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fuchsia / third_party / gdb / main / . / binutils / readelf.c
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/* readelf.c -- display contents of an ELF format file
Copyright (C) 1998-2016 Free Software Foundation, Inc.
Originally developed by Eric Youngdale <eric@andante.jic.com>
Modifications by Nick Clifton <nickc@redhat.com>
This file is part of GNU Binutils.
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 3 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., 51 Franklin Street - Fifth Floor, Boston, MA
02110-1301, USA. */
/* The difference between readelf and objdump:
Both programs are capable of displaying the contents of ELF format files,
so why does the binutils project have two file dumpers ?
The reason is that objdump sees an ELF file through a BFD filter of the
world; if BFD has a bug where, say, it disagrees about a machine constant
in e_flags, then the odds are good that it will remain internally
consistent. The linker sees it the BFD way, objdump sees it the BFD way,
GAS sees it the BFD way. There was need for a tool to go find out what
the file actually says.
This is why the readelf program does not link against the BFD library - it
exists as an independent program to help verify the correct working of BFD.
There is also the case that readelf can provide more information about an
ELF file than is provided by objdump. In particular it can display DWARF
debugging information which (at the moment) objdump cannot. */
#include "sysdep.h"
#include <assert.h>
#include <time.h>
#include <zlib.h>
#ifdef HAVE_WCHAR_H
#include <wchar.h>
#endif
#if __GNUC__ >= 2
/* Define BFD64 here, even if our default architecture is 32 bit ELF
as this will allow us to read in and parse 64bit and 32bit ELF files.
Only do this if we believe that the compiler can support a 64 bit
data type. For now we only rely on GCC being able to do this. */
#define BFD64
#endif
#include "bfd.h"
#include "bucomm.h"
#include "elfcomm.h"
#include "dwarf.h"
#include "elf/common.h"
#include "elf/external.h"
#include "elf/internal.h"
/* Included here, before RELOC_MACROS_GEN_FUNC is defined, so that
we can obtain the H8 reloc numbers. We need these for the
get_reloc_size() function. We include h8.h again after defining
RELOC_MACROS_GEN_FUNC so that we get the naming function as well. */
#include "elf/h8.h"
#undef _ELF_H8_H
/* Undo the effects of #including reloc-macros.h. */
#undef START_RELOC_NUMBERS
#undef RELOC_NUMBER
#undef FAKE_RELOC
#undef EMPTY_RELOC
#undef END_RELOC_NUMBERS
#undef _RELOC_MACROS_H
/* The following headers use the elf/reloc-macros.h file to
automatically generate relocation recognition functions
such as elf_mips_reloc_type() */
#define RELOC_MACROS_GEN_FUNC
#include "elf/aarch64.h"
#include "elf/alpha.h"
#include "elf/arc.h"
#include "elf/arm.h"
#include "elf/avr.h"
#include "elf/bfin.h"
#include "elf/cr16.h"
#include "elf/cris.h"
#include "elf/crx.h"
#include "elf/d10v.h"
#include "elf/d30v.h"
#include "elf/dlx.h"
#include "elf/epiphany.h"
#include "elf/fr30.h"
#include "elf/frv.h"
#include "elf/ft32.h"
#include "elf/h8.h"
#include "elf/hppa.h"
#include "elf/i386.h"
#include "elf/i370.h"
#include "elf/i860.h"
#include "elf/i960.h"
#include "elf/ia64.h"
#include "elf/ip2k.h"
#include "elf/lm32.h"
#include "elf/iq2000.h"
#include "elf/m32c.h"
#include "elf/m32r.h"
#include "elf/m68k.h"
#include "elf/m68hc11.h"
#include "elf/mcore.h"
#include "elf/mep.h"
#include "elf/metag.h"
#include "elf/microblaze.h"
#include "elf/mips.h"
#include "elf/riscv.h"
#include "elf/mmix.h"
#include "elf/mn10200.h"
#include "elf/mn10300.h"
#include "elf/moxie.h"
#include "elf/mt.h"
#include "elf/msp430.h"
#include "elf/nds32.h"
#include "elf/nios2.h"
#include "elf/or1k.h"
#include "elf/pj.h"
#include "elf/ppc.h"
#include "elf/ppc64.h"
#include "elf/rl78.h"
#include "elf/rx.h"
#include "elf/s390.h"
#include "elf/score.h"
#include "elf/sh.h"
#include "elf/sparc.h"
#include "elf/spu.h"
#include "elf/tic6x.h"
#include "elf/tilegx.h"
#include "elf/tilepro.h"
#include "elf/v850.h"
#include "elf/vax.h"
#include "elf/visium.h"
#include "elf/x86-64.h"
#include "elf/xc16x.h"
#include "elf/xgate.h"
#include "elf/xstormy16.h"
#include "elf/xtensa.h"
#include "getopt.h"
#include "libiberty.h"
#include "safe-ctype.h"
#include "filenames.h"
#ifndef offsetof
#define offsetof(TYPE, MEMBER) ((size_t) &(((TYPE *) 0)->MEMBER))
#endif
typedef struct elf_section_list
{
Elf_Internal_Shdr * hdr;
struct elf_section_list * next;
} elf_section_list;
char * program_name = "readelf";
static unsigned long archive_file_offset;
static unsigned long archive_file_size;
static bfd_size_type current_file_size;
static unsigned long dynamic_addr;
static bfd_size_type dynamic_size;
static size_t dynamic_nent;
static char * dynamic_strings;
static unsigned long dynamic_strings_length;
static char * string_table;
static unsigned long string_table_length;
static unsigned long num_dynamic_syms;
static Elf_Internal_Sym * dynamic_symbols;
static Elf_Internal_Syminfo * dynamic_syminfo;
static unsigned long dynamic_syminfo_offset;
static unsigned int dynamic_syminfo_nent;
static char program_interpreter[PATH_MAX];
static bfd_vma dynamic_info[DT_ENCODING];
static bfd_vma dynamic_info_DT_GNU_HASH;
static bfd_vma version_info[16];
static Elf_Internal_Ehdr elf_header;
static Elf_Internal_Shdr * section_headers;
static Elf_Internal_Phdr * program_headers;
static Elf_Internal_Dyn * dynamic_section;
static elf_section_list * symtab_shndx_list;
static int show_name;
static int do_dynamic;
static int do_syms;
static int do_dyn_syms;
static int do_reloc;
static int do_sections;
static int do_section_groups;
static int do_section_details;
static int do_segments;
static int do_unwind;
static int do_using_dynamic;
static int do_header;
static int do_dump;
static int do_version;
static int do_histogram;
static int do_debugging;
static int do_arch;
static int do_notes;
static int do_archive_index;
static int is_32bit_elf;
static int decompress_dumps;
struct group_list
{
struct group_list * next;
unsigned int section_index;
};
struct group
{
struct group_list * root;
unsigned int group_index;
};
static size_t group_count;
static struct group * section_groups;
static struct group ** section_headers_groups;
/* Flag bits indicating particular types of dump. */
#define HEX_DUMP (1 << 0) /* The -x command line switch. */
#define DISASS_DUMP (1 << 1) /* The -i command line switch. */
#define DEBUG_DUMP (1 << 2) /* The -w command line switch. */
#define STRING_DUMP (1 << 3) /* The -p command line switch. */
#define RELOC_DUMP (1 << 4) /* The -R command line switch. */
typedef unsigned char dump_type;
/* A linked list of the section names for which dumps were requested. */
struct dump_list_entry
{
char * name;
dump_type type;
struct dump_list_entry * next;
};
static struct dump_list_entry * dump_sects_byname;
/* A dynamic array of flags indicating for which sections a dump
has been requested via command line switches. */
static dump_type * cmdline_dump_sects = NULL;
static unsigned int num_cmdline_dump_sects = 0;
/* A dynamic array of flags indicating for which sections a dump of
some kind has been requested. It is reset on a per-object file
basis and then initialised from the cmdline_dump_sects array,
the results of interpreting the -w switch, and the
dump_sects_byname list. */
static dump_type * dump_sects = NULL;
static unsigned int num_dump_sects = 0;
/* How to print a vma value. */
typedef enum print_mode
{
HEX,
DEC,
DEC_5,
UNSIGNED,
PREFIX_HEX,
FULL_HEX,
LONG_HEX
}
print_mode;
/* Versioned symbol info. */
enum versioned_symbol_info
{
symbol_undefined,
symbol_hidden,
symbol_public
};
static const char *get_symbol_version_string
(FILE *file, int is_dynsym, const char *strtab,
unsigned long int strtab_size, unsigned int si,
Elf_Internal_Sym *psym, enum versioned_symbol_info *sym_info,
unsigned short *vna_other);
#define UNKNOWN -1
#define SECTION_NAME(X) \
((X) == NULL ? _("<none>") \
: string_table == NULL ? _("<no-name>") \
: ((X)->sh_name >= string_table_length ? _("<corrupt>") \
: string_table + (X)->sh_name))
#define DT_VERSIONTAGIDX(tag) (DT_VERNEEDNUM - (tag)) /* Reverse order! */
#define GET_ELF_SYMBOLS(file, section, sym_count) \
(is_32bit_elf ? get_32bit_elf_symbols (file, section, sym_count) \
: get_64bit_elf_symbols (file, section, sym_count))
#define VALID_DYNAMIC_NAME(offset) ((dynamic_strings != NULL) && (offset < dynamic_strings_length))
/* GET_DYNAMIC_NAME asssumes that VALID_DYNAMIC_NAME has
already been called and verified that the string exists. */
#define GET_DYNAMIC_NAME(offset) (dynamic_strings + offset)
#define REMOVE_ARCH_BITS(ADDR) \
do \
{ \
if (elf_header.e_machine == EM_ARM) \
(ADDR) &= ~1; \
} \
while (0)
/* Retrieve NMEMB structures, each SIZE bytes long from FILE starting at OFFSET +
the offset of the current archive member, if we are examining an archive.
Put the retrieved data into VAR, if it is not NULL. Otherwise allocate a buffer
using malloc and fill that. In either case return the pointer to the start of
the retrieved data or NULL if something went wrong. If something does go wrong
and REASON is not NULL then emit an error message using REASON as part of the
context. */
static void *
get_data (void * var, FILE * file, unsigned long offset, bfd_size_type size,
bfd_size_type nmemb, const char * reason)
{
void * mvar;
bfd_size_type amt = size * nmemb;
if (size == 0 || nmemb == 0)
return NULL;
/* If the size_t type is smaller than the bfd_size_type, eg because
you are building a 32-bit tool on a 64-bit host, then make sure
that when the sizes are cast to (size_t) no information is lost. */
if (sizeof (size_t) < sizeof (bfd_size_type)
&& ( (bfd_size_type) ((size_t) size) != size
|| (bfd_size_type) ((size_t) nmemb) != nmemb))
{
if (reason)
error (_("Size truncation prevents reading 0x%" BFD_VMA_FMT "x"
" elements of size 0x%" BFD_VMA_FMT "x for %s\n"),
nmemb, size, reason);
return NULL;
}
/* Check for size overflow. */
if (amt < nmemb)
{
if (reason)
error (_("Size overflow prevents reading 0x%" BFD_VMA_FMT "x"
" elements of size 0x%" BFD_VMA_FMT "x for %s\n"),
nmemb, size, reason);
return NULL;
}
/* Be kind to memory chekers (eg valgrind, address sanitizer) by not
attempting to allocate memory when the read is bound to fail. */
if (amt > current_file_size
|| offset + archive_file_offset + amt > current_file_size)
{
if (reason)
error (_("Reading 0x%" BFD_VMA_FMT "x"
" bytes extends past end of file for %s\n"),
amt, reason);
return NULL;
}
if (fseek (file, archive_file_offset + offset, SEEK_SET))
{
if (reason)
error (_("Unable to seek to 0x%lx for %s\n"),
archive_file_offset + offset, reason);
return NULL;
}
mvar = var;
if (mvar == NULL)
{
/* Check for overflow. */
if (nmemb < (~(bfd_size_type) 0 - 1) / size)
/* + 1 so that we can '\0' terminate invalid string table sections. */
mvar = malloc ((size_t) amt + 1);
if (mvar == NULL)
{
if (reason)
error (_("Out of memory allocating 0x%" BFD_VMA_FMT "x"
" bytes for %s\n"),
amt, reason);
return NULL;
}
((char *) mvar)[amt] = '\0';
}
if (fread (mvar, (size_t) size, (size_t) nmemb, file) != nmemb)
{
if (reason)
error (_("Unable to read in 0x%" BFD_VMA_FMT "x bytes of %s\n"),
amt, reason);
if (mvar != var)
free (mvar);
return NULL;
}
return mvar;
}
/* Print a VMA value. */
static int
print_vma (bfd_vma vma, print_mode mode)
{
int nc = 0;
switch (mode)
{
case FULL_HEX:
nc = printf ("0x");
/* Fall through. */
case LONG_HEX:
#ifdef BFD64
if (is_32bit_elf)
return nc + printf ("%8.8" BFD_VMA_FMT "x", vma);
#endif
printf_vma (vma);
return nc + 16;
case DEC_5:
if (vma <= 99999)
return printf ("%5" BFD_VMA_FMT "d", vma);
/* Fall through. */
case PREFIX_HEX:
nc = printf ("0x");
/* Fall through. */
case HEX:
return nc + printf ("%" BFD_VMA_FMT "x", vma);
case DEC:
return printf ("%" BFD_VMA_FMT "d", vma);
case UNSIGNED:
return printf ("%" BFD_VMA_FMT "u", vma);
}
return 0;
}
/* Display a symbol on stdout. Handles the display of control characters and
multibye characters (assuming the host environment supports them).
