticed when writing _bfd_elf_strtab_save/restore that size_t would
be better than bfd_size_type for a number of things in elf-strtab.c.
Using a 64-bit bfd_size_type on a 32-bit host doesn't make much sense
for array sizes and indices.
* elf-strtab.c (struct strtab_save): Use size_t for "size".
(struct elf_strtab_hash): Likewise for "size" and "alloced".
(_bfd_elf_strtab_init): Formatting.
(_bfd_elf_strtab_add): Return size_t rather than bfd_size_type.
(_bfd_elf_strtab_addref): Take size_t idx param.
(_bfd_elf_strtab_delref, _bfd_elf_strtab_refcount): Likewise.
(_bfd_elf_strtab_offset): Likewise.
(_bfd_elf_strtab_clear_all_refs): Use size_t idx.
(_bfd_elf_strtab_save): Use size_t "idx" and "size" vars.
(_bfd_elf_strtab_restore, _bfd_elf_strtab_emit): Similarly.
(_bfd_elf_strtab_finalize): Similarly.
* elf-bfd.h (_bfd_elf_strtab_add): Update prototypes.
(_bfd_elf_strtab_addref, _bfd_elf_strtab_delref): Likewise.
(_bfd_elf_strtab_refcount, _bfd_elf_strtab_offset): Likewise.
* elf.c (bfd_elf_get_elf_syms): Calculate symbol buffer size
using bfd_size_type.
(bfd_section_from_shdr): Delete amt.
(_bfd_elf_init_reloc_shdr): Likewise.
(_bfd_elf_link_assign_sym_version): Likewise.
(assign_section_numbers): Use size_t reloc_count.
* elflink.c (struct elf_symbuf_head): Use size_t "count".
(bfd_elf_link_record_dynamic_symbol): Use size_t for some vars.
(elf_link_is_defined_archive_symbol): Likewise.
(elf_add_dt_needed_tag): Likewise.
(elf_finalize_dynstr): Likewise.
(elf_link_add_object_symbols): Likewise.
(bfd_elf_size_dynamic_sections): Likewise.
(elf_create_symbuf): Similarly.
(bfd_elf_match_symbols_in_sections): Likewise.
(elf_link_swap_symbols_out): Likewise.
(elf_link_check_versioned_symbol): Likewise.
(bfd_elf_gc_record_vtinherit): Likewise.
(bfd_elf_gc_common_finalize_got_offsets): Likewise.
This patch fixes an edge case in linker relaxation that causes symbol
values to be computed incorrectly in the presence of align directives
in input source code.
bfd/
* elf32-avr.c (elf32_avr_relax_delete_bytes): Adjust syms
and relocs only if shrinking occurred.
ld/
* testsuite/ld-avr/avr-prop-5.d: New.
* testsuite/ld-avr/avr-prop-5.s: New.
We can generate i386 TLS code sequences for general and local dynamic
models without PLT, which uses indirect call via GOT:
call *___tls_get_addr@GOT(%reg)
where EBX register isn't required as GOT base, instead of direct call:
call ___tls_get_addr[@PLT]
which requires EBX register as GOT base.
Since direct call is 4-byte long and indirect call, is 5-byte long, the
extra one byte must be handled properly.
For general dynamic model, 7-byte lea instruction before call instruction
is replaced by 6-byte one to make room for indirect call. For local
dynamic model, we simply use 5-byte indirect call.
TLS linker optimization is updated to recognize new instruction patterns.
For local dynamic model to local exec model transition, we generate
a 6-byte lea instruction as nop, instead of a 1-byte nop plus a 4-byte
lea instruction. Since linker may convert
call ___tls_get_addr[@PLT]
to
addr32 call ____tls_get_addr
when producing static executable, both patterns are recognized.
bfd/
* elf64-i386.c (elf_i386_link_hash_entry): Add tls_get_addr.
(elf_i386_link_hash_newfunc): Initialize tls_get_addr to 2.
(elf_i386_check_tls_transition): Check indirect call and direct
call with the addr32 prefix for general and local dynamic models.
Set the tls_get_addr feild.
(elf_i386_convert_load_reloc): Always use addr32 prefix for
indirect ___tls_get_addr call via GOT.
(elf_i386_relocate_section): Handle GD->LE, GD->IE and LD->LE
transitions with indirect call and direct call with the addr32
prefix.
ld/
* testsuite/ld-i386/i386.exp: Run libtlspic2.so, tlsbin2,
tlsgd3, tlsld2, tlsgd4, tlspie3a, tlspie3b and tlspie3c.
* testsuite/ld-i386/pass.out: New file.
* testsuite/ld-i386/tls-def1.c: Likewise.
