text:
/* Most of this hacked by Steve Chamberlain <sac@cygnus.com>.

   PE/PEI rearrangement (and code added): Donn Terry
					  Softway Systems, Inc.  */

/* Hey look, some documentation [and in a place you expect to find it]!

   The main reference for the pei format is "Microsoft Portable Executable
   and Common Object File Format Specification 4.1".  Get it if you need to
   do some serious hacking on this code.

   Another reference:
   "Peering Inside the PE: A Tour of the Win32 Portable Executable
   File Format", MSJ 1994, Volume 9.

   The *sole* difference between the pe format and the pei format is that the
   latter has an MSDOS 2.0 .exe header on the front that prints the message
   "This app must be run under Windows." (or some such).
   (FIXME: Whether that statement is *really* true or not is unknown.
   Are there more subtle differences between pe and pei formats?
   For now assume there aren't.  If you find one, then for God sakes
   document it here!)

   The Microsoft docs use the word "image" instead of "executable" because
   the former can also refer to a DLL (shared library).  Confusion can arise
   because the `i' in `pei' also refers to "image".  The `pe' format can
   also create images (i.e. executables), it's just that to run on a win32
   system you need to use the pei format.

   FIXME: Please add more docs here so the next poor fool that has to hack
   on this code has a chance of getting something accomplished without
   wasting too much time.  */

/* This expands into COFF_WITH_pe, COFF_WITH_pep, or COFF_WITH_pex64
   depending on whether we're compiling for straight PE or PE+.  */
#define COFF_WITH_XX

#include "sysdep.h"
#include "bfd.h"
#include "libbfd.h"
#include "coff/internal.h"
#include "bfdver.h"

/* NOTE: it's strange to be including an architecture specific header
   in what's supposed to be general (to PE/PEI) code.  However, that's
   where the definitions are, and they don't vary per architecture
   within PE/PEI, so we get them from there.  FIXME: The lack of
   variance is an assumption which may prove to be incorrect if new
   PE/PEI targets are created.  */
#if defined COFF_WITH_pex64
# include "coff/x86_64.h"
#elif defined COFF_WITH_pep
# include "coff/ia64.h"
#else
# include "coff/i386.h"
#endif

#include "coff/pe.h"
#include "libcoff.h"
#include "libpei.h"

#if defined COFF_WITH_pep || defined COFF_WITH_pex64
# undef AOUTSZ
# define AOUTSZ		PEPAOUTSZ
# define PEAOUTHDR	PEPAOUTHDR
#endif

/* FIXME: This file has various tests of POWERPC_LE_PE.  Those tests
   worked when the code was in peicode.h, but no longer work now that
   the code is in peigen.c.  PowerPC NT is said to be dead.  If
   anybody wants to revive the code, you will have to figure out how
   to handle those issues.  */

void
_bfd_XXi_swap_sym_in (bfd * abfd, void * ext1, void * in1)
{
  SYMENT *ext = (SYMENT *) ext1;
  struct internal_syment *in = (struct internal_syment *) in1;

  if (ext->e.e_name[0] == 0)
    {
      in->_n._n_n._n_zeroes = 0;
      in->_n._n_n._n_offset = H_GET_32 (abfd, ext->e.e.e_offset);
    }
  else
    memcpy (in->_n._n_name, ext->e.e_name, SYMNMLEN);

  in->n_value = H_GET_32 (abfd, ext->e_value);
  in->n_scnum = H_GET_16 (abfd, ext->e_scnum);

  if (sizeof (ext->e_type) == 2)
    in->n_type = H_GET_16 (abfd, ext->e_type);
  else
    in->n_type = H_GET_32 (abfd, ext->e_type);

  in->n_sclass = H_GET_8 (abfd, ext->e_sclass);
  in->n_numaux = H_GET_8 (abfd, ext->e_numaux);

#ifndef STRICT_PE_FORMAT
  /* This is for Gnu-created DLLs.  */

  /* The section symbols for the .idata$ sections have class 0x68
     (C_SECTION), which MS documentation indicates is a section
     symbol.  Unfortunately, the value field in the symbol is simply a
     copy of the .idata section's flags rather than something useful.
     When these symbols are encountered, change the value to 0 so that
     they will be handled somewhat correctly in the bfd code.  */
  if (in->n_sclass == C_SECTION)
    {
      char namebuf[SYMNMLEN + 1];
      const char *name = NULL;

      in->n_value = 0x0;

      /* Create synthetic empty sections as needed.  DJ */
      if (in->n_scnum == 0)
	{
	  asection *sec;

	  name = _bfd_coff_internal_syment_name (abfd, in, namebuf);
	  if (name == NULL)
	    /* FIXME: Return error.  */
	    abort ();
	  sec = bfd_get_section_by_name (abfd, name);
	  if (sec != NULL)
	    in->n_scnum = sec->target_index;
	}

      if (in->n_scnum == 0)
	{
	  int unused_section_number = 0;
	  asection *sec;
	  flagword flags;

	  for (sec = abfd->sections; sec; sec = sec->next)
	    if (unused_section_number <= sec->target_index)
	      unused_section_number = sec->target_index + 1;

	  if (name == namebuf)
	    {
	      name = (const char *) bfd_alloc (abfd, strlen (namebuf) + 1);
	      if (name == NULL)
		/* FIXME: Return error.  */
		abort ();
	      strcpy ((char *) name, namebuf);
	    }
	  flags = SEC_HAS_CONTENTS | SEC_ALLOC | SEC_DATA | SEC_LOAD;
	  sec = bfd_make_section_anyway_with_flags (abfd, name, flags);
	  if (sec == NULL)
	    /* FIXME: Return error.  */
	    abort ();

	  sec->vma = 0;
	  sec->lma = 0;
	  sec->size = 0;
	  sec->filepos = 0;
	  sec->rel_filepos = 0;
	  sec->reloc_count = 0;
	  sec->line_filepos = 0;
	  sec->lineno_count = 0;
	  sec->userdata = NULL;
	  sec->next = NULL;
	  sec->alignment_power = 2;

	  sec->target_index = unused_section_number;

	  in->n_scnum = unused_section_number;
	}
      in->n_sclass = C_STAT;
    }
#endif

#ifdef coff_swap_sym_in_hook
  /* This won't work in peigen.c, but since it's for PPC PE, it's not
     worth fixing.  */
  coff_swap_sym_in_hook (abfd, ext1, in1);
#endif
}

unsigned int
_bfd_XXi_swap_sym_out (bfd * abfd, void * inp, void * extp)
{
  struct internal_syment *in = (struct internal_syment *) inp;
  SYMENT *ext = (SYMENT *) extp;

  if (in->_n._n_name[0] == 0)
    {
      H_PUT_32 (abfd, 0, ext->e.e.e_zeroes);
      H_PUT_32 (abfd, in->_n._n_n._n_offset, ext->e.e.e_offset);
    }
  else
    memcpy (ext->e.e_name, in->_n._n_name, SYMNMLEN);

  H_PUT_32 (abfd, in->n_value, ext->e_value);
  H_PUT_16 (abfd, in->n_scnum, ext->e_scnum);

  if (sizeof (ext->e_type) == 2)
    H_PUT_16 (abfd, in->n_type, ext->e_type);
  else
    H_PUT_32 (abfd, in->n_type, ext->e_type);

  H_PUT_8 (abfd, in->n_sclass, ext->e_sclass);
  H_PUT_8 (abfd, in->n_numaux, ext->e_numaux);

  return SYMESZ;
}

void
_bfd_XXi_swap_aux_in (bfd *	abfd,
		      void *	ext1,
		      int       type,
		      int       in_class,
		      int	indx ATTRIBUTE_UNUSED,
		      int	numaux ATTRIBUTE_UNUSED,
		      void * 	in1)
{
  AUXENT *ext = (AUXENT *) ext1;
  union internal_auxent *in = (union internal_auxent *) in1;

  switch (in_class)
    {
    case C_FILE:
      if (ext->x_file.x_fname[0] == 0)
	{
	  in->x_file.x_n.x_zeroes = 0;
	  in->x_file.x_n.x_offset = H_GET_32 (abfd, ext->x_file.x_n.x_offset);
	}
      else
	memcpy (in->x_file.x_fname, ext->x_file.x_fname, FILNMLEN);
      return;

    case C_STAT:
    case C_LEAFSTAT:
    case C_HIDDEN:
      if (type == T_NULL)
	{
	  in->x_scn.x_scnlen = GET_SCN_SCNLEN (abfd, ext);
	  in->x_scn.x_nreloc = GET_SCN_NRELOC (abfd, ext);
	  in->x_scn.x_nlinno = GET_SCN_NLINNO (abfd, ext);
	  in->x_scn.x_checksum = H_GET_32 (abfd, ext->x_scn.x_checksum);
	  in->x_scn.x_associated = H_GET_16 (abfd, ext->x_scn.x_associated);
	  in->x_scn.x_comdat = H_GET_8 (abfd, ext->x_scn.x_comdat);
	  return;
	}
      break;
    }

  in->x_sym.x_tagndx.l = H_GET_32 (abfd, ext->x_sym.x_tagndx);
  in->x_sym.x_tvndx = H_GET_16 (abfd, ext->x_sym.x_tvndx);

  if (in_class == C_BLOCK || in_class == C_FCN || ISFCN (type)
      || ISTAG (in_class))
    {
      in->x_sym.x_fcnary.x_fcn.x_lnnoptr = GET_FCN_LNNOPTR (abfd, ext);
      in->x_sym.x_fcnary.x_fcn.x_endndx.l = GET_FCN_ENDNDX (abfd, ext);
    }
  else
    {
      in->x_sym.x_fcnary.x_ary.x_dimen[0] =
	H_GET_16 (abfd, ext->x_sym.x_fcnary.x_ary.x_dimen[0]);
      in->x_sym.x_fcnary.x_ary.x_dimen[1] =
	H_GET_16 (abfd, ext->x_sym.x_fcnary.x_ary.x_dimen[1]);
      in->x_sym.x_fcnary.x_ary.x_dimen[2] =
	H_GET_16 (abfd, ext->x_sym.x_fcnary.x_ary.x_dimen[2]);
      in->x_sym.x_fcnary.x_ary.x_dimen[3] =
	H_GET_16 (abfd, ext->x_sym.x_fcnary.x_ary.x_dimen[3]);
    }

  if (ISFCN (type))
    {
      in->x_sym.x_misc.x_fsize = H_GET_32 (abfd, ext->x_sym.x_misc.x_fsize);
    }
  else
    {
      in->x_sym.x_misc.x_lnsz.x_lnno = GET_LNSZ_LNNO (abfd, ext);
      in->x_sym.x_misc.x_lnsz.x_size = GET_LNSZ_SIZE (abfd, ext);
    }
}

unsigned int
_bfd_XXi_swap_aux_out (bfd *  abfd,
		       void * inp,
		       int    type,
		       int    in_class,
		       int    indx ATTRIBUTE_UNUSED,
		       int    numaux ATTRIBUTE_UNUSED,
		       void * extp)
{
  union internal_auxent *in = (union internal_auxent *) inp;
  AUXENT *ext = (AUXENT *) extp;

  memset (ext, 0, AUXESZ);

  switch (in_class)
    {
    case C_FILE:
      if (in->x_file.x_fname[0] == 0)
	{
	  H_PUT_32 (abfd, 0, ext->x_file.x_n.x_zeroes);
	  H_PUT_32 (abfd, in->x_file.x_n.x_offset, ext->x_file.x_n.x_offset);
	}
      else
	memcpy (ext->x_file.x_fname, in->x_file.x_fname, FILNMLEN);

      return AUXESZ;

    case C_STAT:
    case C_LEAFSTAT:
    case C_HIDDEN:
      if (type == T_NULL)
	{
	  PUT_SCN_SCNLEN (abfd, in->x_scn.x_scnlen, ext);
	  PUT_SCN_NRELOC (abfd, in->x_scn.x_nreloc, ext);
	  PUT_SCN_NLINNO (abfd, in->x_scn.x_nlinno, ext);
	  H_PUT_32 (abfd, in->x_scn.x_checksum, ext->x_scn.x_checksum);
	  H_PUT_16 (abfd, in->x_scn.x_associated, ext->x_scn.x_associated);
	  H_PUT_8 (abfd, in->x_scn.x_comdat, ext->x_scn.x_comdat);
	  return AUXESZ;
	}
      break;
    }

