trunk/bfd/elf32-sh.c

/* Renesas / SuperH SH specific support for 32-bit ELF
   Copyright 1996, 1997, 1998, 1999, 2000, 2001, 2002, 2003, 2004, 2005,
   2006, 2007, 2008 Free Software Foundation, Inc.
   Contributed by Ian Lance Taylor, Cygnus Support.

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

   This program is free software; you can redistribute it and/or modify
   it under the terms of the GNU General Public License as published by
   the Free Software Foundation; either version 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.  */

#include "sysdep.h"
#include "bfd.h"
#include "bfdlink.h"
#include "libbfd.h"
#include "elf-bfd.h"
#include "elf-vxworks.h"
#include "elf/sh.h"
#include "libiberty.h"
#include "../opcodes/sh-opc.h"

static bfd_reloc_status_type sh_elf_reloc
  (bfd *, arelent *, asymbol *, void *, asection *, bfd *, char **);
static bfd_reloc_status_type sh_elf_ignore_reloc
  (bfd *, arelent *, asymbol *, void *, asection *, bfd *, char **);
static bfd_boolean sh_elf_relax_delete_bytes
  (bfd *, asection *, bfd_vma, int);
static bfd_boolean sh_elf_align_loads
  (bfd *, asection *, Elf_Internal_Rela *, bfd_byte *, bfd_boolean *);
#ifndef SH64_ELF
static bfd_boolean sh_elf_swap_insns
  (bfd *, asection *, void *, bfd_byte *, bfd_vma);
#endif
static int sh_elf_optimized_tls_reloc
  (struct bfd_link_info *, int, int);
static bfd_vma dtpoff_base
  (struct bfd_link_info *);
static bfd_vma tpoff
  (struct bfd_link_info *, bfd_vma);

/* The name of the dynamic interpreter.  This is put in the .interp
   section.  */

#define ELF_DYNAMIC_INTERPRETER "/usr/lib/libc.so.1"

#define MINUS_ONE ((bfd_vma) 0 - 1)

#define SH_PARTIAL32 TRUE
#define SH_SRC_MASK32 0xffffffff
#define SH_ELF_RELOC sh_elf_reloc
static reloc_howto_type sh_elf_howto_table[] =
{
#include "elf32-sh-relocs.h"
};

#define SH_PARTIAL32 FALSE
#define SH_SRC_MASK32 0
#define SH_ELF_RELOC bfd_elf_generic_reloc
static reloc_howto_type sh_vxworks_howto_table[] =
{
#include "elf32-sh-relocs.h"
};

/* Return true if OUTPUT_BFD is a VxWorks object.  */

static bfd_boolean
vxworks_object_p (bfd *abfd ATTRIBUTE_UNUSED)
{
#if !defined INCLUDE_SHMEDIA && !defined SH_TARGET_ALREADY_DEFINED
  extern const bfd_target bfd_elf32_shlvxworks_vec;
  extern const bfd_target bfd_elf32_shvxworks_vec;

  return (abfd->xvec == &bfd_elf32_shlvxworks_vec
          || abfd->xvec == &bfd_elf32_shvxworks_vec);
#else
  return FALSE;
#endif
}

/* Return the howto table for ABFD.  */

static reloc_howto_type *
get_howto_table (bfd *abfd)
{
  if (vxworks_object_p (abfd))
    return sh_vxworks_howto_table;
  return sh_elf_howto_table;
}

static bfd_reloc_status_type
sh_elf_reloc_loop (int r_type ATTRIBUTE_UNUSED, bfd *input_bfd,
                   asection *input_section, bfd_byte *contents,
                   bfd_vma addr, asection *symbol_section,
                   bfd_vma start, bfd_vma end)
{
  static bfd_vma last_addr;
  static asection *last_symbol_section;
  bfd_byte *start_ptr, *ptr, *last_ptr;
  int diff, cum_diff;
  bfd_signed_vma x;
  int insn;

  /* Sanity check the address.  */
  if (addr > bfd_get_section_limit (input_bfd, input_section))
    return bfd_reloc_outofrange;

  /* We require the start and end relocations to be processed consecutively -
     although we allow then to be processed forwards or backwards.  */
  if (! last_addr)
    {
      last_addr = addr;
      last_symbol_section = symbol_section;
      return bfd_reloc_ok;
    }
  if (last_addr != addr)
    abort ();
  last_addr = 0;

  if (! symbol_section || last_symbol_section != symbol_section || end < start)
    return bfd_reloc_outofrange;

  /* Get the symbol_section contents.  */
  if (symbol_section != input_section)
    {
      if (elf_section_data (symbol_section)->this_hdr.contents != NULL)
        contents = elf_section_data (symbol_section)->this_hdr.contents;
      else
        {
          if (!bfd_malloc_and_get_section (input_bfd, symbol_section,
                                           &contents))
            {
              if (contents != NULL)
                free (contents);
              return bfd_reloc_outofrange;
            }
        }
    }
#define IS_PPI(PTR) ((bfd_get_16 (input_bfd, (PTR)) & 0xfc00) == 0xf800)
  start_ptr = contents + start;
  for (cum_diff = -6, ptr = contents + end; cum_diff < 0 && ptr > start_ptr;)
    {
      for (last_ptr = ptr, ptr -= 4; ptr >= start_ptr && IS_PPI (ptr);)
        ptr -= 2;
      ptr += 2;
      diff = (last_ptr - ptr) >> 1;
      cum_diff += diff & 1;
      cum_diff += diff;
    }
  /* Calculate the start / end values to load into rs / re minus four -
     so that will cancel out the four we would otherwise have to add to
     addr to get the value to subtract in order to get relative addressing.  */
  if (cum_diff >= 0)
    {
      start -= 4;
      end = (ptr + cum_diff * 2) - contents;
    }
  else
    {
      bfd_vma start0 = start - 4;

      while (start0 && IS_PPI (contents + start0))
        start0 -= 2;
      start0 = start - 2 - ((start - start0) & 2);
      start = start0 - cum_diff - 2;
      end = start0;
    }

  if (contents != NULL
      && elf_section_data (symbol_section)->this_hdr.contents != contents)
    free (contents);

  insn = bfd_get_16 (input_bfd, contents + addr);

  x = (insn & 0x200 ? end : start) - addr;
  if (input_section != symbol_section)
    x += ((symbol_section->output_section->vma + symbol_section->output_offset)
          - (input_section->output_section->vma
             + input_section->output_offset));
  x >>= 1;
  if (x < -128 || x > 127)
    return bfd_reloc_overflow;

  x = (insn & ~0xff) | (x & 0xff);
  bfd_put_16 (input_bfd, (bfd_vma) x, contents + addr);

  return bfd_reloc_ok;
}

/* This function is used for normal relocs.  This used to be like the COFF
   function, and is almost certainly incorrect for other ELF targets.  */

static bfd_reloc_status_type
sh_elf_reloc (bfd *abfd, arelent *reloc_entry, asymbol *symbol_in,
              void *data, asection *input_section, bfd *output_bfd,
              char **error_message ATTRIBUTE_UNUSED)
{
  unsigned long insn;
  bfd_vma sym_value;
  enum elf_sh_reloc_type r_type;
  bfd_vma addr = reloc_entry->address;
  bfd_byte *hit_data = addr + (bfd_byte *) data;

  r_type = (enum elf_sh_reloc_type) reloc_entry->howto->type;

  if (output_bfd != NULL)
    {
      /* Partial linking--do nothing.  */
      reloc_entry->address += input_section->output_offset;
      return bfd_reloc_ok;
    }

  /* Almost all relocs have to do with relaxing.  If any work must be
     done for them, it has been done in sh_relax_section.  */
  if (r_type == R_SH_IND12W && (symbol_in->flags & BSF_LOCAL) != 0)
    return bfd_reloc_ok;

  if (symbol_in != NULL
      && bfd_is_und_section (symbol_in->section))
    return bfd_reloc_undefined;

  if (bfd_is_com_section (symbol_in->section))
    sym_value = 0;
  else
    sym_value = (symbol_in->value +
                 symbol_in->section->output_section->vma +
                 symbol_in->section->output_offset);

  switch (r_type)
    {
    case R_SH_DIR32:
      insn = bfd_get_32 (abfd, hit_data);
      insn += sym_value + reloc_entry->addend;
      bfd_put_32 (abfd, (bfd_vma) insn, hit_data);
      break;
    case R_SH_IND12W:
      insn = bfd_get_16 (abfd, hit_data);
      sym_value += reloc_entry->addend;
      sym_value -= (input_section->output_section->vma
                    + input_section->output_offset
                    + addr
                    + 4);
      sym_value += (insn & 0xfff) << 1;
      if (insn & 0x800)
        sym_value -= 0x1000;
      insn = (insn & 0xf000) | (sym_value & 0xfff);
      bfd_put_16 (abfd, (bfd_vma) insn, hit_data);
      if (sym_value < (bfd_vma) -0x1000 || sym_value >= 0x1000)
        return bfd_reloc_overflow;
      break;
    default:
      abort ();
      break;
    }

  return bfd_reloc_ok;
}

/* This function is used for relocs which are only used for relaxing,
   which the linker should otherwise ignore.  */

static bfd_reloc_status_type
sh_elf_ignore_reloc (bfd *abfd ATTRIBUTE_UNUSED, arelent *reloc_entry,
                     asymbol *symbol ATTRIBUTE_UNUSED,
                     void *data ATTRIBUTE_UNUSED, asection *input_section,
                     bfd *output_bfd,
                     char **error_message ATTRIBUTE_UNUSED)
{
  if (output_bfd != NULL)
    reloc_entry->address += input_section->output_offset;
  return bfd_reloc_ok;
}

/* This structure is used to map BFD reloc codes to SH ELF relocs.  */

struct elf_reloc_map
{
  bfd_reloc_code_real_type bfd_reloc_val;
  unsigned char elf_reloc_val;
};

/* An array mapping BFD reloc codes to SH ELF relocs.  */

static const struct elf_reloc_map sh_reloc_map[] =
{
  { BFD_RELOC_NONE, R_SH_NONE },
  { BFD_RELOC_32, R_SH_DIR32 },
  { BFD_RELOC_16, R_SH_DIR16 },
  { BFD_RELOC_8, R_SH_DIR8 },
  { BFD_RELOC_CTOR, R_SH_DIR32 },
  { BFD_RELOC_32_PCREL, R_SH_REL32 },
  { BFD_RELOC_SH_PCDISP8BY2, R_SH_DIR8WPN },
  { BFD_RELOC_SH_PCDISP12BY2, R_SH_IND12W },
  { BFD_RELOC_SH_PCRELIMM8BY2, R_SH_DIR8WPZ },
  { BFD_RELOC_SH_PCRELIMM8BY4, R_SH_DIR8WPL },
  { BFD_RELOC_8_PCREL, R_SH_SWITCH8 },
  { BFD_RELOC_SH_SWITCH16, R_SH_SWITCH16 },
  { BFD_RELOC_SH_SWITCH32, R_SH_SWITCH32 },
  { BFD_RELOC_SH_USES, R_SH_USES },
  { BFD_RELOC_SH_COUNT, R_SH_COUNT },
  { BFD_RELOC_SH_ALIGN, R_SH_ALIGN },
  { BFD_RELOC_SH_CODE, R_SH_CODE },
  { BFD_RELOC_SH_DATA, R_SH_DATA },
  { BFD_RELOC_SH_LABEL, R_SH_LABEL },
  { BFD_RELOC_VTABLE_INHERIT, R_SH_GNU_VTINHERIT },
  { BFD_RELOC_VTABLE_ENTRY, R_SH_GNU_VTENTRY },
  { BFD_RELOC_SH_LOOP_START, R_SH_LOOP_START },
  { BFD_RELOC_SH_LOOP_END, R_SH_LOOP_END },
  { BFD_RELOC_SH_TLS_GD_32, R_SH_TLS_GD_32 },
  { BFD_RELOC_SH_TLS_LD_32, R_SH_TLS_LD_32 },
  { BFD_RELOC_SH_TLS_LDO_32, R_SH_TLS_LDO_32 },
  { BFD_RELOC_SH_TLS_IE_32, R_SH_TLS_IE_32 },
  { BFD_RELOC_SH_TLS_LE_32, R_SH_TLS_LE_32 },
  { BFD_RELOC_SH_TLS_DTPMOD32, R_SH_TLS_DTPMOD32 },
  { BFD_RELOC_SH_TLS_DTPOFF32, R_SH_TLS_DTPOFF32 },
  { BFD_RELOC_SH_TLS_TPOFF32, R_SH_TLS_TPOFF32 },
  { BFD_RELOC_32_GOT_PCREL, R_SH_GOT32 },
  { BFD_RELOC_32_PLT_PCREL, R_SH_PLT32 },
  { BFD_RELOC_SH_COPY, R_SH_COPY },
  { BFD_RELOC_SH_GLOB_DAT, R_SH_GLOB_DAT },
  { BFD_RELOC_SH_JMP_SLOT, R_SH_JMP_SLOT },
  { BFD_RELOC_SH_RELATIVE, R_SH_RELATIVE },
  { BFD_RELOC_32_GOTOFF, R_SH_GOTOFF },
  { BFD_RELOC_SH_GOTPC, R_SH_GOTPC },
  { BFD_RELOC_SH_GOTPLT32, R_SH_GOTPLT32 },
#ifdef INCLUDE_SHMEDIA
  { BFD_RELOC_SH_GOT_LOW16, R_SH_GOT_LOW16 },
  { BFD_RELOC_SH_GOT_MEDLOW16, R_SH_GOT_MEDLOW16 },
  { BFD_RELOC_SH_GOT_MEDHI16, R_SH_GOT_MEDHI16 },
  { BFD_RELOC_SH_GOT_HI16, R_SH_GOT_HI16 },
  { BFD_RELOC_SH_GOTPLT_LOW16, R_SH_GOTPLT_LOW16 },
  { BFD_RELOC_SH_GOTPLT_MEDLOW16, R_SH_GOTPLT_MEDLOW16 },
  { BFD_RELOC_SH_GOTPLT_MEDHI16, R_SH_GOTPLT_MEDHI16 },
  { BFD_RELOC_SH_GOTPLT_HI16, R_SH_GOTPLT_HI16 },
  { BFD_RELOC_SH_PLT_LOW16, R_SH_PLT_LOW16 },
  { BFD_RELOC_SH_PLT_MEDLOW16, R_SH_PLT_MEDLOW16 },
  { BFD_RELOC_SH_PLT_MEDHI16, R_SH_PLT_MEDHI16 },
  { BFD_RELOC_SH_PLT_HI16, R_SH_PLT_HI16 },
  { BFD_RELOC_SH_GOTOFF_LOW16, R_SH_GOTOFF_LOW16 },
  { BFD_RELOC_SH_GOTOFF_MEDLOW16, R_SH_GOTOFF_MEDLOW16 },
  { BFD_RELOC_SH_GOTOFF_MEDHI16, R_SH_GOTOFF_MEDHI16 },
  { BFD_RELOC_SH_GOTOFF_HI16, R_SH_GOTOFF_HI16 },
  { BFD_RELOC_SH_GOTPC_LOW16, R_SH_GOTPC_LOW16 },
  { BFD_RELOC_SH_GOTPC_MEDLOW16, R_SH_GOTPC_MEDLOW16 },
  { BFD_RELOC_SH_GOTPC_MEDHI16, R_SH_GOTPC_MEDHI16 },
  { BFD_RELOC_SH_GOTPC_HI16, R_SH_GOTPC_HI16 },
  { BFD_RELOC_SH_COPY64, R_SH_COPY64 },
  { BFD_RELOC_SH_GLOB_DAT64, R_SH_GLOB_DAT64 },
  { BFD_RELOC_SH_JMP_SLOT64, R_SH_JMP_SLOT64 },
  { BFD_RELOC_SH_RELATIVE64, R_SH_RELATIVE64 },
  { BFD_RELOC_SH_GOT10BY4, R_SH_GOT10BY4 },
  { BFD_RELOC_SH_GOT10BY8, R_SH_GOT10BY8 },
  { BFD_RELOC_SH_GOTPLT10BY4, R_SH_GOTPLT10BY4 },
  { BFD_RELOC_SH_GOTPLT10BY8, R_SH_GOTPLT10BY8 },
  { BFD_RELOC_SH_PT_16, R_SH_PT_16 },
  { BFD_RELOC_SH_SHMEDIA_CODE, R_SH_SHMEDIA_CODE },
  { BFD_RELOC_SH_IMMU5, R_SH_DIR5U },
  { BFD_RELOC_SH_IMMS6, R_SH_DIR6S },
  { BFD_RELOC_SH_IMMU6, R_SH_DIR6U },
  { BFD_RELOC_SH_IMMS10, R_SH_DIR10S },
  { BFD_RELOC_SH_IMMS10BY2, R_SH_DIR10SW },
  { BFD_RELOC_SH_IMMS10BY4, R_SH_DIR10SL },
  { BFD_RELOC_SH_IMMS10BY8, R_SH_DIR10SQ },
  { BFD_RELOC_SH_IMMS16, R_SH_IMMS16 },
  { BFD_RELOC_SH_IMMU16, R_SH_IMMU16 },
  { BFD_RELOC_SH_IMM_LOW16, R_SH_IMM_LOW16 },
  { BFD_RELOC_SH_IMM_LOW16_PCREL, R_SH_IMM_LOW16_PCREL },
  { BFD_RELOC_SH_IMM_MEDLOW16, R_SH_IMM_MEDLOW16 },
  { BFD_RELOC_SH_IMM_MEDLOW16_PCREL, R_SH_IMM_MEDLOW16_PCREL },
  { BFD_RELOC_SH_IMM_MEDHI16, R_SH_IMM_MEDHI16 },
  { BFD_RELOC_SH_IMM_MEDHI16_PCREL, R_SH_IMM_MEDHI16_PCREL },
  { BFD_RELOC_SH_IMM_HI16, R_SH_IMM_HI16 },
  { BFD_RELOC_SH_IMM_HI16_PCREL, R_SH_IMM_HI16_PCREL },
  { BFD_RELOC_64, R_SH_64 },
  { BFD_RELOC_64_PCREL, R_SH_64_PCREL },
#endif /* not INCLUDE_SHMEDIA */
};