* testsuite/ld-i386/tls-gd1.S: Likewise.
* testsuite/ld-i386/tls-ld1.S: Likewise.
* testsuite/ld-i386/tls-main1.c: Likewise.
* testsuite/ld-i386/tls.exp: Likewise.
* testsuite/ld-i386/tlsbin2-nacl.rd: Likewise.
* testsuite/ld-i386/tlsbin2.dd: Likewise.
* testsuite/ld-i386/tlsbin2.rd: Likewise.
* testsuite/ld-i386/tlsbin2.sd: Likewise.
* testsuite/ld-i386/tlsbin2.td: Likewise.
* testsuite/ld-i386/tlsbinpic2.s: Likewise.
* testsuite/ld-i386/tlsgd3.dd: Likewise.
* testsuite/ld-i386/tlsgd3.s: Likewise.
* testsuite/ld-i386/tlsgd4.d: Likewise.
* testsuite/ld-i386/tlsgd4.s: Likewise.
* testsuite/ld-i386/tlsld2.s: Likewise.
* testsuite/ld-i386/tlspic2-nacl.rd: Likewise.
* testsuite/ld-i386/tlspic2.dd: Likewise.
* testsuite/ld-i386/tlspic2.rd: Likewise.
* testsuite/ld-i386/tlspic2.sd: Likewise.
* testsuite/ld-i386/tlspic2.td: Likewise.
* testsuite/ld-i386/tlspic3.s: Likewise.
* testsuite/ld-i386/tlspie3.s: Likewise.
* testsuite/ld-i386/tlspie3a.d: Likewise.
* testsuite/ld-i386/tlspie3b.d: Likewise.
* testsuite/ld-i386/tlspie3c.d: Likewise.
The only non-comment fix here is in the code writing out the 3 fixed
.got.plt entries - it mistakenly put a 64-bit 0 at offsets 8 and 12
instead of 8 and 16.
bfd/ChangeLog:
* elf32-s390.c (elf_s390_finish_dynamic_symbol): Fix comment.
* elf64-s390.c (elf_s390x_plt_entry): Fix comment.
(elf_s390_relocate_section): Fix comment.
(elf_s390_finish_dynamic_sections): Fix initialization of fixed
.got.plt entries.
Embedding the .plt section in another revealed a bug in the way the
larl operand of the first magic plt entry is being calculated. Fixed
with the attached patch.
bfd/ChangeLog:
* elf64-s390.c (elf_s390_finish_dynamic_sections): Subtract plt
section offset when calculation the larl operand in the first PLT
entry.
ld/ChangeLog:
* testsuite/ld-s390/pltoffset-1.dd: New test.
* testsuite/ld-s390/pltoffset-1.ld: New test.
* testsuite/ld-s390/pltoffset-1.s: New test.
* testsuite/ld-s390/s390.exp: Run new test.
VLE is an encoding, not a particular processor architecture, so it
isn't really proper to select insns based on PPC_OPCODE_VLE. For
example
{"evaddw", VX (4, 512), VX_MASK, PPCSPE|PPCVLE, PPCNONE, {RS, RA, RB}},
{"vaddubs", VX (4, 512), VX_MASK, PPCVEC|PPCVLE, PPCNONE, {VD, VA, VB}},
shows two insns that have the same encoding, both available with VLE.
Enabling both with VLE means we can't disassemble the second variant
even if -Maltivec is given rather than -Mspe. Also, we don't check
user assembly against the processor type as well as we could.
Another problem is that when using the VLE encoding, insns from the
main ppc opcode table are not available, except those using opcode 4
and 31. Correcting this revealed two errors in the ld testsuite,
use of "nop" and "rfmci" when -mvle.
This patch fixes those problems in the opcode table, and removes
PPCNONE. I find a plain 0 distracts less from other values.
In addition, I've implemented code to recognize some machine values
from the apuinfo note present in ppc32 objects. It's not a complete
disambiguation since we're lacking info to detect newer chips, but
what we have should help with disassembly.
include/
* elf/ppc.h (APUINFO_SECTION_NAME, APUINFO_LABEL, PPC_APUINFO_ISEL,
PPC_APUINFO_PMR, PPC_APUINFO_RFMCI, PPC_APUINFO_CACHELCK,
PPC_APUINFO_SPE, PPC_APUINFO_EFS, PPC_APUINFO_BRLOCK,
PPC_APUINFO_VLE: Define.
opcodes/
* ppc-dis.c (ppc_opts): Delete extraneous parentheses. Default
cpu for "vle" to e500.
* ppc-opc.c (ALLOW8_SPRG): Remove PPC_OPCODE_VLE.
(NO371, PPCSPE, PPCISEL, PPCEFS, MULHW, DCBT_EO): Likewise.