Display at most abs(WIDTH) characters, truncating as necessary, unless do_wide is true.
If WIDTH is negative then ensure that the output is at least (- WIDTH) characters,
padding as necessary.
Returns the number of emitted characters. */
static unsigned int
print_symbol (int width, const char *symbol)
{
bfd_boolean extra_padding = FALSE;
int num_printed = 0;
#ifdef HAVE_MBSTATE_T
mbstate_t state;
#endif
int width_remaining;
if (width < 0)
{
/* Keep the width positive. This also helps. */
width = - width;
extra_padding = TRUE;
}
assert (width != 0);
if (do_wide)
/* Set the remaining width to a very large value.
This simplifies the code below. */
width_remaining = INT_MAX;
else
width_remaining = width;
#ifdef HAVE_MBSTATE_T
/* Initialise the multibyte conversion state. */
memset (& state, 0, sizeof (state));
#endif
while (width_remaining)
{
size_t n;
const char c = *symbol++;
if (c == 0)
break;
/* Do not print control characters directly as they can affect terminal
settings. Such characters usually appear in the names generated
by the assembler for local labels. */
if (ISCNTRL (c))
{
if (width_remaining < 2)
break;
printf ("^%c", c + 0x40);
width_remaining -= 2;
num_printed += 2;
}
else if (ISPRINT (c))
{
putchar (c);
width_remaining --;
num_printed ++;
}
else
{
#ifdef HAVE_MBSTATE_T
wchar_t w;
#endif
/* Let printf do the hard work of displaying multibyte characters. */
printf ("%.1s", symbol - 1);
width_remaining --;
num_printed ++;
#ifdef HAVE_MBSTATE_T
/* Try to find out how many bytes made up the character that was
just printed. Advance the symbol pointer past the bytes that
were displayed. */
n = mbrtowc (& w, symbol - 1, MB_CUR_MAX, & state);
#else
n = 1;
#endif
if (n != (size_t) -1 && n != (size_t) -2 && n > 0)
symbol += (n - 1);
}
}
if (extra_padding && num_printed < width)
{
/* Fill in the remaining spaces. */
printf ("%-*s", width - num_printed, " ");
num_printed = width;
}
return num_printed;
}
/* Returns a pointer to a static buffer containing a printable version of
the given section's name. Like print_symbol, except that it does not try
to print multibyte characters, it just interprets them as hex values. */
static const char *
printable_section_name (const Elf_Internal_Shdr * sec)
{
#define MAX_PRINT_SEC_NAME_LEN 128
static char sec_name_buf [MAX_PRINT_SEC_NAME_LEN + 1];
const char * name = SECTION_NAME (sec);
char * buf = sec_name_buf;
char c;
unsigned int remaining = MAX_PRINT_SEC_NAME_LEN;
while ((c = * name ++) != 0)
{
if (ISCNTRL (c))
{
if (remaining < 2)
break;
* buf ++ = '^';
* buf ++ = c + 0x40;
remaining -= 2;
}
else if (ISPRINT (c))
{
* buf ++ = c;
remaining -= 1;
}
else
{
static char hex[17] = "0123456789ABCDEF";
if (remaining < 4)
break;
* buf ++ = '<';
* buf ++ = hex[(c & 0xf0) >> 4];
* buf ++ = hex[c & 0x0f];
* buf ++ = '>';
remaining -= 4;
}
if (remaining == 0)
break;
}
* buf = 0;
return sec_name_buf;
}
static const char *
printable_section_name_from_index (unsigned long ndx)
{
if (ndx >= elf_header.e_shnum)
return _("<corrupt>");
return printable_section_name (section_headers + ndx);
}
/* Return a pointer to section NAME, or NULL if no such section exists. */
static Elf_Internal_Shdr *
find_section (const char * name)
{
unsigned int i;
for (i = 0; i < elf_header.e_shnum; i++)
if (streq (SECTION_NAME (section_headers + i), name))
return section_headers + i;
return NULL;
}
/* Return a pointer to a section containing ADDR, or NULL if no such
section exists. */
static Elf_Internal_Shdr *
find_section_by_address (bfd_vma addr)
{
unsigned int i;
for (i = 0; i < elf_header.e_shnum; i++)
{
Elf_Internal_Shdr *sec = section_headers + i;
if (addr >= sec->sh_addr && addr < sec->sh_addr + sec->sh_size)
return sec;
}
return NULL;
}
static Elf_Internal_Shdr *
find_section_by_type (unsigned int type)
{
unsigned int i;
for (i = 0; i < elf_header.e_shnum; i++)
{
Elf_Internal_Shdr *sec = section_headers + i;
if (sec->sh_type == type)
return sec;
}
return NULL;
}
/* Return a pointer to section NAME, or NULL if no such section exists,
restricted to the list of sections given in SET. */
static Elf_Internal_Shdr *
find_section_in_set (const char * name, unsigned int * set)
{
unsigned int i;
if (set != NULL)
{
while ((i = *set++) > 0)
if (streq (SECTION_NAME (section_headers + i), name))
return section_headers + i;
}
return find_section (name);
}
/* Read an unsigned LEB128 encoded value from p. Set *PLEN to the number of
bytes read. */
static inline unsigned long
read_uleb128 (unsigned char *data,
unsigned int *length_return,
const unsigned char * const end)
{
return read_leb128 (data, length_return, FALSE, end);
}
/* Return true if the current file is for IA-64 machine and OpenVMS ABI.
This OS has so many departures from the ELF standard that we test it at
many places. */
static inline int
is_ia64_vms (void)
{
return elf_header.e_machine == EM_IA_64
&& elf_header.e_ident[EI_OSABI] == ELFOSABI_OPENVMS;
}
/* Guess the relocation size commonly used by the specific machines. */
static int
guess_is_rela (unsigned int e_machine)
{
switch (e_machine)
{
/* Targets that use REL relocations. */
case EM_386:
case EM_IAMCU:
case EM_960:
case EM_ARM:
case EM_D10V:
case EM_CYGNUS_D10V:
case EM_DLX:
case EM_MIPS:
case EM_MIPS_RS3_LE:
case EM_CYGNUS_M32R:
case EM_SCORE:
case EM_XGATE:
return FALSE;
/* Targets that use RELA relocations. */
case EM_68K:
case EM_860:
case EM_AARCH64:
case EM_ADAPTEVA_EPIPHANY:
case EM_ALPHA:
case EM_ALTERA_NIOS2:
case EM_ARC:
case EM_ARC_COMPACT:
case EM_ARC_COMPACT2:
case EM_AVR:
case EM_AVR_OLD:
case EM_BLACKFIN:
case EM_CR16:
case EM_CRIS:
case EM_CRX:
case EM_D30V:
case EM_CYGNUS_D30V:
case EM_FR30:
case EM_FT32:
case EM_CYGNUS_FR30:
case EM_CYGNUS_FRV:
case EM_H8S:
case EM_H8_300:
case EM_H8_300H:
case EM_IA_64:
case EM_IP2K:
case EM_IP2K_OLD:
case EM_IQ2000:
case EM_LATTICEMICO32:
case EM_M32C_OLD:
case EM_M32C:
case EM_M32R:
case EM_MCORE:
case EM_CYGNUS_MEP:
case EM_METAG:
case EM_MMIX:
case EM_MN10200:
case EM_CYGNUS_MN10200:
case EM_MN10300:
case EM_CYGNUS_MN10300:
case EM_MOXIE:
case EM_MSP430:
case EM_MSP430_OLD:
case EM_MT:
case EM_NDS32:
case EM_NIOS32:
case EM_OR1K:
case EM_PPC64:
case EM_PPC:
case EM_RISCV:
case EM_RL78:
case EM_RX:
case EM_S390:
case EM_S390_OLD:
case EM_SH:
case EM_SPARC:
case EM_SPARC32PLUS:
case EM_SPARCV9:
case EM_SPU:
case EM_TI_C6000:
case EM_TILEGX:
case EM_TILEPRO:
case EM_V800:
case EM_V850:
case EM_CYGNUS_V850:
case EM_VAX:
case EM_VISIUM:
case EM_X86_64:
case EM_L1OM:
case EM_K1OM:
case EM_XSTORMY16:
case EM_XTENSA:
case EM_XTENSA_OLD:
case EM_MICROBLAZE:
case EM_MICROBLAZE_OLD:
return TRUE;
case EM_68HC05:
case EM_68HC08:
case EM_68HC11:
case EM_68HC16:
case EM_FX66:
case EM_ME16:
case EM_MMA:
case EM_NCPU:
case EM_NDR1:
case EM_PCP:
case EM_ST100:
case EM_ST19:
case EM_ST7:
case EM_ST9PLUS:
case EM_STARCORE:
case EM_SVX:
case EM_TINYJ:
default:
warn (_("Don't know about relocations on this machine architecture\n"));
return FALSE;
}
}
static int
slurp_rela_relocs (FILE * file,
unsigned long rel_offset,
unsigned long rel_size,
Elf_Internal_Rela ** relasp,
unsigned long * nrelasp)
{
Elf_Internal_Rela * relas;
size_t nrelas;
unsigned int i;
if (is_32bit_elf)
{
Elf32_External_Rela * erelas;
erelas = (Elf32_External_Rela *) get_data (NULL, file, rel_offset, 1,
rel_size, _("32-bit relocation data"));
if (!erelas)
return 0;
nrelas = rel_size / sizeof (Elf32_External_Rela);
relas = (Elf_Internal_Rela *) cmalloc (nrelas,
sizeof (Elf_Internal_Rela));
if (relas == NULL)
{
free (erelas);
error (_("out of memory parsing relocs\n"));
return 0;
}
for (i = 0; i < nrelas; i++)
{
relas[i].r_offset = BYTE_GET (erelas[i].r_offset);
relas[i].r_info = BYTE_GET (erelas[i].r_info);
relas[i].r_addend = BYTE_GET_SIGNED (erelas[i].r_addend);
}
free (erelas);
}
else
{
Elf64_External_Rela * erelas;
erelas = (Elf64_External_Rela *) get_data (NULL, file, rel_offset, 1,
rel_size, _("64-bit relocation data"));
if (!erelas)
return 0;
nrelas = rel_size / sizeof (Elf64_External_Rela);
relas = (Elf_Internal_Rela *) cmalloc (nrelas,
sizeof (Elf_Internal_Rela));
if (relas == NULL)
{
free (erelas);
error (_("out of memory parsing relocs\n"));
return 0;
}
for (i = 0; i < nrelas; i++)
{
relas[i].r_offset = BYTE_GET (erelas[i].r_offset);
relas[i].r_info = BYTE_GET (erelas[i].r_info);
relas[i].r_addend = BYTE_GET_SIGNED (erelas[i].r_addend);
/* The #ifdef BFD64 below is to prevent a compile time
warning. We know that if we do not have a 64 bit data
type that we will never execute this code anyway. */
#ifdef BFD64
if (elf_header.e_machine == EM_MIPS
&& elf_header.e_ident[EI_DATA] != ELFDATA2MSB)
{
/* In little-endian objects, r_info isn't really a
64-bit little-endian value: it has a 32-bit
little-endian symbol index followed by four