  H_PUT_32 (abfd, in->x_sym.x_tagndx.l, ext->x_sym.x_tagndx);
  H_PUT_16 (abfd, in->x_sym.x_tvndx, ext->x_sym.x_tvndx);

  if (in_class == C_BLOCK || in_class == C_FCN || ISFCN (type)
      || ISTAG (in_class))
    {
      PUT_FCN_LNNOPTR (abfd, in->x_sym.x_fcnary.x_fcn.x_lnnoptr,  ext);
      PUT_FCN_ENDNDX  (abfd, in->x_sym.x_fcnary.x_fcn.x_endndx.l, ext);
    }
  else
    {
      H_PUT_16 (abfd, in->x_sym.x_fcnary.x_ary.x_dimen[0],
		ext->x_sym.x_fcnary.x_ary.x_dimen[0]);
      H_PUT_16 (abfd, in->x_sym.x_fcnary.x_ary.x_dimen[1],
		ext->x_sym.x_fcnary.x_ary.x_dimen[1]);
      H_PUT_16 (abfd, in->x_sym.x_fcnary.x_ary.x_dimen[2],
		ext->x_sym.x_fcnary.x_ary.x_dimen[2]);
      H_PUT_16 (abfd, in->x_sym.x_fcnary.x_ary.x_dimen[3],
		ext->x_sym.x_fcnary.x_ary.x_dimen[3]);
    }

  if (ISFCN (type))
    H_PUT_32 (abfd, in->x_sym.x_misc.x_fsize, ext->x_sym.x_misc.x_fsize);
  else
    {
      PUT_LNSZ_LNNO (abfd, in->x_sym.x_misc.x_lnsz.x_lnno, ext);
      PUT_LNSZ_SIZE (abfd, in->x_sym.x_misc.x_lnsz.x_size, ext);
    }

  return AUXESZ;
}

void
_bfd_XXi_swap_lineno_in (bfd * abfd, void * ext1, void * in1)
{
  LINENO *ext = (LINENO *) ext1;
  struct internal_lineno *in = (struct internal_lineno *) in1;

  in->l_addr.l_symndx = H_GET_32 (abfd, ext->l_addr.l_symndx);
  in->l_lnno = GET_LINENO_LNNO (abfd, ext);
}

unsigned int
_bfd_XXi_swap_lineno_out (bfd * abfd, void * inp, void * outp)
{
  struct internal_lineno *in = (struct internal_lineno *) inp;
  struct external_lineno *ext = (struct external_lineno *) outp;
  H_PUT_32 (abfd, in->l_addr.l_symndx, ext->l_addr.l_symndx);

  PUT_LINENO_LNNO (abfd, in->l_lnno, ext);
  return LINESZ;
}

void
_bfd_XXi_swap_aouthdr_in (bfd * abfd,
			  void * aouthdr_ext1,
			  void * aouthdr_int1)
{
  PEAOUTHDR * src = (PEAOUTHDR *) aouthdr_ext1;
  AOUTHDR * aouthdr_ext = (AOUTHDR *) aouthdr_ext1;
  struct internal_aouthdr *aouthdr_int
    = (struct internal_aouthdr *) aouthdr_int1;
  struct internal_extra_pe_aouthdr *a = &aouthdr_int->pe;

  aouthdr_int->magic = H_GET_16 (abfd, aouthdr_ext->magic);
  aouthdr_int->vstamp = H_GET_16 (abfd, aouthdr_ext->vstamp);
  aouthdr_int->tsize = GET_AOUTHDR_TSIZE (abfd, aouthdr_ext->tsize);
  aouthdr_int->dsize = GET_AOUTHDR_DSIZE (abfd, aouthdr_ext->dsize);
  aouthdr_int->bsize = GET_AOUTHDR_BSIZE (abfd, aouthdr_ext->bsize);
  aouthdr_int->entry = GET_AOUTHDR_ENTRY (abfd, aouthdr_ext->entry);
  aouthdr_int->text_start =
    GET_AOUTHDR_TEXT_START (abfd, aouthdr_ext->text_start);
#if !defined(COFF_WITH_pep) && !defined(COFF_WITH_pex64)
  /* PE32+ does not have data_start member!  */
  aouthdr_int->data_start =
    GET_AOUTHDR_DATA_START (abfd, aouthdr_ext->data_start);
  a->BaseOfData = aouthdr_int->data_start;
#endif

  a->Magic = aouthdr_int->magic;
  a->MajorLinkerVersion = H_GET_8 (abfd, aouthdr_ext->vstamp);
  a->MinorLinkerVersion = H_GET_8 (abfd, aouthdr_ext->vstamp + 1);
  a->SizeOfCode = aouthdr_int->tsize ;
  a->SizeOfInitializedData = aouthdr_int->dsize ;
  a->SizeOfUninitializedData = aouthdr_int->bsize ;
  a->AddressOfEntryPoint = aouthdr_int->entry;
  a->BaseOfCode = aouthdr_int->text_start;
  a->ImageBase = GET_OPTHDR_IMAGE_BASE (abfd, src->ImageBase);
  a->SectionAlignment = H_GET_32 (abfd, src->SectionAlignment);
  a->FileAlignment = H_GET_32 (abfd, src->FileAlignment);
  a->MajorOperatingSystemVersion =
    H_GET_16 (abfd, src->MajorOperatingSystemVersion);
  a->MinorOperatingSystemVersion =
    H_GET_16 (abfd, src->MinorOperatingSystemVersion);
  a->MajorImageVersion = H_GET_16 (abfd, src->MajorImageVersion);
  a->MinorImageVersion = H_GET_16 (abfd, src->MinorImageVersion);
  a->MajorSubsystemVersion = H_GET_16 (abfd, src->MajorSubsystemVersion);
  a->MinorSubsystemVersion = H_GET_16 (abfd, src->MinorSubsystemVersion);
  a->Reserved1 = H_GET_32 (abfd, src->Reserved1);
  a->SizeOfImage = H_GET_32 (abfd, src->SizeOfImage);
  a->SizeOfHeaders = H_GET_32 (abfd, src->SizeOfHeaders);
  a->CheckSum = H_GET_32 (abfd, src->CheckSum);
  a->Subsystem = H_GET_16 (abfd, src->Subsystem);
  a->DllCharacteristics = H_GET_16 (abfd, src->DllCharacteristics);
  a->SizeOfStackReserve =
    GET_OPTHDR_SIZE_OF_STACK_RESERVE (abfd, src->SizeOfStackReserve);
  a->SizeOfStackCommit =
    GET_OPTHDR_SIZE_OF_STACK_COMMIT (abfd, src->SizeOfStackCommit);
  a->SizeOfHeapReserve =
    GET_OPTHDR_SIZE_OF_HEAP_RESERVE (abfd, src->SizeOfHeapReserve);
  a->SizeOfHeapCommit =
    GET_OPTHDR_SIZE_OF_HEAP_COMMIT (abfd, src->SizeOfHeapCommit);
  a->LoaderFlags = H_GET_32 (abfd, src->LoaderFlags);
  a->NumberOfRvaAndSizes = H_GET_32 (abfd, src->NumberOfRvaAndSizes);

  {
    int idx;

    for (idx = 0; idx < 16; idx++)
      {
        /* If data directory is empty, rva also should be 0.  */
	int size =
	  H_GET_32 (abfd, src->DataDirectory[idx][1]);

	a->DataDirectory[idx].Size = size;

	if (size)
	  a->DataDirectory[idx].VirtualAddress =
	    H_GET_32 (abfd, src->DataDirectory[idx][0]);
	else
	  a->DataDirectory[idx].VirtualAddress = 0;
      }
  }

  if (aouthdr_int->entry)
    {
      aouthdr_int->entry += a->ImageBase;
#if !defined(COFF_WITH_pep) && !defined(COFF_WITH_pex64)
      aouthdr_int->entry &= 0xffffffff;
#endif
    }

  if (aouthdr_int->tsize)
    {
      aouthdr_int->text_start += a->ImageBase;
#if !defined(COFF_WITH_pep) && !defined(COFF_WITH_pex64)
      aouthdr_int->text_start &= 0xffffffff;
#endif
    }

#if !defined(COFF_WITH_pep) && !defined(COFF_WITH_pex64)
  /* PE32+ does not have data_start member!  */
  if (aouthdr_int->dsize)
    {
      aouthdr_int->data_start += a->ImageBase;
      aouthdr_int->data_start &= 0xffffffff;
    }
#endif

#ifdef POWERPC_LE_PE
  /* These three fields are normally set up by ppc_relocate_section.
     In the case of reading a file in, we can pick them up from the
     DataDirectory.  */
  first_thunk_address = a->DataDirectory[PE_IMPORT_ADDRESS_TABLE].VirtualAddress;
  thunk_size = a->DataDirectory[PE_IMPORT_ADDRESS_TABLE].Size;
  import_table_size = a->DataDirectory[PE_IMPORT_TABLE].Size;
#endif
}

/* A support function for below.  */

static void
add_data_entry (bfd * abfd,
		struct internal_extra_pe_aouthdr *aout,
		int idx,
		char *name,
		bfd_vma base)
{
  asection *sec = bfd_get_section_by_name (abfd, name);

  /* Add import directory information if it exists.  */
  if ((sec != NULL)
      && (coff_section_data (abfd, sec) != NULL)
      && (pei_section_data (abfd, sec) != NULL))
    {
      /* If data directory is empty, rva also should be 0.  */
      int size = pei_section_data (abfd, sec)->virt_size;
      aout->DataDirectory[idx].Size = size;

      if (size)
	{
	  aout->DataDirectory[idx].VirtualAddress =
	    (sec->vma - base) & 0xffffffff;
	  sec->flags |= SEC_DATA;
	}
    }
}

unsigned int
_bfd_XXi_swap_aouthdr_out (bfd * abfd, void * in, void * out)
{
  struct internal_aouthdr *aouthdr_in = (struct internal_aouthdr *) in;
  pe_data_type *pe = pe_data (abfd);
  struct internal_extra_pe_aouthdr *extra = &pe->pe_opthdr;
  PEAOUTHDR *aouthdr_out = (PEAOUTHDR *) out;
  bfd_vma sa, fa, ib;
  IMAGE_DATA_DIRECTORY idata2, idata5, tls;

  sa = extra->SectionAlignment;
  fa = extra->FileAlignment;
  ib = extra->ImageBase;

  idata2 = pe->pe_opthdr.DataDirectory[PE_IMPORT_TABLE];
  idata5 = pe->pe_opthdr.DataDirectory[PE_IMPORT_ADDRESS_TABLE];
  tls = pe->pe_opthdr.DataDirectory[PE_TLS_TABLE];

  if (aouthdr_in->tsize)
    {
      aouthdr_in->text_start -= ib;
#if !defined(COFF_WITH_pep) && !defined(COFF_WITH_pex64)
      aouthdr_in->text_start &= 0xffffffff;
#endif
    }

  if (aouthdr_in->dsize)
    {
      aouthdr_in->data_start -= ib;
#if !defined(COFF_WITH_pep) && !defined(COFF_WITH_pex64)
      aouthdr_in->data_start &= 0xffffffff;
#endif
    }

  if (aouthdr_in->entry)
    {
      aouthdr_in->entry -= ib;
#if !defined(COFF_WITH_pep) && !defined(COFF_WITH_pex64)
      aouthdr_in->entry &= 0xffffffff;
#endif
    }

#define FA(x) (((x) + fa -1 ) & (- fa))
#define SA(x) (((x) + sa -1 ) & (- sa))

  /* We like to have the sizes aligned.  */
  aouthdr_in->bsize = FA (aouthdr_in->bsize);

  extra->NumberOfRvaAndSizes = IMAGE_NUMBEROF_DIRECTORY_ENTRIES;

  /* First null out all data directory entries.  */
  memset (extra->DataDirectory, 0, sizeof (extra->DataDirectory));

  add_data_entry (abfd, extra, 0, ".edata", ib);
  add_data_entry (abfd, extra, 2, ".rsrc", ib);
  add_data_entry (abfd, extra, 3, ".pdata", ib);

  /* In theory we do not need to call add_data_entry for .idata$2 or
     .idata$5.  It will be done in bfd_coff_final_link where all the
     required information is available.  If however, we are not going
     to perform a final link, eg because we have been invoked by objcopy
     or strip, then we need to make sure that these Data Directory
     entries are initialised properly.

     So - we copy the input values into the output values, and then, if
     a final link is going to be performed, it can overwrite them.  */
  extra->DataDirectory[PE_IMPORT_TABLE]  = idata2;
  extra->DataDirectory[PE_IMPORT_ADDRESS_TABLE] = idata5;
  extra->DataDirectory[PE_TLS_TABLE] = tls;

  if (extra->DataDirectory[PE_IMPORT_TABLE].VirtualAddress == 0)
    /* Until other .idata fixes are made (pending patch), the entry for
       .idata is needed for backwards compatibility.  FIXME.  */
    add_data_entry (abfd, extra, 1, ".idata", ib);

  /* For some reason, the virtual size (which is what's set by
     add_data_entry) for .reloc is not the same as the size recorded
     in this slot by MSVC; it doesn't seem to cause problems (so far),
     but since it's the best we've got, use it.  It does do the right
     thing for .pdata.  */
  if (pe->has_reloc_section)
    add_data_entry (abfd, extra, 5, ".reloc", ib);

  {
    asection *sec;
    bfd_vma hsize = 0;
    bfd_vma dsize = 0;
    bfd_vma isize = 0;
    bfd_vma tsize = 0;

    for (sec = abfd->sections; sec; sec = sec->next)
      {
	int rounded = FA (sec->size);

	/* The first non-zero section filepos is the header size.
	   Sections without contents will have a filepos of 0.  */
	if (hsize == 0)
	  hsize = sec->filepos;
	if (sec->flags & SEC_DATA)
	  dsize += rounded;
	if (sec->flags & SEC_CODE)
	  tsize += rounded;
	/* The image size is the total VIRTUAL size (which is what is
	   in the virt_size field).  Files have been seen (from MSVC
	   5.0 link.exe) where the file size of the .data segment is
	   quite small compared to the virtual size.  Without this
	   fix, strip munges the file.