/* Given a BFD reloc code, return the howto structure for the
   corresponding SH ELF reloc.  */

static reloc_howto_type *
sh_elf_reloc_type_lookup (bfd *abfd, bfd_reloc_code_real_type code)
{
  unsigned int i;

  for (i = 0; i < sizeof (sh_reloc_map) / sizeof (struct elf_reloc_map); i++)
    {
      if (sh_reloc_map[i].bfd_reloc_val == code)
        return get_howto_table (abfd) + (int) sh_reloc_map[i].elf_reloc_val;
    }

  return NULL;
}

static reloc_howto_type *
sh_elf_reloc_name_lookup (bfd *abfd, const char *r_name)
{
  unsigned int i;

  if (vxworks_object_p (abfd))
    {
      for (i = 0;
           i < (sizeof (sh_vxworks_howto_table)
                / sizeof (sh_vxworks_howto_table[0]));
           i++)
        if (sh_vxworks_howto_table[i].name != NULL
            && strcasecmp (sh_vxworks_howto_table[i].name, r_name) == 0)
          return &sh_vxworks_howto_table[i];
    }
  else
    {
      for (i = 0;
           i < (sizeof (sh_elf_howto_table)
                / sizeof (sh_elf_howto_table[0]));
           i++)
        if (sh_elf_howto_table[i].name != NULL
            && strcasecmp (sh_elf_howto_table[i].name, r_name) == 0)
          return &sh_elf_howto_table[i];
    }

  return NULL;
}

/* Given an ELF reloc, fill in the howto field of a relent.  */

static void
sh_elf_info_to_howto (bfd *abfd, arelent *cache_ptr, Elf_Internal_Rela *dst)
{
  unsigned int r;

  r = ELF32_R_TYPE (dst->r_info);

  BFD_ASSERT (r < (unsigned int) R_SH_max);
  BFD_ASSERT (r < R_SH_FIRST_INVALID_RELOC || r > R_SH_LAST_INVALID_RELOC);
  BFD_ASSERT (r < R_SH_FIRST_INVALID_RELOC_2 || r > R_SH_LAST_INVALID_RELOC_2);
  BFD_ASSERT (r < R_SH_FIRST_INVALID_RELOC_3 || r > R_SH_LAST_INVALID_RELOC_3);
  BFD_ASSERT (r < R_SH_FIRST_INVALID_RELOC_4 || r > R_SH_LAST_INVALID_RELOC_4);
  BFD_ASSERT (r < R_SH_FIRST_INVALID_RELOC_5 || r > R_SH_LAST_INVALID_RELOC_5);

  cache_ptr->howto = get_howto_table (abfd) + r;
}

/* This function handles relaxing for SH ELF.  See the corresponding
   function in coff-sh.c for a description of what this does.  FIXME:
   There is a lot of duplication here between this code and the COFF
   specific code.  The format of relocs and symbols is wound deeply
   into this code, but it would still be better if the duplication
   could be eliminated somehow.  Note in particular that although both
   functions use symbols like R_SH_CODE, those symbols have different
   values; in coff-sh.c they come from include/coff/sh.h, whereas here
   they come from enum elf_sh_reloc_type in include/elf/sh.h.  */

static bfd_boolean
sh_elf_relax_section (bfd *abfd, asection *sec,
                      struct bfd_link_info *link_info, bfd_boolean *again)
{
  Elf_Internal_Shdr *symtab_hdr;
  Elf_Internal_Rela *internal_relocs;
  bfd_boolean have_code;
  Elf_Internal_Rela *irel, *irelend;
  bfd_byte *contents = NULL;
  Elf_Internal_Sym *isymbuf = NULL;

  *again = FALSE;

  if (link_info->relocatable
      || (sec->flags & SEC_RELOC) == 0
      || sec->reloc_count == 0)
    return TRUE;

#ifdef INCLUDE_SHMEDIA
  if (elf_section_data (sec)->this_hdr.sh_flags
      & (SHF_SH5_ISA32 | SHF_SH5_ISA32_MIXED))
    {
      return TRUE;
    }
#endif

  symtab_hdr = &elf_symtab_hdr (abfd);

  internal_relocs = (_bfd_elf_link_read_relocs
                     (abfd, sec, NULL, (Elf_Internal_Rela *) NULL,
                      link_info->keep_memory));
  if (internal_relocs == NULL)
    goto error_return;

  have_code = FALSE;

  irelend = internal_relocs + sec->reloc_count;
  for (irel = internal_relocs; irel < irelend; irel++)
    {
      bfd_vma laddr, paddr, symval;
      unsigned short insn;
      Elf_Internal_Rela *irelfn, *irelscan, *irelcount;
      bfd_signed_vma foff;

      if (ELF32_R_TYPE (irel->r_info) == (int) R_SH_CODE)
        have_code = TRUE;

      if (ELF32_R_TYPE (irel->r_info) != (int) R_SH_USES)
        continue;

      /* Get the section contents.  */
      if (contents == NULL)
        {
          if (elf_section_data (sec)->this_hdr.contents != NULL)
            contents = elf_section_data (sec)->this_hdr.contents;
          else
            {
              if (!bfd_malloc_and_get_section (abfd, sec, &contents))
                goto error_return;
            }
        }

      /* The r_addend field of the R_SH_USES reloc will point us to
         the register load.  The 4 is because the r_addend field is
         computed as though it were a jump offset, which are based
         from 4 bytes after the jump instruction.  */
      laddr = irel->r_offset + 4 + irel->r_addend;
      if (laddr >= sec->size)
        {
          (*_bfd_error_handler) (_("%B: 0x%lx: warning: bad R_SH_USES offset"),
                                 abfd,
                                 (unsigned long) irel->r_offset);
          continue;
        }
      insn = bfd_get_16 (abfd, contents + laddr);

      /* If the instruction is not mov.l NN,rN, we don't know what to
         do.  */
      if ((insn & 0xf000) != 0xd000)
        {
          ((*_bfd_error_handler)
           (_("%B: 0x%lx: warning: R_SH_USES points to unrecognized insn 0x%x"),
            abfd, (unsigned long) irel->r_offset, insn));
          continue;
        }

      /* Get the address from which the register is being loaded.  The
         displacement in the mov.l instruction is quadrupled.  It is a
         displacement from four bytes after the movl instruction, but,
         before adding in the PC address, two least significant bits
         of the PC are cleared.  We assume that the section is aligned
         on a four byte boundary.  */
      paddr = insn & 0xff;
      paddr *= 4;
      paddr += (laddr + 4) &~ (bfd_vma) 3;
      if (paddr >= sec->size)
        {
          ((*_bfd_error_handler)
           (_("%B: 0x%lx: warning: bad R_SH_USES load offset"),
            abfd, (unsigned long) irel->r_offset));
          continue;
        }

      /* Get the reloc for the address from which the register is
         being loaded.  This reloc will tell us which function is
         actually being called.  */
      for (irelfn = internal_relocs; irelfn < irelend; irelfn++)
        if (irelfn->r_offset == paddr
            && ELF32_R_TYPE (irelfn->r_info) == (int) R_SH_DIR32)
          break;
      if (irelfn >= irelend)
        {
          ((*_bfd_error_handler)
           (_("%B: 0x%lx: warning: could not find expected reloc"),
            abfd, (unsigned long) paddr));
          continue;
        }

      /* Read this BFD's symbols if we haven't done so already.  */
      if (isymbuf == NULL && symtab_hdr->sh_info != 0)
        {
          isymbuf = (Elf_Internal_Sym *) symtab_hdr->contents;
          if (isymbuf == NULL)
            isymbuf = bfd_elf_get_elf_syms (abfd, symtab_hdr,
                                            symtab_hdr->sh_info, 0,
                                            NULL, NULL, NULL);
          if (isymbuf == NULL)
            goto error_return;
        }

      /* Get the value of the symbol referred to by the reloc.  */
      if (ELF32_R_SYM (irelfn->r_info) < symtab_hdr->sh_info)
        {
          /* A local symbol.  */
          Elf_Internal_Sym *isym;

          isym = isymbuf + ELF32_R_SYM (irelfn->r_info);
          if (isym->st_shndx
              != (unsigned int) _bfd_elf_section_from_bfd_section (abfd, sec))
            {
              ((*_bfd_error_handler)
               (_("%B: 0x%lx: warning: symbol in unexpected section"),
                abfd, (unsigned long) paddr));
              continue;
            }

          symval = (isym->st_value
                    + sec->output_section->vma
                    + sec->output_offset);
        }
      else
        {
          unsigned long indx;
          struct elf_link_hash_entry *h;

          indx = ELF32_R_SYM (irelfn->r_info) - symtab_hdr->sh_info;
          h = elf_sym_hashes (abfd)[indx];
          BFD_ASSERT (h != NULL);
          if (h->root.type != bfd_link_hash_defined
              && h->root.type != bfd_link_hash_defweak)
            {
              /* This appears to be a reference to an undefined
                 symbol.  Just ignore it--it will be caught by the
                 regular reloc processing.  */
              continue;
            }

          symval = (h->root.u.def.value
                    + h->root.u.def.section->output_section->vma
                    + h->root.u.def.section->output_offset);
        }

      if (get_howto_table (abfd)[R_SH_DIR32].partial_inplace)
        symval += bfd_get_32 (abfd, contents + paddr);
      else
        symval += irelfn->r_addend;

      /* See if this function call can be shortened.  */
      foff = (symval
              - (irel->r_offset
                 + sec->output_section->vma
                 + sec->output_offset
                 + 4));
      /* A branch to an address beyond ours might be increased by an
         .align that doesn't move when bytes behind us are deleted.
         So, we add some slop in this calculation to allow for
         that.  */
      if (foff < -0x1000 || foff >= 0x1000 - 8)
        {
          /* After all that work, we can't shorten this function call.  */
          continue;
        }

      /* Shorten the function call.  */

      /* For simplicity of coding, we are going to modify the section
         contents, the section relocs, and the BFD symbol table.  We
         must tell the rest of the code not to free up this
         information.  It would be possible to instead create a table
         of changes which have to be made, as is done in coff-mips.c;
         that would be more work, but would require less memory when
         the linker is run.  */

      elf_section_data (sec)->relocs = internal_relocs;
      elf_section_data (sec)->this_hdr.contents = contents;
      symtab_hdr->contents = (unsigned char *) isymbuf;

      /* Replace the jsr with a bsr.  */

      /* Change the R_SH_USES reloc into an R_SH_IND12W reloc, and
         replace the jsr with a bsr.  */
      irel->r_info = ELF32_R_INFO (ELF32_R_SYM (irelfn->r_info), R_SH_IND12W);
      /* We used to test (ELF32_R_SYM (irelfn->r_info) < symtab_hdr->sh_info)
         here, but that only checks if the symbol is an external symbol,
         not if the symbol is in a different section.  Besides, we need
         a consistent meaning for the relocation, so we just assume here that
         the value of the symbol is not available.  */

      /* We can't fully resolve this yet, because the external
         symbol value may be changed by future relaxing.  We let
         the final link phase handle it.  */
      bfd_put_16 (abfd, (bfd_vma) 0xb000, contents + irel->r_offset);

      irel->r_addend = -4;

      /* When we calculated the symbol "value" we had an offset in the
         DIR32's word in memory (we read and add it above).  However,
         the jsr we create does NOT have this offset encoded, so we
         have to add it to the addend to preserve it.  */
      irel->r_addend += bfd_get_32 (abfd, contents + paddr);

      /* See if there is another R_SH_USES reloc referring to the same
         register load.  */
      for (irelscan = internal_relocs; irelscan < irelend; irelscan++)
        if (ELF32_R_TYPE (irelscan->r_info) == (int) R_SH_USES
            && laddr == irelscan->r_offset + 4 + irelscan->r_addend)
          break;
      if (irelscan < irelend)
        {
          /* Some other function call depends upon this register load,
             and we have not yet converted that function call.
             Indeed, we may never be able to convert it.  There is
             nothing else we can do at this point.  */
          continue;
        }

      /* Look for a R_SH_COUNT reloc on the location where the
         function address is stored.  Do this before deleting any
         bytes, to avoid confusion about the address.  */
      for (irelcount = internal_relocs; irelcount < irelend; irelcount++)
        if (irelcount->r_offset == paddr
            && ELF32_R_TYPE (irelcount->r_info) == (int) R_SH_COUNT)
          break;

      /* Delete the register load.  */
      if (! sh_elf_relax_delete_bytes (abfd, sec, laddr, 2))
        goto error_return;

      /* That will change things, so, just in case it permits some
         other function call to come within range, we should relax
         again.  Note that this is not required, and it may be slow.  */
      *again = TRUE;

      /* Now check whether we got a COUNT reloc.  */
      if (irelcount >= irelend)
        {
          ((*_bfd_error_handler)
           (_("%B: 0x%lx: warning: could not find expected COUNT reloc"),
            abfd, (unsigned long) paddr));
          continue;
        }

      /* The number of uses is stored in the r_addend field.  We've
         just deleted one.  */
      if (irelcount->r_addend == 0)
        {
          ((*_bfd_error_handler) (_("%B: 0x%lx: warning: bad count"),
                                  abfd,
                                  (unsigned long) paddr));
          continue;
        }

      --irelcount->r_addend;

      /* If there are no more uses, we can delete the address.  Reload
         the address from irelfn, in case it was changed by the
         previous call to sh_elf_relax_delete_bytes.  */
      if (irelcount->r_addend == 0)
        {
          if (! sh_elf_relax_delete_bytes (abfd, sec, irelfn->r_offset, 4))
            goto error_return;
        }

      /* We've done all we can with that function call.  */
    }

  /* Look for load and store instructions that we can align on four
     byte boundaries.  */
  if ((elf_elfheader (abfd)->e_flags & EF_SH_MACH_MASK) != EF_SH4
      && have_code)
    {
      bfd_boolean swapped;