individual byte fields. Reorder INFO
accordingly. */
bfd_vma inf = relas[i].r_info;
inf = (((inf & 0xffffffff) << 32)
| ((inf >> 56) & 0xff)
| ((inf >> 40) & 0xff00)
| ((inf >> 24) & 0xff0000)
| ((inf >> 8) & 0xff000000));
relas[i].r_info = inf;
}
#endif /* BFD64 */
}
free (erelas);
}
*relasp = relas;
*nrelasp = nrelas;
return 1;
}
static int
slurp_rel_relocs (FILE * file,
unsigned long rel_offset,
unsigned long rel_size,
Elf_Internal_Rela ** relsp,
unsigned long * nrelsp)
{
Elf_Internal_Rela * rels;
size_t nrels;
unsigned int i;
if (is_32bit_elf)
{
Elf32_External_Rel * erels;
erels = (Elf32_External_Rel *) get_data (NULL, file, rel_offset, 1,
rel_size, _("32-bit relocation data"));
if (!erels)
return 0;
nrels = rel_size / sizeof (Elf32_External_Rel);
rels = (Elf_Internal_Rela *) cmalloc (nrels, sizeof (Elf_Internal_Rela));
if (rels == NULL)
{
free (erels);
error (_("out of memory parsing relocs\n"));
return 0;
}
for (i = 0; i < nrels; i++)
{
rels[i].r_offset = BYTE_GET (erels[i].r_offset);
rels[i].r_info = BYTE_GET (erels[i].r_info);
rels[i].r_addend = 0;
}
free (erels);
}
else
{
Elf64_External_Rel * erels;
erels = (Elf64_External_Rel *) get_data (NULL, file, rel_offset, 1,
rel_size, _("64-bit relocation data"));
if (!erels)
return 0;
nrels = rel_size / sizeof (Elf64_External_Rel);
rels = (Elf_Internal_Rela *) cmalloc (nrels, sizeof (Elf_Internal_Rela));
if (rels == NULL)
{
free (erels);
error (_("out of memory parsing relocs\n"));
return 0;
}
for (i = 0; i < nrels; i++)
{
rels[i].r_offset = BYTE_GET (erels[i].r_offset);
rels[i].r_info = BYTE_GET (erels[i].r_info);
rels[i].r_addend = 0;
/* The #ifdef BFD64 below is to prevent a compile time
warning. We know that if we do not have a 64 bit data
type that we will never execute this code anyway. */
#ifdef BFD64
if (elf_header.e_machine == EM_MIPS
&& elf_header.e_ident[EI_DATA] != ELFDATA2MSB)
{
/* In little-endian objects, r_info isn't really a
64-bit little-endian value: it has a 32-bit
little-endian symbol index followed by four
individual byte fields. Reorder INFO
accordingly. */
bfd_vma inf = rels[i].r_info;
inf = (((inf & 0xffffffff) << 32)
| ((inf >> 56) & 0xff)
| ((inf >> 40) & 0xff00)
| ((inf >> 24) & 0xff0000)
| ((inf >> 8) & 0xff000000));
rels[i].r_info = inf;
}
#endif /* BFD64 */
}
free (erels);
}
*relsp = rels;
*nrelsp = nrels;
return 1;
}
/* Returns the reloc type extracted from the reloc info field. */
static unsigned int
get_reloc_type (bfd_vma reloc_info)
{
if (is_32bit_elf)
return ELF32_R_TYPE (reloc_info);
switch (elf_header.e_machine)
{
case EM_MIPS:
/* Note: We assume that reloc_info has already been adjusted for us. */
return ELF64_MIPS_R_TYPE (reloc_info);
case EM_SPARCV9:
return ELF64_R_TYPE_ID (reloc_info);
default:
return ELF64_R_TYPE (reloc_info);
}
}
/* Return the symbol index extracted from the reloc info field. */
static bfd_vma
get_reloc_symindex (bfd_vma reloc_info)
{
return is_32bit_elf ? ELF32_R_SYM (reloc_info) : ELF64_R_SYM (reloc_info);
}
static inline bfd_boolean
uses_msp430x_relocs (void)
{
return
elf_header.e_machine == EM_MSP430 /* Paranoia. */
/* GCC uses osabi == ELFOSBI_STANDALONE. */
&& (((elf_header.e_flags & EF_MSP430_MACH) == E_MSP430_MACH_MSP430X)
/* TI compiler uses ELFOSABI_NONE. */
|| (elf_header.e_ident[EI_OSABI] == ELFOSABI_NONE));
}
/* Display the contents of the relocation data found at the specified
offset. */
static void
dump_relocations (FILE * file,
unsigned long rel_offset,
unsigned long rel_size,
Elf_Internal_Sym * symtab,
unsigned long nsyms,
char * strtab,
unsigned long strtablen,
int is_rela,
int is_dynsym)
{
unsigned int i;
Elf_Internal_Rela * rels;
if (is_rela == UNKNOWN)
is_rela = guess_is_rela (elf_header.e_machine);
if (is_rela)
{
if (!slurp_rela_relocs (file, rel_offset, rel_size, &rels, &rel_size))
return;
}
else
{
if (!slurp_rel_relocs (file, rel_offset, rel_size, &rels, &rel_size))
return;
}
if (is_32bit_elf)
{
if (is_rela)
{
if (do_wide)
printf (_(" Offset Info Type Sym. Value Symbol's Name + Addend\n"));
else
printf (_(" Offset Info Type Sym.Value Sym. Name + Addend\n"));
}
else
{
if (do_wide)
printf (_(" Offset Info Type Sym. Value Symbol's Name\n"));
else
printf (_(" Offset Info Type Sym.Value Sym. Name\n"));
}
}
else
{
if (is_rela)
{
if (do_wide)
printf (_(" Offset Info Type Symbol's Value Symbol's Name + Addend\n"));
else
printf (_(" Offset Info Type Sym. Value Sym. Name + Addend\n"));
}
else
{
if (do_wide)
printf (_(" Offset Info Type Symbol's Value Symbol's Name\n"));
else
printf (_(" Offset Info Type Sym. Value Sym. Name\n"));
}
}
for (i = 0; i < rel_size; i++)
{
const char * rtype;
bfd_vma offset;
bfd_vma inf;
bfd_vma symtab_index;
bfd_vma type;
offset = rels[i].r_offset;
inf = rels[i].r_info;
type = get_reloc_type (inf);
symtab_index = get_reloc_symindex (inf);
if (is_32bit_elf)
{
printf ("%8.8lx %8.8lx ",
(unsigned long) offset & 0xffffffff,
(unsigned long) inf & 0xffffffff);
}
else
{
#if BFD_HOST_64BIT_LONG
printf (do_wide
? "%16.16lx %16.16lx "
: "%12.12lx %12.12lx ",
offset, inf);
#elif BFD_HOST_64BIT_LONG_LONG
#ifndef __MSVCRT__
printf (do_wide
? "%16.16llx %16.16llx "
: "%12.12llx %12.12llx ",
offset, inf);
#else
printf (do_wide
? "%16.16I64x %16.16I64x "
: "%12.12I64x %12.12I64x ",
offset, inf);
#endif
#else
printf (do_wide
? "%8.8lx%8.8lx %8.8lx%8.8lx "
: "%4.4lx%8.8lx %4.4lx%8.8lx ",
_bfd_int64_high (offset),
_bfd_int64_low (offset),
_bfd_int64_high (inf),
_bfd_int64_low (inf));
#endif
}
switch (elf_header.e_machine)
{
default:
rtype = NULL;
break;
case EM_AARCH64:
rtype = elf_aarch64_reloc_type (type);
break;
case EM_M32R:
case EM_CYGNUS_M32R:
rtype = elf_m32r_reloc_type (type);
break;
case EM_386:
case EM_IAMCU:
rtype = elf_i386_reloc_type (type);
break;
case EM_68HC11:
case EM_68HC12:
rtype = elf_m68hc11_reloc_type (type);
break;
case EM_68K:
rtype = elf_m68k_reloc_type (type);
break;
case EM_960:
rtype = elf_i960_reloc_type (type);
break;
case EM_AVR:
case EM_AVR_OLD:
rtype = elf_avr_reloc_type (type);
break;
case EM_OLD_SPARCV9:
case EM_SPARC32PLUS:
case EM_SPARCV9:
case EM_SPARC:
rtype = elf_sparc_reloc_type (type);
break;
case EM_SPU:
rtype = elf_spu_reloc_type (type);
break;
case EM_V800:
rtype = v800_reloc_type (type);
break;
case EM_V850:
case EM_CYGNUS_V850:
rtype = v850_reloc_type (type);
break;
case EM_D10V:
case EM_CYGNUS_D10V:
rtype = elf_d10v_reloc_type (type);
break;
case EM_D30V:
case EM_CYGNUS_D30V:
rtype = elf_d30v_reloc_type (type);
break;
case EM_DLX:
rtype = elf_dlx_reloc_type (type);
break;
case EM_SH:
rtype = elf_sh_reloc_type (type);
break;
case EM_MN10300:
case EM_CYGNUS_MN10300:
rtype = elf_mn10300_reloc_type (type);
break;
case EM_MN10200:
case EM_CYGNUS_MN10200:
rtype = elf_mn10200_reloc_type (type);
break;
case EM_FR30:
case EM_CYGNUS_FR30:
rtype = elf_fr30_reloc_type (type);
break;
case EM_CYGNUS_FRV:
rtype = elf_frv_reloc_type (type);
break;
case EM_FT32:
rtype = elf_ft32_reloc_type (type);
break;
case EM_MCORE:
rtype = elf_mcore_reloc_type (type);
break;
case EM_MMIX:
rtype = elf_mmix_reloc_type (type);
break;
case EM_MOXIE:
rtype = elf_moxie_reloc_type (type);
break;
case EM_MSP430:
if (uses_msp430x_relocs ())
{
rtype = elf_msp430x_reloc_type (type);
break;
}
/* Fall through. */
case EM_MSP430_OLD:
rtype = elf_msp430_reloc_type (type);
break;
case EM_NDS32:
rtype = elf_nds32_reloc_type (type);
break;
case EM_PPC:
rtype = elf_ppc_reloc_type (type);
break;
case EM_PPC64:
rtype = elf_ppc64_reloc_type (type);
break;
case EM_MIPS:
case EM_MIPS_RS3_LE:
rtype = elf_mips_reloc_type (type);
break;
case EM_RISCV:
rtype = elf_riscv_reloc_type (type);
break;
case EM_ALPHA:
rtype = elf_alpha_reloc_type (type);
break;
case EM_ARM:
rtype = elf_arm_reloc_type (type);
break;
case EM_ARC:
case EM_ARC_COMPACT:
case EM_ARC_COMPACT2:
rtype = elf_arc_reloc_type (type);
break;
case EM_PARISC:
rtype = elf_hppa_reloc_type (type);
break;
case EM_H8_300:
case EM_H8_300H:
case EM_H8S:
rtype = elf_h8_reloc_type (type);
break;
case EM_OR1K:
rtype = elf_or1k_reloc_type (type);
break;
case EM_PJ:
case EM_PJ_OLD:
rtype = elf_pj_reloc_type (type);
break;
case EM_IA_64:
rtype = elf_ia64_reloc_type (type);
break;
case EM_CRIS:
rtype = elf_cris_reloc_type (type);
break;
case EM_860:
rtype = elf_i860_reloc_type (type);
break;
case EM_X86_64:
case EM_L1OM:
case EM_K1OM:
rtype = elf_x86_64_reloc_type (type);
break;
case EM_S370:
rtype = i370_reloc_type (type);
break;
case EM_S390_OLD:
case EM_S390:
rtype = elf_s390_reloc_type (type);
break;
case EM_SCORE:
rtype = elf_score_reloc_type (type);
break;
case EM_XSTORMY16:
rtype = elf_xstormy16_reloc_type (type);
break;
case EM_CRX:
rtype = elf_crx_reloc_type (type);
break;
case EM_VAX:
rtype = elf_vax_reloc_type (type);
break;
case EM_VISIUM:
rtype = elf_visium_reloc_type (type);
break;
case EM_ADAPTEVA_EPIPHANY:
rtype = elf_epiphany_reloc_type (type);
break;
case EM_IP2K:
case EM_IP2K_OLD:
rtype = elf_ip2k_reloc_type (type);
break;
case EM_IQ2000:
rtype = elf_iq2000_reloc_type (type);
break;
case EM_XTENSA_OLD:
case EM_XTENSA:
rtype = elf_xtensa_reloc_type (type);
break;
case EM_LATTICEMICO32:
rtype = elf_lm32_reloc_type (type);
break;
case EM_M32C_OLD:
case EM_M32C:
rtype = elf_m32c_reloc_type (type);
break;
case EM_MT:
rtype = elf_mt_reloc_type (type);
break;
case EM_BLACKFIN:
rtype = elf_bfin_reloc_type (type);
break;
case EM_CYGNUS_MEP:
rtype = elf_mep_reloc_type (type);
break;
case EM_CR16:
rtype = elf_cr16_reloc_type (type);
break;
case EM_MICROBLAZE:
case EM_MICROBLAZE_OLD:
rtype = elf_microblaze_reloc_type (type);
break;
case EM_RL78:
rtype = elf_rl78_reloc_type (type);
break;
case EM_RX:
rtype = elf_rx_reloc_type (type);
break;
case EM_METAG:
rtype = elf_metag_reloc_type (type);
break;
case EM_XC16X:
case EM_C166:
rtype = elf_xc16x_reloc_type (type);
break;
case EM_TI_C6000:
rtype = elf_tic6x_reloc_type (type);
break;
case EM_TILEGX:
rtype = elf_tilegx_reloc_type (type);
break;
case EM_TILEPRO:
rtype = elf_tilepro_reloc_type (type);
break;
case EM_XGATE:
rtype = elf_xgate_reloc_type (type);
break;
case EM_ALTERA_NIOS2:
rtype = elf_nios2_reloc_type (type);
break;
}
if (rtype == NULL)
printf (_("unrecognized: %-7lx"), (unsigned long) type & 0xffffffff);
else
printf (do_wide ? "%-22.22s" : "%-17.17s", rtype);
if (elf_header.e_machine == EM_ALPHA
&& rtype != NULL
&& streq (rtype, "R_ALPHA_LITUSE")
&& is_rela)
{
switch (rels[i].r_addend)
{
case LITUSE_ALPHA_ADDR: rtype = "ADDR"; break;
case LITUSE_ALPHA_BASE: rtype = "BASE"; break;
case LITUSE_ALPHA_BYTOFF: rtype = "BYTOFF"; break;
case LITUSE_ALPHA_JSR: rtype = "JSR"; break;
case LITUSE_ALPHA_TLSGD: rtype = "TLSGD"; break;
case LITUSE_ALPHA_TLSLDM: rtype = "TLSLDM"; break;
case LITUSE_ALPHA_JSRDIRECT: rtype = "JSRDIRECT"; break;
default: rtype = NULL;
}
if (rtype)
printf (" (%s)", rtype);
else
{
putchar (' ');
printf (_("<unknown addend: %lx>"),
(unsigned long) rels[i].r_addend);
}
}
else if (symtab_index)
{
if (symtab == NULL || symtab_index >= nsyms)
printf (_(" bad symbol index: %08lx"), (unsigned long) symtab_index);
else
{
Elf_Internal_Sym * psym;
const char * version_string;
enum versioned_symbol_info sym_info;
unsigned short vna_other;
psym = symtab + symtab_index;
version_string
= get_symbol_version_string (file, is_dynsym,
strtab, strtablen,
symtab_index,
psym,
&sym_info,
&vna_other);
printf (" ");
if (ELF_ST_TYPE (psym->st_info) == STT_GNU_IFUNC)
{
const char * name;
unsigned int len;
unsigned int width = is_32bit_elf ? 8 : 14;
/* Relocations against GNU_IFUNC symbols do not use the value
of the symbol as the address to relocate against. Instead
they invoke the function named by the symbol and use its
result as the address for relocation.
To indicate this to the user, do not display the value of
the symbol in the "Symbols's Value" field. Instead show
its name followed by () as a hint that the symbol is
invoked. */
if (strtab == NULL
|| psym->st_name == 0
|| psym->st_name >= strtablen)
name = "??";
else
name = strtab + psym->st_name;
len = print_symbol (width, name);
if (version_string)
printf (sym_info == symbol_public ? "@@%s" : "@%s",
version_string);
printf ("()%-*s", len <= width ? (width + 1) - len : 1, " ");
}
else
{
print_vma (psym->st_value, LONG_HEX);
printf (is_32bit_elf ? " " : " ");
}
if (psym->st_name == 0)
{
const char * sec_name = "<null>";
char name_buf[40];
if (ELF_ST_TYPE (psym->st_info) == STT_SECTION)
{
if (psym->st_shndx < elf_header.e_shnum)
sec_name = SECTION_NAME (section_headers + psym->st_shndx);
else if (psym->st_shndx == SHN_ABS)
sec_name = "ABS";
else if (psym->st_shndx == SHN_COMMON)
sec_name = "COMMON";
else if ((elf_header.e_machine == EM_MIPS
&& psym->st_shndx == SHN_MIPS_SCOMMON)
|| (elf_header.e_machine == EM_TI_C6000
&& psym->st_shndx == SHN_TIC6X_SCOMMON))
sec_name = "SCOMMON";
else if (elf_header.e_machine == EM_MIPS
&& psym->st_shndx == SHN_MIPS_SUNDEFINED)
sec_name = "SUNDEF";
else if ((elf_header.e_machine == EM_X86_64
|| elf_header.e_machine == EM_L1OM
|| elf_header.e_machine == EM_K1OM)
&& psym->st_shndx == SHN_X86_64_LCOMMON)
sec_name = "LARGE_COMMON";
else if (elf_header.e_machine == EM_IA_64
&& elf_header.e_ident[EI_OSABI] == ELFOSABI_HPUX
&& psym->st_shndx == SHN_IA_64_ANSI_COMMON)
sec_name = "ANSI_COM";
else if (is_ia64_vms ()
&& psym->st_shndx == SHN_IA_64_VMS_SYMVEC)
sec_name = "VMS_SYMVEC";
else
{
sprintf (name_buf, "<section 0x%x>",
(unsigned int) psym->st_shndx);
sec_name = name_buf;
}
}
print_symbol (22, sec_name);
}
else if (strtab == NULL)
printf (_("<string table index: %3ld>"), psym->st_name);
else if (psym->st_name >= strtablen)
printf (_("<corrupt string table index: %3ld>"), psym->st_name);
else
{
print_symbol (22, strtab + psym->st_name);
if (version_string)
printf (sym_info == symbol_public ? "@@%s" : "@%s",
version_string);
}
if (is_rela)
{
bfd_vma off = rels[i].r_addend;
if ((bfd_signed_vma) off < 0)
printf (" - %" BFD_VMA_FMT "x", - off);
else
printf (" + %" BFD_VMA_FMT "x", off);
}
}
}
else if (is_rela)
{
bfd_vma off = rels[i].r_addend;
printf ("%*c", is_32bit_elf ? 12 : 20, ' ');
if ((bfd_signed_vma) off < 0)
printf ("-%" BFD_VMA_FMT "x", - off);
else
printf ("%" BFD_VMA_FMT "x", off);
}
if (elf_header.e_machine == EM_SPARCV9
&& rtype != NULL
&& streq (rtype, "R_SPARC_OLO10"))
printf (" + %lx", (unsigned long) ELF64_R_TYPE_DATA (inf));
putchar ('\n');
#ifdef BFD64
if (! is_32bit_elf && elf_header.e_machine == EM_MIPS)
{
bfd_vma type2 = ELF64_MIPS_R_TYPE2 (inf);
bfd_vma type3 = ELF64_MIPS_R_TYPE3 (inf);
const char * rtype2 = elf_mips_reloc_type (type2);
const char * rtype3 = elf_mips_reloc_type (type3);
printf (" Type2: ");
if (rtype2 == NULL)
printf (_("unrecognized: %-7lx"),
(unsigned long) type2 & 0xffffffff);
else
printf ("%-17.17s", rtype2);
printf ("\n Type3: ");
if (rtype3 == NULL)
printf (_("unrecognized: %-7lx"),
(unsigned long) type3 & 0xffffffff);
else
printf ("%-17.17s", rtype3);
putchar ('\n');
}
#endif /* BFD64 */
}
free (rels);
}
static const char *
get_mips_dynamic_type (unsigned long type)
{
switch (type)
{
case DT_MIPS_RLD_VERSION: return "MIPS_RLD_VERSION";
case DT_MIPS_TIME_STAMP: return "MIPS_TIME_STAMP";
case DT_MIPS_ICHECKSUM: return "MIPS_ICHECKSUM";
case DT_MIPS_IVERSION: return "MIPS_IVERSION";
case DT_MIPS_FLAGS: return "MIPS_FLAGS";
case DT_MIPS_BASE_ADDRESS: return "MIPS_BASE_ADDRESS";
case DT_MIPS_MSYM: return "MIPS_MSYM";
case DT_MIPS_CONFLICT: return "MIPS_CONFLICT";
case DT_MIPS_LIBLIST: return "MIPS_LIBLIST";
case DT_MIPS_LOCAL_GOTNO: return "MIPS_LOCAL_GOTNO";
case DT_MIPS_CONFLICTNO: return "MIPS_CONFLICTNO";
case DT_MIPS_LIBLISTNO: return "MIPS_LIBLISTNO";
case DT_MIPS_SYMTABNO: return "MIPS_SYMTABNO";
case DT_MIPS_UNREFEXTNO: return "MIPS_UNREFEXTNO";
case DT_MIPS_GOTSYM: return "MIPS_GOTSYM";
case DT_MIPS_HIPAGENO: return "MIPS_HIPAGENO";
case DT_MIPS_RLD_MAP: return "MIPS_RLD_MAP";
case DT_MIPS_RLD_MAP_REL: return "MIPS_RLD_MAP_REL";
case DT_MIPS_DELTA_CLASS: return "MIPS_DELTA_CLASS";
case DT_MIPS_DELTA_CLASS_NO: return "MIPS_DELTA_CLASS_NO";
case DT_MIPS_DELTA_INSTANCE: return "MIPS_DELTA_INSTANCE";
case DT_MIPS_DELTA_INSTANCE_NO: return "MIPS_DELTA_INSTANCE_NO";
case DT_MIPS_DELTA_RELOC: return "MIPS_DELTA_RELOC";
case DT_MIPS_DELTA_RELOC_NO: return "MIPS_DELTA_RELOC_NO";
case DT_MIPS_DELTA_SYM: return "MIPS_DELTA_SYM";
case DT_MIPS_DELTA_SYM_NO: return "MIPS_DELTA_SYM_NO";
case DT_MIPS_DELTA_CLASSSYM: return "MIPS_DELTA_CLASSSYM";
case DT_MIPS_DELTA_CLASSSYM_NO: return "MIPS_DELTA_CLASSSYM_NO";
case DT_MIPS_CXX_FLAGS: return "MIPS_CXX_FLAGS";
case DT_MIPS_PIXIE_INIT: return "MIPS_PIXIE_INIT";
case DT_MIPS_SYMBOL_LIB: return "MIPS_SYMBOL_LIB";
case DT_MIPS_LOCALPAGE_GOTIDX: return "MIPS_LOCALPAGE_GOTIDX";
case DT_MIPS_LOCAL_GOTIDX: return "MIPS_LOCAL_GOTIDX";
case DT_MIPS_HIDDEN_GOTIDX: return "MIPS_HIDDEN_GOTIDX";
case DT_MIPS_PROTECTED_GOTIDX: return "MIPS_PROTECTED_GOTIDX";
case DT_MIPS_OPTIONS: return "MIPS_OPTIONS";
case DT_MIPS_INTERFACE: return "MIPS_INTERFACE";
case DT_MIPS_DYNSTR_ALIGN: return "MIPS_DYNSTR_ALIGN";
case DT_MIPS_INTERFACE_SIZE: return "MIPS_INTERFACE_SIZE";
case DT_MIPS_RLD_TEXT_RESOLVE_ADDR: return "MIPS_RLD_TEXT_RESOLVE_ADDR";
case DT_MIPS_PERF_SUFFIX: return "MIPS_PERF_SUFFIX";
case DT_MIPS_COMPACT_SIZE: return "MIPS_COMPACT_SIZE";
case DT_MIPS_GP_VALUE: return "MIPS_GP_VALUE";
case DT_MIPS_AUX_DYNAMIC: return "MIPS_AUX_DYNAMIC";
case DT_MIPS_PLTGOT: return "MIPS_PLTGOT";
case DT_MIPS_RWPLT: return "MIPS_RWPLT";
default:
return NULL;
}
}
static const char *
get_sparc64_dynamic_type (unsigned long type)