	   FIXME: We need to handle holes between sections, which may
	   happpen when we covert from another format.  We just use
	   the virtual address and virtual size of the last section
	   for the image size.  */
	if (coff_section_data (abfd, sec) != NULL
	    && pei_section_data (abfd, sec) != NULL)
	  isize = (sec->vma - extra->ImageBase
		   + SA (FA (pei_section_data (abfd, sec)->virt_size)));
      }

    aouthdr_in->dsize = dsize;
    aouthdr_in->tsize = tsize;
    extra->SizeOfHeaders = hsize;
    extra->SizeOfImage = isize;
  }

  H_PUT_16 (abfd, aouthdr_in->magic, aouthdr_out->standard.magic);

/* e.g. 219510000 is linker version 2.19  */
#define LINKER_VERSION ((short) (BFD_VERSION / 1000000))

  /* This piece of magic sets the "linker version" field to
     LINKER_VERSION.  */
  H_PUT_16 (abfd, (LINKER_VERSION / 100 + (LINKER_VERSION % 100) * 256),
	    aouthdr_out->standard.vstamp);

  PUT_AOUTHDR_TSIZE (abfd, aouthdr_in->tsize, aouthdr_out->standard.tsize);
  PUT_AOUTHDR_DSIZE (abfd, aouthdr_in->dsize, aouthdr_out->standard.dsize);
  PUT_AOUTHDR_BSIZE (abfd, aouthdr_in->bsize, aouthdr_out->standard.bsize);
  PUT_AOUTHDR_ENTRY (abfd, aouthdr_in->entry, aouthdr_out->standard.entry);
  PUT_AOUTHDR_TEXT_START (abfd, aouthdr_in->text_start,
			  aouthdr_out->standard.text_start);

#if !defined(COFF_WITH_pep) && !defined(COFF_WITH_pex64)
  /* PE32+ does not have data_start member!  */
  PUT_AOUTHDR_DATA_START (abfd, aouthdr_in->data_start,
			  aouthdr_out->standard.data_start);
#endif

  PUT_OPTHDR_IMAGE_BASE (abfd, extra->ImageBase, aouthdr_out->ImageBase);
  H_PUT_32 (abfd, extra->SectionAlignment, aouthdr_out->SectionAlignment);
  H_PUT_32 (abfd, extra->FileAlignment, aouthdr_out->FileAlignment);
  H_PUT_16 (abfd, extra->MajorOperatingSystemVersion,
	    aouthdr_out->MajorOperatingSystemVersion);
  H_PUT_16 (abfd, extra->MinorOperatingSystemVersion,
	    aouthdr_out->MinorOperatingSystemVersion);
  H_PUT_16 (abfd, extra->MajorImageVersion, aouthdr_out->MajorImageVersion);
  H_PUT_16 (abfd, extra->MinorImageVersion, aouthdr_out->MinorImageVersion);
  H_PUT_16 (abfd, extra->MajorSubsystemVersion,
	    aouthdr_out->MajorSubsystemVersion);
  H_PUT_16 (abfd, extra->MinorSubsystemVersion,
	    aouthdr_out->MinorSubsystemVersion);
  H_PUT_32 (abfd, extra->Reserved1, aouthdr_out->Reserved1);
  H_PUT_32 (abfd, extra->SizeOfImage, aouthdr_out->SizeOfImage);
  H_PUT_32 (abfd, extra->SizeOfHeaders, aouthdr_out->SizeOfHeaders);
  H_PUT_32 (abfd, extra->CheckSum, aouthdr_out->CheckSum);
  H_PUT_16 (abfd, extra->Subsystem, aouthdr_out->Subsystem);
  H_PUT_16 (abfd, extra->DllCharacteristics, aouthdr_out->DllCharacteristics);
  PUT_OPTHDR_SIZE_OF_STACK_RESERVE (abfd, extra->SizeOfStackReserve,
				    aouthdr_out->SizeOfStackReserve);
  PUT_OPTHDR_SIZE_OF_STACK_COMMIT (abfd, extra->SizeOfStackCommit,
				   aouthdr_out->SizeOfStackCommit);
  PUT_OPTHDR_SIZE_OF_HEAP_RESERVE (abfd, extra->SizeOfHeapReserve,
				   aouthdr_out->SizeOfHeapReserve);
  PUT_OPTHDR_SIZE_OF_HEAP_COMMIT (abfd, extra->SizeOfHeapCommit,
				  aouthdr_out->SizeOfHeapCommit);
  H_PUT_32 (abfd, extra->LoaderFlags, aouthdr_out->LoaderFlags);
  H_PUT_32 (abfd, extra->NumberOfRvaAndSizes,
	    aouthdr_out->NumberOfRvaAndSizes);
  {
    int idx;

    for (idx = 0; idx < 16; idx++)
      {
	H_PUT_32 (abfd, extra->DataDirectory[idx].VirtualAddress,
		  aouthdr_out->DataDirectory[idx][0]);
	H_PUT_32 (abfd, extra->DataDirectory[idx].Size,
		  aouthdr_out->DataDirectory[idx][1]);
      }
  }

  return AOUTSZ;
}

unsigned int
_bfd_XXi_only_swap_filehdr_out (bfd * abfd, void * in, void * out)
{
  int idx;
  struct internal_filehdr *filehdr_in = (struct internal_filehdr *) in;
  struct external_PEI_filehdr *filehdr_out = (struct external_PEI_filehdr *) out;

  if (pe_data (abfd)->has_reloc_section
      || pe_data (abfd)->dont_strip_reloc)
    filehdr_in->f_flags &= ~F_RELFLG;

  if (pe_data (abfd)->dll)
    filehdr_in->f_flags |= F_DLL;

  filehdr_in->pe.e_magic    = DOSMAGIC;
  filehdr_in->pe.e_cblp     = 0x90;
  filehdr_in->pe.e_cp       = 0x3;
  filehdr_in->pe.e_crlc     = 0x0;
  filehdr_in->pe.e_cparhdr  = 0x4;
  filehdr_in->pe.e_minalloc = 0x0;
  filehdr_in->pe.e_maxalloc = 0xffff;
  filehdr_in->pe.e_ss       = 0x0;
  filehdr_in->pe.e_sp       = 0xb8;
  filehdr_in->pe.e_csum     = 0x0;
  filehdr_in->pe.e_ip       = 0x0;
  filehdr_in->pe.e_cs       = 0x0;
  filehdr_in->pe.e_lfarlc   = 0x40;
  filehdr_in->pe.e_ovno     = 0x0;

  for (idx = 0; idx < 4; idx++)
    filehdr_in->pe.e_res[idx] = 0x0;

  filehdr_in->pe.e_oemid   = 0x0;
  filehdr_in->pe.e_oeminfo = 0x0;

  for (idx = 0; idx < 10; idx++)
    filehdr_in->pe.e_res2[idx] = 0x0;

  filehdr_in->pe.e_lfanew = 0x80;

  /* This next collection of data are mostly just characters.  It
     appears to be constant within the headers put on NT exes.  */
  filehdr_in->pe.dos_message[0]  = 0x0eba1f0e;
  filehdr_in->pe.dos_message[1]  = 0xcd09b400;
  filehdr_in->pe.dos_message[2]  = 0x4c01b821;
  filehdr_in->pe.dos_message[3]  = 0x685421cd;
  filehdr_in->pe.dos_message[4]  = 0x70207369;
  filehdr_in->pe.dos_message[5]  = 0x72676f72;
  filehdr_in->pe.dos_message[6]  = 0x63206d61;
  filehdr_in->pe.dos_message[7]  = 0x6f6e6e61;
  filehdr_in->pe.dos_message[8]  = 0x65622074;
  filehdr_in->pe.dos_message[9]  = 0x6e757220;
  filehdr_in->pe.dos_message[10] = 0x206e6920;
  filehdr_in->pe.dos_message[11] = 0x20534f44;
  filehdr_in->pe.dos_message[12] = 0x65646f6d;
  filehdr_in->pe.dos_message[13] = 0x0a0d0d2e;
  filehdr_in->pe.dos_message[14] = 0x24;
  filehdr_in->pe.dos_message[15] = 0x0;
  filehdr_in->pe.nt_signature = NT_SIGNATURE;

  H_PUT_16 (abfd, filehdr_in->f_magic, filehdr_out->f_magic);
  H_PUT_16 (abfd, filehdr_in->f_nscns, filehdr_out->f_nscns);

  H_PUT_32 (abfd, time (0), filehdr_out->f_timdat);
  PUT_FILEHDR_SYMPTR (abfd, filehdr_in->f_symptr,
		      filehdr_out->f_symptr);
  H_PUT_32 (abfd, filehdr_in->f_nsyms, filehdr_out->f_nsyms);
  H_PUT_16 (abfd, filehdr_in->f_opthdr, filehdr_out->f_opthdr);
  H_PUT_16 (abfd, filehdr_in->f_flags, filehdr_out->f_flags);

  /* Put in extra dos header stuff.  This data remains essentially
     constant, it just has to be tacked on to the beginning of all exes
     for NT.  */
  H_PUT_16 (abfd, filehdr_in->pe.e_magic, filehdr_out->e_magic);
  H_PUT_16 (abfd, filehdr_in->pe.e_cblp, filehdr_out->e_cblp);
  H_PUT_16 (abfd, filehdr_in->pe.e_cp, filehdr_out->e_cp);
  H_PUT_16 (abfd, filehdr_in->pe.e_crlc, filehdr_out->e_crlc);
  H_PUT_16 (abfd, filehdr_in->pe.e_cparhdr, filehdr_out->e_cparhdr);
  H_PUT_16 (abfd, filehdr_in->pe.e_minalloc, filehdr_out->e_minalloc);
  H_PUT_16 (abfd, filehdr_in->pe.e_maxalloc, filehdr_out->e_maxalloc);
  H_PUT_16 (abfd, filehdr_in->pe.e_ss, filehdr_out->e_ss);
  H_PUT_16 (abfd, filehdr_in->pe.e_sp, filehdr_out->e_sp);
  H_PUT_16 (abfd, filehdr_in->pe.e_csum, filehdr_out->e_csum);
  H_PUT_16 (abfd, filehdr_in->pe.e_ip, filehdr_out->e_ip);
  H_PUT_16 (abfd, filehdr_in->pe.e_cs, filehdr_out->e_cs);
  H_PUT_16 (abfd, filehdr_in->pe.e_lfarlc, filehdr_out->e_lfarlc);
  H_PUT_16 (abfd, filehdr_in->pe.e_ovno, filehdr_out->e_ovno);

  for (idx = 0; idx < 4; idx++)
    H_PUT_16 (abfd, filehdr_in->pe.e_res[idx], filehdr_out->e_res[idx]);

  H_PUT_16 (abfd, filehdr_in->pe.e_oemid, filehdr_out->e_oemid);
  H_PUT_16 (abfd, filehdr_in->pe.e_oeminfo, filehdr_out->e_oeminfo);

  for (idx = 0; idx < 10; idx++)
    H_PUT_16 (abfd, filehdr_in->pe.e_res2[idx], filehdr_out->e_res2[idx]);

  H_PUT_32 (abfd, filehdr_in->pe.e_lfanew, filehdr_out->e_lfanew);

  for (idx = 0; idx < 16; idx++)
    H_PUT_32 (abfd, filehdr_in->pe.dos_message[idx],
	      filehdr_out->dos_message[idx]);

  /* Also put in the NT signature.  */
  H_PUT_32 (abfd, filehdr_in->pe.nt_signature, filehdr_out->nt_signature);

  return FILHSZ;
}

unsigned int
_bfd_XX_only_swap_filehdr_out (bfd * abfd, void * in, void * out)
{
  struct internal_filehdr *filehdr_in = (struct internal_filehdr *) in;
  FILHDR *filehdr_out = (FILHDR *) out;

  H_PUT_16 (abfd, filehdr_in->f_magic, filehdr_out->f_magic);
  H_PUT_16 (abfd, filehdr_in->f_nscns, filehdr_out->f_nscns);
  H_PUT_32 (abfd, filehdr_in->f_timdat, filehdr_out->f_timdat);
  PUT_FILEHDR_SYMPTR (abfd, filehdr_in->f_symptr, filehdr_out->f_symptr);
  H_PUT_32 (abfd, filehdr_in->f_nsyms, filehdr_out->f_nsyms);
  H_PUT_16 (abfd, filehdr_in->f_opthdr, filehdr_out->f_opthdr);
  H_PUT_16 (abfd, filehdr_in->f_flags, filehdr_out->f_flags);

  return FILHSZ;
}

unsigned int
_bfd_XXi_swap_scnhdr_out (bfd * abfd, void * in, void * out)
{
  struct internal_scnhdr *scnhdr_int = (struct internal_scnhdr *) in;
  SCNHDR *scnhdr_ext = (SCNHDR *) out;
  unsigned int ret = SCNHSZ;
  bfd_vma ps;
  bfd_vma ss;

  memcpy (scnhdr_ext->s_name, scnhdr_int->s_name, sizeof (scnhdr_int->s_name));

  PUT_SCNHDR_VADDR (abfd,
		    ((scnhdr_int->s_vaddr
		      - pe_data (abfd)->pe_opthdr.ImageBase)
		     & 0xffffffff),
		    scnhdr_ext->s_vaddr);