(PPCNONE): Delete, substitute throughout.
(powerpc_opcodes): Remove PPCVLE from "flags". Add to "deprecated"
except for major opcode 4 and 31.
(vle_opcodes <se_rfmci>): Add PPCRFMCI to flags.
bfd/
* cpu-powerpc.c (powerpc_compatible): Allow bfd_mach_ppc_vle entry
to match other 32-bit archs.
* elf32-ppc.c (_bfd_elf_ppc_set_arch): New function.
(ppc_elf_object_p): Call it.
(ppc_elf_special_sections): Use APUINFO_SECTION_NAME. Fix
overlong line.
(APUINFO_SECTION_NAME, APUINFO_LABEL): Don't define here.
* elf64-ppc.c (ppc64_elf_object_p): Call _bfd_elf_ppc_set_arch.
* bfd-in.h (_bfd_elf_ppc_at_tls_transform,
_bfd_elf_ppc_at_tprel_transform): Move to..
* elf-bfd.h: ..here.
(_bfd_elf_ppc_set_arch): Declare.
* bfd-in2.h: Regenerate.
gas/
* config/tc-ppc.c (PPC_APUINFO_ISEL, PPC_APUINFO_PMR,
PPC_APUINFO_RFMCI, PPC_APUINFO_CACHELCK, PPC_APUINFO_SPE,
PPC_APUINFO_EFS, PPC_APUINFO_BRLOCK, PPC_APUINFO_VLE): Don't define.
(ppc_setup_opcodes): Check vle disables powerpc_opcodes overridden
by vle_opcodes, and that vle flag doesn't enable opcodes. Don't
add vle_opcodes twice.
(ppc_cleanup): Use APUINFO_SECTION_NAME and APUINFO_LABEL.
ld/
* testsuite/ld-powerpc/apuinfo1.s: Delete nop.
* testsuite/ld-powerpc/apuinfo-vle2.s: New.
* testsuite/ld-powerpc/powerpc.exp: Use apuinfo-vle2.s.
We can generate x86-64 TLS code sequences for general and local dynamic
models without PLT, which uses indirect call via GOT:
call *__tls_get_addr@GOTPCREL(%rip)
instead of direct call:
call __tls_get_addr[@PLT]
Since direct call is 4-byte long and indirect call, is 5-byte long, the
extra one byte must be handled properly.
For general dynamic model, one 0x66 prefix before call instruction is
removed to make room for indirect call. For local dynamic model, we
simply use 5-byte indirect call.
TLS linker optimization is updated to recognize new instruction patterns.
For local dynamic model to local exec model transition, we generate
4 0x66 prefixes, instead of 3, before mov instruction in 64-bit and
generate a 5-byte nop, instead of 4-byte, before mov instruction in
32-bit. Since linker may convert
call *__tls_get_addr@GOTPCREL(%rip)
to
addr32 call __tls_get_addr
when producing static executable, both patterns are recognized.
bfd/
* elf64-x86-64.c (elf_x86_64_link_hash_entry): Add tls_get_addr.
(elf_x86_64_link_hash_newfunc): Initialize tls_get_addr to 2.
(elf_x86_64_check_tls_transition): Check indirect call and
direct call with the addr32 prefix for general and local dynamic
models. Set the tls_get_addr feild.
(elf_x86_64_convert_load_reloc): Always use addr32 prefix for
indirect __tls_get_addr call via GOT.
(elf_x86_64_relocate_section): Handle GD->LE, GD->IE and LD->LE
transitions with indirect call and direct call with the addr32
prefix.
ld/
* testsuite/ld-x86-64/pass.out: New file.
* testsuite/ld-x86-64/tls-def1.c: Likewise.
* testsuite/ld-x86-64/tls-gd1.S: Likewise.
* testsuite/ld-x86-64/tls-ld1.S: Likewise.
* testsuite/ld-x86-64/tls-main1.c: Likewise.
* testsuite/ld-x86-64/tls.exp: Likewise.
* testsuite/ld-x86-64/tlsbin2-nacl.rd: Likewise.
* testsuite/ld-x86-64/tlsbin2.dd: Likewise.
* testsuite/ld-x86-64/tlsbin2.rd: Likewise.
* testsuite/ld-x86-64/tlsbin2.sd: Likewise.
* testsuite/ld-x86-64/tlsbin2.td: Likewise.
* testsuite/ld-x86-64/tlsbinpic2.s: Likewise.
* testsuite/ld-x86-64/tlsgd10.dd: Likewise.
* testsuite/ld-x86-64/tlsgd10.s: Likewise.
* testsuite/ld-x86-64/tlsgd11.dd: Likewise.