{
switch (type)
{
case DT_SPARC_REGISTER: return "SPARC_REGISTER";
default:
return NULL;
}
}
static const char *
get_ppc_dynamic_type (unsigned long type)
{
switch (type)
{
case DT_PPC_GOT: return "PPC_GOT";
case DT_PPC_OPT: return "PPC_OPT";
default:
return NULL;
}
}
static const char *
get_ppc64_dynamic_type (unsigned long type)
{
switch (type)
{
case DT_PPC64_GLINK: return "PPC64_GLINK";
case DT_PPC64_OPD: return "PPC64_OPD";
case DT_PPC64_OPDSZ: return "PPC64_OPDSZ";
case DT_PPC64_OPT: return "PPC64_OPT";
default:
return NULL;
}
}
static const char *
get_parisc_dynamic_type (unsigned long type)
{
switch (type)
{
case DT_HP_LOAD_MAP: return "HP_LOAD_MAP";
case DT_HP_DLD_FLAGS: return "HP_DLD_FLAGS";
case DT_HP_DLD_HOOK: return "HP_DLD_HOOK";
case DT_HP_UX10_INIT: return "HP_UX10_INIT";
case DT_HP_UX10_INITSZ: return "HP_UX10_INITSZ";
case DT_HP_PREINIT: return "HP_PREINIT";
case DT_HP_PREINITSZ: return "HP_PREINITSZ";
case DT_HP_NEEDED: return "HP_NEEDED";
case DT_HP_TIME_STAMP: return "HP_TIME_STAMP";
case DT_HP_CHECKSUM: return "HP_CHECKSUM";
case DT_HP_GST_SIZE: return "HP_GST_SIZE";
case DT_HP_GST_VERSION: return "HP_GST_VERSION";
case DT_HP_GST_HASHVAL: return "HP_GST_HASHVAL";
case DT_HP_EPLTREL: return "HP_GST_EPLTREL";
case DT_HP_EPLTRELSZ: return "HP_GST_EPLTRELSZ";
case DT_HP_FILTERED: return "HP_FILTERED";
case DT_HP_FILTER_TLS: return "HP_FILTER_TLS";
case DT_HP_COMPAT_FILTERED: return "HP_COMPAT_FILTERED";
case DT_HP_LAZYLOAD: return "HP_LAZYLOAD";
case DT_HP_BIND_NOW_COUNT: return "HP_BIND_NOW_COUNT";
case DT_PLT: return "PLT";
case DT_PLT_SIZE: return "PLT_SIZE";
case DT_DLT: return "DLT";
case DT_DLT_SIZE: return "DLT_SIZE";
default:
return NULL;
}
}
static const char *
get_ia64_dynamic_type (unsigned long type)
{
switch (type)
{
case DT_IA_64_PLT_RESERVE: return "IA_64_PLT_RESERVE";
case DT_IA_64_VMS_SUBTYPE: return "VMS_SUBTYPE";
case DT_IA_64_VMS_IMGIOCNT: return "VMS_IMGIOCNT";
case DT_IA_64_VMS_LNKFLAGS: return "VMS_LNKFLAGS";
case DT_IA_64_VMS_VIR_MEM_BLK_SIZ: return "VMS_VIR_MEM_BLK_SIZ";
case DT_IA_64_VMS_IDENT: return "VMS_IDENT";
case DT_IA_64_VMS_NEEDED_IDENT: return "VMS_NEEDED_IDENT";
case DT_IA_64_VMS_IMG_RELA_CNT: return "VMS_IMG_RELA_CNT";
case DT_IA_64_VMS_SEG_RELA_CNT: return "VMS_SEG_RELA_CNT";
case DT_IA_64_VMS_FIXUP_RELA_CNT: return "VMS_FIXUP_RELA_CNT";
case DT_IA_64_VMS_FIXUP_NEEDED: return "VMS_FIXUP_NEEDED";
case DT_IA_64_VMS_SYMVEC_CNT: return "VMS_SYMVEC_CNT";
case DT_IA_64_VMS_XLATED: return "VMS_XLATED";
case DT_IA_64_VMS_STACKSIZE: return "VMS_STACKSIZE";
case DT_IA_64_VMS_UNWINDSZ: return "VMS_UNWINDSZ";
case DT_IA_64_VMS_UNWIND_CODSEG: return "VMS_UNWIND_CODSEG";
case DT_IA_64_VMS_UNWIND_INFOSEG: return "VMS_UNWIND_INFOSEG";
case DT_IA_64_VMS_LINKTIME: return "VMS_LINKTIME";
case DT_IA_64_VMS_SEG_NO: return "VMS_SEG_NO";
case DT_IA_64_VMS_SYMVEC_OFFSET: return "VMS_SYMVEC_OFFSET";
case DT_IA_64_VMS_SYMVEC_SEG: return "VMS_SYMVEC_SEG";
case DT_IA_64_VMS_UNWIND_OFFSET: return "VMS_UNWIND_OFFSET";
case DT_IA_64_VMS_UNWIND_SEG: return "VMS_UNWIND_SEG";
case DT_IA_64_VMS_STRTAB_OFFSET: return "VMS_STRTAB_OFFSET";
case DT_IA_64_VMS_SYSVER_OFFSET: return "VMS_SYSVER_OFFSET";
case DT_IA_64_VMS_IMG_RELA_OFF: return "VMS_IMG_RELA_OFF";
case DT_IA_64_VMS_SEG_RELA_OFF: return "VMS_SEG_RELA_OFF";
case DT_IA_64_VMS_FIXUP_RELA_OFF: return "VMS_FIXUP_RELA_OFF";
case DT_IA_64_VMS_PLTGOT_OFFSET: return "VMS_PLTGOT_OFFSET";
case DT_IA_64_VMS_PLTGOT_SEG: return "VMS_PLTGOT_SEG";
case DT_IA_64_VMS_FPMODE: return "VMS_FPMODE";
default:
return NULL;
}
}
static const char *
get_solaris_section_type (unsigned long type)
{
switch (type)
{
case 0x6fffffee: return "SUNW_ancillary";
case 0x6fffffef: return "SUNW_capchain";
case 0x6ffffff0: return "SUNW_capinfo";
case 0x6ffffff1: return "SUNW_symsort";
case 0x6ffffff2: return "SUNW_tlssort";
case 0x6ffffff3: return "SUNW_LDYNSYM";
case 0x6ffffff4: return "SUNW_dof";
case 0x6ffffff5: return "SUNW_cap";
case 0x6ffffff6: return "SUNW_SIGNATURE";
case 0x6ffffff7: return "SUNW_ANNOTATE";
case 0x6ffffff8: return "SUNW_DEBUGSTR";
case 0x6ffffff9: return "SUNW_DEBUG";
case 0x6ffffffa: return "SUNW_move";
case 0x6ffffffb: return "SUNW_COMDAT";
case 0x6ffffffc: return "SUNW_syminfo";
case 0x6ffffffd: return "SUNW_verdef";
case 0x6ffffffe: return "SUNW_verneed";
case 0x6fffffff: return "SUNW_versym";
case 0x70000000: return "SPARC_GOTDATA";
default: return NULL;
}
}
static const char *
get_alpha_dynamic_type (unsigned long type)
{
switch (type)
{
case DT_ALPHA_PLTRO: return "ALPHA_PLTRO";
default:
return NULL;
}
}
static const char *
get_score_dynamic_type (unsigned long type)
{
switch (type)
{
case DT_SCORE_BASE_ADDRESS: return "SCORE_BASE_ADDRESS";
case DT_SCORE_LOCAL_GOTNO: return "SCORE_LOCAL_GOTNO";
case DT_SCORE_SYMTABNO: return "SCORE_SYMTABNO";
case DT_SCORE_GOTSYM: return "SCORE_GOTSYM";
case DT_SCORE_UNREFEXTNO: return "SCORE_UNREFEXTNO";
case DT_SCORE_HIPAGENO: return "SCORE_HIPAGENO";
default:
return NULL;
}
}
static const char *
get_tic6x_dynamic_type (unsigned long type)
{
switch (type)
{
case DT_C6000_GSYM_OFFSET: return "C6000_GSYM_OFFSET";
case DT_C6000_GSTR_OFFSET: return "C6000_GSTR_OFFSET";
case DT_C6000_DSBT_BASE: return "C6000_DSBT_BASE";
case DT_C6000_DSBT_SIZE: return "C6000_DSBT_SIZE";
case DT_C6000_PREEMPTMAP: return "C6000_PREEMPTMAP";
case DT_C6000_DSBT_INDEX: return "C6000_DSBT_INDEX";
default:
return NULL;
}
}
static const char *
get_nios2_dynamic_type (unsigned long type)
{
switch (type)
{
case DT_NIOS2_GP: return "NIOS2_GP";
default:
return NULL;
}
}
static const char *
get_solaris_dynamic_type (unsigned long type)
{
switch (type)
{
case 0x6000000d: return "SUNW_AUXILIARY";
case 0x6000000e: return "SUNW_RTLDINF";
case 0x6000000f: return "SUNW_FILTER";
case 0x60000010: return "SUNW_CAP";
case 0x60000011: return "SUNW_SYMTAB";
case 0x60000012: return "SUNW_SYMSZ";
case 0x60000013: return "SUNW_SORTENT";
case 0x60000014: return "SUNW_SYMSORT";
case 0x60000015: return "SUNW_SYMSORTSZ";
case 0x60000016: return "SUNW_TLSSORT";
case 0x60000017: return "SUNW_TLSSORTSZ";
case 0x60000018: return "SUNW_CAPINFO";
case 0x60000019: return "SUNW_STRPAD";
case 0x6000001a: return "SUNW_CAPCHAIN";
case 0x6000001b: return "SUNW_LDMACH";
case 0x6000001d: return "SUNW_CAPCHAINENT";
case 0x6000001f: return "SUNW_CAPCHAINSZ";
case 0x60000021: return "SUNW_PARENT";
case 0x60000023: return "SUNW_ASLR";
case 0x60000025: return "SUNW_RELAX";
case 0x60000029: return "SUNW_NXHEAP";
case 0x6000002b: return "SUNW_NXSTACK";
case 0x70000001: return "SPARC_REGISTER";
case 0x7ffffffd: return "AUXILIARY";
case 0x7ffffffe: return "USED";
case 0x7fffffff: return "FILTER";
default: return NULL;
}
}
static const char *
get_dynamic_type (unsigned long type)
{
static char buff[64];
switch (type)
{
case DT_NULL: return "NULL";
case DT_NEEDED: return "NEEDED";
case DT_PLTRELSZ: return "PLTRELSZ";
case DT_PLTGOT: return "PLTGOT";
case DT_HASH: return "HASH";
case DT_STRTAB: return "STRTAB";
case DT_SYMTAB: return "SYMTAB";
case DT_RELA: return "RELA";
case DT_RELASZ: return "RELASZ";
case DT_RELAENT: return "RELAENT";
case DT_STRSZ: return "STRSZ";
case DT_SYMENT: return "SYMENT";
case DT_INIT: return "INIT";
case DT_FINI: return "FINI";
case DT_SONAME: return "SONAME";
case DT_RPATH: return "RPATH";
case DT_SYMBOLIC: return "SYMBOLIC";
case DT_REL: return "REL";
case DT_RELSZ: return "RELSZ";
case DT_RELENT: return "RELENT";
case DT_PLTREL: return "PLTREL";
case DT_DEBUG: return "DEBUG";
case DT_TEXTREL: return "TEXTREL";
case DT_JMPREL: return "JMPREL";
case DT_BIND_NOW: return "BIND_NOW";
case DT_INIT_ARRAY: return "INIT_ARRAY";
case DT_FINI_ARRAY: return "FINI_ARRAY";
case DT_INIT_ARRAYSZ: return "INIT_ARRAYSZ";
case DT_FINI_ARRAYSZ: return "FINI_ARRAYSZ";
case DT_RUNPATH: return "RUNPATH";
case DT_FLAGS: return "FLAGS";
case DT_PREINIT_ARRAY: return "PREINIT_ARRAY";
case DT_PREINIT_ARRAYSZ: return "PREINIT_ARRAYSZ";
case DT_SYMTAB_SHNDX: return "SYMTAB_SHNDX";
case DT_CHECKSUM: return "CHECKSUM";
case DT_PLTPADSZ: return "PLTPADSZ";
case DT_MOVEENT: return "MOVEENT";
case DT_MOVESZ: return "MOVESZ";
case DT_FEATURE: return "FEATURE";
case DT_POSFLAG_1: return "POSFLAG_1";
case DT_SYMINSZ: return "SYMINSZ";
case DT_SYMINENT: return "SYMINENT"; /* aka VALRNGHI */
case DT_ADDRRNGLO: return "ADDRRNGLO";
case DT_CONFIG: return "CONFIG";
case DT_DEPAUDIT: return "DEPAUDIT";
case DT_AUDIT: return "AUDIT";
case DT_PLTPAD: return "PLTPAD";
case DT_MOVETAB: return "MOVETAB";
case DT_SYMINFO: return "SYMINFO"; /* aka ADDRRNGHI */
case DT_VERSYM: return "VERSYM";
case DT_TLSDESC_GOT: return "TLSDESC_GOT";
case DT_TLSDESC_PLT: return "TLSDESC_PLT";
case DT_RELACOUNT: return "RELACOUNT";