      /* Get the section contents.  */
      if (contents == NULL)
        {
          if (elf_section_data (sec)->this_hdr.contents != NULL)
            contents = elf_section_data (sec)->this_hdr.contents;
          else
            {
              if (!bfd_malloc_and_get_section (abfd, sec, &contents))
                goto error_return;
            }
        }

      if (! sh_elf_align_loads (abfd, sec, internal_relocs, contents,
                                &swapped))
        goto error_return;

      if (swapped)
        {
          elf_section_data (sec)->relocs = internal_relocs;
          elf_section_data (sec)->this_hdr.contents = contents;
          symtab_hdr->contents = (unsigned char *) isymbuf;
        }
    }

  if (isymbuf != NULL
      && symtab_hdr->contents != (unsigned char *) isymbuf)
    {
      if (! link_info->keep_memory)
        free (isymbuf);
      else
        {
          /* Cache the symbols for elf_link_input_bfd.  */
          symtab_hdr->contents = (unsigned char *) isymbuf;
        }
    }

  if (contents != NULL
      && elf_section_data (sec)->this_hdr.contents != contents)
    {
      if (! link_info->keep_memory)
        free (contents);
      else
        {
          /* Cache the section contents for elf_link_input_bfd.  */
          elf_section_data (sec)->this_hdr.contents = contents;
        }
    }

  if (internal_relocs != NULL
      && elf_section_data (sec)->relocs != internal_relocs)
    free (internal_relocs);

  return TRUE;

 error_return:
  if (isymbuf != NULL
      && symtab_hdr->contents != (unsigned char *) isymbuf)
    free (isymbuf);
  if (contents != NULL
      && elf_section_data (sec)->this_hdr.contents != contents)
    free (contents);
  if (internal_relocs != NULL
      && elf_section_data (sec)->relocs != internal_relocs)
    free (internal_relocs);

  return FALSE;
}

/* Delete some bytes from a section while relaxing.  FIXME: There is a
   lot of duplication between this function and sh_relax_delete_bytes
   in coff-sh.c.  */

static bfd_boolean
sh_elf_relax_delete_bytes (bfd *abfd, asection *sec, bfd_vma addr,
                           int count)
{
  Elf_Internal_Shdr *symtab_hdr;
  unsigned int sec_shndx;
  bfd_byte *contents;
  Elf_Internal_Rela *irel, *irelend;
  Elf_Internal_Rela *irelalign;
  bfd_vma toaddr;
  Elf_Internal_Sym *isymbuf, *isym, *isymend;
  struct elf_link_hash_entry **sym_hashes;
  struct elf_link_hash_entry **end_hashes;
  unsigned int symcount;
  asection *o;

  symtab_hdr = &elf_symtab_hdr (abfd);
  isymbuf = (Elf_Internal_Sym *) symtab_hdr->contents;

  sec_shndx = _bfd_elf_section_from_bfd_section (abfd, sec);

  contents = elf_section_data (sec)->this_hdr.contents;

  /* The deletion must stop at the next ALIGN reloc for an aligment
     power larger than the number of bytes we are deleting.  */

  irelalign = NULL;
  toaddr = sec->size;

  irel = elf_section_data (sec)->relocs;
  irelend = irel + sec->reloc_count;
  for (; irel < irelend; irel++)
    {
      if (ELF32_R_TYPE (irel->r_info) == (int) R_SH_ALIGN
          && irel->r_offset > addr
          && count < (1 << irel->r_addend))
        {
          irelalign = irel;
          toaddr = irel->r_offset;
          break;
        }
    }

  /* Actually delete the bytes.  */
  memmove (contents + addr, contents + addr + count,
           (size_t) (toaddr - addr - count));
  if (irelalign == NULL)
    sec->size -= count;
  else
    {
      int i;

#define NOP_OPCODE (0x0009)

      BFD_ASSERT ((count & 1) == 0);
      for (i = 0; i < count; i += 2)
        bfd_put_16 (abfd, (bfd_vma) NOP_OPCODE, contents + toaddr - count + i);
    }

  /* Adjust all the relocs.  */
  for (irel = elf_section_data (sec)->relocs; irel < irelend; irel++)
    {
      bfd_vma nraddr, stop;
      bfd_vma start = 0;
      int insn = 0;
      int off, adjust, oinsn;
      bfd_signed_vma voff = 0;
      bfd_boolean overflow;

      /* Get the new reloc address.  */
      nraddr = irel->r_offset;
      if ((irel->r_offset > addr
           && irel->r_offset < toaddr)
          || (ELF32_R_TYPE (irel->r_info) == (int) R_SH_ALIGN
              && irel->r_offset == toaddr))
        nraddr -= count;

      /* See if this reloc was for the bytes we have deleted, in which
         case we no longer care about it.  Don't delete relocs which
         represent addresses, though.  */
      if (irel->r_offset >= addr
          && irel->r_offset < addr + count
          && ELF32_R_TYPE (irel->r_info) != (int) R_SH_ALIGN
          && ELF32_R_TYPE (irel->r_info) != (int) R_SH_CODE
          && ELF32_R_TYPE (irel->r_info) != (int) R_SH_DATA
          && ELF32_R_TYPE (irel->r_info) != (int) R_SH_LABEL)
        irel->r_info = ELF32_R_INFO (ELF32_R_SYM (irel->r_info),
                                     (int) R_SH_NONE);

      /* If this is a PC relative reloc, see if the range it covers
         includes the bytes we have deleted.  */
      switch ((enum elf_sh_reloc_type) ELF32_R_TYPE (irel->r_info))
        {
        default:
          break;

        case R_SH_DIR8WPN:
        case R_SH_IND12W:
        case R_SH_DIR8WPZ:
        case R_SH_DIR8WPL:
          start = irel->r_offset;
          insn = bfd_get_16 (abfd, contents + nraddr);
          break;
        }

      switch ((enum elf_sh_reloc_type) ELF32_R_TYPE (irel->r_info))
        {
        default:
          start = stop = addr;
          break;

        case R_SH_DIR32:
          /* If this reloc is against a symbol defined in this
             section, and the symbol will not be adjusted below, we
             must check the addend to see it will put the value in
             range to be adjusted, and hence must be changed.  */
          if (ELF32_R_SYM (irel->r_info) < symtab_hdr->sh_info)
            {
              isym = isymbuf + ELF32_R_SYM (irel->r_info);
              if (isym->st_shndx == sec_shndx
                  && (isym->st_value <= addr
                      || isym->st_value >= toaddr))
                {
                  bfd_vma val;

                  if (get_howto_table (abfd)[R_SH_DIR32].partial_inplace)
                    {
                      val = bfd_get_32 (abfd, contents + nraddr);
                      val += isym->st_value;
                      if (val > addr && val < toaddr)
                        bfd_put_32 (abfd, val - count, contents + nraddr);
                    }
                  else
                    {
                      val = isym->st_value + irel->r_addend;
                      if (val > addr && val < toaddr)
                        irel->r_addend -= count;
                    }
                }
            }
          start = stop = addr;
          break;

        case R_SH_DIR8WPN:
          off = insn & 0xff;
          if (off & 0x80)
            off -= 0x100;
          stop = (bfd_vma) ((bfd_signed_vma) start + 4 + off * 2);
          break;

        case R_SH_IND12W:
          off = insn & 0xfff;
          if (! off)
            {
              /* This has been made by previous relaxation.  Since the
                 relocation will be against an external symbol, the
                 final relocation will just do the right thing.  */
              start = stop = addr;
            }
          else
            {
              if (off & 0x800)
                off -= 0x1000;
              stop = (bfd_vma) ((bfd_signed_vma) start + 4 + off * 2);

              /* The addend will be against the section symbol, thus
                 for adjusting the addend, the relevant start is the
                 start of the section.
                 N.B. If we want to abandon in-place changes here and
                 test directly using symbol + addend, we have to take into
                 account that the addend has already been adjusted by -4.  */
              if (stop > addr && stop < toaddr)
                irel->r_addend -= count;
            }
          break;

        case R_SH_DIR8WPZ:
          off = insn & 0xff;
          stop = start + 4 + off * 2;
          break;

        case R_SH_DIR8WPL:
          off = insn & 0xff;
          stop = (start & ~(bfd_vma) 3) + 4 + off * 4;
          break;

        case R_SH_SWITCH8:
        case R_SH_SWITCH16:
        case R_SH_SWITCH32:
          /* These relocs types represent
               .word L2-L1
             The r_addend field holds the difference between the reloc
             address and L1.  That is the start of the reloc, and
             adding in the contents gives us the top.  We must adjust
             both the r_offset field and the section contents.
             N.B. in gas / coff bfd, the elf bfd r_addend is called r_offset,
             and the elf bfd r_offset is called r_vaddr.  */

          stop = irel->r_offset;
          start = (bfd_vma) ((bfd_signed_vma) stop - (long) irel->r_addend);

          if (start > addr
              && start < toaddr
              && (stop <= addr || stop >= toaddr))
            irel->r_addend += count;
          else if (stop > addr
                   && stop < toaddr
                   && (start <= addr || start >= toaddr))
            irel->r_addend -= count;

          if (ELF32_R_TYPE (irel->r_info) == (int) R_SH_SWITCH16)
            voff = bfd_get_signed_16 (abfd, contents + nraddr);
          else if (ELF32_R_TYPE (irel->r_info) == (int) R_SH_SWITCH8)
            voff = bfd_get_8 (abfd, contents + nraddr);
          else
            voff = bfd_get_signed_32 (abfd, contents + nraddr);
          stop = (bfd_vma) ((bfd_signed_vma) start + voff);

          break;

        case R_SH_USES:
          start = irel->r_offset;
          stop = (bfd_vma) ((bfd_signed_vma) start
                            + (long) irel->r_addend
                            + 4);
          break;
        }

      if (start > addr
          && start < toaddr
          && (stop <= addr || stop >= toaddr))
        adjust = count;
      else if (stop > addr
               && stop < toaddr
               && (start <= addr || start >= toaddr))
        adjust = - count;
      else
        adjust = 0;

      if (adjust != 0)
        {
          oinsn = insn;
          overflow = FALSE;
          switch ((enum elf_sh_reloc_type) ELF32_R_TYPE (irel->r_info))
            {
            default:
              abort ();
              break;

            case R_SH_DIR8WPN:
            case R_SH_DIR8WPZ:
              insn += adjust / 2;
              if ((oinsn & 0xff00) != (insn & 0xff00))
                overflow = TRUE;
              bfd_put_16 (abfd, (bfd_vma) insn, contents + nraddr);
              break;

            case R_SH_IND12W:
              insn += adjust / 2;
              if ((oinsn & 0xf000) != (insn & 0xf000))
                overflow = TRUE;
              bfd_put_16 (abfd, (bfd_vma) insn, contents + nraddr);
              break;

            case R_SH_DIR8WPL:
              BFD_ASSERT (adjust == count || count >= 4);
              if (count >= 4)
                insn += adjust / 4;
              else
                {
                  if ((irel->r_offset & 3) == 0)
                    ++insn;
                }
              if ((oinsn & 0xff00) != (insn & 0xff00))
                overflow = TRUE;
              bfd_put_16 (abfd, (bfd_vma) insn, contents + nraddr);
              break;

            case R_SH_SWITCH8:
              voff += adjust;
              if (voff < 0 || voff >= 0xff)
                overflow = TRUE;
              bfd_put_8 (abfd, voff, contents + nraddr);
              break;

            case R_SH_SWITCH16:
              voff += adjust;
              if (voff < - 0x8000 || voff >= 0x8000)
                overflow = TRUE;
              bfd_put_signed_16 (abfd, (bfd_vma) voff, contents + nraddr);
              break;

            case R_SH_SWITCH32:
              voff += adjust;
              bfd_put_signed_32 (abfd, (bfd_vma) voff, contents + nraddr);
              break;

            case R_SH_USES:
              irel->r_addend += adjust;
              break;
            }

          if (overflow)
            {
              ((*_bfd_error_handler)
               (_("%B: 0x%lx: fatal: reloc overflow while relaxing"),
                abfd, (unsigned long) irel->r_offset));
              bfd_set_error (bfd_error_bad_value);
              return FALSE;
            }
        }

      irel->r_offset = nraddr;
    }

  /* Look through all the other sections.  If there contain any IMM32
     relocs against internal symbols which we are not going to adjust
     below, we may need to adjust the addends.  */
  for (o = abfd->sections; o != NULL; o = o->next)
    {
      Elf_Internal_Rela *internal_relocs;
      Elf_Internal_Rela *irelscan, *irelscanend;
      bfd_byte *ocontents;

      if (o == sec
          || (o->flags & SEC_RELOC) == 0
          || o->reloc_count == 0)
        continue;

      /* We always cache the relocs.  Perhaps, if info->keep_memory is
         FALSE, we should free them, if we are permitted to, when we
         leave sh_coff_relax_section.  */
      internal_relocs = (_bfd_elf_link_read_relocs
                         (abfd, o, NULL, (Elf_Internal_Rela *) NULL, TRUE));
      if (internal_relocs == NULL)
        return FALSE;

      ocontents = NULL;
      irelscanend = internal_relocs + o->reloc_count;
      for (irelscan = internal_relocs; irelscan < irelscanend; irelscan++)
        {
          /* Dwarf line numbers use R_SH_SWITCH32 relocs.  */
          if (ELF32_R_TYPE (irelscan->r_info) == (int) R_SH_SWITCH32)
            {
              bfd_vma start, stop;
              bfd_signed_vma voff;

              if (ocontents == NULL)
                {
                  if (elf_section_data (o)->this_hdr.contents != NULL)
                    ocontents = elf_section_data (o)->this_hdr.contents;
                  else
                    {
                      /* We always cache the section contents.
                         Perhaps, if info->keep_memory is FALSE, we
                         should free them, if we are permitted to,
                         when we leave sh_coff_relax_section.  */
                      if (!bfd_malloc_and_get_section (abfd, o, &ocontents))
                        {
                          if (ocontents != NULL)
                            free (ocontents);
                          return FALSE;
                        }

                      elf_section_data (o)->this_hdr.contents = ocontents;
                    }
                }

              stop = irelscan->r_offset;
              start
                = (bfd_vma) ((bfd_signed_vma) stop - (long) irelscan->r_addend);

              /* STOP is in a different section, so it won't change.  */
              if (start > addr && start < toaddr)
                irelscan->r_addend += count;

              voff = bfd_get_signed_32 (abfd, ocontents + irelscan->r_offset);
              stop = (bfd_vma) ((bfd_signed_vma) start + voff);

              if (start > addr
                  && start < toaddr
                  && (stop <= addr || stop >= toaddr))
                bfd_put_signed_32 (abfd, (bfd_vma) voff + count,
                                   ocontents + irelscan->r_offset);
              else if (stop > addr
                       && stop < toaddr
                       && (start <= addr || start >= toaddr))
                bfd_put_signed_32 (abfd, (bfd_vma) voff - count,
                                   ocontents + irelscan->r_offset);
            }

          if (ELF32_R_TYPE (irelscan->r_info) != (int) R_SH_DIR32)
            continue;

          if (ELF32_R_SYM (irelscan->r_info) >= symtab_hdr->sh_info)
            continue;


          isym = isymbuf + ELF32_R_SYM (irelscan->r_info);
          if (isym->st_shndx == sec_shndx
              && (isym->st_value <= addr
                  || isym->st_value >= toaddr))
            {
              bfd_vma val;

              if (ocontents == NULL)
                {
                  if (elf_section_data (o)->this_hdr.contents != NULL)
                    ocontents = elf_section_data (o)->this_hdr.contents;
                  else
                    {
                      /* We always cache the section contents.
                         Perhaps, if info->keep_memory is FALSE, we
                         should free them, if we are permitted to,
                         when we leave sh_coff_relax_section.  */
                      if (!bfd_malloc_and_get_section (abfd, o, &ocontents))
                        {
                          if (ocontents != NULL)
                            free (ocontents);
                          return FALSE;
                        }

                      elf_section_data (o)->this_hdr.contents = ocontents;
                    }
                }

              val = bfd_get_32 (abfd, ocontents + irelscan->r_offset);
              val += isym->st_value;
              if (val > addr && val < toaddr)
                bfd_put_32 (abfd, val - count,
                            ocontents + irelscan->r_offset);
            }
        }
    }