* testsuite/ld-x86-64/tlsgd11.s: Likewise.
* testsuite/ld-x86-64/tlsgd12.d: Likewise.
* testsuite/ld-x86-64/tlsgd12.s: Likewise.
* testsuite/ld-x86-64/tlsgd13.d: Likewise.
* testsuite/ld-x86-64/tlsgd13.s: Likewise.
* testsuite/ld-x86-64/tlsgd14.dd: Likewise.
* testsuite/ld-x86-64/tlsgd14.s: Likewise.
* testsuite/ld-x86-64/tlsgd5c.s: Likewise.
* testsuite/ld-x86-64/tlsgd6c.s: Likewise.
* testsuite/ld-x86-64/tlsgd9.dd: Likewise.
* testsuite/ld-x86-64/tlsgd9.s: Likewise.
* testsuite/ld-x86-64/tlsld4.dd: Likewise.
* testsuite/ld-x86-64/tlsld4.s: Likewise.
* testsuite/ld-x86-64/tlsld5.dd: Likewise.
* testsuite/ld-x86-64/tlsld5.s: Likewise.
* testsuite/ld-x86-64/tlsld6.dd: Likewise.
* testsuite/ld-x86-64/tlsld6.s: Likewise.
* testsuite/ld-x86-64/tlspic2-nacl.rd: Likewise.
* testsuite/ld-x86-64/tlspic2.dd: Likewise.
* testsuite/ld-x86-64/tlspic2.rd: Likewise.
* testsuite/ld-x86-64/tlspic2.sd: Likewise.
* testsuite/ld-x86-64/tlspic2.td: Likewise.
* testsuite/ld-x86-64/tlspic3.s: Likewise.
* testsuite/ld-x86-64/tlspie2.s: Likewise.
* testsuite/ld-x86-64/tlspie2a.d: Likewise.
* testsuite/ld-x86-64/tlspie2b.d: Likewise.
* testsuite/ld-x86-64/tlspie2c.d: Likewise.
* testsuite/ld-x86-64/tlsgd5.dd: Updated.
* testsuite/ld-x86-64/tlsgd6.dd: Likewise.
* testsuite/ld-x86-64/x86-64.exp: Run libtlspic2.so, tlsbin2,
tlsgd5b, tlsgd6b, tlsld4, tlsld5, tlsld6, tlsgd9, tlsgd10,
tlsgd11, tlsgd14, tlsgd12, tlsgd13, tlspie2a, tlspie2b and
tlspie2c.
bfd/
* coff-z8k.c (extra_case): Fix range check for R_JR relocation.
ld/
* ld/testsuite/ld-z8k/0filler.s: New file.
* ld/testsuite/ld-z8k/branch-target.s: New file.
* ld/testsuite/ld-z8k/branch-target2.s: New file.
* ld/testsuite/ld-z8k/calr-back-8001.d: New file.
* ld/testsuite/ld-z8k/calr-back-8002.d: New file.
* ld/testsuite/ld-z8k/calr-back-fail-8001.d: New file.
* ld/testsuite/ld-z8k/calr-back-fail-8002.d: New file.
* ld/testsuite/ld-z8k/calr-forw-8001.d: New file.
* ld/testsuite/ld-z8k/calr-forw-8002.d: New file.
* ld/testsuite/ld-z8k/calr-forw-fail-8001.d: New file.
* ld/testsuite/ld-z8k/calr-forw-fail-8002.d: New file.
* ld/testsuite/ld-z8k/calr-opcode.s: New file.
* ld/testsuite/ld-z8k/dbjnz-forw-8001.d: New file.
* ld/testsuite/ld-z8k/dbjnz-forw-8002.d: New file.
* ld/testsuite/ld-z8k/dbjnz-forw-fail-8001.d: New file.
* ld/testsuite/ld-z8k/dbjnz-forw-fail-8002.d: New file.
* ld/testsuite/ld-z8k/dbjnz-opcode.s: New file.
* ld/testsuite/ld-z8k/djnz-back-8001.d: New file.
* ld/testsuite/ld-z8k/djnz-back-8002.d: New file.
* ld/testsuite/ld-z8k/djnz-back-fail-8001.d: New file.
* ld/testsuite/ld-z8k/djnz-back-fail-8002.d: New file.
* ld/testsuite/ld-z8k/djnz-forw-8001.d: New file.
* ld/testsuite/ld-z8k/djnz-forw-8002.d: New file.
* ld/testsuite/ld-z8k/djnz-forw-fail-8001.d: New file.
* ld/testsuite/ld-z8k/djnz-forw-fail-8002.d: New file.
* ld/testsuite/ld-z8k/djnz-opcode.s: New file.
* ld/testsuite/ld-z8k/filler.s: New file.