case DT_RELCOUNT: return "RELCOUNT";
case DT_FLAGS_1: return "FLAGS_1";
case DT_VERDEF: return "VERDEF";
case DT_VERDEFNUM: return "VERDEFNUM";
case DT_VERNEED: return "VERNEED";
case DT_VERNEEDNUM: return "VERNEEDNUM";
case DT_AUXILIARY: return "AUXILIARY";
case DT_USED: return "USED";
case DT_FILTER: return "FILTER";
case DT_GNU_PRELINKED: return "GNU_PRELINKED";
case DT_GNU_CONFLICT: return "GNU_CONFLICT";
case DT_GNU_CONFLICTSZ: return "GNU_CONFLICTSZ";
case DT_GNU_LIBLIST: return "GNU_LIBLIST";
case DT_GNU_LIBLISTSZ: return "GNU_LIBLISTSZ";
case DT_GNU_HASH: return "GNU_HASH";
default:
if ((type >= DT_LOPROC) && (type <= DT_HIPROC))
{
const char * result;
switch (elf_header.e_machine)
{
case EM_MIPS:
case EM_MIPS_RS3_LE:
result = get_mips_dynamic_type (type);
break;
case EM_SPARCV9:
result = get_sparc64_dynamic_type (type);
break;
case EM_PPC:
result = get_ppc_dynamic_type (type);
break;
case EM_PPC64:
result = get_ppc64_dynamic_type (type);
break;
case EM_IA_64:
result = get_ia64_dynamic_type (type);
break;
case EM_ALPHA:
result = get_alpha_dynamic_type (type);
break;
case EM_SCORE:
result = get_score_dynamic_type (type);
break;
case EM_TI_C6000:
result = get_tic6x_dynamic_type (type);
break;
case EM_ALTERA_NIOS2:
result = get_nios2_dynamic_type (type);
break;
default:
if (elf_header.e_ident[EI_OSABI] == ELFOSABI_SOLARIS)
result = get_solaris_dynamic_type (type);
else
result = NULL;
break;
}
if (result != NULL)
return result;
snprintf (buff, sizeof (buff), _("Processor Specific: %lx"), type);
}
else if (((type >= DT_LOOS) && (type <= DT_HIOS))
|| (elf_header.e_machine == EM_PARISC
&& (type >= OLD_DT_LOOS) && (type <= OLD_DT_HIOS)))
{
const char * result;
switch (elf_header.e_machine)
{
case EM_PARISC:
result = get_parisc_dynamic_type (type);
break;
case EM_IA_64:
result = get_ia64_dynamic_type (type);
break;
default:
if (elf_header.e_ident[EI_OSABI] == ELFOSABI_SOLARIS)
result = get_solaris_dynamic_type (type);
else
result = NULL;
break;
}
if (result != NULL)
return result;
snprintf (buff, sizeof (buff), _("Operating System specific: %lx"),
type);
}
else
snprintf (buff, sizeof (buff), _("<unknown>: %lx"), type);
return buff;
}
}
static char *
get_file_type (unsigned e_type)
{
static char buff[32];
switch (e_type)
{
case ET_NONE: return _("NONE (None)");
case ET_REL: return _("REL (Relocatable file)");
case ET_EXEC: return _("EXEC (Executable file)");
case ET_DYN: return _("DYN (Shared object file)");
case ET_CORE: return _("CORE (Core file)");
default:
if ((e_type >= ET_LOPROC) && (e_type <= ET_HIPROC))
snprintf (buff, sizeof (buff), _("Processor Specific: (%x)"), e_type);
else if ((e_type >= ET_LOOS) && (e_type <= ET_HIOS))
snprintf (buff, sizeof (buff), _("OS Specific: (%x)"), e_type);
else
snprintf (buff, sizeof (buff), _("<unknown>: %x"), e_type);
return buff;
}
}
static char *
get_machine_name (unsigned e_machine)
{
static char buff[64]; /* XXX */
switch (e_machine)
{
case EM_NONE: return _("None");
case EM_AARCH64: return "AArch64";
case EM_M32: return "WE32100";
case EM_SPARC: return "Sparc";
case EM_SPU: return "SPU";
case EM_386: return "Intel 80386";
case EM_68K: return "MC68000";
case EM_88K: return "MC88000";
case EM_IAMCU: return "Intel MCU";
case EM_860: return "Intel 80860";
case EM_MIPS: return "MIPS R3000";
case EM_S370: return "IBM System/370";
case EM_MIPS_RS3_LE: return "MIPS R4000 big-endian";
case EM_OLD_SPARCV9: return "Sparc v9 (old)";
case EM_PARISC: return "HPPA";
case EM_PPC_OLD: return "Power PC (old)";
case EM_SPARC32PLUS: return "Sparc v8+" ;
case EM_960: return "Intel 90860";
case EM_PPC: return "PowerPC";
case EM_PPC64: return "PowerPC64";
case EM_FR20: return "Fujitsu FR20";
case EM_FT32: return "FTDI FT32";
case EM_RH32: return "TRW RH32";
case EM_MCORE: return "MCORE";
case EM_ARM: return "ARM";
case EM_OLD_ALPHA: return "Digital Alpha (old)";
case EM_SH: return "Renesas / SuperH SH";
case EM_SPARCV9: return "Sparc v9";
case EM_TRICORE: return "Siemens Tricore";
case EM_ARC: return "ARC";
case EM_ARC_COMPACT: return "ARCompact";
case EM_ARC_COMPACT2: return "ARCv2";
case EM_H8_300: return "Renesas H8/300";
case EM_H8_300H: return "Renesas H8/300H";
case EM_H8S: return "Renesas H8S";
case EM_H8_500: return "Renesas H8/500";
case EM_IA_64: return "Intel IA-64";
case EM_MIPS_X: return "Stanford MIPS-X";
case EM_COLDFIRE: return "Motorola Coldfire";
case EM_ALPHA: return "Alpha";
case EM_CYGNUS_D10V:
case EM_D10V: return "d10v";
case EM_CYGNUS_D30V:
case EM_D30V: return "d30v";
case EM_CYGNUS_M32R:
case EM_M32R: return "Renesas M32R (formerly Mitsubishi M32r)";
case EM_CYGNUS_V850:
case EM_V800: return "Renesas V850 (using RH850 ABI)";
case EM_V850: return "Renesas V850";
case EM_CYGNUS_MN10300:
case EM_MN10300: return "mn10300";
case EM_CYGNUS_MN10200:
case EM_MN10200: return "mn10200";
case EM_MOXIE: return "Moxie";
case EM_CYGNUS_FR30:
case EM_FR30: return "Fujitsu FR30";
case EM_CYGNUS_FRV: return "Fujitsu FR-V";
case EM_PJ_OLD:
case EM_PJ: return "picoJava";
case EM_MMA: return "Fujitsu Multimedia Accelerator";
case EM_PCP: return "Siemens PCP";
case EM_NCPU: return "Sony nCPU embedded RISC processor";
case EM_NDR1: return "Denso NDR1 microprocesspr";
case EM_STARCORE: return "Motorola Star*Core processor";
case EM_ME16: return "Toyota ME16 processor";
case EM_ST100: return "STMicroelectronics ST100 processor";
case EM_TINYJ: return "Advanced Logic Corp. TinyJ embedded processor";
case EM_PDSP: return "Sony DSP processor";
case EM_PDP10: return "Digital Equipment Corp. PDP-10";
case EM_PDP11: return "Digital Equipment Corp. PDP-11";
case EM_FX66: return "Siemens FX66 microcontroller";
case EM_ST9PLUS: return "STMicroelectronics ST9+ 8/16 bit microcontroller";
case EM_ST7: return "STMicroelectronics ST7 8-bit microcontroller";
case EM_68HC16: return "Motorola MC68HC16 Microcontroller";
case EM_68HC12: return "Motorola MC68HC12 Microcontroller";
case EM_68HC11: return "Motorola MC68HC11 Microcontroller";
case EM_68HC08: return "Motorola MC68HC08 Microcontroller";
case EM_68HC05: return "Motorola MC68HC05 Microcontroller";
case EM_SVX: return "Silicon Graphics SVx";
case EM_ST19: return "STMicroelectronics ST19 8-bit microcontroller";
case EM_VAX: return "Digital VAX";
case EM_VISIUM: return "CDS VISIUMcore processor";
case EM_AVR_OLD:
case EM_AVR: return "Atmel AVR 8-bit microcontroller";
case EM_CRIS: return "Axis Communications 32-bit embedded processor";
case EM_JAVELIN: return "Infineon Technologies 32-bit embedded cpu";
case EM_FIREPATH: return "Element 14 64-bit DSP processor";
case EM_ZSP: return "LSI Logic's 16-bit DSP processor";
case EM_MMIX: return "Donald Knuth's educational 64-bit processor";
case EM_HUANY: return "Harvard Universitys's machine-independent object format";
case EM_PRISM: return "Vitesse Prism";
case EM_X86_64: return "Advanced Micro Devices X86-64";
case EM_L1OM: return "Intel L1OM";
case EM_K1OM: return "Intel K1OM";
case EM_S390_OLD:
case EM_S390: return "IBM S/390";
case EM_SCORE: return "SUNPLUS S+Core";
case EM_XSTORMY16: return "Sanyo XStormy16 CPU core";
case EM_OR1K: return "OpenRISC 1000";
case EM_CRX: return "National Semiconductor CRX microprocessor";
case EM_ADAPTEVA_EPIPHANY: return "Adapteva EPIPHANY";
case EM_DLX: return "OpenDLX";
case EM_IP2K_OLD:
case EM_IP2K: return "Ubicom IP2xxx 8-bit microcontrollers";
case EM_IQ2000: return "Vitesse IQ2000";
case EM_XTENSA_OLD:
case EM_XTENSA: return "Tensilica Xtensa Processor";
case EM_VIDEOCORE: return "Alphamosaic VideoCore processor";
case EM_TMM_GPP: return "Thompson Multimedia General Purpose Processor";
case EM_NS32K: return "National Semiconductor 32000 series";
case EM_TPC: return "Tenor Network TPC processor";
case EM_ST200: return "STMicroelectronics ST200 microcontroller";
case EM_MAX: return "MAX Processor";
case EM_CR: return "National Semiconductor CompactRISC";
case EM_F2MC16: return "Fujitsu F2MC16";
case EM_MSP430: return "Texas Instruments msp430 microcontroller";
case EM_LATTICEMICO32: return "Lattice Mico32";
case EM_M32C_OLD:
case EM_M32C: return "Renesas M32c";
case EM_MT: return "Morpho Techologies MT processor";
case EM_BLACKFIN: return "Analog Devices Blackfin";
case EM_SE_C33: return "S1C33 Family of Seiko Epson processors";
case EM_SEP: return "Sharp embedded microprocessor";
case EM_ARCA: return "Arca RISC microprocessor";
case EM_UNICORE: return "Unicore";
case EM_EXCESS: return "eXcess 16/32/64-bit configurable embedded CPU";
case EM_DXP: return "Icera Semiconductor Inc. Deep Execution Processor";
case EM_NIOS32: return "Altera Nios";
case EM_ALTERA_NIOS2: return "Altera Nios II";
case EM_C166:
case EM_XC16X: return "Infineon Technologies xc16x";
case EM_M16C: return "Renesas M16C series microprocessors";