  /* Adjust the local symbols defined in this section.  */
  isymend = isymbuf + symtab_hdr->sh_info;
  for (isym = isymbuf; isym < isymend; isym++)
    {
      if (isym->st_shndx == sec_shndx
          && isym->st_value > addr
          && isym->st_value < toaddr)
        isym->st_value -= count;
    }

  /* Now adjust the global symbols defined in this section.  */
  symcount = (symtab_hdr->sh_size / sizeof (Elf32_External_Sym)
              - symtab_hdr->sh_info);
  sym_hashes = elf_sym_hashes (abfd);
  end_hashes = sym_hashes + symcount;
  for (; sym_hashes < end_hashes; sym_hashes++)
    {
      struct elf_link_hash_entry *sym_hash = *sym_hashes;
      if ((sym_hash->root.type == bfd_link_hash_defined
           || sym_hash->root.type == bfd_link_hash_defweak)
          && sym_hash->root.u.def.section == sec
          && sym_hash->root.u.def.value > addr
          && sym_hash->root.u.def.value < toaddr)
        {
          sym_hash->root.u.def.value -= count;
        }
    }

  /* See if we can move the ALIGN reloc forward.  We have adjusted
     r_offset for it already.  */
  if (irelalign != NULL)
    {
      bfd_vma alignto, alignaddr;

      alignto = BFD_ALIGN (toaddr, 1 << irelalign->r_addend);
      alignaddr = BFD_ALIGN (irelalign->r_offset,
                             1 << irelalign->r_addend);
      if (alignto != alignaddr)
        {
          /* Tail recursion.  */
          return sh_elf_relax_delete_bytes (abfd, sec, alignaddr,
                                            (int) (alignto - alignaddr));
        }
    }

  return TRUE;
}

/* Look for loads and stores which we can align to four byte
   boundaries.  This is like sh_align_loads in coff-sh.c.  */

static bfd_boolean
sh_elf_align_loads (bfd *abfd ATTRIBUTE_UNUSED, asection *sec,
                    Elf_Internal_Rela *internal_relocs,
                    bfd_byte *contents ATTRIBUTE_UNUSED,
                    bfd_boolean *pswapped)
{
  Elf_Internal_Rela *irel, *irelend;
  bfd_vma *labels = NULL;
  bfd_vma *label, *label_end;
  bfd_size_type amt;

  *pswapped = FALSE;

  irelend = internal_relocs + sec->reloc_count;

  /* Get all the addresses with labels on them.  */
  amt = sec->reloc_count;
  amt *= sizeof (bfd_vma);
  labels = (bfd_vma *) bfd_malloc (amt);
  if (labels == NULL)
    goto error_return;
  label_end = labels;
  for (irel = internal_relocs; irel < irelend; irel++)
    {
      if (ELF32_R_TYPE (irel->r_info) == (int) R_SH_LABEL)
        {
          *label_end = irel->r_offset;
          ++label_end;
        }
    }

  /* Note that the assembler currently always outputs relocs in
     address order.  If that ever changes, this code will need to sort
     the label values and the relocs.  */

  label = labels;

  for (irel = internal_relocs; irel < irelend; irel++)
    {
      bfd_vma start, stop;

      if (ELF32_R_TYPE (irel->r_info) != (int) R_SH_CODE)
        continue;

      start = irel->r_offset;

      for (irel++; irel < irelend; irel++)
        if (ELF32_R_TYPE (irel->r_info) == (int) R_SH_DATA)
          break;
      if (irel < irelend)
        stop = irel->r_offset;
      else
        stop = sec->size;

      if (! _bfd_sh_align_load_span (abfd, sec, contents, sh_elf_swap_insns,
                                     internal_relocs, &label,
                                     label_end, start, stop, pswapped))
        goto error_return;
    }

  free (labels);

  return TRUE;

 error_return:
  if (labels != NULL)
    free (labels);
  return FALSE;
}

#ifndef SH64_ELF
/* Swap two SH instructions.  This is like sh_swap_insns in coff-sh.c.  */

static bfd_boolean
sh_elf_swap_insns (bfd *abfd, asection *sec, void *relocs,
                   bfd_byte *contents, bfd_vma addr)
{
  Elf_Internal_Rela *internal_relocs = (Elf_Internal_Rela *) relocs;
  unsigned short i1, i2;
  Elf_Internal_Rela *irel, *irelend;

  /* Swap the instructions themselves.  */
  i1 = bfd_get_16 (abfd, contents + addr);
  i2 = bfd_get_16 (abfd, contents + addr + 2);
  bfd_put_16 (abfd, (bfd_vma) i2, contents + addr);
  bfd_put_16 (abfd, (bfd_vma) i1, contents + addr + 2);

  /* Adjust all reloc addresses.  */
  irelend = internal_relocs + sec->reloc_count;
  for (irel = internal_relocs; irel < irelend; irel++)
    {
      enum elf_sh_reloc_type type;
      int add;

      /* There are a few special types of relocs that we don't want to
         adjust.  These relocs do not apply to the instruction itself,
         but are only associated with the address.  */
      type = (enum elf_sh_reloc_type) ELF32_R_TYPE (irel->r_info);
      if (type == R_SH_ALIGN
          || type == R_SH_CODE
          || type == R_SH_DATA
          || type == R_SH_LABEL)
        continue;

      /* If an R_SH_USES reloc points to one of the addresses being
         swapped, we must adjust it.  It would be incorrect to do this
         for a jump, though, since we want to execute both
         instructions after the jump.  (We have avoided swapping
         around a label, so the jump will not wind up executing an
         instruction it shouldn't).  */
      if (type == R_SH_USES)
        {
          bfd_vma off;

          off = irel->r_offset + 4 + irel->r_addend;
          if (off == addr)
            irel->r_offset += 2;
          else if (off == addr + 2)
            irel->r_offset -= 2;
        }

      if (irel->r_offset == addr)
        {
          irel->r_offset += 2;
          add = -2;
        }
      else if (irel->r_offset == addr + 2)
        {
          irel->r_offset -= 2;
          add = 2;
        }
      else
        add = 0;

      if (add != 0)
        {
          bfd_byte *loc;
          unsigned short insn, oinsn;
          bfd_boolean overflow;

          loc = contents + irel->r_offset;
          overflow = FALSE;
          switch (type)
            {
            default:
              break;

            case R_SH_DIR8WPN:
            case R_SH_DIR8WPZ:
              insn = bfd_get_16 (abfd, loc);
              oinsn = insn;
              insn += add / 2;
              if ((oinsn & 0xff00) != (insn & 0xff00))
                overflow = TRUE;
              bfd_put_16 (abfd, (bfd_vma) insn, loc);
              break;

            case R_SH_IND12W:
              insn = bfd_get_16 (abfd, loc);
              oinsn = insn;
              insn += add / 2;
              if ((oinsn & 0xf000) != (insn & 0xf000))
                overflow = TRUE;
              bfd_put_16 (abfd, (bfd_vma) insn, loc);
              break;

            case R_SH_DIR8WPL:
              /* This reloc ignores the least significant 3 bits of
                 the program counter before adding in the offset.
                 This means that if ADDR is at an even address, the
                 swap will not affect the offset.  If ADDR is an at an
                 odd address, then the instruction will be crossing a
                 four byte boundary, and must be adjusted.  */
              if ((addr & 3) != 0)
                {
                  insn = bfd_get_16 (abfd, loc);
                  oinsn = insn;
                  insn += add / 2;
                  if ((oinsn & 0xff00) != (insn & 0xff00))
                    overflow = TRUE;
                  bfd_put_16 (abfd, (bfd_vma) insn, loc);
                }

              break;
            }

          if (overflow)
            {
              ((*_bfd_error_handler)
               (_("%B: 0x%lx: fatal: reloc overflow while relaxing"),
                abfd, (unsigned long) irel->r_offset));
              bfd_set_error (bfd_error_bad_value);
              return FALSE;
            }
        }
    }

  return TRUE;
}
#endif /* defined SH64_ELF */

/* Describes one of the various PLT styles.  */

struct elf_sh_plt_info
{
  /* The template for the first PLT entry, or NULL if there is no special
     first entry.  */
  const bfd_byte *plt0_entry;

  /* The size of PLT0_ENTRY in bytes, or 0 if PLT0_ENTRY is NULL.  */
  bfd_vma plt0_entry_size;

  /* Index I is the offset into PLT0_ENTRY of a pointer to
     _GLOBAL_OFFSET_TABLE_ + I * 4.  The value is MINUS_ONE
     if there is no such pointer.  */
  bfd_vma plt0_got_fields[3];

  /* The template for a symbol's PLT entry.  */
  const bfd_byte *symbol_entry;

  /* The size of SYMBOL_ENTRY in bytes.  */
  bfd_vma symbol_entry_size;

  /* Byte offsets of fields in SYMBOL_ENTRY.  Not all fields are used
     on all targets.  The comments by each member indicate the value
     that the field must hold.  */
  struct {
    bfd_vma got_entry; /* the address of the symbol's .got.plt entry */
    bfd_vma plt; /* .plt (or a branch to .plt on VxWorks) */
    bfd_vma reloc_offset; /* the offset of the symbol's JMP_SLOT reloc */
  } symbol_fields;

  /* The offset of the resolver stub from the start of SYMBOL_ENTRY.  */
  bfd_vma symbol_resolve_offset;
};

#ifdef INCLUDE_SHMEDIA

/* The size in bytes of an entry in the procedure linkage table.  */

#define ELF_PLT_ENTRY_SIZE 64

/* First entry in an absolute procedure linkage table look like this.  */

static const bfd_byte elf_sh_plt0_entry_be[ELF_PLT_ENTRY_SIZE] =
{
  0xcc, 0x00, 0x01, 0x10, /* movi  .got.plt >> 16, r17 */
  0xc8, 0x00, 0x01, 0x10, /* shori .got.plt & 65535, r17 */
  0x89, 0x10, 0x09, 0x90, /* ld.l  r17, 8, r25 */
  0x6b, 0xf1, 0x66, 0x00, /* ptabs r25, tr0 */
  0x89, 0x10, 0x05, 0x10, /* ld.l  r17, 4, r17 */
  0x44, 0x01, 0xff, 0xf0, /* blink tr0, r63 */
  0x6f, 0xf0, 0xff, 0xf0, /* nop */
  0x6f, 0xf0, 0xff, 0xf0, /* nop */
  0x6f, 0xf0, 0xff, 0xf0, /* nop */
  0x6f, 0xf0, 0xff, 0xf0, /* nop */
  0x6f, 0xf0, 0xff, 0xf0, /* nop */
  0x6f, 0xf0, 0xff, 0xf0, /* nop */
  0x6f, 0xf0, 0xff, 0xf0, /* nop */
  0x6f, 0xf0, 0xff, 0xf0, /* nop */
  0x6f, 0xf0, 0xff, 0xf0, /* nop */
  0x6f, 0xf0, 0xff, 0xf0, /* nop */
};

static const bfd_byte elf_sh_plt0_entry_le[ELF_PLT_ENTRY_SIZE] =
{
  0x10, 0x01, 0x00, 0xcc, /* movi  .got.plt >> 16, r17 */
  0x10, 0x01, 0x00, 0xc8, /* shori .got.plt & 65535, r17 */
  0x90, 0x09, 0x10, 0x89, /* ld.l  r17, 8, r25 */
  0x00, 0x66, 0xf1, 0x6b, /* ptabs r25, tr0 */
  0x10, 0x05, 0x10, 0x89, /* ld.l  r17, 4, r17 */
  0xf0, 0xff, 0x01, 0x44, /* blink tr0, r63 */
  0xf0, 0xff, 0xf0, 0x6f, /* nop */
  0xf0, 0xff, 0xf0, 0x6f, /* nop */
  0xf0, 0xff, 0xf0, 0x6f, /* nop */
  0xf0, 0xff, 0xf0, 0x6f, /* nop */
  0xf0, 0xff, 0xf0, 0x6f, /* nop */
  0xf0, 0xff, 0xf0, 0x6f, /* nop */
  0xf0, 0xff, 0xf0, 0x6f, /* nop */
  0xf0, 0xff, 0xf0, 0x6f, /* nop */
  0xf0, 0xff, 0xf0, 0x6f, /* nop */
  0xf0, 0xff, 0xf0, 0x6f, /* nop */
};

/* Sebsequent entries in an absolute procedure linkage table look like
   this.  */

static const bfd_byte elf_sh_plt_entry_be[ELF_PLT_ENTRY_SIZE] =
{
  0xcc, 0x00, 0x01, 0x90, /* movi  nameN-in-GOT >> 16, r25 */
  0xc8, 0x00, 0x01, 0x90, /* shori nameN-in-GOT & 65535, r25 */
  0x89, 0x90, 0x01, 0x90, /* ld.l  r25, 0, r25 */
  0x6b, 0xf1, 0x66, 0x00, /* ptabs r25, tr0 */
  0x44, 0x01, 0xff, 0xf0, /* blink tr0, r63 */
  0x6f, 0xf0, 0xff, 0xf0, /* nop */
  0x6f, 0xf0, 0xff, 0xf0, /* nop */
  0x6f, 0xf0, 0xff, 0xf0, /* nop */
  0xcc, 0x00, 0x01, 0x90, /* movi  .PLT0 >> 16, r25 */
  0xc8, 0x00, 0x01, 0x90, /* shori .PLT0 & 65535, r25 */
  0x6b, 0xf1, 0x66, 0x00, /* ptabs r25, tr0 */
  0xcc, 0x00, 0x01, 0x50, /* movi  reloc-offset >> 16, r21 */
  0xc8, 0x00, 0x01, 0x50, /* shori reloc-offset & 65535, r21 */
  0x44, 0x01, 0xff, 0xf0, /* blink tr0, r63 */
  0x6f, 0xf0, 0xff, 0xf0, /* nop */
  0x6f, 0xf0, 0xff, 0xf0, /* nop */
};

static const bfd_byte elf_sh_plt_entry_le[ELF_PLT_ENTRY_SIZE] =
{
  0x90, 0x01, 0x00, 0xcc, /* movi  nameN-in-GOT >> 16, r25 */
  0x90, 0x01, 0x00, 0xc8, /* shori nameN-in-GOT & 65535, r25 */
  0x90, 0x01, 0x90, 0x89, /* ld.l  r25, 0, r25 */
  0x00, 0x66, 0xf1, 0x6b, /* ptabs r25, tr0 */
  0xf0, 0xff, 0x01, 0x44, /* blink tr0, r63 */
  0xf0, 0xff, 0xf0, 0x6f, /* nop */
  0xf0, 0xff, 0xf0, 0x6f, /* nop */
  0xf0, 0xff, 0xf0, 0x6f, /* nop */
  0x90, 0x01, 0x00, 0xcc, /* movi  .PLT0 >> 16, r25 */
  0x90, 0x01, 0x00, 0xc8, /* shori .PLT0 & 65535, r25 */
  0x00, 0x66, 0xf1, 0x6b, /* ptabs r25, tr0 */
  0x50, 0x01, 0x00, 0xcc, /* movi  reloc-offset >> 16, r21 */
  0x50, 0x01, 0x00, 0xc8, /* shori reloc-offset & 65535, r21 */
  0xf0, 0xff, 0x01, 0x44, /* blink tr0, r63 */
  0xf0, 0xff, 0xf0, 0x6f, /* nop */
  0xf0, 0xff, 0xf0, 0x6f, /* nop */
};