* ld/testsuite/ld-z8k/jr-back-8001.d: New file.
* ld/testsuite/ld-z8k/jr-back-8002.d: New file.
* ld/testsuite/ld-z8k/jr-back-fail-8001.d: New file.
* ld/testsuite/ld-z8k/jr-back-fail-8002.d: New file.
* ld/testsuite/ld-z8k/jr-forw-8001.d: New file.
* ld/testsuite/ld-z8k/jr-forw-8002.d: New file.
* ld/testsuite/ld-z8k/jr-forw-fail-8001.d: New file.
* ld/testsuite/ld-z8k/jr-forw-fail-8002.d: New file.
* ld/testsuite/ld-z8k/jr-opcode.s: New file.
* ld/testsuite/ld-z8k/ldr-back-8001.d: New file.
* ld/testsuite/ld-z8k/ldr-back-8002.d: New file.
* ld/testsuite/ld-z8k/ldr-back-fail-8001.d: New file.
* ld/testsuite/ld-z8k/ldr-back-fail-8002.d: New file.
* ld/testsuite/ld-z8k/ldr-forw-8001.d: New file.
* ld/testsuite/ld-z8k/ldr-forw-8002.d: New file.
* ld/testsuite/ld-z8k/ldr-forw-fail-8001.d: New file.
* ld/testsuite/ld-z8k/ldr-forw-fail-8002.d: New file.
* ld/testsuite/ld-z8k/ldr-opcode.s: New file.
* ld/testsuite/ld-z8k/ldrb-forw-8001.d: New file.
* ld/testsuite/ld-z8k/ldrb-forw-8002.d: New file.
* ld/testsuite/ld-z8k/ldrb-forw-fail-8001.d: New file.
* ld/testsuite/ld-z8k/ldrb-forw-fail-8002.d: New file.
* ld/testsuite/ld-z8k/ldrb-opcode.s: New file.
* ld/testsuite/ld-z8k/ldrb-opcode2.s: New file.
* ld/testsuite/ld-z8k/other-file.s: New file.
* ld/testsuite/ld-z8k/reloc.dd: New file.
* ld/testsuite/ld-z8k/reloc.ld: New file.
* ld/testsuite/ld-z8k/relocseg.dd: New file.
* ld/testsuite/ld-z8k/relocseg.ld: New file.
* ld/testsuite/ld-z8k/relocseg1.dd: New file.
* ld/testsuite/ld-z8k/test-ld.sh: New file.
* ld/testsuite/ld-z8k/this-file.s: New file.
* ld/testsuite/ld-z8k/z8k.exp: New file.
This reverts the pr16467 change, which was incorrect due to faulty
analysis of the pr16467 testcase. The failure was not due to a
mismatch in symbol type (ifunc/non-ifunc) but due to a symbol loop
being set up.
See https://sourceware.org/ml/binutils/2016-06/msg00013.html for some
rambling on versioned symbols and ELF shared library symbol overriding
that explain this patch.
bfd/
PR ld/20159
PR ld/16467
* elflink.c (_bfd_elf_merge_symbol): Revert PR16467 change.
(_bfd_elf_add_default_symbol): Don't indirect to/from defined
symbol given a version by a script different to the version
of the symbol being added.
(elf_link_add_object_symbols): Use _bfd_elf_strtab_save and
_bfd_elf_strtab_restore. Don't fudge dynstr references.
* elf-strtab.c (_bfd_elf_strtab_restore_size): Delete.
(struct strtab_save): New.
(_bfd_elf_strtab_save, _bfd_elf_strtab_restore): New functions.
* elf-bfd.h (_bfd_elf_strtab_restore_size): Delete.
(_bfd_elf_strtab_save, _bfd_elf_strtab_restore): Declare.
Fix internal errors like:
ld: BFD (GNU Binutils) 2.26.51.20160526 internal error, aborting at .../bfd/elfxx-mips.c:10278 in _bfd_mips_elf_relocate_section
ld: Please report this bug.
triggered by the `bfd_reloc_outofrange' condition on branch relocations.
bfd/
* elfxx-mips.c (b_reloc_p): New function.
(_bfd_mips_elf_relocate_section) <bfd_reloc_outofrange>: Handle
branch relocations.
ld/
* testsuite/ld-mips-elf/unaligned-branch.d: New test.
* testsuite/ld-mips-elf/unaligned-branch.s: New test source.
* testsuite/ld-mips-elf/unaligned-text.s: New test source.
* testsuite/ld-mips-elf/mips-elf.exp: Run the new test.