  /* NT wants the size data to be rounded up to the next
     NT_FILE_ALIGNMENT, but zero if it has no content (as in .bss,
     sometimes).  */
  if ((scnhdr_int->s_flags & IMAGE_SCN_CNT_UNINITIALIZED_DATA) != 0)
    {
      if (bfd_pei_p (abfd))
	{
	  ps = scnhdr_int->s_size;
	  ss = 0;
	}
      else
       {
         ps = 0;
         ss = scnhdr_int->s_size;
       }
    }
  else
    {
      if (bfd_pei_p (abfd))
	ps = scnhdr_int->s_paddr;
      else
	ps = 0;

      ss = scnhdr_int->s_size;
    }

  PUT_SCNHDR_SIZE (abfd, ss,
		   scnhdr_ext->s_size);

  /* s_paddr in PE is really the virtual size.  */
  PUT_SCNHDR_PADDR (abfd, ps, scnhdr_ext->s_paddr);

  PUT_SCNHDR_SCNPTR (abfd, scnhdr_int->s_scnptr,
		     scnhdr_ext->s_scnptr);
  PUT_SCNHDR_RELPTR (abfd, scnhdr_int->s_relptr,
		     scnhdr_ext->s_relptr);
  PUT_SCNHDR_LNNOPTR (abfd, scnhdr_int->s_lnnoptr,
		      scnhdr_ext->s_lnnoptr);

  {
    /* Extra flags must be set when dealing with PE.  All sections should also
       have the IMAGE_SCN_MEM_READ (0x40000000) flag set.  In addition, the
       .text section must have IMAGE_SCN_MEM_EXECUTE (0x20000000) and the data
       sections (.idata, .data, .bss, .CRT) must have IMAGE_SCN_MEM_WRITE set
       (this is especially important when dealing with the .idata section since
       the addresses for routines from .dlls must be overwritten).  If .reloc
       section data is ever generated, we must add IMAGE_SCN_MEM_DISCARDABLE
       (0x02000000).  Also, the resource data should also be read and
       writable.  */

    /* FIXME: Alignment is also encoded in this field, at least on PPC and
       ARM-WINCE.  Although - how do we get the original alignment field
       back ?  */

    typedef struct
    {
      const char * 	section_name;
      unsigned long	must_have;
    }
    pe_required_section_flags;

    pe_required_section_flags known_sections [] =
      {
	{ ".arch",  IMAGE_SCN_MEM_READ | IMAGE_SCN_CNT_INITIALIZED_DATA | IMAGE_SCN_MEM_DISCARDABLE | IMAGE_SCN_ALIGN_8BYTES },
	{ ".bss",   IMAGE_SCN_MEM_READ | IMAGE_SCN_CNT_UNINITIALIZED_DATA | IMAGE_SCN_MEM_WRITE },
	{ ".data",  IMAGE_SCN_MEM_READ | IMAGE_SCN_CNT_INITIALIZED_DATA | IMAGE_SCN_MEM_WRITE },
	{ ".edata", IMAGE_SCN_MEM_READ | IMAGE_SCN_CNT_INITIALIZED_DATA },
	{ ".idata", IMAGE_SCN_MEM_READ | IMAGE_SCN_CNT_INITIALIZED_DATA | IMAGE_SCN_MEM_WRITE },
	{ ".pdata", IMAGE_SCN_MEM_READ | IMAGE_SCN_CNT_INITIALIZED_DATA },
	{ ".rdata", IMAGE_SCN_MEM_READ | IMAGE_SCN_CNT_INITIALIZED_DATA },
	{ ".reloc", IMAGE_SCN_MEM_READ | IMAGE_SCN_CNT_INITIALIZED_DATA | IMAGE_SCN_MEM_DISCARDABLE },
	{ ".rsrc",  IMAGE_SCN_MEM_READ | IMAGE_SCN_CNT_INITIALIZED_DATA | IMAGE_SCN_MEM_WRITE },
	{ ".text" , IMAGE_SCN_MEM_READ | IMAGE_SCN_CNT_CODE | IMAGE_SCN_MEM_EXECUTE },
	{ ".tls",   IMAGE_SCN_MEM_READ | IMAGE_SCN_CNT_INITIALIZED_DATA | IMAGE_SCN_MEM_WRITE },
	{ ".xdata", IMAGE_SCN_MEM_READ | IMAGE_SCN_CNT_INITIALIZED_DATA },
	{ NULL, 0}
      };

    pe_required_section_flags * p;

    /* We have defaulted to adding the IMAGE_SCN_MEM_WRITE flag, but now
       we know exactly what this specific section wants so we remove it
       and then allow the must_have field to add it back in if necessary.
       However, we don't remove IMAGE_SCN_MEM_WRITE flag from .text if the
       default WP_TEXT file flag has been cleared.  WP_TEXT may be cleared
       by ld --enable-auto-import (if auto-import is actually needed),
       by ld --omagic, or by obcopy --writable-text.  */

    for (p = known_sections; p->section_name; p++)
      if (strcmp (scnhdr_int->s_name, p->section_name) == 0)
	{
	  if (strcmp (scnhdr_int->s_name, ".text")
	      || (bfd_get_file_flags (abfd) & WP_TEXT))
	    scnhdr_int->s_flags &= ~IMAGE_SCN_MEM_WRITE;
	  scnhdr_int->s_flags |= p->must_have;
	  break;
	}

    H_PUT_32 (abfd, scnhdr_int->s_flags, scnhdr_ext->s_flags);
  }

  if (coff_data (abfd)->link_info
      && ! coff_data (abfd)->link_info->relocatable
      && ! coff_data (abfd)->link_info->shared
      && strcmp (scnhdr_int->s_name, ".text") == 0)
    {
      /* By inference from looking at MS output, the 32 bit field
	 which is the combination of the number_of_relocs and
	 number_of_linenos is used for the line number count in
	 executables.  A 16-bit field won't do for cc1.  The MS
	 document says that the number of relocs is zero for
	 executables, but the 17-th bit has been observed to be there.
	 Overflow is not an issue: a 4G-line program will overflow a
	 bunch of other fields long before this!  */
      H_PUT_16 (abfd, (scnhdr_int->s_nlnno & 0xffff), scnhdr_ext->s_nlnno);
      H_PUT_16 (abfd, (scnhdr_int->s_nlnno >> 16), scnhdr_ext->s_nreloc);
    }
  else
    {
      if (scnhdr_int->s_nlnno <= 0xffff)
	H_PUT_16 (abfd, scnhdr_int->s_nlnno, scnhdr_ext->s_nlnno);
      else
	{
	  (*_bfd_error_handler) (_("%s: line number overflow: 0x%lx > 0xffff"),
				 bfd_get_filename (abfd),
				 scnhdr_int->s_nlnno);
	  bfd_set_error (bfd_error_file_truncated);
	  H_PUT_16 (abfd, 0xffff, scnhdr_ext->s_nlnno);
	  ret = 0;
	}

      /* Although we could encode 0xffff relocs here, we do not, to be
         consistent with other parts of bfd. Also it lets us warn, as
         we should never see 0xffff here w/o having the overflow flag
         set.  */
      if (scnhdr_int->s_nreloc < 0xffff)
	H_PUT_16 (abfd, scnhdr_int->s_nreloc, scnhdr_ext->s_nreloc);
      else
	{
	  /* PE can deal with large #s of relocs, but not here.  */
	  H_PUT_16 (abfd, 0xffff, scnhdr_ext->s_nreloc);
	  scnhdr_int->s_flags |= IMAGE_SCN_LNK_NRELOC_OVFL;
	  H_PUT_32 (abfd, scnhdr_int->s_flags, scnhdr_ext->s_flags);
	}
    }
  return ret;
}

static char * dir_names[IMAGE_NUMBEROF_DIRECTORY_ENTRIES] =
{
  N_("Export Directory [.edata (or where ever we found it)]"),
  N_("Import Directory [parts of .idata]"),
  N_("Resource Directory [.rsrc]"),
  N_("Exception Directory [.pdata]"),
  N_("Security Directory"),
  N_("Base Relocation Directory [.reloc]"),
  N_("Debug Directory"),
  N_("Description Directory"),
  N_("Special Directory"),
  N_("Thread Storage Directory [.tls]"),
  N_("Load Configuration Directory"),
  N_("Bound Import Directory"),
  N_("Import Address Table Directory"),
  N_("Delay Import Directory"),
  N_("CLR Runtime Header"),
  N_("Reserved")
};

#ifdef POWERPC_LE_PE
/* The code for the PPC really falls in the "architecture dependent"
   category.  However, it's not clear that anyone will ever care, so
   we're ignoring the issue for now; if/when PPC matters, some of this
   may need to go into peicode.h, or arguments passed to enable the
   PPC- specific code.  */
#endif

static bfd_boolean
pe_print_idata (bfd * abfd, void * vfile)
{
  FILE *file = (FILE *) vfile;
  bfd_byte *data;
  asection *section;
  bfd_signed_vma adj;

#ifdef POWERPC_LE_PE
  asection *rel_section = bfd_get_section_by_name (abfd, ".reldata");
#endif

  bfd_size_type datasize = 0;
  bfd_size_type dataoff;
  bfd_size_type i;
  int onaline = 20;

  pe_data_type *pe = pe_data (abfd);
  struct internal_extra_pe_aouthdr *extra = &pe->pe_opthdr;

  bfd_vma addr;

  addr = extra->DataDirectory[PE_IMPORT_TABLE].VirtualAddress;

  if (addr == 0 && extra->DataDirectory[PE_IMPORT_TABLE].Size == 0)
    {
      /* Maybe the extra header isn't there.  Look for the section.  */
      section = bfd_get_section_by_name (abfd, ".idata");
      if (section == NULL)
	return TRUE;

      addr = section->vma;
      datasize = section->size;
      if (datasize == 0)
	return TRUE;
    }
  else
    {
      addr += extra->ImageBase;
      for (section = abfd->sections; section != NULL; section = section->next)
	{
	  datasize = section->size;
	  if (addr >= section->vma && addr < section->vma + datasize)
	    break;
	}

      if (section == NULL)
	{
	  fprintf (file,
		   _("\nThere is an import table, but the section containing it could not be found\n"));
	  return TRUE;
	}
    }

  fprintf (file, _("\nThere is an import table in %s at 0x%lx\n"),
	   section->name, (unsigned long) addr);

  dataoff = addr - section->vma;

#ifdef POWERPC_LE_PE
  if (rel_section != 0 && rel_section->size != 0)
    {
      /* The toc address can be found by taking the starting address,
	 which on the PPC locates a function descriptor. The
	 descriptor consists of the function code starting address
	 followed by the address of the toc. The starting address we
	 get from the bfd, and the descriptor is supposed to be in the
	 .reldata section.  */

      bfd_vma loadable_toc_address;
      bfd_vma toc_address;
      bfd_vma start_address;
      bfd_byte *data;
      bfd_vma offset;

      if (!bfd_malloc_and_get_section (abfd, rel_section, &data))
	{
	  if (data != NULL)
	    free (data);
	  return FALSE;
	}

      offset = abfd->start_address - rel_section->vma;

      if (offset >= rel_section->size || offset + 8 > rel_section->size)
        {
          if (data != NULL)
            free (data);
          return FALSE;
        }

      start_address = bfd_get_32 (abfd, data + offset);
      loadable_toc_address = bfd_get_32 (abfd, data + offset + 4);
      toc_address = loadable_toc_address - 32768;

      fprintf (file,
	       _("\nFunction descriptor located at the start address: %04lx\n"),
	       (unsigned long int) (abfd->start_address));
      fprintf (file,
	       _("\tcode-base %08lx toc (loadable/actual) %08lx/%08lx\n"),
	       start_address, loadable_toc_address, toc_address);
      if (data != NULL)
	free (data);
    }
  else
    {
      fprintf (file,
	       _("\nNo reldata section! Function descriptor not decoded.\n"));
    }
#endif

  fprintf (file,
	   _("\nThe Import Tables (interpreted %s section contents)\n"),
	   section->name);
  fprintf (file,
	   _("\
 vma:            Hint    Time      Forward  DLL       First\n\
                 Table   Stamp     Chain    Name      Thunk\n"));

  /* Read the whole section.  Some of the fields might be before dataoff.  */
  if (!bfd_malloc_and_get_section (abfd, section, &data))
    {
      if (data != NULL)
	free (data);
      return FALSE;
    }

  adj = section->vma - extra->ImageBase;

  /* Print all image import descriptors.  */
  for (i = dataoff; i + onaline <= datasize; i += onaline)
    {
      bfd_vma hint_addr;
      bfd_vma time_stamp;
      bfd_vma forward_chain;
      bfd_vma dll_name;
      bfd_vma first_thunk;
      int idx = 0;
      bfd_size_type j;
      char *dll;