/* Entries in a PIC procedure linkage table look like this.  */

static const bfd_byte elf_sh_pic_plt_entry_be[ELF_PLT_ENTRY_SIZE] =
{
  0xcc, 0x00, 0x01, 0x90, /* movi  nameN@GOT >> 16, r25 */
  0xc8, 0x00, 0x01, 0x90, /* shori nameN@GOT & 65535, r25 */
  0x40, 0xc2, 0x65, 0x90, /* ldx.l r12, r25, r25 */
  0x6b, 0xf1, 0x66, 0x00, /* ptabs r25, tr0 */
  0x44, 0x01, 0xff, 0xf0, /* blink tr0, r63 */
  0x6f, 0xf0, 0xff, 0xf0, /* nop */
  0x6f, 0xf0, 0xff, 0xf0, /* nop */
  0x6f, 0xf0, 0xff, 0xf0, /* nop */
  0xce, 0x00, 0x01, 0x10, /* movi  -GOT_BIAS, r17 */
  0x00, 0xc8, 0x45, 0x10, /* add.l r12, r17, r17 */
  0x89, 0x10, 0x09, 0x90, /* ld.l  r17, 8, r25 */
  0x6b, 0xf1, 0x66, 0x00, /* ptabs r25, tr0 */
  0x89, 0x10, 0x05, 0x10, /* ld.l  r17, 4, r17 */
  0xcc, 0x00, 0x01, 0x50, /* movi  reloc-offset >> 16, r21 */
  0xc8, 0x00, 0x01, 0x50, /* shori reloc-offset & 65535, r21 */
  0x44, 0x01, 0xff, 0xf0, /* blink tr0, r63 */
};

static const bfd_byte elf_sh_pic_plt_entry_le[ELF_PLT_ENTRY_SIZE] =
{
  0x90, 0x01, 0x00, 0xcc, /* movi  nameN@GOT >> 16, r25 */
  0x90, 0x01, 0x00, 0xc8, /* shori nameN@GOT & 65535, r25 */
  0x90, 0x65, 0xc2, 0x40, /* ldx.l r12, r25, r25 */
  0x00, 0x66, 0xf1, 0x6b, /* ptabs r25, tr0 */
  0xf0, 0xff, 0x01, 0x44, /* blink tr0, r63 */
  0xf0, 0xff, 0xf0, 0x6f, /* nop */
  0xf0, 0xff, 0xf0, 0x6f, /* nop */
  0xf0, 0xff, 0xf0, 0x6f, /* nop */
  0x10, 0x01, 0x00, 0xce, /* movi  -GOT_BIAS, r17 */
  0x10, 0x45, 0xc8, 0x00, /* add.l r12, r17, r17 */
  0x90, 0x09, 0x10, 0x89, /* ld.l  r17, 8, r25 */
  0x00, 0x66, 0xf1, 0x6b, /* ptabs r25, tr0 */
  0x10, 0x05, 0x10, 0x89, /* ld.l  r17, 4, r17 */
  0x50, 0x01, 0x00, 0xcc, /* movi  reloc-offset >> 16, r21 */
  0x50, 0x01, 0x00, 0xc8, /* shori reloc-offset & 65535, r21 */
  0xf0, 0xff, 0x01, 0x44, /* blink tr0, r63 */
};

static const struct elf_sh_plt_info elf_sh_plts[2][2] = {
  {
    {
      /* Big-endian non-PIC.  */
      elf_sh_plt0_entry_be,
      ELF_PLT_ENTRY_SIZE,
      { 0, MINUS_ONE, MINUS_ONE },
      elf_sh_plt_entry_be,
      ELF_PLT_ENTRY_SIZE,
      { 0, 32, 48 },
      33 /* includes ISA encoding */
    },
    {
      /* Little-endian non-PIC.  */
      elf_sh_plt0_entry_le,
      ELF_PLT_ENTRY_SIZE,
      { 0, MINUS_ONE, MINUS_ONE },
      elf_sh_plt_entry_le,
      ELF_PLT_ENTRY_SIZE,
      { 0, 32, 48 },
      33 /* includes ISA encoding */
    },
  },
  {
    {
      /* Big-endian PIC.  */
      elf_sh_plt0_entry_be,
      ELF_PLT_ENTRY_SIZE,
      { MINUS_ONE, MINUS_ONE, MINUS_ONE },
      elf_sh_pic_plt_entry_be,
      ELF_PLT_ENTRY_SIZE,
      { 0, MINUS_ONE, 52 },
      33 /* includes ISA encoding */
    },
    {
      /* Little-endian PIC.  */
      elf_sh_plt0_entry_le,
      ELF_PLT_ENTRY_SIZE,
      { MINUS_ONE, MINUS_ONE, MINUS_ONE },
      elf_sh_pic_plt_entry_le,
      ELF_PLT_ENTRY_SIZE,
      { 0, MINUS_ONE, 52 },
      33 /* includes ISA encoding */
    },
  }
};

/* Return offset of the linker in PLT0 entry.  */
#define elf_sh_plt0_gotplt_offset(info) 0

/* Install a 32-bit PLT field starting at ADDR, which occurs in OUTPUT_BFD.
   VALUE is the field's value and CODE_P is true if VALUE refers to code,
   not data.

   On SH64, each 32-bit field is loaded by a movi/shori pair.  */

inline static void
install_plt_field (bfd *output_bfd, bfd_boolean code_p,
                   unsigned long value, bfd_byte *addr)
{
  value |= code_p;
  bfd_put_32 (output_bfd,
              bfd_get_32 (output_bfd, addr)
              | ((value >> 6) & 0x3fffc00),
              addr);
  bfd_put_32 (output_bfd,
              bfd_get_32 (output_bfd, addr + 4)
              | ((value << 10) & 0x3fffc00),
              addr + 4);
}

/* Return the type of PLT associated with ABFD.  PIC_P is true if
   the object is position-independent.  */

static const struct elf_sh_plt_info *
get_plt_info (bfd *abfd ATTRIBUTE_UNUSED, bfd_boolean pic_p)
{
  return &elf_sh_plts[pic_p][!bfd_big_endian (abfd)];
}
#else
/* The size in bytes of an entry in the procedure linkage table.  */

#define ELF_PLT_ENTRY_SIZE 28

/* First entry in an absolute procedure linkage table look like this.  */

/* Note - this code has been "optimised" not to use r2.  r2 is used by
   GCC to return the address of large structures, so it should not be
   corrupted here.  This does mean however, that this PLT does not conform
   to the SH PIC ABI.  That spec says that r0 contains the type of the PLT
   and r2 contains the GOT id.  This version stores the GOT id in r0 and
   ignores the type.  Loaders can easily detect this difference however,
   since the type will always be 0 or 8, and the GOT ids will always be
   greater than or equal to 12.  */
static const bfd_byte elf_sh_plt0_entry_be[ELF_PLT_ENTRY_SIZE] =
{
  0xd0, 0x05,   /* mov.l 2f,r0 */
  0x60, 0x02,   /* mov.l @r0,r0 */
  0x2f, 0x06,   /* mov.l r0,@-r15 */
  0xd0, 0x03,   /* mov.l 1f,r0 */
  0x60, 0x02,   /* mov.l @r0,r0 */
  0x40, 0x2b,   /* jmp @r0 */
  0x60, 0xf6,   /*  mov.l @r15+,r0 */
  0x00, 0x09,   /* nop */
  0x00, 0x09,   /* nop */
  0x00, 0x09,   /* nop */
  0, 0, 0, 0,   /* 1: replaced with address of .got.plt + 8.  */
  0, 0, 0, 0,   /* 2: replaced with address of .got.plt + 4.  */
};

static const bfd_byte elf_sh_plt0_entry_le[ELF_PLT_ENTRY_SIZE] =
{
  0x05, 0xd0,   /* mov.l 2f,r0 */
  0x02, 0x60,   /* mov.l @r0,r0 */
  0x06, 0x2f,   /* mov.l r0,@-r15 */
  0x03, 0xd0,   /* mov.l 1f,r0 */
  0x02, 0x60,   /* mov.l @r0,r0 */
  0x2b, 0x40,   /* jmp @r0 */
  0xf6, 0x60,   /*  mov.l @r15+,r0 */
  0x09, 0x00,   /* nop */
  0x09, 0x00,   /* nop */
  0x09, 0x00,   /* nop */
  0, 0, 0, 0,   /* 1: replaced with address of .got.plt + 8.  */
  0, 0, 0, 0,   /* 2: replaced with address of .got.plt + 4.  */
};

/* Sebsequent entries in an absolute procedure linkage table look like
   this.  */

static const bfd_byte elf_sh_plt_entry_be[ELF_PLT_ENTRY_SIZE] =
{
  0xd0, 0x04,   /* mov.l 1f,r0 */
  0x60, 0x02,   /* mov.l @(r0,r12),r0 */
  0xd1, 0x02,   /* mov.l 0f,r1 */
  0x40, 0x2b,   /* jmp @r0 */
  0x60, 0x13,   /*  mov r1,r0 */
  0xd1, 0x03,   /* mov.l 2f,r1 */
  0x40, 0x2b,   /* jmp @r0 */
  0x00, 0x09,   /* nop */
  0, 0, 0, 0,   /* 0: replaced with address of .PLT0.  */
  0, 0, 0, 0,   /* 1: replaced with address of this symbol in .got.  */
  0, 0, 0, 0,   /* 2: replaced with offset into relocation table.  */
};

static const bfd_byte elf_sh_plt_entry_le[ELF_PLT_ENTRY_SIZE] =
{
  0x04, 0xd0,   /* mov.l 1f,r0 */
  0x02, 0x60,   /* mov.l @r0,r0 */
  0x02, 0xd1,   /* mov.l 0f,r1 */
  0x2b, 0x40,   /* jmp @r0 */
  0x13, 0x60,   /*  mov r1,r0 */
  0x03, 0xd1,   /* mov.l 2f,r1 */
  0x2b, 0x40,   /* jmp @r0 */
  0x09, 0x00,   /*  nop */
  0, 0, 0, 0,   /* 0: replaced with address of .PLT0.  */
  0, 0, 0, 0,   /* 1: replaced with address of this symbol in .got.  */
  0, 0, 0, 0,   /* 2: replaced with offset into relocation table.  */
};

/* Entries in a PIC procedure linkage table look like this.  */

static const bfd_byte elf_sh_pic_plt_entry_be[ELF_PLT_ENTRY_SIZE] =
{
  0xd0, 0x04,   /* mov.l 1f,r0 */
  0x00, 0xce,   /* mov.l @(r0,r12),r0 */
  0x40, 0x2b,   /* jmp @r0 */
  0x00, 0x09,   /*  nop */
  0x50, 0xc2,   /* mov.l @(8,r12),r0 */
  0xd1, 0x03,   /* mov.l 2f,r1 */
  0x40, 0x2b,   /* jmp @r0 */
  0x50, 0xc1,   /*  mov.l @(4,r12),r0 */
  0x00, 0x09,   /* nop */
  0x00, 0x09,   /* nop */
  0, 0, 0, 0,   /* 1: replaced with address of this symbol in .got.  */
  0, 0, 0, 0    /* 2: replaced with offset into relocation table.  */
};

static const bfd_byte elf_sh_pic_plt_entry_le[ELF_PLT_ENTRY_SIZE] =
{
  0x04, 0xd0,   /* mov.l 1f,r0 */
  0xce, 0x00,   /* mov.l @(r0,r12),r0 */
  0x2b, 0x40,   /* jmp @r0 */
  0x09, 0x00,   /*  nop */
  0xc2, 0x50,   /* mov.l @(8,r12),r0 */
  0x03, 0xd1,   /* mov.l 2f,r1 */
  0x2b, 0x40,   /* jmp @r0 */
  0xc1, 0x50,   /*  mov.l @(4,r12),r0 */
  0x09, 0x00,   /*  nop */
  0x09, 0x00,   /* nop */
  0, 0, 0, 0,   /* 1: replaced with address of this symbol in .got.  */
  0, 0, 0, 0    /* 2: replaced with offset into relocation table.  */
};

static const struct elf_sh_plt_info elf_sh_plts[2][2] = {
  {
    {
      /* Big-endian non-PIC.  */
      elf_sh_plt0_entry_be,
      ELF_PLT_ENTRY_SIZE,
      { MINUS_ONE, 24, 20 },
      elf_sh_plt_entry_be,
      ELF_PLT_ENTRY_SIZE,
      { 20, 16, 24 },
      8
    },
    {
      /* Little-endian non-PIC.  */
      elf_sh_plt0_entry_le,
      ELF_PLT_ENTRY_SIZE,
      { MINUS_ONE, 24, 20 },
      elf_sh_plt_entry_le,
      ELF_PLT_ENTRY_SIZE,
      { 20, 16, 24 },
      8
    },
  },
  {
    {
      /* Big-endian PIC.  */
      elf_sh_plt0_entry_be,
      ELF_PLT_ENTRY_SIZE,
      { MINUS_ONE, MINUS_ONE, MINUS_ONE },
      elf_sh_pic_plt_entry_be,
      ELF_PLT_ENTRY_SIZE,
      { 20, MINUS_ONE, 24 },
      8
    },
    {
      /* Little-endian PIC.  */
      elf_sh_plt0_entry_le,
      ELF_PLT_ENTRY_SIZE,
      { MINUS_ONE, MINUS_ONE, MINUS_ONE },
      elf_sh_pic_plt_entry_le,
      ELF_PLT_ENTRY_SIZE,
      { 20, MINUS_ONE, 24 },
      8
    },
  }
};

#define VXWORKS_PLT_HEADER_SIZE 12
#define VXWORKS_PLT_ENTRY_SIZE 24

static const bfd_byte vxworks_sh_plt0_entry_be[VXWORKS_PLT_HEADER_SIZE] =
{
  0xd1, 0x01,   /* mov.l @(8,pc),r1 */
  0x61, 0x12,   /* mov.l @r1,r1 */
  0x41, 0x2b,   /* jmp @r1 */
  0x00, 0x09,   /* nop */
  0, 0, 0, 0    /* 0: replaced with _GLOBAL_OFFSET_TABLE+8.  */
};

static const bfd_byte vxworks_sh_plt0_entry_le[VXWORKS_PLT_HEADER_SIZE] =
{
  0x01, 0xd1,   /* mov.l @(8,pc),r1 */
  0x12, 0x61,   /* mov.l @r1,r1 */
  0x2b, 0x41,   /* jmp @r1 */
  0x09, 0x00,   /* nop */
  0, 0, 0, 0    /* 0: replaced with _GLOBAL_OFFSET_TABLE+8.  */
};

static const bfd_byte vxworks_sh_plt_entry_be[VXWORKS_PLT_ENTRY_SIZE] =
{
  0xd0, 0x01,   /* mov.l @(8,pc),r0 */
  0x60, 0x02,   /* mov.l @r0,r0 */
  0x40, 0x2b,   /* jmp @r0 */
  0x00, 0x09,   /* nop */
  0, 0, 0, 0,   /* 0: replaced with address of this symbol in .got.  */
  0xd0, 0x01,   /* mov.l @(8,pc),r0 */
  0xa0, 0x00,   /* bra PLT (We need to fix the offset.)  */
  0x00, 0x09,   /* nop */
  0x00, 0x09,   /* nop */
  0, 0, 0, 0,   /* 1: replaced with offset into relocation table.  */
};

static const bfd_byte vxworks_sh_plt_entry_le[VXWORKS_PLT_ENTRY_SIZE] =
{
  0x01, 0xd0,   /* mov.l @(8,pc),r0 */
  0x02, 0x60,   /* mov.l @r0,r0 */
  0x2b, 0x40,   /* jmp @r0 */
  0x09, 0x00,   /* nop */
  0, 0, 0, 0,   /* 0: replaced with address of this symbol in .got.  */
  0x01, 0xd0,   /* mov.l @(8,pc),r0 */
  0x00, 0xa0,   /* bra PLT (We need to fix the offset.)  */
  0x09, 0x00,   /* nop */
  0x09, 0x00,   /* nop */
  0, 0, 0, 0,   /* 1: replaced with offset into relocation table.  */
};