The original MIPS SVR4 psABI defines the calculation for the R_MIPS_26
relocation in a complex way, as follows[1]:
Name Value Field Symbol Calculation
R_MIPS_26 4 T-targ26 local (((A << 2) | \
(P & 0xf0000000)) + S) >> 2
4 T-targ26 external (sign-extend(A << 2) + S) >> 2
This is further clarified, by correcting typos (already applied in the
excerpt above) in the 64-bit psABI extension[2]. A note is included in
both documents to specify that for the purpose of relocation processing
a local symbol is one with binding STB_LOCAL and type STT_SECTION, and
otherwise, a symbol is external.
We have both calculations implemented for the R_MIPS_26 relocation, and
by extension also for the R_MIPS16_26 and R_MICROMIPS_26_S1 relocations,
from now on collectively called jump relocations. However our code uses
a different condition to tell local and external symbols apart, that is
it only checks for the STB_LOCAL binding and ignores the symbol type,
however for REL relocations only. The external calculation is used for
all RELA jump relocations.
In reality the difference matters for jump relocations referring local
MIPS16 and, as from recent commit 44d3da2338 ("MIPS/GAS: Treat local
jump relocs the same no matter if REL or RELA"), also local microMIPS
symbols. Such relocations are not converted to refer to corresponding
section symbols instead and retain the original local symbol reference.
It can be inferred from the relocation calculation definitions that the
addend is effectively unsigned for the local case and explicitly signed
for the external case. With the REL relocation format it makes sense
given the limited range provided for by the field being relocated: the
use of an unsigned addend expands the range by one bit for the local
case, because a negative offset from a section symbol makes no sense,
and any usable negative offset from the original local symbol will have
worked out positive if converted to a section-relative reference. In
the external case a signed addend gives more flexibility as offsets both
negative and positive can be used with a symbol. Any such offsets will
typically have a small value.
The inclusion of the (P & 0xf0000000) component, ORed in the calculation
in the local case, seems questionable as bits 31:28 are not included in
the relocatable field and are masked out as the relocation is applied.
Their value is therefore irrelevant for output processing, the relocated
field ends up the same regardless of their value. They could be used
for overflow detection, however this is precluded by adding them to bits
31:28 of the symbol referred, as the sum will not correspond to the
value calculated by the processor at run time whenever bits 31:28 of the
symbol referred are not all zeros, even though it is valid as long they
are the same as bits 31:28 of P.
We deal with this problem by ignoring any overflow resulting from the
local calculation. This however makes us miss genuine overflow cases,
where 31:28 of the symbol referred are different from bits 31:28 of P,
and non-functional code is produced.
Given the situation, for the purpose of overflow detection we can change
our code to follow the original psABI and only treat the in-place addend
as unsigned in the section symbol case, permitting jumps to offsets
128MiB and above into section. Sections so large may be uncommon, but
still a reasonable use case. On the other hand such large offsets from
regular local symbols are not expected and it makes sense to support
(possibly small) negative offsets instead, also in consistency with what
we do for global symbols.
Drop the (P & 0xf0000000) component then, treat the addend as signed
with local non-section symbols and also detect an overflow in the result
of such calculation with local symbols. NB it does not affect the value
computed for the relocatable field, it only affects overflow detection.
References:
[1] "SYSTEM V APPLICATION BINARY INTERFACE, MIPS RISC Processor
Supplement, 3rd Edition", Figure 4-11: "Relocation Types", p. 4-19
<http://www.linux-mips.org/pub/linux/mips/doc/ABI/mipsabi.pdf>
[2] "64-bit ELF Object File Specification, Draft Version 2.5", Table 32
"Relocation Types", p. 45
<http://techpubs.sgi.com/library/manuals/4000/007-4658-001/pdf/007-4658-001.pdf>
bfd/
* elfxx-mips.c (mips_elf_calculate_relocation): <R_MIPS16_26>
<R_MIPS_26, R_MICROMIPS_26_S1>: Drop the region bits of the
reloc location from calculation, treat the addend as signed with
local non-section symbols and enable overflow detection.
ld/
* testsuite/ld-mips-elf/jal-global-overflow-0.d: New test.
* testsuite/ld-mips-elf/jal-global-overflow-1.d: New test.
* testsuite/ld-mips-elf/jal-local-overflow-0.d: New test.
* testsuite/ld-mips-elf/jal-local-overflow-1.d: New test.
* testsuite/ld-mips-elf/jal-global-overflow.s: New test source.
* testsuite/ld-mips-elf/jal-local-overflow.s: New test source.
* testsuite/ld-mips-elf/mips-elf.exp: Run the new tests.
On RELA targets the addend can affect JALX target's alignment, so only
verify it once the whole relocation calculation has completed.
bfd/
* elfxx-mips.c (mips_elf_calculate_relocation) <R_MIPS16_26>
<R_MIPS_26, R_MICROMIPS_26_S1>: Include the addend in JALX's
target alignment verification.
ld/
* testsuite/ld-mips-elf/unaligned-jalx-addend-0.d: New test.