      /* Print (i + extra->DataDirectory[PE_IMPORT_TABLE].VirtualAddress).  */
      fprintf (file, " %08lx\t", (unsigned long) (i + adj));
      hint_addr = bfd_get_32 (abfd, data + i);
      time_stamp = bfd_get_32 (abfd, data + i + 4);
      forward_chain = bfd_get_32 (abfd, data + i + 8);
      dll_name = bfd_get_32 (abfd, data + i + 12);
      first_thunk = bfd_get_32 (abfd, data + i + 16);

      fprintf (file, "%08lx %08lx %08lx %08lx %08lx\n",
	       (unsigned long) hint_addr,
	       (unsigned long) time_stamp,
	       (unsigned long) forward_chain,
	       (unsigned long) dll_name,
	       (unsigned long) first_thunk);

      if (hint_addr == 0 && first_thunk == 0)
	break;

      if (dll_name - adj >= section->size)
        break;

      dll = (char *) data + dll_name - adj;
      fprintf (file, _("\n\tDLL Name: %s\n"), dll);

      if (hint_addr != 0)
	{
	  bfd_byte *ft_data;
	  asection *ft_section;
	  bfd_vma ft_addr;
	  bfd_size_type ft_datasize;
	  int ft_idx;
	  int ft_allocated;

	  fprintf (file, _("\tvma:  Hint/Ord Member-Name Bound-To\n"));

	  idx = hint_addr - adj;

	  ft_addr = first_thunk + extra->ImageBase;
	  ft_idx = first_thunk - adj;
	  ft_data = data + ft_idx;
	  ft_datasize = datasize - ft_idx;
	  ft_allocated = 0;

	  if (first_thunk != hint_addr)
	    {
	      /* Find the section which contains the first thunk.  */
	      for (ft_section = abfd->sections;
		   ft_section != NULL;
		   ft_section = ft_section->next)
		{
		  if (ft_addr >= ft_section->vma
		      && ft_addr < ft_section->vma + ft_section->size)
		    break;
		}

	      if (ft_section == NULL)
		{
		  fprintf (file,
		       _("\nThere is a first thunk, but the section containing it could not be found\n"));
		  continue;
		}

	      /* Now check to see if this section is the same as our current
		 section.  If it is not then we will have to load its data in.  */
	      if (ft_section != section)
		{
		  ft_idx = first_thunk - (ft_section->vma - extra->ImageBase);
		  ft_datasize = ft_section->size - ft_idx;
		  ft_data = (bfd_byte *) bfd_malloc (ft_datasize);
		  if (ft_data == NULL)
		    continue;

		  /* Read ft_datasize bytes starting at offset ft_idx.  */
		  if (!bfd_get_section_contents (abfd, ft_section, ft_data,
						 (bfd_vma) ft_idx, ft_datasize))
		    {
		      free (ft_data);
		      continue;
		    }
		  ft_allocated = 1;
		}
	    }

	  /* Print HintName vector entries.  */
#ifdef COFF_WITH_pex64
	  for (j = 0; idx + j + 8 <= datasize; j += 8)
	    {
	      unsigned long member = bfd_get_32 (abfd, data + idx + j);
	      unsigned long member_high = bfd_get_32 (abfd, data + idx + j + 4);

	      if (!member && !member_high)
		break;

	      if (member_high & 0x80000000)
		fprintf (file, "\t%lx%08lx\t %4lx%08lx  <none>",
			 member_high,member, member_high & 0x7fffffff, member);
	      else
		{
		  int ordinal;
		  char *member_name;

		  ordinal = bfd_get_16 (abfd, data + member - adj);
		  member_name = (char *) data + member - adj + 2;
		  fprintf (file, "\t%04lx\t %4d  %s",member, ordinal, member_name);
		}

	      /* If the time stamp is not zero, the import address
		 table holds actual addresses.  */
	      if (time_stamp != 0
		  && first_thunk != 0
		  && first_thunk != hint_addr
		  && j + 4 <= ft_datasize)
		fprintf (file, "\t%04lx",
			 (unsigned long) bfd_get_32 (abfd, ft_data + j));
	      fprintf (file, "\n");
	    }
#else
	  for (j = 0; idx + j + 4 <= datasize; j += 4)
	    {
	      unsigned long member = bfd_get_32 (abfd, data + idx + j);

	      /* Print single IMAGE_IMPORT_BY_NAME vector.  */
	      if (member == 0)
		break;

	      if (member & 0x80000000)
		fprintf (file, "\t%04lx\t %4lu  <none>",
			 member, member & 0x7fffffff);
	      else
		{
		  int ordinal;
		  char *member_name;

		  ordinal = bfd_get_16 (abfd, data + member - adj);
		  member_name = (char *) data + member - adj + 2;
		  fprintf (file, "\t%04lx\t %4d  %s",
			   member, ordinal, member_name);
		}

	      /* If the time stamp is not zero, the import address
		 table holds actual addresses.  */
	      if (time_stamp != 0
		  && first_thunk != 0
		  && first_thunk != hint_addr
		  && j + 4 <= ft_datasize)
		fprintf (file, "\t%04lx",
			 (unsigned long) bfd_get_32 (abfd, ft_data + j));

	      fprintf (file, "\n");
	    }
#endif
	  if (ft_allocated)
	    free (ft_data);
	}

      fprintf (file, "\n");
    }

  free (data);

  return TRUE;
}

static bfd_boolean
pe_print_edata (bfd * abfd, void * vfile)
{
  FILE *file = (FILE *) vfile;
  bfd_byte *data;
  asection *section;
  bfd_size_type datasize = 0;
  bfd_size_type dataoff;
  bfd_size_type i;
  bfd_signed_vma adj;
  struct EDT_type
  {
    long export_flags;          /* Reserved - should be zero.  */
    long time_stamp;
    short major_ver;
    short minor_ver;
    bfd_vma name;               /* RVA - relative to image base.  */
    long base;                  /* Ordinal base.  */
    unsigned long num_functions;/* Number in the export address table.  */
    unsigned long num_names;    /* Number in the name pointer table.  */
    bfd_vma eat_addr;		/* RVA to the export address table.  */
    bfd_vma npt_addr;		/* RVA to the Export Name Pointer Table.  */
    bfd_vma ot_addr;		/* RVA to the Ordinal Table.  */
  } edt;

  pe_data_type *pe = pe_data (abfd);
  struct internal_extra_pe_aouthdr *extra = &pe->pe_opthdr;

  bfd_vma addr;

  addr = extra->DataDirectory[PE_EXPORT_TABLE].VirtualAddress;

  if (addr == 0 && extra->DataDirectory[PE_EXPORT_TABLE].Size == 0)
    {
      /* Maybe the extra header isn't there.  Look for the section.  */
      section = bfd_get_section_by_name (abfd, ".edata");
      if (section == NULL)
	return TRUE;

      addr = section->vma;
      dataoff = 0;
      datasize = section->size;
      if (datasize == 0)
	return TRUE;
    }
  else
    {
      addr += extra->ImageBase;

      for (section = abfd->sections; section != NULL; section = section->next)
	if (addr >= section->vma && addr < section->vma + section->size)
	  break;

      if (section == NULL)
	{
	  fprintf (file,
		   _("\nThere is an export table, but the section containing it could not be found\n"));
	  return TRUE;
	}

      dataoff = addr - section->vma;
      datasize = extra->DataDirectory[PE_EXPORT_TABLE].Size;
      if (datasize > section->size - dataoff)
	{
	  fprintf (file,
		   _("\nThere is an export table in %s, but it does not fit into that section\n"),
		   section->name);
	  return TRUE;
	}
    }

  fprintf (file, _("\nThere is an export table in %s at 0x%lx\n"),
	   section->name, (unsigned long) addr);

  data = (bfd_byte *) bfd_malloc (datasize);
  if (data == NULL)
    return FALSE;

  if (! bfd_get_section_contents (abfd, section, data,
				  (file_ptr) dataoff, datasize))
    return FALSE;

  /* Go get Export Directory Table.  */
  edt.export_flags   = bfd_get_32 (abfd, data +  0);
  edt.time_stamp     = bfd_get_32 (abfd, data +  4);
  edt.major_ver      = bfd_get_16 (abfd, data +  8);
  edt.minor_ver      = bfd_get_16 (abfd, data + 10);
  edt.name           = bfd_get_32 (abfd, data + 12);
  edt.base           = bfd_get_32 (abfd, data + 16);
  edt.num_functions  = bfd_get_32 (abfd, data + 20);
  edt.num_names      = bfd_get_32 (abfd, data + 24);
  edt.eat_addr       = bfd_get_32 (abfd, data + 28);
  edt.npt_addr       = bfd_get_32 (abfd, data + 32);
  edt.ot_addr        = bfd_get_32 (abfd, data + 36);

  adj = section->vma - extra->ImageBase + dataoff;

  /* Dump the EDT first.  */
  fprintf (file,
	   _("\nThe Export Tables (interpreted %s section contents)\n\n"),
	   section->name);

  fprintf (file,
	   _("Export Flags \t\t\t%lx\n"), (unsigned long) edt.export_flags);

  fprintf (file,
	   _("Time/Date stamp \t\t%lx\n"), (unsigned long) edt.time_stamp);

  fprintf (file,
	   _("Major/Minor \t\t\t%d/%d\n"), edt.major_ver, edt.minor_ver);

  fprintf (file,
	   _("Name \t\t\t\t"));
  bfd_fprintf_vma (abfd, file, edt.name);
  fprintf (file,
	   " %s\n", data + edt.name - adj);

  fprintf (file,
	   _("Ordinal Base \t\t\t%ld\n"), edt.base);

  fprintf (file,
	   _("Number in:\n"));

  fprintf (file,
	   _("\tExport Address Table \t\t%08lx\n"),
	   edt.num_functions);

  fprintf (file,
	   _("\t[Name Pointer/Ordinal] Table\t%08lx\n"), edt.num_names);

  fprintf (file,
	   _("Table Addresses\n"));

  fprintf (file,
	   _("\tExport Address Table \t\t"));
  bfd_fprintf_vma (abfd, file, edt.eat_addr);
  fprintf (file, "\n");

  fprintf (file,
	   _("\tName Pointer Table \t\t"));
  bfd_fprintf_vma (abfd, file, edt.npt_addr);
  fprintf (file, "\n");

  fprintf (file,
	   _("\tOrdinal Table \t\t\t"));
  bfd_fprintf_vma (abfd, file, edt.ot_addr);
  fprintf (file, "\n");

  /* The next table to find is the Export Address Table. It's basically
     a list of pointers that either locate a function in this dll, or
     forward the call to another dll. Something like:
      typedef union
      {
        long export_rva;
        long forwarder_rva;
      } export_address_table_entry;  */

  fprintf (file,
	  _("\nExport Address Table -- Ordinal Base %ld\n"),
	  edt.base);

  for (i = 0; i < edt.num_functions; ++i)
    {
      bfd_vma eat_member = bfd_get_32 (abfd,
				       data + edt.eat_addr + (i * 4) - adj);
      if (eat_member == 0)
	continue;

      if (eat_member - adj <= datasize)
	{
	  /* This rva is to a name (forwarding function) in our section.  */
	  /* Should locate a function descriptor.  */
	  fprintf (file,
		   "\t[%4ld] +base[%4ld] %04lx %s -- %s\n",
		   (long) i,
		   (long) (i + edt.base),
		   (unsigned long) eat_member,
		   _("Forwarder RVA"),
		   data + eat_member - adj);
	}
      else
	{
	  /* Should locate a function descriptor in the reldata section.  */
	  fprintf (file,
		   "\t[%4ld] +base[%4ld] %04lx %s\n",
		   (long) i,
		   (long) (i + edt.base),
		   (unsigned long) eat_member,
		   _("Export RVA"));
	}
    }

  /* The Export Name Pointer Table is paired with the Export Ordinal Table.  */
  /* Dump them in parallel for clarity.  */
  fprintf (file,
	   _("\n[Ordinal/Name Pointer] Table\n"));

  for (i = 0; i < edt.num_names; ++i)
    {
      bfd_vma name_ptr = bfd_get_32 (abfd,
				    data +
				    edt.npt_addr
				    + (i*4) - adj);

      char *name = (char *) data + name_ptr - adj;

      bfd_vma ord = bfd_get_16 (abfd,
				    data +
				    edt.ot_addr
				    + (i*2) - adj);
      fprintf (file,
	      "\t[%4ld] %s\n", (long) ord, name);
    }

  free (data);

  return TRUE;
}

/* This really is architecture dependent.  On IA-64, a .pdata entry
   consists of three dwords containing relative virtual addresses that
   specify the start and end address of the code range the entry
   covers and the address of the corresponding unwind info data.

   On ARM and SH-4, a compressed PDATA structure is used :
   _IMAGE_CE_RUNTIME_FUNCTION_ENTRY, whereas MIPS is documented to use
   _IMAGE_ALPHA_RUNTIME_FUNCTION_ENTRY.
   See http://msdn2.microsoft.com/en-us/library/ms253988(VS.80).aspx .