static const bfd_byte vxworks_sh_pic_plt_entry_be[VXWORKS_PLT_ENTRY_SIZE] =
{
  0xd0, 0x01,   /* mov.l @(8,pc),r0 */
  0x00, 0xce,   /* mov.l @(r0,r12),r0 */
  0x40, 0x2b,   /* jmp @r0 */
  0x00, 0x09,   /* nop */
  0, 0, 0, 0,   /* 0: replaced with offset of this symbol in .got.  */
  0xd0, 0x01,   /* mov.l @(8,pc),r0 */
  0x51, 0xc2,   /* mov.l @(8,r12),r1 */
  0x41, 0x2b,   /* jmp @r1 */
  0x00, 0x09,   /* nop */
  0, 0, 0, 0,   /* 1: replaced with offset into relocation table.  */
};

static const bfd_byte vxworks_sh_pic_plt_entry_le[VXWORKS_PLT_ENTRY_SIZE] =
{
  0x01, 0xd0,   /* mov.l @(8,pc),r0 */
  0xce, 0x00,   /* mov.l @(r0,r12),r0 */
  0x2b, 0x40,   /* jmp @r0 */
  0x09, 0x00,   /* nop */
  0, 0, 0, 0,   /* 0: replaced with offset of this symbol in .got.  */
  0x01, 0xd0,   /* mov.l @(8,pc),r0 */
  0xc2, 0x51,   /* mov.l @(8,r12),r1 */
  0x2b, 0x41,   /* jmp @r1 */
  0x09, 0x00,   /* nop */
  0, 0, 0, 0,   /* 1: replaced with offset into relocation table.  */
};

static const struct elf_sh_plt_info vxworks_sh_plts[2][2] = {
  {
    {
      /* Big-endian non-PIC.  */
      vxworks_sh_plt0_entry_be,
      VXWORKS_PLT_HEADER_SIZE,
      { MINUS_ONE, MINUS_ONE, 8 },
      vxworks_sh_plt_entry_be,
      VXWORKS_PLT_ENTRY_SIZE,
      { 8, 14, 20 },
      12
    },
    {
      /* Little-endian non-PIC.  */
      vxworks_sh_plt0_entry_le,
      VXWORKS_PLT_HEADER_SIZE,
      { MINUS_ONE, MINUS_ONE, 8 },
      vxworks_sh_plt_entry_le,
      VXWORKS_PLT_ENTRY_SIZE,
      { 8, 14, 20 },
      12
    },
  },
  {
    {
      /* Big-endian PIC.  */
      NULL,
      0,
      { MINUS_ONE, MINUS_ONE, MINUS_ONE },
      vxworks_sh_pic_plt_entry_be,
      VXWORKS_PLT_ENTRY_SIZE,
      { 8, MINUS_ONE, 20 },
      12
    },
    {
      /* Little-endian PIC.  */
      NULL,
      0,
      { MINUS_ONE, MINUS_ONE, MINUS_ONE },
      vxworks_sh_pic_plt_entry_le,
      VXWORKS_PLT_ENTRY_SIZE,
      { 8, MINUS_ONE, 20 },
      12
    },
  }
};

/* Return the type of PLT associated with ABFD.  PIC_P is true if
   the object is position-independent.  */

static const struct elf_sh_plt_info *
get_plt_info (bfd *abfd ATTRIBUTE_UNUSED, bfd_boolean pic_p)
{
  if (vxworks_object_p (abfd))
    return &vxworks_sh_plts[pic_p][!bfd_big_endian (abfd)];
  return &elf_sh_plts[pic_p][!bfd_big_endian (abfd)];
}

/* Install a 32-bit PLT field starting at ADDR, which occurs in OUTPUT_BFD.
   VALUE is the field's value and CODE_P is true if VALUE refers to code,
   not data.  */

inline static void
install_plt_field (bfd *output_bfd, bfd_boolean code_p ATTRIBUTE_UNUSED,
                   unsigned long value, bfd_byte *addr)
{
  bfd_put_32 (output_bfd, value, addr);
}
#endif

/* Return the index of the PLT entry at byte offset OFFSET.  */

static bfd_vma
get_plt_index (const struct elf_sh_plt_info *info, bfd_vma offset)
{
  return (offset - info->plt0_entry_size) / info->symbol_entry_size;
}

/* Do the inverse operation.  */

static bfd_vma
get_plt_offset (const struct elf_sh_plt_info *info, bfd_vma index)
{
  return info->plt0_entry_size + (index * info->symbol_entry_size);
}

/* The sh linker needs to keep track of the number of relocs that it
   decides to copy as dynamic relocs in check_relocs for each symbol.
   This is so that it can later discard them if they are found to be
   unnecessary.  We store the information in a field extending the
   regular ELF linker hash table.  */

struct elf_sh_dyn_relocs
{
  struct elf_sh_dyn_relocs *next;

  /* The input section of the reloc.  */
  asection *sec;

  /* Total number of relocs copied for the input section.  */
  bfd_size_type count;

  /* Number of pc-relative relocs copied for the input section.  */
  bfd_size_type pc_count;
};

/* sh ELF linker hash entry.  */

struct elf_sh_link_hash_entry
{
  struct elf_link_hash_entry root;

#ifdef INCLUDE_SHMEDIA
  union
  {
    bfd_signed_vma refcount;
    bfd_vma offset;
  } datalabel_got;
#endif

  /* Track dynamic relocs copied for this symbol.  */
  struct elf_sh_dyn_relocs *dyn_relocs;

  bfd_signed_vma gotplt_refcount;

  enum {
    GOT_UNKNOWN = 0, GOT_NORMAL, GOT_TLS_GD, GOT_TLS_IE
  } tls_type;
};

#define sh_elf_hash_entry(ent) ((struct elf_sh_link_hash_entry *)(ent))

struct sh_elf_obj_tdata
{
  struct elf_obj_tdata root;

  /* tls_type for each local got entry.  */
  char *local_got_tls_type;
};

#define sh_elf_tdata(abfd) \
  ((struct sh_elf_obj_tdata *) (abfd)->tdata.any)

#define sh_elf_local_got_tls_type(abfd) \
  (sh_elf_tdata (abfd)->local_got_tls_type)

#define is_sh_elf(bfd) \
  (bfd_get_flavour (bfd) == bfd_target_elf_flavour \
   && elf_tdata (bfd) != NULL \
   && elf_object_id (bfd) == SH_ELF_TDATA)

/* Override the generic function because we need to store sh_elf_obj_tdata
   as the specific tdata.  */

static bfd_boolean
sh_elf_mkobject (bfd *abfd)
{
  return bfd_elf_allocate_object (abfd, sizeof (struct sh_elf_obj_tdata),
                                  SH_ELF_TDATA);
}

/* sh ELF linker hash table.  */

struct elf_sh_link_hash_table
{
  struct elf_link_hash_table root;

  /* Short-cuts to get to dynamic linker sections.  */
  asection *sgot;
  asection *sgotplt;
  asection *srelgot;
  asection *splt;
  asection *srelplt;
  asection *sdynbss;
  asection *srelbss;

  /* The (unloaded but important) VxWorks .rela.plt.unloaded section.  */
  asection *srelplt2;

  /* Small local sym cache.  */
  struct sym_cache sym_cache;

  /* A counter or offset to track a TLS got entry.  */
  union
    {
      bfd_signed_vma refcount;
      bfd_vma offset;
    } tls_ldm_got;

  /* The type of PLT to use.  */
  const struct elf_sh_plt_info *plt_info;

  /* True if the target system is VxWorks.  */
  bfd_boolean vxworks_p;
};

/* Traverse an sh ELF linker hash table.  */

#define sh_elf_link_hash_traverse(table, func, info)                    \
  (elf_link_hash_traverse                                               \
   (&(table)->root,                                                     \
    (bfd_boolean (*) (struct elf_link_hash_entry *, void *)) (func), \
    (info)))

/* Get the sh ELF linker hash table from a link_info structure.  */

#define sh_elf_hash_table(p) \
  ((struct elf_sh_link_hash_table *) ((p)->hash))

/* Create an entry in an sh ELF linker hash table.  */

static struct bfd_hash_entry *
sh_elf_link_hash_newfunc (struct bfd_hash_entry *entry,
                          struct bfd_hash_table *table,
                          const char *string)
{
  struct elf_sh_link_hash_entry *ret =
    (struct elf_sh_link_hash_entry *) entry;

  /* Allocate the structure if it has not already been allocated by a
     subclass.  */
  if (ret == (struct elf_sh_link_hash_entry *) NULL)
    ret = ((struct elf_sh_link_hash_entry *)
           bfd_hash_allocate (table,
                              sizeof (struct elf_sh_link_hash_entry)));
  if (ret == (struct elf_sh_link_hash_entry *) NULL)
    return (struct bfd_hash_entry *) ret;

  /* Call the allocation method of the superclass.  */
  ret = ((struct elf_sh_link_hash_entry *)
         _bfd_elf_link_hash_newfunc ((struct bfd_hash_entry *) ret,
                                     table, string));
  if (ret != (struct elf_sh_link_hash_entry *) NULL)
    {
      ret->dyn_relocs = NULL;
      ret->gotplt_refcount = 0;
#ifdef INCLUDE_SHMEDIA
      ret->datalabel_got.refcount = ret->root.got.refcount;
#endif
      ret->tls_type = GOT_UNKNOWN;
    }

  return (struct bfd_hash_entry *) ret;
}

/* Create an sh ELF linker hash table.  */

static struct bfd_link_hash_table *
sh_elf_link_hash_table_create (bfd *abfd)
{
  struct elf_sh_link_hash_table *ret;
  bfd_size_type amt = sizeof (struct elf_sh_link_hash_table);

  ret = (struct elf_sh_link_hash_table *) bfd_malloc (amt);
  if (ret == (struct elf_sh_link_hash_table *) NULL)
    return NULL;

  if (!_bfd_elf_link_hash_table_init (&ret->root, abfd,
                                      sh_elf_link_hash_newfunc,
                                      sizeof (struct elf_sh_link_hash_entry)))
    {
      free (ret);
      return NULL;
    }

  ret->sgot = NULL;
  ret->sgotplt = NULL;
  ret->srelgot = NULL;
  ret->splt = NULL;
  ret->srelplt = NULL;
  ret->sdynbss = NULL;
  ret->srelbss = NULL;
  ret->srelplt2 = NULL;
  ret->sym_cache.abfd = NULL;
  ret->tls_ldm_got.refcount = 0;
  ret->plt_info = NULL;
  ret->vxworks_p = vxworks_object_p (abfd);

  return &ret->root.root;
}

/* Create .got, .gotplt, and .rela.got sections in DYNOBJ, and set up
   shortcuts to them in our hash table.  */

static bfd_boolean
create_got_section (bfd *dynobj, struct bfd_link_info *info)
{
  struct elf_sh_link_hash_table *htab;

  if (! _bfd_elf_create_got_section (dynobj, info))
    return FALSE;

  htab = sh_elf_hash_table (info);
  htab->sgot = bfd_get_section_by_name (dynobj, ".got");
  htab->sgotplt = bfd_get_section_by_name (dynobj, ".got.plt");
  htab->srelgot = bfd_get_section_by_name (dynobj, ".rela.got");
  if (! htab->sgot || ! htab->sgotplt || ! htab->srelgot)
    abort ();
  return TRUE;
}

/* Create dynamic sections when linking against a dynamic object.  */

static bfd_boolean
sh_elf_create_dynamic_sections (bfd *abfd, struct bfd_link_info *info)
{
  struct elf_sh_link_hash_table *htab;
  flagword flags, pltflags;
  register asection *s;
  const struct elf_backend_data *bed = get_elf_backend_data (abfd);
  int ptralign = 0;

  switch (bed->s->arch_size)
    {
    case 32:
      ptralign = 2;
      break;

    case 64:
      ptralign = 3;
      break;

    default:
      bfd_set_error (bfd_error_bad_value);
      return FALSE;
    }

  htab = sh_elf_hash_table (info);
  if (htab->root.dynamic_sections_created)
    return TRUE;

  /* We need to create .plt, .rel[a].plt, .got, .got.plt, .dynbss, and
     .rel[a].bss sections.  */

  flags = (SEC_ALLOC | SEC_LOAD | SEC_HAS_CONTENTS | SEC_IN_MEMORY
           | SEC_LINKER_CREATED);

  pltflags = flags;
  pltflags |= SEC_CODE;
  if (bed->plt_not_loaded)
    pltflags &= ~ (SEC_LOAD | SEC_HAS_CONTENTS);
  if (bed->plt_readonly)
    pltflags |= SEC_READONLY;

  s = bfd_make_section_with_flags (abfd, ".plt", pltflags);
  htab->splt = s;
  if (s == NULL
      || ! bfd_set_section_alignment (abfd, s, bed->plt_alignment))
    return FALSE;

  if (bed->want_plt_sym)
    {
      /* Define the symbol _PROCEDURE_LINKAGE_TABLE_ at the start of the
         .plt section.  */
      struct elf_link_hash_entry *h;
      struct bfd_link_hash_entry *bh = NULL;

      if (! (_bfd_generic_link_add_one_symbol
             (info, abfd, "_PROCEDURE_LINKAGE_TABLE_", BSF_GLOBAL, s,
              (bfd_vma) 0, (const char *) NULL, FALSE,
              get_elf_backend_data (abfd)->collect, &bh)))
        return FALSE;

      h = (struct elf_link_hash_entry *) bh;
      h->def_regular = 1;
      h->type = STT_OBJECT;
      htab->root.hplt = h;

      if (info->shared
          && ! bfd_elf_link_record_dynamic_symbol (info, h))
        return FALSE;
    }

  s = bfd_make_section_with_flags (abfd,
                                   bed->default_use_rela_p ? ".rela.plt" : ".rel.plt",
                                   flags | SEC_READONLY);
  htab->srelplt = s;
  if (s == NULL
      || ! bfd_set_section_alignment (abfd, s, ptralign))
    return FALSE;

  if (htab->sgot == NULL
      && !create_got_section (abfd, info))
    return FALSE;

  {
    const char *secname;
    char *relname;
    flagword secflags;
    asection *sec;

    for (sec = abfd->sections; sec; sec = sec->next)
      {
        secflags = bfd_get_section_flags (abfd, sec);
        if ((secflags & (SEC_DATA | SEC_LINKER_CREATED))
            || ((secflags & SEC_HAS_CONTENTS) != SEC_HAS_CONTENTS))
          continue;
        secname = bfd_get_section_name (abfd, sec);
        relname = (char *) bfd_malloc ((bfd_size_type) strlen (secname) + 6);
        strcpy (relname, ".rela");
        strcat (relname, secname);
        if (bfd_get_section_by_name (abfd, secname))
          continue;
        s = bfd_make_section_with_flags (abfd, relname,
                                         flags | SEC_READONLY);
        if (s == NULL
            || ! bfd_set_section_alignment (abfd, s, ptralign))
          return FALSE;
      }
  }

  if (bed->want_dynbss)
    {
      /* The .dynbss section is a place to put symbols which are defined
         by dynamic objects, are referenced by regular objects, and are
         not functions.  We must allocate space for them in the process
         image and use a R_*_COPY reloc to tell the dynamic linker to
         initialize them at run time.  The linker script puts the .dynbss
         section into the .bss section of the final image.  */
      s = bfd_make_section_with_flags (abfd, ".dynbss",
                                       SEC_ALLOC | SEC_LINKER_CREATED);
      htab->sdynbss = s;
      if (s == NULL)
        return FALSE;