* testsuite/ld-mips-elf/unaligned-jalx-addend-1.d: New test.
* testsuite/ld-mips-elf/unaligned-jalx-addend-mips16-0.d: New
test.
* testsuite/ld-mips-elf/unaligned-jalx-addend-mips16-1.d: New
test.
* testsuite/ld-mips-elf/unaligned-jalx-addend-micromips-0.d: New
test.
* testsuite/ld-mips-elf/unaligned-jalx-addend-micromips-1.d: New
test.
* testsuite/ld-mips-elf/unaligned-jalx-addend-0.s: New test
source.
* testsuite/ld-mips-elf/unaligned-jalx-addend-1.s: New test
source.
* testsuite/ld-mips-elf/mips-elf.exp: Run the new tests.
Symbol table entries for section symbols are different between IRIX and
traditional MIPS ELF targets in that IRIX entries have their `st_name'
member pointing at the section's name in the string table section, while
traditional entries have 0 there and the section header string table has
to be referred via the relevant section header's `shn_name' member
instead.
This is chosen with the `elf_backend_name_local_section_symbols' backend
and can be observed with `readelf -s' output for an IRIX object:
Symbol table '.symtab' contains 12 entries:
Num: Value Size Type Bind Vis Ndx Name
0: 00000000 0 NOTYPE LOCAL DEFAULT UND
1: 00000000 0 SECTION LOCAL DEFAULT 1 .text
2: 00000000 0 SECTION LOCAL DEFAULT 3 .data
3: 00000000 0 SECTION LOCAL DEFAULT 4 .bss
4: 00000000 0 SECTION LOCAL DEFAULT 5 .reginfo
5: 00000000 0 SECTION LOCAL DEFAULT 6 .MIPS.abiflags
6: 00000000 0 SECTION LOCAL DEFAULT 7 .pdr
7: 00000000 0 SECTION LOCAL DEFAULT 9 .gnu.attributes
8: 00002000 16 FUNC GLOBAL DEFAULT 1 foo
9: 00004008 0 FUNC LOCAL DEFAULT 1 abar
10: 00002008 0 FUNC LOCAL DEFAULT 1 afoo
11: 00004000 16 FUNC GLOBAL DEFAULT 1 bar
and a corresponding traditional object:
Symbol table '.symtab' contains 12 entries:
Num: Value Size Type Bind Vis Ndx Name
0: 00000000 0 NOTYPE LOCAL DEFAULT UND
1: 00000000 0 SECTION LOCAL DEFAULT 1
2: 00000000 0 SECTION LOCAL DEFAULT 3
3: 00000000 0 SECTION LOCAL DEFAULT 4
4: 00004008 0 FUNC LOCAL DEFAULT 1 abar
5: 00002008 0 FUNC LOCAL DEFAULT 1 afoo
6: 00000000 0 SECTION LOCAL DEFAULT 5
7: 00000000 0 SECTION LOCAL DEFAULT 6
8: 00000000 0 SECTION LOCAL DEFAULT 7
9: 00000000 0 SECTION LOCAL DEFAULT 9
10: 00002000 16 FUNC GLOBAL DEFAULT 1 foo
11: 00004000 16 FUNC GLOBAL DEFAULT 1 bar
respectively. Consequently the right way to retrieve a section symbol's
name has to be chosen in `mips_elf_calculate_relocation' for the purpose
of error reporting.
Originally we produced symbol tables in the traditional object format
only and we handled it correctly until it was lost in a rewrite with:
commit 7403cb6305
Author: Mark Mitchell <mark@codesourcery.com>
Date: Wed Jun 30 20:13:43 1999 +0000
probably because of the extra pointer indirection added which made the
same expression have a different meaning.
With the addition of IRIX symbol table format with:
commit 174fd7f955
Author: Richard Sandiford <rdsandiford@googlemail.com>
Date: Mon Feb 9 08:04:00 2004 +0000
the bug has been partially covered and now when a relocation error is
triggered with an IRIX object the offending section symbol is correctly
reported:
tmpdir/dump0.o: In function `foo':
(.text+0x2000): relocation truncated to fit: R_MIPS_26 against `.text'
tmpdir/dump0.o: In function `bar':
(.text+0x4000): relocation truncated to fit: R_MIPS_26 against `.text'
because `bfd_elf_string_from_elf_section' retrieves the name from the
string table section. With a traditional object however the function
returns an empty string and consequently `no symbol' is printed instead:
tmpdir/dump0.o: In function `foo':
(.text+0x2000): relocation truncated to fit: R_MIPS_26 against `no symbol'
tmpdir/dump0.o: In function `bar':
(.text+0x4000): relocation truncated to fit: R_MIPS_26 against `no symbol'
Restore the original semantics so that the section name is always
correctly retrieved.
bfd/
* elfxx-mips.c (mips_elf_calculate_relocation): Also use the
section name if `bfd_elf_string_from_elf_section' returns an
empty string.
ld/
* testsuite/ld-mips-elf/reloc-local-overflow.d: New test.