   This is the version for uncompressed data.  */

static bfd_boolean
pe_print_pdata (bfd * abfd, void * vfile)
{
#if defined(COFF_WITH_pep) && !defined(COFF_WITH_pex64)
# define PDATA_ROW_SIZE	(3 * 8)
#else
# define PDATA_ROW_SIZE	(5 * 4)
#endif
  FILE *file = (FILE *) vfile;
  bfd_byte *data = 0;
  asection *section = bfd_get_section_by_name (abfd, ".pdata");
  bfd_size_type datasize = 0;
  bfd_size_type i;
  bfd_size_type start, stop;
  int onaline = PDATA_ROW_SIZE;

  if (section == NULL
      || coff_section_data (abfd, section) == NULL
      || pei_section_data (abfd, section) == NULL)
    return TRUE;

  stop = pei_section_data (abfd, section)->virt_size;
  if ((stop % onaline) != 0)
    fprintf (file,
	     _("Warning, .pdata section size (%ld) is not a multiple of %d\n"),
	     (long) stop, onaline);

  fprintf (file,
	   _("\nThe Function Table (interpreted .pdata section contents)\n"));
#if defined(COFF_WITH_pep) && !defined(COFF_WITH_pex64)
  fprintf (file,
	   _(" vma:\t\t\tBegin Address    End Address      Unwind Info\n"));
#else
  fprintf (file, _("\
 vma:\t\tBegin    End      EH       EH       PrologEnd  Exception\n\
     \t\tAddress  Address  Handler  Data     Address    Mask\n"));
#endif

  datasize = section->size;
  if (datasize == 0)
    return TRUE;

  if (! bfd_malloc_and_get_section (abfd, section, &data))
    {
      if (data != NULL)
	free (data);
      return FALSE;
    }

  start = 0;

  for (i = start; i < stop; i += onaline)
    {
      bfd_vma begin_addr;
      bfd_vma end_addr;
      bfd_vma eh_handler;
      bfd_vma eh_data;
      bfd_vma prolog_end_addr;
#if !defined(COFF_WITH_pep) || defined(COFF_WITH_pex64)
      int em_data;
#endif

      if (i + PDATA_ROW_SIZE > stop)
	break;

      begin_addr      = GET_PDATA_ENTRY (abfd, data + i     );
      end_addr        = GET_PDATA_ENTRY (abfd, data + i +  4);
      eh_handler      = GET_PDATA_ENTRY (abfd, data + i +  8);
      eh_data         = GET_PDATA_ENTRY (abfd, data + i + 12);
      prolog_end_addr = GET_PDATA_ENTRY (abfd, data + i + 16);

      if (begin_addr == 0 && end_addr == 0 && eh_handler == 0
	  && eh_data == 0 && prolog_end_addr == 0)
	/* We are probably into the padding of the section now.  */
	break;

#if !defined(COFF_WITH_pep) || defined(COFF_WITH_pex64)
      em_data = ((eh_handler & 0x1) << 2) | (prolog_end_addr & 0x3);
#endif
      eh_handler &= ~(bfd_vma) 0x3;
      prolog_end_addr &= ~(bfd_vma) 0x3;

      fputc (' ', file);
      bfd_fprintf_vma (abfd, file, i + section->vma); fputc ('\t', file);
      bfd_fprintf_vma (abfd, file, begin_addr); fputc (' ', file);
      bfd_fprintf_vma (abfd, file, end_addr); fputc (' ', file);
      bfd_fprintf_vma (abfd, file, eh_handler);
#if !defined(COFF_WITH_pep) || defined(COFF_WITH_pex64)
      fputc (' ', file);
      bfd_fprintf_vma (abfd, file, eh_data); fputc (' ', file);
      bfd_fprintf_vma (abfd, file, prolog_end_addr);
      fprintf (file, "   %x", em_data);
#endif

#ifdef POWERPC_LE_PE
      if (eh_handler == 0 && eh_data != 0)
	{
	  /* Special bits here, although the meaning may be a little
	     mysterious. The only one I know for sure is 0x03
	     Code Significance
	     0x00 None
	     0x01 Register Save Millicode
	     0x02 Register Restore Millicode
	     0x03 Glue Code Sequence.  */
	  switch (eh_data)
	    {
	    case 0x01:
	      fprintf (file, _(" Register save millicode"));
	      break;
	    case 0x02:
	      fprintf (file, _(" Register restore millicode"));
	      break;
	    case 0x03:
	      fprintf (file, _(" Glue code sequence"));
	      break;
	    default:
	      break;
	    }
	}
#endif
      fprintf (file, "\n");
    }

  free (data);

  return TRUE;
#undef PDATA_ROW_SIZE
}

typedef struct sym_cache
{
  int        symcount;
  asymbol ** syms;
} sym_cache;

static asymbol **
slurp_symtab (bfd *abfd, sym_cache *psc)
{
  asymbol ** sy = NULL;
  long storage;

  if (!(bfd_get_file_flags (abfd) & HAS_SYMS))
    {
      psc->symcount = 0;
      return NULL;
    }

  storage = bfd_get_symtab_upper_bound (abfd);
  if (storage < 0)
    return NULL;
  if (storage)
    sy = (asymbol **) bfd_malloc (storage);

  psc->symcount = bfd_canonicalize_symtab (abfd, sy);
  if (psc->symcount < 0)
    return NULL;
  return sy;
}

static const char *
my_symbol_for_address (bfd *abfd, bfd_vma func, sym_cache *psc)
{
  int i;

  if (psc->syms == 0)
    psc->syms = slurp_symtab (abfd, psc);

  for (i = 0; i < psc->symcount; i++)
    {
      if (psc->syms[i]->section->vma + psc->syms[i]->value == func)
	return psc->syms[i]->name;
    }

  return NULL;
}

static void
cleanup_syms (sym_cache *psc)
{
  psc->symcount = 0;
  free (psc->syms);
  psc->syms = NULL;
}

/* This is the version for "compressed" pdata.  */

bfd_boolean
_bfd_XX_print_ce_compressed_pdata (bfd * abfd, void * vfile)
{
# define PDATA_ROW_SIZE	(2 * 4)
  FILE *file = (FILE *) vfile;
  bfd_byte *data = NULL;
  asection *section = bfd_get_section_by_name (abfd, ".pdata");
  bfd_size_type datasize = 0;
  bfd_size_type i;
  bfd_size_type start, stop;
  int onaline = PDATA_ROW_SIZE;
  struct sym_cache cache = {0, 0} ;

  if (section == NULL
      || coff_section_data (abfd, section) == NULL
      || pei_section_data (abfd, section) == NULL)
    return TRUE;

  stop = pei_section_data (abfd, section)->virt_size;
  if ((stop % onaline) != 0)
    fprintf (file,
	     _("Warning, .pdata section size (%ld) is not a multiple of %d\n"),
	     (long) stop, onaline);

  fprintf (file,
	   _("\nThe Function Table (interpreted .pdata section contents)\n"));

  fprintf (file, _("\
 vma:\t\tBegin    Prolog   Function Flags    Exception EH\n\
     \t\tAddress  Length   Length   32b exc  Handler   Data\n"));

  datasize = section->size;
  if (datasize == 0)
    return TRUE;

  if (! bfd_malloc_and_get_section (abfd, section, &data))
    {
      if (data != NULL)
	free (data);
      return FALSE;
    }

  start = 0;

  for (i = start; i < stop; i += onaline)
    {
      bfd_vma begin_addr;
      bfd_vma other_data;
      bfd_vma prolog_length, function_length;
      int flag32bit, exception_flag;
      asection *tsection;

      if (i + PDATA_ROW_SIZE > stop)
	break;

      begin_addr = GET_PDATA_ENTRY (abfd, data + i     );
      other_data = GET_PDATA_ENTRY (abfd, data + i +  4);

      if (begin_addr == 0 && other_data == 0)
	/* We are probably into the padding of the section now.  */
	break;

      prolog_length = (other_data & 0x000000FF);
      function_length = (other_data & 0x3FFFFF00) >> 8;
      flag32bit = (int)((other_data & 0x40000000) >> 30);
      exception_flag = (int)((other_data & 0x80000000) >> 31);

      fputc (' ', file);
      bfd_fprintf_vma (abfd, file, i + section->vma); fputc ('\t', file);
      bfd_fprintf_vma (abfd, file, begin_addr); fputc (' ', file);
      bfd_fprintf_vma (abfd, file, prolog_length); fputc (' ', file);
      bfd_fprintf_vma (abfd, file, function_length); fputc (' ', file);
      fprintf (file, "%2d  %2d   ", flag32bit, exception_flag);

      /* Get the exception handler's address and the data passed from the
         .text section. This is really the data that belongs with the .pdata
         but got "compressed" out for the ARM and SH4 architectures.  */
      tsection = bfd_get_section_by_name (abfd, ".text");
      if (tsection && coff_section_data (abfd, tsection)
	  && pei_section_data (abfd, tsection))
	{
	  bfd_vma eh_off = (begin_addr - 8) - tsection->vma;
	  bfd_byte *tdata;

	  tdata = (bfd_byte *) bfd_malloc (8);
	  if (tdata)
	    {
	      if (bfd_get_section_contents (abfd, tsection, tdata, eh_off, 8))
		{
		  bfd_vma eh, eh_data;

		  eh = bfd_get_32 (abfd, tdata);
		  eh_data = bfd_get_32 (abfd, tdata + 4);
		  fprintf (file, "%08x  ", (unsigned int) eh);
		  fprintf (file, "%08x", (unsigned int) eh_data);
		  if (eh != 0)
		    {
		      const char *s = my_symbol_for_address (abfd, eh, &cache);

		      if (s)
			fprintf (file, " (%s) ", s);
		    }
		}
	      free (tdata);
	    }
	}

      fprintf (file, "\n");
    }

  free (data);

  cleanup_syms (& cache);

  return TRUE;
#undef PDATA_ROW_SIZE
}

#define IMAGE_REL_BASED_HIGHADJ 4
static const char * const tbl[] =
{
  "ABSOLUTE",
  "HIGH",
  "LOW",
  "HIGHLOW",
  "HIGHADJ",
  "MIPS_JMPADDR",
  "SECTION",
  "REL32",
  "RESERVED1",
  "MIPS_JMPADDR16",
  "DIR64",
  "HIGH3ADJ",
  "UNKNOWN",   /* MUST be last.  */
};

static bfd_boolean
pe_print_reloc (bfd * abfd, void * vfile)
{
  FILE *file = (FILE *) vfile;
  bfd_byte *data = 0;
  asection *section = bfd_get_section_by_name (abfd, ".reloc");
  bfd_size_type i;
  bfd_size_type start, stop;

  if (section == NULL)
    return TRUE;

  if (section->size == 0)
    return TRUE;

  fprintf (file,
	   _("\n\nPE File Base Relocations (interpreted .reloc section contents)\n"));

  if (! bfd_malloc_and_get_section (abfd, section, &data))
    {
      if (data != NULL)
	free (data);
      return FALSE;
    }

  start = 0;

  stop = section->size;

  for (i = start; i < stop;)
    {
      int j;
      bfd_vma virtual_address;
      long number, size;

      /* The .reloc section is a sequence of blocks, with a header consisting
	 of two 32 bit quantities, followed by a number of 16 bit entries.  */
      virtual_address = bfd_get_32 (abfd, data+i);
      size = bfd_get_32 (abfd, data+i+4);
      number = (size - 8) / 2;

      if (size == 0)
	break;

      fprintf (file,
	       _("\nVirtual Address: %08lx Chunk size %ld (0x%lx) Number of fixups %ld\n"),
	       (unsigned long) virtual_address, size, (unsigned long) size, number);

      for (j = 0; j < number; ++j)
	{
	  unsigned short e = bfd_get_16 (abfd, data + i + 8 + j * 2);
	  unsigned int t = (e & 0xF000) >> 12;
	  int off = e & 0x0FFF;

	  if (t >= sizeof (tbl) / sizeof (tbl[0]))
	    t = (sizeof (tbl) / sizeof (tbl[0])) - 1;

	  fprintf (file,
		   _("\treloc %4d offset %4x [%4lx] %s"),
		   j, off, (unsigned long) (off + virtual_address), tbl[t]);

	  /* HIGHADJ takes an argument, - the next record *is* the
	     low 16 bits of addend.  */
	  if (t == IMAGE_REL_BASED_HIGHADJ)
	    {
	      fprintf (file, " (%4x)",
		       ((unsigned int)
			bfd_get_16 (abfd, data + i + 8 + j * 2 + 2)));
	      j++;
	    }

	  fprintf (file, "\n");
	}

      i += size;
    }

  free (data);

  return TRUE;
}

/* Print out the program headers.  */

bfd_boolean
_bfd_XX_print_private_bfd_data_common (bfd * abfd, void * vfile)
{
  FILE *file = (FILE *) vfile;
  int j;
  pe_data_type *pe = pe_data (abfd);
  struct internal_extra_pe_aouthdr *i = &pe->pe_opthdr;
  const char *subsystem_name = NULL;
  const char *name;

  /* The MS dumpbin program reportedly ands with 0xff0f before
     printing the characteristics field.  Not sure why.  No reason to
     emulate it here.  */
  fprintf (file, _("\nCharacteristics 0x%x\n"), pe->real_flags);
#undef PF
#define PF(x, y) if (pe->real_flags & x) { fprintf (file, "\t%s\n", y); }
  PF (IMAGE_FILE_RELOCS_STRIPPED, "relocations stripped");
  PF (IMAGE_FILE_EXECUTABLE_IMAGE, "executable");
  PF (IMAGE_FILE_LINE_NUMS_STRIPPED, "line numbers stripped");
  PF (IMAGE_FILE_LOCAL_SYMS_STRIPPED, "symbols stripped");
  PF (IMAGE_FILE_LARGE_ADDRESS_AWARE, "large address aware");
  PF (IMAGE_FILE_BYTES_REVERSED_LO, "little endian");
  PF (IMAGE_FILE_32BIT_MACHINE, "32 bit words");
  PF (IMAGE_FILE_DEBUG_STRIPPED, "debugging information removed");
  PF (IMAGE_FILE_SYSTEM, "system file");
  PF (IMAGE_FILE_DLL, "DLL");
  PF (IMAGE_FILE_BYTES_REVERSED_HI, "big endian");
#undef PF