      /* The .rel[a].bss section holds copy relocs.  This section is not
         normally needed.  We need to create it here, though, so that the
         linker will map it to an output section.  We can't just create it
         only if we need it, because we will not know whether we need it
         until we have seen all the input files, and the first time the
         main linker code calls BFD after examining all the input files
         (size_dynamic_sections) the input sections have already been
         mapped to the output sections.  If the section turns out not to
         be needed, we can discard it later.  We will never need this
         section when generating a shared object, since they do not use
         copy relocs.  */
      if (! info->shared)
        {
          s = bfd_make_section_with_flags (abfd,
                                           (bed->default_use_rela_p
                                            ? ".rela.bss" : ".rel.bss"),
                                           flags | SEC_READONLY);
          htab->srelbss = s;
          if (s == NULL
              || ! bfd_set_section_alignment (abfd, s, ptralign))
            return FALSE;
        }
    }

  if (htab->vxworks_p)
    {
      if (!elf_vxworks_create_dynamic_sections (abfd, info, &htab->srelplt2))
        return FALSE;
    }

  return TRUE;
}

/* Adjust a symbol defined by a dynamic object and referenced by a
   regular object.  The current definition is in some section of the
   dynamic object, but we're not including those sections.  We have to
   change the definition to something the rest of the link can
   understand.  */

static bfd_boolean
sh_elf_adjust_dynamic_symbol (struct bfd_link_info *info,
                              struct elf_link_hash_entry *h)
{
  struct elf_sh_link_hash_table *htab;
  struct elf_sh_link_hash_entry *eh;
  struct elf_sh_dyn_relocs *p;
  asection *s;

  htab = sh_elf_hash_table (info);

  /* Make sure we know what is going on here.  */
  BFD_ASSERT (htab->root.dynobj != NULL
              && (h->needs_plt
                  || h->u.weakdef != NULL
                  || (h->def_dynamic
                      && h->ref_regular
                      && !h->def_regular)));

  /* If this is a function, put it in the procedure linkage table.  We
     will fill in the contents of the procedure linkage table later,
     when we know the address of the .got section.  */
  if (h->type == STT_FUNC
      || h->needs_plt)
    {
      if (h->plt.refcount <= 0
          || SYMBOL_CALLS_LOCAL (info, h)
          || (ELF_ST_VISIBILITY (h->other) != STV_DEFAULT
              && h->root.type == bfd_link_hash_undefweak))
        {
          /* This case can occur if we saw a PLT reloc in an input
             file, but the symbol was never referred to by a dynamic
             object.  In such a case, we don't actually need to build
             a procedure linkage table, and we can just do a REL32
             reloc instead.  */
          h->plt.offset = (bfd_vma) -1;
          h->needs_plt = 0;
        }

      return TRUE;
    }
  else
    h->plt.offset = (bfd_vma) -1;

  /* If this is a weak symbol, and there is a real definition, the
     processor independent code will have arranged for us to see the
     real definition first, and we can just use the same value.  */
  if (h->u.weakdef != NULL)
    {
      BFD_ASSERT (h->u.weakdef->root.type == bfd_link_hash_defined
                  || h->u.weakdef->root.type == bfd_link_hash_defweak);
      h->root.u.def.section = h->u.weakdef->root.u.def.section;
      h->root.u.def.value = h->u.weakdef->root.u.def.value;
      if (info->nocopyreloc)
        h->non_got_ref = h->u.weakdef->non_got_ref;
      return TRUE;
    }

  /* This is a reference to a symbol defined by a dynamic object which
     is not a function.  */

  /* If we are creating a shared library, we must presume that the
     only references to the symbol are via the global offset table.
     For such cases we need not do anything here; the relocations will
     be handled correctly by relocate_section.  */
  if (info->shared)
    return TRUE;

  /* If there are no references to this symbol that do not use the
     GOT, we don't need to generate a copy reloc.  */
  if (!h->non_got_ref)
    return TRUE;

  /* If -z nocopyreloc was given, we won't generate them either.  */
  if (info->nocopyreloc)
    {
      h->non_got_ref = 0;
      return TRUE;
    }

  eh = (struct elf_sh_link_hash_entry *) h;
  for (p = eh->dyn_relocs; p != NULL; p = p->next)
    {
      s = p->sec->output_section;
      if (s != NULL && (s->flags & (SEC_READONLY | SEC_HAS_CONTENTS)) != 0)
        break;
    }

  /* If we didn't find any dynamic relocs in sections which needs the
     copy reloc, then we'll be keeping the dynamic relocs and avoiding
     the copy reloc.  */
  if (p == NULL)
    {
      h->non_got_ref = 0;
      return TRUE;
    }

  if (h->size == 0)
    {
      (*_bfd_error_handler) (_("dynamic variable `%s' is zero size"),
                             h->root.root.string);
      return TRUE;
    }

  /* We must allocate the symbol in our .dynbss section, which will
     become part of the .bss section of the executable.  There will be
     an entry for this symbol in the .dynsym section.  The dynamic
     object will contain position independent code, so all references
     from the dynamic object to this symbol will go through the global
     offset table.  The dynamic linker will use the .dynsym entry to
     determine the address it must put in the global offset table, so
     both the dynamic object and the regular object will refer to the
     same memory location for the variable.  */

  s = htab->sdynbss;
  BFD_ASSERT (s != NULL);

  /* We must generate a R_SH_COPY reloc to tell the dynamic linker to
     copy the initial value out of the dynamic object and into the
     runtime process image.  We need to remember the offset into the
     .rela.bss section we are going to use.  */
  if ((h->root.u.def.section->flags & SEC_ALLOC) != 0)
    {
      asection *srel;

      srel = htab->srelbss;
      BFD_ASSERT (srel != NULL);
      srel->size += sizeof (Elf32_External_Rela);
      h->needs_copy = 1;
    }

  return _bfd_elf_adjust_dynamic_copy (h, s);
}

/* Allocate space in .plt, .got and associated reloc sections for
   dynamic relocs.  */

static bfd_boolean
allocate_dynrelocs (struct elf_link_hash_entry *h, void *inf)
{
  struct bfd_link_info *info;
  struct elf_sh_link_hash_table *htab;
  struct elf_sh_link_hash_entry *eh;
  struct elf_sh_dyn_relocs *p;

  if (h->root.type == bfd_link_hash_indirect)
    return TRUE;

  if (h->root.type == bfd_link_hash_warning)
    /* When warning symbols are created, they **replace** the "real"
       entry in the hash table, thus we never get to see the real
       symbol in a hash traversal.  So look at it now.  */
    h = (struct elf_link_hash_entry *) h->root.u.i.link;

  info = (struct bfd_link_info *) inf;
  htab = sh_elf_hash_table (info);

  eh = (struct elf_sh_link_hash_entry *) h;
  if ((h->got.refcount > 0
       || h->forced_local)
      && eh->gotplt_refcount > 0)
    {
      /* The symbol has been forced local, or we have some direct got refs,
         so treat all the gotplt refs as got refs. */
      h->got.refcount += eh->gotplt_refcount;
      if (h->plt.refcount >= eh->gotplt_refcount)
        h->plt.refcount -= eh->gotplt_refcount;
    }

  if (htab->root.dynamic_sections_created
      && h->plt.refcount > 0
      && (ELF_ST_VISIBILITY (h->other) == STV_DEFAULT
          || h->root.type != bfd_link_hash_undefweak))
    {
      /* Make sure this symbol is output as a dynamic symbol.
         Undefined weak syms won't yet be marked as dynamic.  */
      if (h->dynindx == -1
          && !h->forced_local)
        {
          if (! bfd_elf_link_record_dynamic_symbol (info, h))
            return FALSE;
        }

      if (info->shared
          || WILL_CALL_FINISH_DYNAMIC_SYMBOL (1, 0, h))
        {
          asection *s = htab->splt;

          /* If this is the first .plt entry, make room for the special
             first entry.  */
          if (s->size == 0)
            s->size += htab->plt_info->plt0_entry_size;

          h->plt.offset = s->size;

          /* If this symbol is not defined in a regular file, and we are
             not generating a shared library, then set the symbol to this
             location in the .plt.  This is required to make function
             pointers compare as equal between the normal executable and
             the shared library.  */
          if (! info->shared
              && !h->def_regular)
            {
              h->root.u.def.section = s;
              h->root.u.def.value = h->plt.offset;
            }

          /* Make room for this entry.  */
          s->size += htab->plt_info->symbol_entry_size;

          /* We also need to make an entry in the .got.plt section, which
             will be placed in the .got section by the linker script.  */
          htab->sgotplt->size += 4;

          /* We also need to make an entry in the .rel.plt section.  */
          htab->srelplt->size += sizeof (Elf32_External_Rela);

          if (htab->vxworks_p && !info->shared)
            {
              /* VxWorks executables have a second set of relocations
                 for each PLT entry.  They go in a separate relocation
                 section, which is processed by the kernel loader.  */

              /* There is a relocation for the initial PLT entry:
                 an R_SH_DIR32 relocation for _GLOBAL_OFFSET_TABLE_.  */
              if (h->plt.offset == htab->plt_info->plt0_entry_size)
                htab->srelplt2->size += sizeof (Elf32_External_Rela);

              /* There are two extra relocations for each subsequent
                 PLT entry: an R_SH_DIR32 relocation for the GOT entry,
                 and an R_SH_DIR32 relocation for the PLT entry.  */
              htab->srelplt2->size += sizeof (Elf32_External_Rela) * 2;
            }
        }
      else
        {
          h->plt.offset = (bfd_vma) -1;
          h->needs_plt = 0;
        }
    }
  else
    {
      h->plt.offset = (bfd_vma) -1;
      h->needs_plt = 0;
    }

  if (h->got.refcount > 0)
    {
      asection *s;
      bfd_boolean dyn;
      int tls_type = sh_elf_hash_entry (h)->tls_type;

      /* Make sure this symbol is output as a dynamic symbol.
         Undefined weak syms won't yet be marked as dynamic.  */
      if (h->dynindx == -1
          && !h->forced_local)
        {
          if (! bfd_elf_link_record_dynamic_symbol (info, h))
            return FALSE;
        }

      s = htab->sgot;
      h->got.offset = s->size;
      s->size += 4;
      /* R_SH_TLS_GD needs 2 consecutive GOT slots.  */
      if (tls_type == GOT_TLS_GD)
        s->size += 4;
      dyn = htab->root.dynamic_sections_created;
      /* R_SH_TLS_IE_32 needs one dynamic relocation if dynamic,
         R_SH_TLS_GD needs one if local symbol and two if global.  */
      if ((tls_type == GOT_TLS_GD && h->dynindx == -1)
          || (tls_type == GOT_TLS_IE && dyn))
        htab->srelgot->size += sizeof (Elf32_External_Rela);
      else if (tls_type == GOT_TLS_GD)
        htab->srelgot->size += 2 * sizeof (Elf32_External_Rela);
      else if ((ELF_ST_VISIBILITY (h->other) == STV_DEFAULT
                || h->root.type != bfd_link_hash_undefweak)
               && (info->shared
                   || WILL_CALL_FINISH_DYNAMIC_SYMBOL (dyn, 0, h)))
        htab->srelgot->size += sizeof (Elf32_External_Rela);
    }
  else
    h->got.offset = (bfd_vma) -1;

#ifdef INCLUDE_SHMEDIA
  if (eh->datalabel_got.refcount > 0)
    {
      asection *s;
      bfd_boolean dyn;

      /* Make sure this symbol is output as a dynamic symbol.
         Undefined weak syms won't yet be marked as dynamic.  */
      if (h->dynindx == -1
          && !h->forced_local)
        {
          if (! bfd_elf_link_record_dynamic_symbol (info, h))
            return FALSE;
        }

      s = htab->sgot;
      eh->datalabel_got.offset = s->size;
      s->size += 4;
      dyn = htab->root.dynamic_sections_created;
      if (WILL_CALL_FINISH_DYNAMIC_SYMBOL (dyn, info->shared, h))
        htab->srelgot->size += sizeof (Elf32_External_Rela);
    }
  else
    eh->datalabel_got.offset = (bfd_vma) -1;
#endif

  if (eh->dyn_relocs == NULL)
    return TRUE;

  /* In the shared -Bsymbolic case, discard space allocated for
     dynamic pc-relative relocs against symbols which turn out to be
     defined in regular objects.  For the normal shared case, discard
     space for pc-relative relocs that have become local due to symbol
     visibility changes.  */

  if (info->shared)
    {
      if (SYMBOL_CALLS_LOCAL (info, h))
        {
          struct elf_sh_dyn_relocs **pp;

          for (pp = &eh->dyn_relocs; (p = *pp) != NULL; )
            {
              p->count -= p->pc_count;
              p->pc_count = 0;
              if (p->count == 0)
                *pp = p->next;
              else
                pp = &p->next;
            }
        }

      if (htab->vxworks_p)
        {
          struct elf_sh_dyn_relocs **pp;

          for (pp = &eh->dyn_relocs; (p = *pp) != NULL; )
            {
              if (strcmp (p->sec->output_section->name, ".tls_vars") == 0)
                *pp = p->next;
              else
                pp = &p->next;
            }
        }

      /* Also discard relocs on undefined weak syms with non-default
         visibility.  */
      if (eh->dyn_relocs != NULL
          && h->root.type == bfd_link_hash_undefweak)
        {
          if (ELF_ST_VISIBILITY (h->other) != STV_DEFAULT)
            eh->dyn_relocs = NULL;

          /* Make sure undefined weak symbols are output as a dynamic
             symbol in PIEs.  */
          else if (h->dynindx == -1
                   && !h->forced_local)
            {
              if (! bfd_elf_link_record_dynamic_symbol (info, h))
                return FALSE;
            }
        }
    }
  else
    {
      /* For the non-shared case, discard space for relocs against
         symbols which turn out to need copy relocs or are not
         dynamic.  */

      if (!h->non_got_ref
          && ((h->def_dynamic
               && !h->def_regular)
              || (htab->root.dynamic_sections_created
                  && (h->root.type == bfd_link_hash_undefweak
                      || h->root.type == bfd_link_hash_undefined))))
        {
          /* Make sure this symbol is output as a dynamic symbol.
             Undefined weak syms won't yet be marked as dynamic.  */
          if (h->dynindx == -1
              && !h->forced_local)
            {
              if (! bfd_elf_link_record_dynamic_symbol (info, h))
                return FALSE;
            }

          /* If that succeeded, we know we'll be keeping all the
             relocs.  */
          if (h->dynindx != -1)
            goto keep;
        }

      eh->dyn_relocs = NULL;

    keep: ;
    }

  /* Finally, allocate space.  */
  for (p = eh->dyn_relocs; p != NULL; p = p->next)
    {
      asection *sreloc = elf_section_data (p->sec)->sreloc;
      sreloc->size += p->count * sizeof (Elf32_External_Rela);
    }

  return TRUE;
}

/* Find any dynamic relocs that apply to read-only sections.  */

static bfd_boolean
readonly_dynrelocs (struct elf_link_hash_entry *h, void *inf)
{
  struct elf_sh_link_hash_entry *eh;
  struct elf_sh_dyn_relocs *p;

  if (h->root.type == bfd_link_hash_warning)
    h = (struct elf_link_hash_entry *) h->root.u.i.link;

  eh = (struct elf_sh_link_hash_entry *) h;
  for (p = eh->dyn_relocs; p != NULL; p = p->next)
    {
      asection *s = p->sec->output_section;

      if (s != NULL && (s->flags & SEC_READONLY) != 0)
        {
          struct bfd_link_info *info = (struct bfd_link_info *) inf;

          info->flags |= DF_TEXTREL;

          /* Not an error, just cut short the traversal.  */
          return FALSE;
        }
    }
  return TRUE;
}

/* This function is called after all the input files have been read,
   and the input sections have been assigned to output sections.
   It's a convenient place to determine the PLT style.  */

static bfd_boolean
sh_elf_always_size_sections (bfd *output_bfd, struct bfd_link_info *info)
{
  sh_elf_hash_table (info)->plt_info = get_plt_info (output_bfd, info->shared);
  return TRUE;
}