* testsuite/ld-mips-elf/reloc-local-overflow.s: Source for the
new test.
* testsuite/ld-mips-elf/mips-elf.exp: Run the new test.
Upon a `bfd_reloc_outofrange' error continue processing so that any
further issues are also reported, similarly to how `bfd_reloc_overflow'
is handled. Adjust message formatting accordingly, using `%X' to abort
processing at conclusion.
Reduce the number of test cases by grouping relocations the handling of
which can now be verified together with a single source and dump.
bfd/
* elfxx-mips.c (_bfd_mips_elf_relocate_section)
<bfd_reloc_outofrange>: Use the `%X%H' rather than `%C' format
for message. Continue processing rather than returning failure.
ld/
* testsuite/ld-mips-elf/unaligned-jalx-0.d: Fold
`unaligned-jalx-2' here.
* testsuite/ld-mips-elf/unaligned-jalx-mips16-0.d: Fold
`unaligned-jalx-mips16-2' here.
* testsuite/ld-mips-elf/unaligned-jalx-micromips-0.d: Fold
`unaligned-jalx-micromips-2' here.
* testsuite/ld-mips-elf/unaligned-jalx-0.s: Update accordingly.
* testsuite/ld-mips-elf/unaligned-jalx-1.d: Update error
message.
* testsuite/ld-mips-elf/unaligned-jalx-mips16-1.d: Likewise.
* testsuite/ld-mips-elf/unaligned-jalx-micromips-1.d: Likewise.
* testsuite/ld-mips-elf/unaligned-jalx-2.d: Remove test.
* testsuite/ld-mips-elf/unaligned-jalx-mips16-2.d: Remove test.
* testsuite/ld-mips-elf/unaligned-jalx-micromips-2.d: Remove
test.
* testsuite/ld-mips-elf/unaligned-jalx-2.s: Remove test source.
* testsuite/ld-mips-elf/unaligned-lwpc-0.d: Fold
`unaligned-lwpc-3' here.
* testsuite/ld-mips-elf/unaligned-lwpc-0.s: Update accordingly.
* testsuite/ld-mips-elf/unaligned-lwpc-1.d: Fold
`unaligned-lwpc-2' here.
* testsuite/ld-mips-elf/unaligned-lwpc-1.s: Update accordingly.
* testsuite/ld-mips-elf/unaligned-lwpc-2.d: Remove test.
* testsuite/ld-mips-elf/unaligned-lwpc-2.s: Remove test source.
* testsuite/ld-mips-elf/unaligned-lwpc-3.d: Remove test.
* testsuite/ld-mips-elf/unaligned-lwpc-3.s: Remove test source.
* testsuite/ld-mips-elf/unaligned-ldpc-0.d: Fold
`unaligned-ldpc-4' here.
* testsuite/ld-mips-elf/unaligned-ldpc-0.s: Update accordingly.
* testsuite/ld-mips-elf/unaligned-ldpc-1.d: Update error
message. Fold `unaligned-ldpc-2' and `unaligned-ldpc-3' here.
* testsuite/ld-mips-elf/unaligned-ldpc-1.s: Update accordingly.
* testsuite/ld-mips-elf/unaligned-ldpc-2.d: Remove test.
* testsuite/ld-mips-elf/unaligned-ldpc-2.s: Remove test source.
* testsuite/ld-mips-elf/unaligned-ldpc-3.d: Remove test.
* testsuite/ld-mips-elf/unaligned-ldpc-3.s: Remove test source.
* testsuite/ld-mips-elf/unaligned-ldpc-4.d: Remove test.
* testsuite/ld-mips-elf/unaligned-ldpc-4.s: Remove test source.
* testsuite/ld-mips-elf/mips-elf.exp: Delete removed tests.
Trevor Saunders
John Baldwin
Joel Brobecker
Alan Modra
Maciej W. Rozycki
Graham Markall
H.J. Lu
Thomas Preud'homme
Jose E. Marchesi
Marcin Kościelnicki
Senthil Kumar Selvaraj
Claudiu Zissulescu
Cupertino Miranda
Denis Chertykov
Andreas Krebbel
Christian Groessler
Nick Clifton
Vineet Gupta