  /* ctime implies '\n'.  */
  {
    time_t t = pe->coff.timestamp;
    fprintf (file, "\nTime/Date\t\t%s", ctime (&t));
  }

#ifndef IMAGE_NT_OPTIONAL_HDR_MAGIC
# define IMAGE_NT_OPTIONAL_HDR_MAGIC 0x10b
#endif
#ifndef IMAGE_NT_OPTIONAL_HDR64_MAGIC
# define IMAGE_NT_OPTIONAL_HDR64_MAGIC 0x20b
#endif
#ifndef IMAGE_NT_OPTIONAL_HDRROM_MAGIC
# define IMAGE_NT_OPTIONAL_HDRROM_MAGIC 0x107
#endif

  switch (i->Magic)
    {
    case IMAGE_NT_OPTIONAL_HDR_MAGIC:
      name = "PE32";
      break;
    case IMAGE_NT_OPTIONAL_HDR64_MAGIC:
      name = "PE32+";
      break;
    case IMAGE_NT_OPTIONAL_HDRROM_MAGIC:
      name = "ROM";
      break;
    default:
      name = NULL;
      break;
    }
  fprintf (file, "Magic\t\t\t%04x", i->Magic);
  if (name)
    fprintf (file, "\t(%s)",name);
  fprintf (file, "\nMajorLinkerVersion\t%d\n", i->MajorLinkerVersion);
  fprintf (file, "MinorLinkerVersion\t%d\n", i->MinorLinkerVersion);
  fprintf (file, "SizeOfCode\t\t%08lx\n", (unsigned long) i->SizeOfCode);
  fprintf (file, "SizeOfInitializedData\t%08lx\n",
	   (unsigned long) i->SizeOfInitializedData);
  fprintf (file, "SizeOfUninitializedData\t%08lx\n",
	   (unsigned long) i->SizeOfUninitializedData);
  fprintf (file, "AddressOfEntryPoint\t");
  bfd_fprintf_vma (abfd, file, i->AddressOfEntryPoint);
  fprintf (file, "\nBaseOfCode\t\t");
  bfd_fprintf_vma (abfd, file, i->BaseOfCode);
#if !defined(COFF_WITH_pep) && !defined(COFF_WITH_pex64)
  /* PE32+ does not have BaseOfData member!  */
  fprintf (file, "\nBaseOfData\t\t");
  bfd_fprintf_vma (abfd, file, i->BaseOfData);
#endif

  fprintf (file, "\nImageBase\t\t");
  bfd_fprintf_vma (abfd, file, i->ImageBase);
  fprintf (file, "\nSectionAlignment\t");
  bfd_fprintf_vma (abfd, file, i->SectionAlignment);
  fprintf (file, "\nFileAlignment\t\t");
  bfd_fprintf_vma (abfd, file, i->FileAlignment);
  fprintf (file, "\nMajorOSystemVersion\t%d\n", i->MajorOperatingSystemVersion);
  fprintf (file, "MinorOSystemVersion\t%d\n", i->MinorOperatingSystemVersion);
  fprintf (file, "MajorImageVersion\t%d\n", i->MajorImageVersion);
  fprintf (file, "MinorImageVersion\t%d\n", i->MinorImageVersion);
  fprintf (file, "MajorSubsystemVersion\t%d\n", i->MajorSubsystemVersion);
  fprintf (file, "MinorSubsystemVersion\t%d\n", i->MinorSubsystemVersion);
  fprintf (file, "Win32Version\t\t%08lx\n", (unsigned long) i->Reserved1);
  fprintf (file, "SizeOfImage\t\t%08lx\n", (unsigned long) i->SizeOfImage);
  fprintf (file, "SizeOfHeaders\t\t%08lx\n", (unsigned long) i->SizeOfHeaders);
  fprintf (file, "CheckSum\t\t%08lx\n", (unsigned long) i->CheckSum);

  switch (i->Subsystem)
    {
    case IMAGE_SUBSYSTEM_UNKNOWN:
      subsystem_name = "unspecified";
      break;
    case IMAGE_SUBSYSTEM_NATIVE:
      subsystem_name = "NT native";
      break;
    case IMAGE_SUBSYSTEM_WINDOWS_GUI:
      subsystem_name = "Windows GUI";
      break;
    case IMAGE_SUBSYSTEM_WINDOWS_CUI:
      subsystem_name = "Windows CUI";
      break;
    case IMAGE_SUBSYSTEM_POSIX_CUI:
      subsystem_name = "POSIX CUI";
      break;
    case IMAGE_SUBSYSTEM_WINDOWS_CE_GUI:
      subsystem_name = "Wince CUI";
      break;
    // These are from UEFI Platform Initialization Specification 1.1.
    case IMAGE_SUBSYSTEM_EFI_APPLICATION:
      subsystem_name = "EFI application";
      break;
    case IMAGE_SUBSYSTEM_EFI_BOOT_SERVICE_DRIVER:
      subsystem_name = "EFI boot service driver";
      break;
    case IMAGE_SUBSYSTEM_EFI_RUNTIME_DRIVER:
      subsystem_name = "EFI runtime driver";
      break;
    case IMAGE_SUBSYSTEM_SAL_RUNTIME_DRIVER:
      subsystem_name = "SAL runtime driver";
      break;
    // This is from revision 8.0 of the MS PE/COFF spec
    case IMAGE_SUBSYSTEM_XBOX:
      subsystem_name = "XBOX";
      break;
    // Added default case for clarity - subsystem_name is NULL anyway.
    default:
      subsystem_name = NULL;
    }

  fprintf (file, "Subsystem\t\t%08x", i->Subsystem);
  if (subsystem_name)
    fprintf (file, "\t(%s)", subsystem_name);
  fprintf (file, "\nDllCharacteristics\t%08x\n", i->DllCharacteristics);
  fprintf (file, "SizeOfStackReserve\t");
  bfd_fprintf_vma (abfd, file, i->SizeOfStackReserve);
  fprintf (file, "\nSizeOfStackCommit\t");
  bfd_fprintf_vma (abfd, file, i->SizeOfStackCommit);
  fprintf (file, "\nSizeOfHeapReserve\t");
  bfd_fprintf_vma (abfd, file, i->SizeOfHeapReserve);
  fprintf (file, "\nSizeOfHeapCommit\t");
  bfd_fprintf_vma (abfd, file, i->SizeOfHeapCommit);
  fprintf (file, "\nLoaderFlags\t\t%08lx\n", (unsigned long) i->LoaderFlags);
  fprintf (file, "NumberOfRvaAndSizes\t%08lx\n",
	   (unsigned long) i->NumberOfRvaAndSizes);

  fprintf (file, "\nThe Data Directory\n");
  for (j = 0; j < IMAGE_NUMBEROF_DIRECTORY_ENTRIES; j++)
    {
      fprintf (file, "Entry %1x ", j);
      bfd_fprintf_vma (abfd, file, i->DataDirectory[j].VirtualAddress);
      fprintf (file, " %08lx ", (unsigned long) i->DataDirectory[j].Size);
      fprintf (file, "%s\n", dir_names[j]);
    }

  pe_print_idata (abfd, vfile);
  pe_print_edata (abfd, vfile);
  if (bfd_coff_have_print_pdata (abfd))
    bfd_coff_print_pdata (abfd, vfile);
  else
    pe_print_pdata (abfd, vfile);
  pe_print_reloc (abfd, vfile);

  return TRUE;
}

/* Copy any private info we understand from the input bfd
   to the output bfd.  */

bfd_boolean
_bfd_XX_bfd_copy_private_bfd_data_common (bfd * ibfd, bfd * obfd)
{
  pe_data_type *ipe, *ope;

  /* One day we may try to grok other private data.  */
  if (ibfd->xvec->flavour != bfd_target_coff_flavour
      || obfd->xvec->flavour != bfd_target_coff_flavour)
    return TRUE;

  ipe = pe_data (ibfd);
  ope = pe_data (obfd);

  /* pe_opthdr is copied in copy_object.  */
  ope->dll = ipe->dll;

  /* Don't copy input subsystem if output is different from input.  */
  if (obfd->xvec != ibfd->xvec)
    ope->pe_opthdr.Subsystem = IMAGE_SUBSYSTEM_UNKNOWN;

  /* For strip: if we removed .reloc, we'll make a real mess of things
     if we don't remove this entry as well.  */
  if (! pe_data (obfd)->has_reloc_section)
    {
      pe_data (obfd)->pe_opthdr.DataDirectory[PE_BASE_RELOCATION_TABLE].VirtualAddress = 0;
      pe_data (obfd)->pe_opthdr.DataDirectory[PE_BASE_RELOCATION_TABLE].Size = 0;
    }

  /* For PIE, if there is .reloc, we won't add IMAGE_FILE_RELOCS_STRIPPED.
     But there is no .reloc, we make sure that IMAGE_FILE_RELOCS_STRIPPED
     won't be added.  */
  if (! pe_data (ibfd)->has_reloc_section
      && ! (pe_data (ibfd)->real_flags & IMAGE_FILE_RELOCS_STRIPPED))
    pe_data (obfd)->dont_strip_reloc = 1;

  return TRUE;
}

/* Copy private section data.  */

bfd_boolean
_bfd_XX_bfd_copy_private_section_data (bfd *ibfd,
				       asection *isec,
				       bfd *obfd,
				       asection *osec)
{
  if (bfd_get_flavour (ibfd) != bfd_target_coff_flavour
      || bfd_get_flavour (obfd) != bfd_target_coff_flavour)
    return TRUE;

  if (coff_section_data (ibfd, isec) != NULL
      && pei_section_data (ibfd, isec) != NULL)
    {
      if (coff_section_data (obfd, osec) == NULL)
	{
	  bfd_size_type amt = sizeof (struct coff_section_tdata);
	  osec->used_by_bfd = bfd_zalloc (obfd, amt);
	  if (osec->used_by_bfd == NULL)
	    return FALSE;
	}

      if (pei_section_data (obfd, osec) == NULL)
	{
	  bfd_size_type amt = sizeof (struct pei_section_tdata);
	  coff_section_data (obfd, osec)->tdata = bfd_zalloc (obfd, amt);
	  if (coff_section_data (obfd, osec)->tdata == NULL)
	    return FALSE;
	}

      pei_section_data (obfd, osec)->virt_size =
	pei_section_data (ibfd, isec)->virt_size;
      pei_section_data (obfd, osec)->pe_flags =
	pei_section_data (ibfd, isec)->pe_flags;
    }

  return TRUE;
}

void
_bfd_XX_get_symbol_info (bfd * abfd, asymbol *symbol, symbol_info *ret)
{
  coff_get_symbol_info (abfd, symbol, ret);
}

#if !defined(COFF_WITH_pep) && defined(COFF_WITH_pex64)
static int
sort_x64_pdata (const void *l, const void *r)
{
  const char *lp = (const char *) l;
  const char *rp = (const char *) r;
  bfd_vma vl, vr;
  vl = bfd_getl32 (lp); vr = bfd_getl32 (rp);
  if (vl != vr)
    return (vl < vr ? -1 : 1);
  /* We compare just begin address.  */
  return 0;
}
#endif

/* Handle the .idata section and other things that need symbol table
   access.  */

bfd_boolean
_bfd_XXi_final_link_postscript (bfd * abfd, struct coff_final_link_info *pfinfo)
{
  struct coff_link_hash_entry *h1;
  struct bfd_link_info *info = pfinfo->info;
  bfd_boolean result = TRUE;

  /* There are a few fields that need to be filled in now while we
     have symbol table access.