/* Set the sizes of the dynamic sections.  */

static bfd_boolean
sh_elf_size_dynamic_sections (bfd *output_bfd ATTRIBUTE_UNUSED,
                              struct bfd_link_info *info)
{
  struct elf_sh_link_hash_table *htab;
  bfd *dynobj;
  asection *s;
  bfd_boolean relocs;
  bfd *ibfd;

  htab = sh_elf_hash_table (info);
  dynobj = htab->root.dynobj;
  BFD_ASSERT (dynobj != NULL);

  if (htab->root.dynamic_sections_created)
    {
      /* Set the contents of the .interp section to the interpreter.  */
      if (info->executable)
        {
          s = bfd_get_section_by_name (dynobj, ".interp");
          BFD_ASSERT (s != NULL);
          s->size = sizeof ELF_DYNAMIC_INTERPRETER;
          s->contents = (unsigned char *) ELF_DYNAMIC_INTERPRETER;
        }
    }

  /* Set up .got offsets for local syms, and space for local dynamic
     relocs.  */
  for (ibfd = info->input_bfds; ibfd != NULL; ibfd = ibfd->link_next)
    {
      bfd_signed_vma *local_got;
      bfd_signed_vma *end_local_got;
      char *local_tls_type;
      bfd_size_type locsymcount;
      Elf_Internal_Shdr *symtab_hdr;
      asection *srel;

      if (! is_sh_elf (ibfd))
        continue;

      for (s = ibfd->sections; s != NULL; s = s->next)
        {
          struct elf_sh_dyn_relocs *p;

          for (p = ((struct elf_sh_dyn_relocs *)
                    elf_section_data (s)->local_dynrel);
               p != NULL;
               p = p->next)
            {
              if (! bfd_is_abs_section (p->sec)
                  && bfd_is_abs_section (p->sec->output_section))
                {
                  /* Input section has been discarded, either because
                     it is a copy of a linkonce section or due to
                     linker script /DISCARD/, so we'll be discarding
                     the relocs too.  */
                }
              else if (htab->vxworks_p
                       && strcmp (p->sec->output_section->name,
                                  ".tls_vars") == 0)
                {
                  /* Relocations in vxworks .tls_vars sections are
                     handled specially by the loader.  */
                }
              else if (p->count != 0)
                {
                  srel = elf_section_data (p->sec)->sreloc;
                  srel->size += p->count * sizeof (Elf32_External_Rela);
                  if ((p->sec->output_section->flags & SEC_READONLY) != 0)
                    info->flags |= DF_TEXTREL;
                }
            }
        }

      local_got = elf_local_got_refcounts (ibfd);
      if (!local_got)
        continue;

      symtab_hdr = &elf_symtab_hdr (ibfd);
      locsymcount = symtab_hdr->sh_info;
#ifdef INCLUDE_SHMEDIA
      /* Count datalabel local GOT.  */
      locsymcount *= 2;
#endif
      end_local_got = local_got + locsymcount;
      local_tls_type = sh_elf_local_got_tls_type (ibfd);
      s = htab->sgot;
      srel = htab->srelgot;
      for (; local_got < end_local_got; ++local_got)
        {
          if (*local_got > 0)
            {
              *local_got = s->size;
              s->size += 4;
              if (*local_tls_type == GOT_TLS_GD)
                s->size += 4;
              if (info->shared)
                srel->size += sizeof (Elf32_External_Rela);
            }
          else
            *local_got = (bfd_vma) -1;
          ++local_tls_type;
        }
    }

  if (htab->tls_ldm_got.refcount > 0)
    {
      /* Allocate 2 got entries and 1 dynamic reloc for R_SH_TLS_LD_32
         relocs.  */
      htab->tls_ldm_got.offset = htab->sgot->size;
      htab->sgot->size += 8;
      htab->srelgot->size += sizeof (Elf32_External_Rela);
    }
  else
    htab->tls_ldm_got.offset = -1;

  /* Allocate global sym .plt and .got entries, and space for global
     sym dynamic relocs.  */
  elf_link_hash_traverse (&htab->root, allocate_dynrelocs, info);

  /* We now have determined the sizes of the various dynamic sections.
     Allocate memory for them.  */
  relocs = FALSE;
  for (s = dynobj->sections; s != NULL; s = s->next)
    {
      if ((s->flags & SEC_LINKER_CREATED) == 0)
        continue;

      if (s == htab->splt
          || s == htab->sgot
          || s == htab->sgotplt
          || s == htab->sdynbss)
        {
          /* Strip this section if we don't need it; see the
             comment below.  */
        }
      else if (CONST_STRNEQ (bfd_get_section_name (dynobj, s), ".rela"))
        {
          if (s->size != 0 && s != htab->srelplt && s != htab->srelplt2)
            relocs = TRUE;

          /* We use the reloc_count field as a counter if we need
             to copy relocs into the output file.  */
          s->reloc_count = 0;
        }
      else
        {
          /* It's not one of our sections, so don't allocate space.  */
          continue;
        }

      if (s->size == 0)
        {
          /* If we don't need this section, strip it from the
             output file.  This is mostly to handle .rela.bss and
             .rela.plt.  We must create both sections in
             create_dynamic_sections, because they must be created
             before the linker maps input sections to output
             sections.  The linker does that before
             adjust_dynamic_symbol is called, and it is that
             function which decides whether anything needs to go
             into these sections.  */

          s->flags |= SEC_EXCLUDE;
          continue;
        }

      if ((s->flags & SEC_HAS_CONTENTS) == 0)
        continue;

      /* Allocate memory for the section contents.  We use bfd_zalloc
         here in case unused entries are not reclaimed before the
         section's contents are written out.  This should not happen,
         but this way if it does, we get a R_SH_NONE reloc instead
         of garbage.  */
      s->contents = (bfd_byte *) bfd_zalloc (dynobj, s->size);
      if (s->contents == NULL)
        return FALSE;
    }

  if (htab->root.dynamic_sections_created)
    {
      /* Add some entries to the .dynamic section.  We fill in the
         values later, in sh_elf_finish_dynamic_sections, but we
         must add the entries now so that we get the correct size for
         the .dynamic section.  The DT_DEBUG entry is filled in by the
         dynamic linker and used by the debugger.  */
#define add_dynamic_entry(TAG, VAL) \
  _bfd_elf_add_dynamic_entry (info, TAG, VAL)

      if (info->executable)
        {
          if (! add_dynamic_entry (DT_DEBUG, 0))
            return FALSE;
        }

      if (htab->splt->size != 0)
        {
          if (! add_dynamic_entry (DT_PLTGOT, 0)
              || ! add_dynamic_entry (DT_PLTRELSZ, 0)
              || ! add_dynamic_entry (DT_PLTREL, DT_RELA)
              || ! add_dynamic_entry (DT_JMPREL, 0))
            return FALSE;
        }

      if (relocs)
        {
          if (! add_dynamic_entry (DT_RELA, 0)
              || ! add_dynamic_entry (DT_RELASZ, 0)
              || ! add_dynamic_entry (DT_RELAENT,
                                      sizeof (Elf32_External_Rela)))
            return FALSE;

          /* If any dynamic relocs apply to a read-only section,
             then we need a DT_TEXTREL entry.  */
          if ((info->flags & DF_TEXTREL) == 0)
            elf_link_hash_traverse (&htab->root, readonly_dynrelocs, info);

          if ((info->flags & DF_TEXTREL) != 0)
            {
              if (! add_dynamic_entry (DT_TEXTREL, 0))
                return FALSE;
            }
        }
      if (htab->vxworks_p
          && !elf_vxworks_add_dynamic_entries (output_bfd, info))
        return FALSE;
    }
#undef add_dynamic_entry

  return TRUE;
}

/* Relocate an SH ELF section.  */

static bfd_boolean
sh_elf_relocate_section (bfd *output_bfd, struct bfd_link_info *info,
                         bfd *input_bfd, asection *input_section,
                         bfd_byte *contents, Elf_Internal_Rela *relocs,
                         Elf_Internal_Sym *local_syms,
                         asection **local_sections)
{
  struct elf_sh_link_hash_table *htab;
  Elf_Internal_Shdr *symtab_hdr;
  struct elf_link_hash_entry **sym_hashes;
  Elf_Internal_Rela *rel, *relend;
  bfd *dynobj;
  bfd_vma *local_got_offsets;
  asection *sgot;
  asection *sgotplt;
  asection *splt;
  asection *sreloc;
  asection *srelgot;
  bfd_boolean is_vxworks_tls;

  BFD_ASSERT (is_sh_elf (input_bfd));

  htab = sh_elf_hash_table (info);
  symtab_hdr = &elf_symtab_hdr (input_bfd);
  sym_hashes = elf_sym_hashes (input_bfd);
  dynobj = htab->root.dynobj;
  local_got_offsets = elf_local_got_offsets (input_bfd);

  sgot = htab->sgot;
  sgotplt = htab->sgotplt;
  splt = htab->splt;
  sreloc = NULL;
  srelgot = NULL;
  /* We have to handle relocations in vxworks .tls_vars sections
     specially, because the dynamic loader is 'weird'.  */
  is_vxworks_tls = (htab->vxworks_p && info->shared
                    && !strcmp (input_section->output_section->name,
                                ".tls_vars"));

  rel = relocs;
  relend = relocs + input_section->reloc_count;
  for (; rel < relend; rel++)
    {
      int r_type;
      reloc_howto_type *howto;
      unsigned long r_symndx;
      Elf_Internal_Sym *sym;
      asection *sec;
      struct elf_link_hash_entry *h;
      bfd_vma relocation;
      bfd_vma addend = (bfd_vma) 0;
      bfd_reloc_status_type r;
      int seen_stt_datalabel = 0;
      bfd_vma off;
      int tls_type;

      r_symndx = ELF32_R_SYM (rel->r_info);

      r_type = ELF32_R_TYPE (rel->r_info);

      /* Many of the relocs are only used for relaxing, and are
         handled entirely by the relaxation code.  */
      if (r_type >= (int) R_SH_GNU_VTINHERIT
          && r_type <= (int) R_SH_LABEL)
        continue;
      if (r_type == (int) R_SH_NONE)
        continue;

      if (r_type < 0
          || r_type >= R_SH_max
          || (r_type >= (int) R_SH_FIRST_INVALID_RELOC
              && r_type <= (int) R_SH_LAST_INVALID_RELOC)
          || (   r_type >= (int) R_SH_FIRST_INVALID_RELOC_3
              && r_type <= (int) R_SH_LAST_INVALID_RELOC_3)
          || (   r_type >= (int) R_SH_FIRST_INVALID_RELOC_4
              && r_type <= (int) R_SH_LAST_INVALID_RELOC_4)
          || (   r_type >= (int) R_SH_FIRST_INVALID_RELOC_5
              && r_type <= (int) R_SH_LAST_INVALID_RELOC_5)
          || (r_type >= (int) R_SH_FIRST_INVALID_RELOC_2
              && r_type <= (int) R_SH_LAST_INVALID_RELOC_2))
        {
          bfd_set_error (bfd_error_bad_value);
          return FALSE;
        }

      howto = get_howto_table (output_bfd) + r_type;

      /* For relocs that aren't partial_inplace, we get the addend from
         the relocation.  */
      if (! howto->partial_inplace)
        addend = rel->r_addend;

      h = NULL;
      sym = NULL;
      sec = NULL;
      if (r_symndx < symtab_hdr->sh_info)
        {
          sym = local_syms + r_symndx;
          sec = local_sections[r_symndx];
          relocation = (sec->output_section->vma
                        + sec->output_offset
                        + sym->st_value);
          /* A local symbol never has STO_SH5_ISA32, so we don't need
             datalabel processing here.  Make sure this does not change
             without notice.  */
          if ((sym->st_other & STO_SH5_ISA32) != 0)
            ((*info->callbacks->reloc_dangerous)
             (info,
              _("Unexpected STO_SH5_ISA32 on local symbol is not handled"),
              input_bfd, input_section, rel->r_offset));

          if (sec != NULL && elf_discarded_section (sec))
            /* Handled below.  */
            ;
          else if (info->relocatable)
            {
              /* This is a relocatable link.  We don't have to change
                 anything, unless the reloc is against a section symbol,
                 in which case we have to adjust according to where the
                 section symbol winds up in the output section.  */
              if (ELF_ST_TYPE (sym->st_info) == STT_SECTION)
                {
                  if (! howto->partial_inplace)
                    {
                      /* For relocations with the addend in the
                         relocation, we need just to update the addend.
                         All real relocs are of type partial_inplace; this
                         code is mostly for completeness.  */
                      rel->r_addend += sec->output_offset;

                      continue;
                    }

                  /* Relocs of type partial_inplace need to pick up the
                     contents in the contents and add the offset resulting
                     from the changed location of the section symbol.
                     Using _bfd_final_link_relocate (e.g. goto
                     final_link_relocate) here would be wrong, because
                     relocations marked pc_relative would get the current
                     location subtracted, and we must only do that at the
                     final link.  */
                  r = _bfd_relocate_contents (howto, input_bfd,
                                              sec->output_offset
                                              + sym->st_value,
                                              contents + rel->r_offset);
                  goto relocation_done;
                }

              continue;
            }
          else if (! howto->partial_inplace)
            {
              relocation = _bfd_elf_rela_local_sym (output_bfd, sym, &sec, rel);
              addend = rel->r_addend;
            }
          else if ((sec->flags & SEC_MERGE)
                   && ELF_ST_TYPE (sym->st_info) == STT_SECTION)
            {
              asection *msec;

              if (howto->rightshift || howto->src_mask != 0xffffffff)
                {
                  (*_bfd_error_handler)
                    (_("%B(%A+0x%lx): %s relocation against SEC_MERGE section"),
                     input_bfd, input_section,
                     (long) rel->r_offset, howto->name);
                  return FALSE;
                }

              addend = bfd_get_32 (input_bfd, contents + rel->r_offset);
              msec = sec;
              addend =
                _bfd_elf_rel_local_sym (output_bfd, sym, &msec, addend)
                - relocation;
              addend += msec->output_section->vma + msec->output_offset;
              bfd_put_32 (input_bfd, addend, contents + rel->r_offset);
              addend = 0;
            }
        }
      else
        {
          /* FIXME: Ought to make use of the RELOC_FOR_GLOBAL_SYMBOL macro.  */

          relocation = 0;
          h = sym_hashes[r_symndx - symtab_hdr->sh_info];
          while (h->root.type == bfd_link_hash_indirect
                 || h->root.type == bfd_link_hash_warning)
            {
#ifdef INCLUDE_SHMEDIA
              /* If the reference passes a symbol marked with
                 STT_DATALABEL, then any STO_SH5_ISA32 on the final value
                 doesn't count.  */
              seen_stt_datalabel |= h->type == STT_DATALABEL;
#endif
              h = (struct elf_link_hash_entry *) h->root.u.i.link;
            }
          if (h->root.type == bfd_link_hash_defined
              || h->root.type == bfd_link_hash_defweak)
            {
              bfd_boolean dyn;

              dyn = htab->root.dynamic_sections_created;
              sec = h->root.u.def.section;
              /* In these cases, we don't need the relocation value.
                 We check specially because in some obscure cases
                 sec->output_section will be NULL.  */
              if (r_type == R_SH_GOTPC
                  || r_type == R_SH_GOTPC_LOW16
                  || r_type == R_SH_GOTPC_MEDLOW16
                  || r_type == R_SH_GOTPC_MEDHI16
                  || r_type == R_SH_GOTPC_HI16
                  || ((r_type == R_SH_PLT32
                       || r_type == R_SH_PLT_LOW16
                       || r_type == R_SH_PLT_MEDLOW16
                       || r_type == R_SH_PLT_MEDHI16
                       || r_type == R_SH_PLT_HI16)
                      && h->plt.offset != (bfd_vma) -1)
                  || ((r_type == R_SH_GOT32
                       || r_type == R_SH_GOT_LOW16
                       || r_type == R_SH_GOT_MEDLOW16
                       || r_type == R_SH_GOT_MEDHI16
                       || r_type == R_SH_GOT_HI16)
                      && WILL_CALL_FINISH_DYNAMIC_SYMBOL (dyn, info->shared, h)
                      && (! info->shared
                          || (! info->symbolic && h->dynindx != -1)
                          || !h->def_regular))
                  /* The cases above are those in which relocation is
                     overwritten in the switch block below.  The cases
                     below are those in which we must defer relocation
                  