case EM_DSPIC30F: return "Microchip Technology dsPIC30F Digital Signal Controller";
case EM_CE: return "Freescale Communication Engine RISC core";
case EM_TSK3000: return "Altium TSK3000 core";
case EM_RS08: return "Freescale RS08 embedded processor";
case EM_ECOG2: return "Cyan Technology eCOG2 microprocessor";
case EM_DSP24: return "New Japan Radio (NJR) 24-bit DSP Processor";
case EM_VIDEOCORE3: return "Broadcom VideoCore III processor";
case EM_SE_C17: return "Seiko Epson C17 family";
case EM_TI_C6000: return "Texas Instruments TMS320C6000 DSP family";
case EM_TI_C2000: return "Texas Instruments TMS320C2000 DSP family";
case EM_TI_C5500: return "Texas Instruments TMS320C55x DSP family";
case EM_MMDSP_PLUS: return "STMicroelectronics 64bit VLIW Data Signal Processor";
case EM_CYPRESS_M8C: return "Cypress M8C microprocessor";
case EM_R32C: return "Renesas R32C series microprocessors";
case EM_TRIMEDIA: return "NXP Semiconductors TriMedia architecture family";
case EM_QDSP6: return "QUALCOMM DSP6 Processor";
case EM_8051: return "Intel 8051 and variants";
case EM_STXP7X: return "STMicroelectronics STxP7x family";
case EM_NDS32: return "Andes Technology compact code size embedded RISC processor family";
case EM_ECOG1X: return "Cyan Technology eCOG1X family";
case EM_MAXQ30: return "Dallas Semiconductor MAXQ30 Core microcontrollers";
case EM_XIMO16: return "New Japan Radio (NJR) 16-bit DSP Processor";
case EM_MANIK: return "M2000 Reconfigurable RISC Microprocessor";
case EM_CRAYNV2: return "Cray Inc. NV2 vector architecture";
case EM_CYGNUS_MEP: return "Toshiba MeP Media Engine";
case EM_CR16:
case EM_MICROBLAZE:
case EM_MICROBLAZE_OLD: return "Xilinx MicroBlaze";
case EM_RISCV: return "RISC-V";
case EM_RL78: return "Renesas RL78";
case EM_RX: return "Renesas RX";
case EM_METAG: return "Imagination Technologies Meta processor architecture";
case EM_MCST_ELBRUS: return "MCST Elbrus general purpose hardware architecture";
case EM_ECOG16: return "Cyan Technology eCOG16 family";
case EM_ETPU: return "Freescale Extended Time Processing Unit";
case EM_SLE9X: return "Infineon Technologies SLE9X core";
case EM_AVR32: return "Atmel Corporation 32-bit microprocessor family";
case EM_STM8: return "STMicroeletronics STM8 8-bit microcontroller";
case EM_TILE64: return "Tilera TILE64 multicore architecture family";
case EM_TILEPRO: return "Tilera TILEPro multicore architecture family";
case EM_TILEGX: return "Tilera TILE-Gx multicore architecture family";
case EM_CUDA: return "NVIDIA CUDA architecture";
case EM_XGATE: return "Motorola XGATE embedded processor";
case EM_CLOUDSHIELD: return "CloudShield architecture family";
case EM_COREA_1ST: return "KIPO-KAIST Core-A 1st generation processor family";
case EM_COREA_2ND: return "KIPO-KAIST Core-A 2nd generation processor family";
case EM_OPEN8: return "Open8 8-bit RISC soft processor core";
case EM_VIDEOCORE5: return "Broadcom VideoCore V processor";
case EM_56800EX: return "Freescale 56800EX Digital Signal Controller (DSC)";
case EM_BA1: return "Beyond BA1 CPU architecture";
case EM_BA2: return "Beyond BA2 CPU architecture";
case EM_XCORE: return "XMOS xCORE processor family";
case EM_MCHP_PIC: return "Microchip 8-bit PIC(r) family";
case EM_KM32: return "KM211 KM32 32-bit processor";
case EM_KMX32: return "KM211 KMX32 32-bit processor";
case EM_KMX16: return "KM211 KMX16 16-bit processor";
case EM_KMX8: return "KM211 KMX8 8-bit processor";
case EM_KVARC: return "KM211 KVARC processor";
case EM_CDP: return "Paneve CDP architecture family";
case EM_COGE: return "Cognitive Smart Memory Processor";
case EM_COOL: return "Bluechip Systems CoolEngine";
case EM_NORC: return "Nanoradio Optimized RISC";
case EM_CSR_KALIMBA: return "CSR Kalimba architecture family";
case EM_Z80: return "Zilog Z80";
case EM_AMDGPU: return "AMD GPU architecture";
default:
snprintf (buff, sizeof (buff), _("<unknown>: 0x%x"), e_machine);
return buff;
}
}
static void
decode_ARC_machine_flags (unsigned e_flags, unsigned e_machine, char buf[])
{
/* ARC has two machine types EM_ARC_COMPACT and EM_ARC_COMPACT2. Some
other compilers don't a specific architecture type in the e_flags, and
instead use EM_ARC_COMPACT for old ARC600, ARC601, and ARC700
architectures, and switch to EM_ARC_COMPACT2 for newer ARCEM and ARCHS
architectures.
Th GNU tools follows this use of EM_ARC_COMPACT and EM_ARC_COMPACT2,
but also sets a specific architecture type in the e_flags field.
However, when decoding the flags we don't worry if we see an
unexpected pairing, for example EM_ARC_COMPACT machine type, with
ARCEM architecture type. */
switch (e_flags & EF_ARC_MACH_MSK)
{
/* We only expect these to occur for EM_ARC_COMPACT2. */
case EF_ARC_CPU_ARCV2EM:
strcat (buf, ", ARC EM");
break;
case EF_ARC_CPU_ARCV2HS:
strcat (buf, ", ARC HS");
break;
/* We only expect these to occur for EM_ARC_COMPACT. */
case E_ARC_MACH_ARC600:
strcat (buf, ", ARC600");
break;
case E_ARC_MACH_ARC601:
strcat (buf, ", ARC601");
break;
case E_ARC_MACH_ARC700:
strcat (buf, ", ARC700");
break;
/* The only times we should end up here are (a) A corrupt ELF, (b) A
new ELF with new architecture being read by an old version of
readelf, or (c) An ELF built with non-GNU compiler that does not
set the architecture in the e_flags. */
default:
if (e_machine == EM_ARC_COMPACT)
strcat (buf, ", Unknown ARCompact");
else
strcat (buf, ", Unknown ARC");
break;
}
switch (e_flags & EF_ARC_OSABI_MSK)
{
case E_ARC_OSABI_ORIG:
strcat (buf, ", (ABI:legacy)");
break;
case E_ARC_OSABI_V2:
strcat (buf, ", (ABI:v2)");
break;
/* Only upstream 3.9+ kernels will support ARCv2 ISA. */
case E_ARC_OSABI_V3:
strcat (buf, ", v3 no-legacy-syscalls ABI");
break;
default:
strcat (buf, ", unrecognised ARC OSABI flag");
break;
}
}
static void
decode_ARM_machine_flags (unsigned e_flags, char buf[])
{
unsigned eabi;
int unknown = 0;
eabi = EF_ARM_EABI_VERSION (e_flags);
e_flags &= ~ EF_ARM_EABIMASK;
/* Handle "generic" ARM flags. */
if (e_flags & EF_ARM_RELEXEC)
{
strcat (buf, ", relocatable executable");
e_flags &= ~ EF_ARM_RELEXEC;
}
/* Now handle EABI specific flags. */
switch (eabi)
{
default:
strcat (buf, ", <unrecognized EABI>");
if (e_flags)
unknown = 1;
break;
case EF_ARM_EABI_VER1:
strcat (buf, ", Version1 EABI");
while (e_flags)
{
unsigned flag;
/* Process flags one bit at a time. */
flag = e_flags & - e_flags;
e_flags &= ~ flag;
switch (flag)
{
case EF_ARM_SYMSARESORTED: /* Conflicts with EF_ARM_INTERWORK. */
strcat (buf, ", sorted symbol tables");
break;
default:
unknown = 1;
break;
}
}
break;
case EF_ARM_EABI_VER2:
strcat (buf, ", Version2 EABI");
while (e_flags)
{
unsigned flag;
/* Process flags one bit at a time. */
flag = e_flags & - e_flags;
e_flags &= ~ flag;
switch (flag)
{
case EF_ARM_SYMSARESORTED: /* Conflicts with EF_ARM_INTERWORK. */
strcat (buf, ", sorted symbol tables");
break;
case EF_ARM_DYNSYMSUSESEGIDX:
strcat (buf, ", dynamic symbols use segment index");
break;
case EF_ARM_MAPSYMSFIRST:
strcat (buf, ", mapping symbols precede others");
break;
default:
unknown = 1;
break;
}
}
break;
case EF_ARM_EABI_VER3:
strcat (buf, ", Version3 EABI");
break;
case EF_ARM_EABI_VER4:
strcat (buf, ", Version4 EABI");
while (e_flags)
{
unsigned flag;
/* Process flags one bit at a time. */
flag = e_flags & - e_flags;
e_flags &= ~ flag;
switch (flag)
{
case EF_ARM_BE8:
strcat (buf, ", BE8");
break;
case EF_ARM_LE8:
strcat (buf, ", LE8");
break;
default:
unknown = 1;
break;
}
break;
}
break;
case EF_ARM_EABI_VER5:
strcat (buf, ", Version5 EABI");
while (e_flags)
{
unsigned flag;
/* Process flags one bit at a time. */
flag = e_flags & - e_flags;
e_flags &= ~ flag;
switch (flag)
{
case EF_ARM_BE8:
strcat (buf, ", BE8");
break;
case EF_ARM_LE8:
strcat (buf, ", LE8");
break;
case EF_ARM_ABI_FLOAT_SOFT: /* Conflicts with EF_ARM_SOFT_FLOAT. */
strcat (buf, ", soft-float ABI");
break;
case EF_ARM_ABI_FLOAT_HARD: /* Conflicts with EF_ARM_VFP_FLOAT. */
strcat (buf, ", hard-float ABI");
break;
default:
unknown = 1;
break;
}
}
break;
case EF_ARM_EABI_UNKNOWN:
strcat (buf, ", GNU EABI");
while (e_flags)
{
unsigned flag;
/* Process flags one bit at a time. */
flag = e_flags & - e_flags;
e_flags &= ~ flag;
switch (flag)
{
case EF_ARM_INTERWORK:
strcat (buf, ", interworking enabled");
break;
case EF_ARM_APCS_26:
strcat (buf, ", uses APCS/26");
break;
case EF_ARM_APCS_FLOAT:
strcat (buf, ", uses APCS/float");
break;
case EF_ARM_PIC:
strcat (buf, ", position independent");
break;
case EF_ARM_ALIGN8:
strcat (buf, ", 8 bit structure alignment");
break;
case EF_ARM_NEW_ABI:
strcat (buf, ", uses new ABI");
break;
case EF_ARM_OLD_ABI:
strcat (buf, ", uses old ABI");
break;
case EF_ARM_SOFT_FLOAT:
strcat (buf, ", software FP");
break;
case EF_ARM_VFP_FLOAT:
strcat (buf, ", VFP");
break;
case EF_ARM_MAVERICK_FLOAT:
strcat (buf, ", Maverick FP");
break;
default:
unknown = 1;
break;
}
}
}
if (unknown)
strcat (buf,_(", <unknown>"));
}
static void
decode_AVR_machine_flags (unsigned e_flags, char buf[], size_t size)
{
--size; /* Leave space for null terminator. */
switch (e_flags & EF_AVR_MACH)
{
case E_AVR_MACH_AVR1:
strncat (buf, ", avr:1", size);
break;
case E_AVR_MACH_AVR2:
strncat (buf, ", avr:2", size);
break;
case E_AVR_MACH_AVR25:
strncat (buf, ", avr:25", size);
break;
case E_AVR_MACH_AVR3:
strncat (buf, ", avr:3", size);
break;
case E_AVR_MACH_AVR31:
strncat (buf, ", avr:31", size);
break;
case E_AVR_MACH_AVR35:
strncat (buf, ", avr:35", size);
break;
case E_AVR_MACH_AVR4:
strncat (buf, ", avr:4", size);
break;
case E_AVR_MACH_AVR5:
strncat (buf, ", avr:5", size);
break;
case E_AVR_MACH_AVR51:
strncat (buf, ", avr:51", size);
break;
case E_AVR_MACH_AVR6:
strncat (buf, ", avr:6", size);
break;
case E_AVR_MACH_AVRTINY:
strncat (buf, ", avr:100", size);
break;
case E_AVR_MACH_XMEGA1:
strncat (buf, ", avr:101", size);
break;
case E_AVR_MACH_XMEGA2:
strncat (buf, ", avr:102", size);
break;
case E_AVR_MACH_XMEGA3:
strncat (buf, ", avr:103", size);
break;
case E_AVR_MACH_XMEGA4:
strncat (buf, ", avr:104", size);
break;
case E_AVR_MACH_XMEGA5:
strncat (buf, ", avr:105", size);
break;
case E_AVR_MACH_XMEGA6:
strncat (buf, ", avr:106", size);
break;
case E_AVR_MACH_XMEGA7:
strncat (buf, ", avr:107", size);
break;
default:
strncat (buf, ", avr:<unknown>", size);
break;
}
size -= strlen (buf);
if (e_flags & EF_AVR_LINKRELAX_PREPARED)
strncat (buf, ", link-relax", size);
}
static void
decode_NDS32_machine_flags (unsigned e_flags, char buf[], size_t size)
{
unsigned abi;
unsigned arch;
unsigned config;
unsigned version;
int has_fpu = 0;
int r = 0;
static const char *ABI_STRINGS[] =
{
"ABI v0", /* use r5 as return register; only used in N1213HC */
"ABI v1", /* use r0 as return register */
"ABI v2", /* use r0 as return register and don't reserve 24 bytes for arguments */
"ABI v2fp", /* for FPU */
"AABI",
"ABI2 FP+"
};
static const char *VER_STRINGS[] =
{
"Andes ELF V1.3 or older",
"Andes ELF V1.3.1",
"Andes ELF V1.4"
};
static const char *ARCH_STRINGS[] =
{
"",
"Andes Star v1.0",
"Andes Star v2.0",
"Andes Star v3.0",
"Andes Star v3.0m"
};
abi = EF_NDS_ABI & e_flags;
arch = EF_NDS_ARCH & e_flags;
config = EF_NDS_INST & e_flags;
version = EF_NDS32_ELF_VERSION & e_flags;
memset (buf, 0, size);
switch (abi)
{
case E_NDS_ABI_V0:
case E_NDS_ABI_V1:
case E_NDS_ABI_V2:
case E_NDS_ABI_V2FP:
case E_NDS_ABI_AABI:
case E_NDS_ABI_V2FP_PLUS:
/* In case there are holes in the array. */
r += snprintf (buf + r, size - r, ", %s", ABI_STRINGS[abi >> EF_NDS_ABI_SHIFT]);
break;
default:
r += snprintf (buf + r, size - r, ", <unrecognized ABI>");
break;
}
switch (version)
{
case E_NDS32_ELF_VER_1_2:
case E_NDS32_ELF_VER_1_3:
case E_NDS32_ELF_VER_1_4:
r += snprintf (buf + r, size - r, ", %s", VER_STRINGS[version >> EF_NDS32_ELF_VERSION_SHIFT]);
break;
default:
r += snprintf (buf + r, size - r, ", <unrecognized ELF version number>");
break;
}
if (E_NDS_ABI_V0 == abi)
{
/* OLD ABI; only used in N1213HC, has performance extension 1. */
r += snprintf (buf + r, size - r, ", Andes Star v1.0, N1213HC, MAC, PERF1");
if (arch == E_NDS_ARCH_STAR_V1_0)
r += snprintf (buf + r, size -r, ", 16b"); /* has 16-bit instructions */
return;
}
switch (arch)
{
case E_NDS_ARCH_STAR_V1_0:
case E_NDS_ARCH_STAR_V2_0:
case E_NDS_ARCH_STAR_V3_0:
case E_NDS_ARCH_STAR_V3_M:
r += snprintf (buf + r, size - r, ", %s", ARCH_STRINGS[arch >> EF_NDS_ARCH_SHIFT]);
break;
default:
r += snprintf (buf + r, size - r, ", <unrecognized architecture>");
/* ARCH version determines how the e_flags are interpreted.
If it is unknown, we cannot proceed. */
return;
}
/* Newer ABI; Now handle architecture specific flags. */
if (arch == E_NDS_ARCH_STAR_V1_0)
{
if (config & E_NDS32_HAS_MFUSR_PC_INST)
r += snprintf (buf + r, size -r, ", MFUSR_PC");
if (!(config & E_NDS32_HAS_NO_MAC_INST))
r += snprintf (buf + r, size -r, ", MAC");
if (config & E_NDS32_HAS_DIV_INST)
r += snprintf (buf + r, size -r, ", DIV");
if (config & E_NDS32_HAS_16BIT_INST)
r += snprintf (buf + r, size -r, ", 16b");
}
else
{
if (config & E_NDS32_HAS_MFUSR_PC_INST)
{
if (version <= E_NDS32_ELF_VER_1_3)
r += snprintf (buf + r, size -r, ", [B8]");
else
r += snprintf (buf + r, size -r, ", EX9");
}
if (config & E_NDS32_HAS_MAC_DX_INST)
r += snprintf (buf + r, size -r, ", MAC_DX");
if (config & E_NDS32_HAS_DIV_DX_INST)
r += snprintf (buf + r, size -r, ", DIV_DX");
if (config & E_NDS32_HAS_16BIT_INST)
{
if (version <= E_NDS32_ELF_VER_1_3)
r += snprintf (buf + r, size -r, ", 16b");
else
r += snprintf (buf + r, size -r, ", IFC");
}
}
if (config & E_NDS32_HAS_EXT_INST)
r += snprintf (buf + r, size -r, ", PERF1");
if (config & E_NDS32_HAS_EXT2_INST)
r += snprintf (buf + r, size -r, ", PERF2");
if (config & E_NDS32_HAS_FPU_INST)
{
has_fpu = 1;
r += snprintf (buf + r, size -r, ", FPU_SP");
}
if (config & E_NDS32_HAS_FPU_DP_INST)
{
has_fpu = 1;
r += snprintf (buf + r, size -r, ", FPU_DP");
}
if (config & E_NDS32_HAS_FPU_MAC_INST)
{
has_fpu = 1;
r += snprintf (buf + r, size -r, ", FPU_MAC");
}
if (has_fpu)
{
switch ((config & E_NDS32_FPU_REG_CONF) >> E_NDS32_FPU_REG_CONF_SHIFT)
{
case E_NDS32_FPU_REG_8SP_4DP:
r += snprintf (buf + r, size -r, ", FPU_REG:8/4");
break;
case E_NDS32_FPU_REG_16SP_8DP:
r += snprintf (buf + r, size -r, ", FPU_REG:16/8");
break;
case E_NDS32_FPU_REG_32SP_16DP:
r += snprintf (buf + r, size -r, ", FPU_REG:32/16");
break;
case E_NDS32_FPU_REG_32SP_32DP:
r += snprintf (buf + r, size -r, ", FPU_REG:32/32");
break;
}
}
if (config & E_NDS32_HAS_AUDIO_INST)
r += snprintf (buf + r, size -r, ", AUDIO");
if (config & E_NDS32_HAS_STRING_INST)
r += snprintf (buf + r, size -r, ", STR");
if (config & E_NDS32_HAS_REDUCED_REGS)
r += snprintf (buf + r, size -r, ", 16REG");
if (config & E_NDS32_HAS_VIDEO_INST)
{
if (version <= E_NDS32_ELF_VER_1_3)
r += snprintf (buf + r, size -r, ", VIDEO");
else
r += snprintf (buf + r, size -r, ", SATURATION");
}
if (config & E_NDS32_HAS_ENCRIPT_INST)
r += snprintf (buf + r, size -r, ", ENCRP");
if (config & E_NDS32_HAS_L2C_INST)
r += snprintf (buf + r, size -r, ", L2C");
}
static char *
get_machine_flags (unsigned e_flags, unsigned e_machine)
{
static char buf[1024];
buf[0] = '\0';
if (e_flags)
{
switch (e_machine)
{
default:
break;
case EM_ARC_COMPACT2:
case EM_ARC_COMPACT:
decode_ARC_machine_flags (e_flags, e_machine, buf);
break;
case EM_ARM:
decode_ARM_machine_flags (e_flags, buf);
break;
case EM_AVR:
decode_AVR_machine_flags (e_flags, buf, sizeof buf);
break;
case EM_BLACKFIN:
if (e_flags & EF_BFIN_PIC)
strcat (buf, ", PIC");
if (e_flags & EF_BFIN_FDPIC)
strcat (buf, ", FDPIC");
if (e_flags & EF_BFIN_CODE_IN_L1)
strcat (buf, ", code in L1");
if (e_flags & EF_BFIN_DATA_IN_L1)
strcat (buf, ", data in L1");
break;
case EM_CYGNUS_FRV:
switch (e_flags & EF_FRV_CPU_MASK)
{
case EF_FRV_CPU_GENERIC:
break;
default:
strcat (buf, ", fr???");
break;
case EF_FRV_CPU_FR300:
strcat (buf, ", fr300");
break;
case EF_FRV_CPU_FR400:
strcat (buf, ", fr400");
break;
case EF_FRV_CPU_FR405:
strcat (buf, ", fr405");
break;
case EF_FRV_CPU_FR450:
strcat (buf, ", fr450");
break;
case EF_FRV_CPU_FR500:
strcat (buf, ", fr500");
break;
case EF_FRV_CPU_FR550:
strcat (buf, ", fr550");
break;
case EF_FRV_CPU_SIMPLE:
strcat (buf, ", simple");
break;
case EF_FRV_CPU_TOMCAT:
strcat (buf, ", tomcat");
break;
}
break;
case EM_68K:
if ((e_flags & EF_M68K_ARCH_MASK) == EF_M68K_M68000)
strcat (buf, ", m68000");
else if ((e_flags & EF_M68K_ARCH_MASK) == EF_M68K_CPU32)
strcat (buf, ", cpu32");
else if ((e_flags & EF_M68K_ARCH_MASK) == EF_M68K_FIDO)
strcat (buf, ", fido_a");
else
{
char const * isa = _("unknown");
char const * mac = _("unknown mac");
char const * additional = NULL;
switch (e_flags & EF_M68K_CF_ISA_MASK)
{
case EF_M68K_CF_ISA_A_NODIV:
isa = "A";
additional = ", nodiv";
break;
case EF_M68K_CF_ISA_A:
isa = "A";
break;
case EF_M68K_CF_ISA_A_PLUS:
isa = "A+";
break;
case EF_M68K_CF_ISA_B_NOUSP:
isa = "B";
additional = ", nousp";
break;
case EF_M68K_CF_ISA_B:
isa = "B";
break;
case EF_M68K_CF_ISA_C:
isa = "C";
break;
case EF_M68K_CF_ISA_C_NODIV:
isa = "C";
additional = ", nodiv";
break;
}
strcat (buf, ", cf, isa ");
strcat (buf, isa);
if (additional)
strcat (buf, additional);
if (e_flags & EF_M68K_CF_FLOAT)
strcat (buf, ", float");
switch (e_flags & EF_M68K_CF_MAC_MASK)
{
case 0:
mac = NULL;
break;
case EF_M68K_CF_MAC:
mac = "mac";
break;
case EF_M68K_CF_EMAC:
mac = "emac";
break;
case EF_M68K_CF_EMAC_B:
mac = "emac_b";
break;
}
if (mac)
{
strcat (buf, ", ");
strcat (buf, mac);
}