     The .idata subsections aren't directly available as sections, but
     they are in the symbol table, so get them from there.  */

  /* The import directory.  This is the address of .idata$2, with size
     of .idata$2 + .idata$3.  */
  h1 = coff_link_hash_lookup (coff_hash_table (info),
			      ".idata$2", FALSE, FALSE, TRUE);
  if (h1 != NULL)
    {
      /* PR ld/2729: We cannot rely upon all the output sections having been
	 created properly, so check before referencing them.  Issue a warning
	 message for any sections tht could not be found.  */
      if ((h1->root.type == bfd_link_hash_defined
	   || h1->root.type == bfd_link_hash_defweak)
	  && h1->root.u.def.section != NULL
	  && h1->root.u.def.section->output_section != NULL)
	pe_data (abfd)->pe_opthdr.DataDirectory[PE_IMPORT_TABLE].VirtualAddress =
	  (h1->root.u.def.value
	   + h1->root.u.def.section->output_section->vma
	   + h1->root.u.def.section->output_offset);
      else
	{
	  _bfd_error_handler
	    (_("%B: unable to fill in DataDictionary[1] because .idata$2 is missing"),
	     abfd);
	  result = FALSE;
	}

      h1 = coff_link_hash_lookup (coff_hash_table (info),
				  ".idata$4", FALSE, FALSE, TRUE);
      if (h1 != NULL
	  && (h1->root.type == bfd_link_hash_defined
	   || h1->root.type == bfd_link_hash_defweak)
	  && h1->root.u.def.section != NULL
	  && h1->root.u.def.section->output_section != NULL)
	pe_data (abfd)->pe_opthdr.DataDirectory[PE_IMPORT_TABLE].Size =
	  ((h1->root.u.def.value
	    + h1->root.u.def.section->output_section->vma
	    + h1->root.u.def.section->output_offset)
	   - pe_data (abfd)->pe_opthdr.DataDirectory[PE_IMPORT_TABLE].VirtualAddress);
      else
	{
	  _bfd_error_handler
	    (_("%B: unable to fill in DataDictionary[1] because .idata$4 is missing"),
	     abfd);
	  result = FALSE;
	}

      /* The import address table.  This is the size/address of
         .idata$5.  */
      h1 = coff_link_hash_lookup (coff_hash_table (info),
				  ".idata$5", FALSE, FALSE, TRUE);
      if (h1 != NULL
	  && (h1->root.type == bfd_link_hash_defined
	   || h1->root.type == bfd_link_hash_defweak)
	  && h1->root.u.def.section != NULL
	  && h1->root.u.def.section->output_section != NULL)
	pe_data (abfd)->pe_opthdr.DataDirectory[PE_IMPORT_ADDRESS_TABLE].VirtualAddress =
	  (h1->root.u.def.value
	   + h1->root.u.def.section->output_section->vma
	   + h1->root.u.def.section->output_offset);
      else
	{
	  _bfd_error_handler
	    (_("%B: unable to fill in DataDictionary[12] because .idata$5 is missing"),
	     abfd);
	  result = FALSE;
	}

      h1 = coff_link_hash_lookup (coff_hash_table (info),
				  ".idata$6", FALSE, FALSE, TRUE);
      if (h1 != NULL
	  && (h1->root.type == bfd_link_hash_defined
	   || h1->root.type == bfd_link_hash_defweak)
	  && h1->root.u.def.section != NULL
	  && h1->root.u.def.section->output_section != NULL)
	pe_data (abfd)->pe_opthdr.DataDirectory[PE_IMPORT_ADDRESS_TABLE].Size =
	  ((h1->root.u.def.value
	    + h1->root.u.def.section->output_section->vma
	    + h1->root.u.def.section->output_offset)
	   - pe_data (abfd)->pe_opthdr.DataDirectory[PE_IMPORT_ADDRESS_TABLE].VirtualAddress);
      else
	{
	  _bfd_error_handler
	    (_("%B: unable to fill in DataDictionary[PE_IMPORT_ADDRESS_TABLE (12)] because .idata$6 is missing"),
	     abfd);
	  result = FALSE;
	}
    }
  else
    {
      h1 = coff_link_hash_lookup (coff_hash_table (info),
				  "__IAT_start__", FALSE, FALSE, TRUE);
      if (h1 != NULL
	  && (h1->root.type == bfd_link_hash_defined
	   || h1->root.type == bfd_link_hash_defweak)
	  && h1->root.u.def.section != NULL
	  && h1->root.u.def.section->output_section != NULL)
	{
	  bfd_vma iat_va;

	  iat_va =
	    (h1->root.u.def.value
	     + h1->root.u.def.section->output_section->vma
	     + h1->root.u.def.section->output_offset);

	  h1 = coff_link_hash_lookup (coff_hash_table (info),
				      "__IAT_end__", FALSE, FALSE, TRUE);
	  if (h1 != NULL
	      && (h1->root.type == bfd_link_hash_defined
	       || h1->root.type == bfd_link_hash_defweak)
	      && h1->root.u.def.section != NULL
	      && h1->root.u.def.section->output_section != NULL)
	    {
	      pe_data (abfd)->pe_opthdr.DataDirectory[PE_IMPORT_ADDRESS_TABLE].Size =
		((h1->root.u.def.value
		  + h1->root.u.def.section->output_section->vma
		  + h1->root.u.def.section->output_offset)
		 - iat_va);
	      if (pe_data (abfd)->pe_opthdr.DataDirectory[PE_IMPORT_ADDRESS_TABLE].Size != 0)
		pe_data (abfd)->pe_opthdr.DataDirectory[PE_IMPORT_ADDRESS_TABLE].VirtualAddress =
		  iat_va - pe_data (abfd)->pe_opthdr.ImageBase;
	    }
	  else
	    {
	      _bfd_error_handler
		(_("%B: unable to fill in DataDictionary[PE_IMPORT_ADDRESS_TABLE(12)]"
		   " because .idata$6 is missing"), abfd);
	      result = FALSE;
	    }
        }
    }

  h1 = coff_link_hash_lookup (coff_hash_table (info),
			      (bfd_get_symbol_leading_char(abfd) != 0
			       ? "__tls_used" : "_tls_used"),
			      FALSE, FALSE, TRUE);
  if (h1 != NULL)
    {
      if ((h1->root.type == bfd_link_hash_defined
	   || h1->root.type == bfd_link_hash_defweak)
	  && h1->root.u.def.section != NULL
	  && h1->root.u.def.section->output_section != NULL)
	pe_data (abfd)->pe_opthdr.DataDirectory[PE_TLS_TABLE].VirtualAddress =
	  (h1->root.u.def.value
	   + h1->root.u.def.section->output_section->vma
	   + h1->root.u.def.section->output_offset
	   - pe_data (abfd)->pe_opthdr.ImageBase);
      else
	{
	  _bfd_error_handler
	    (_("%B: unable to fill in DataDictionary[9] because __tls_used is missing"),
	     abfd);
	  result = FALSE;
	}
     /* According to PECOFF sepcifications by Microsoft version 8.2
	the TLS data directory consists of 4 pointers, followed
	by two 4-byte integer. This implies that the total size
	is different for 32-bit and 64-bit executables.  */
#if !defined(COFF_WITH_pep) && !defined(COFF_WITH_pex64)
      pe_data (abfd)->pe_opthdr.DataDirectory[PE_TLS_TABLE].Size = 0x18;
#else
      pe_data (abfd)->pe_opthdr.DataDirectory[PE_TLS_TABLE].Size = 0x28;
#endif
    }

/* If there is a .pdata section and we have linked pdata finally, we
     need to sort the entries ascending.  */
#if !defined(COFF_WITH_pep) && defined(COFF_WITH_pex64)
  {
    asection *sec = bfd_get_section_by_name (abfd, ".pdata");

    if (sec)
      {
	bfd_size_type x = sec->rawsize;
	bfd_byte *tmp_data = NULL;

	if (x)
	  tmp_data = bfd_malloc (x);

	if (tmp_data != NULL)
	  {
	    if (bfd_get_section_contents (abfd, sec, tmp_data, 0, x))
	      {
		qsort (tmp_data,
		       (size_t) (x / 12),
		       12, sort_x64_pdata);
		bfd_set_section_contents (pfinfo->output_bfd, sec,
					  tmp_data, 0, x);
	      }
	    free (tmp_data);
	  }
      }
  }
#endif

  /* If we couldn't find idata$2, we either have an excessively
     trivial program or are in DEEP trouble; we have to assume trivial
     program....  */
  return result;
}


text:
/****************************************************************************/
/*  File:       Types.java                                                  */
/*  Author:     F. Georges - H2O Consulting                                 */
/*  Date:       2013-09-11                                                  */
/*  Tags:                                                                   */
/*      Copyright (c) 2013 Florent Georges (see end of file.)               */
/* ------------------------------------------------------------------------ */

package nl.armatiek.xmlindex.saxon.functions.expath.tools.saxon.fun;

import net.sf.saxon.expr.StaticProperty;
import net.sf.saxon.om.NamePool;
import net.sf.saxon.om.StructuredQName;
import net.sf.saxon.pattern.AnyNodeTest;
import net.sf.saxon.pattern.NameTest;
import net.sf.saxon.pattern.NodeKindTest;
import net.sf.saxon.s9api.Processor;
import net.sf.saxon.type.AnyItemType;
import net.sf.saxon.type.BuiltInAtomicType;
import net.sf.saxon.type.ItemType;
import net.sf.saxon.type.Type;
import net.sf.saxon.value.SequenceType;

/**
 * Utilities for extension functions types for Saxon.
 *
 * @author Florent Georges
 */
public class Types
{
    // exactly one (no type podifier in XPath)
    public static final int SINGLE   = StaticProperty.EXACTLY_ONE;
    // zero or one ("?" in XPath)
    public static final int OPTIONAL = StaticProperty.ALLOWS_ZERO_OR_ONE;
    // zero or more ("*" in XPath)
    public static final int ANY      = StaticProperty.ALLOWS_ZERO_OR_MORE;
    // one or more ("+" in XPath)
    public static final int SEVERAL  = StaticProperty.ALLOWS_ONE_OR_MORE;

    // item()
    public static final ItemType ITEM     = AnyItemType.getInstance();
    // built-in atomic types
    public static final ItemType BASE64   = BuiltInAtomicType.BASE64_BINARY;
    public static final ItemType BOOLEAN  = BuiltInAtomicType.BOOLEAN;
    public static final ItemType BYTE     = BuiltInAtomicType.BYTE;
    public static final ItemType DATE     = BuiltInAtomicType.DATE;
    public static final ItemType DATETIME = BuiltInAtomicType.DATE_TIME;
    public static final ItemType DECIMAL  = BuiltInAtomicType.DECIMAL;
    public static final ItemType DOUBLE   = BuiltInAtomicType.DOUBLE;
    public static final ItemType FLOAT    = BuiltInAtomicType.FLOAT;
    public static final ItemType INT      = BuiltInAtomicType.INT;
    public static final ItemType INTEGER  = BuiltInAtomicType.INTEGER;
    public static final ItemType LONG     = BuiltInAtomicType.LONG;
    public static final ItemType SHORT    = BuiltInAtomicType.SHORT;
    public static final ItemType STRING   = BuiltInAtomicType.STRING;
    public static final ItemType URI      = BuiltInAtomicType.ANY_URI;
    // nodes
    public static final ItemType NODE      = AnyNodeTest.getInstance();
    public static final ItemType ATTRIBUTE = NodeKindTest.ATTRIBUTE;
    public static final ItemType COMMENT   = NodeKindTest.COMMENT;
    public static final ItemType DOCUMENT  = NodeKindTest.DOCUMENT;
    public static final ItemType ELEMENT   = NodeKindTest.ELEMENT;
    public static final ItemType NAMESPACE = NodeKindTest.NAMESPACE;
    public static final ItemType PI        = NodeKindTest.PROCESSING_INSTRUCTION;
    public static final ItemType TEXT      = NodeKindTest.TEXT;

    // the empty sequence
    public static final SequenceType EMPTY_SEQUENCE = SequenceType.EMPTY_SEQUENCE;

    // singles
    public static final SequenceType SINGLE_ITEM     = SequenceType.SINGLE_ITEM;
    // atomic types
    public static final SequenceType SINGLE_BASE64   = make(SINGLE, BASE64);
    public static final SequenceType SINGLE_BOOLEAN  = SequenceType.SINGLE_BOOLEAN;
    public static final SequenceType SINGLE_BYTE     = SequenceType.SINGLE_BYTE;
    public static final SequenceType SINGLE_DATE     = make(SINGLE, DATE);
    public static final SequenceType SINGLE_DATETIME = make(SINGLE, DATETIME);
    public static final SequenceType SINGLE_DECIMAL  = make(SINGLE, DECIMAL);
    public static final SequenceType SINGLE_DOUBLE   = SequenceType.SINGLE_DOUBLE;
    public static final SequenceType SINGLE_FLOAT    = SequenceType.SINGLE_FLOAT;
    public static final SequenceType SINGLE_INT      = BuiltInAtomicType.INT.one();
    public static final SequenceType SINGLE_INTEGER  = SequenceType.SINGLE_INTEGER;
    public static final SequenceType SINGLE_LONG     = BuiltInAtomicType.LONG.one();
    public static final SequenceType SINGLE_SHORT    = SequenceType.SINGLE_SHORT;
    public static final SequenceType SINGLE_STRING   = SequenceType.SINGLE_STRING;
    public static final SequenceType SINGLE_URI      = BuiltInAtomicType.ANY_URI.one();
    // nodes
    public static final SequenceType SINGLE_NODE      = SequenceType.SINGLE_NODE;
    public static final SequenceType SINGLE_ATTRIBUTE = make(SINGLE, ATTRIBUTE);
    public static final SequenceType SINGLE_COMMENT   = make(SINGLE, COMMENT);
    public static final SequenceType SINGLE_DOCUMENT  = make(SINGLE, DOCUMENT);
    public static final SequenceType SINGLE_ELEMENT   = make(SINGLE, ELEMENT);
    public static final SequenceType SINGLE_NAMESPACE = make(SINGLE, NAMESPACE);
    public static final SequenceType SINGLE_PI        = make(SINGLE, PI);
    public static final SequenceType SINGLE_TEXT      = make(SINGLE, TEXT);

    // optionals
    public static final SequenceType OPTIONAL_ITEM     = SequenceType.OPTIONAL_ITEM;
    // atomic types
    public static final SequenceType OPTIONAL_BASE64   = make(OPTIONAL, BASE64);
    public static final SequenceType OPTIONAL_BOOLEAN  = SequenceType.OPTIONAL_BOOLEAN;
    public static final SequenceType OPTIONAL_BYTE     = SequenceType.OPTIONAL_BYTE;
    public static final SequenceType OPTIONAL_DATE     = make(OPTIONAL, DATE);
    public static final SequenceType OPTIONAL_DATETIME = SequenceType.OPTIONAL_DATE_TIME;
    public static final SequenceType OPTIONAL_DECIMAL  = SequenceType.OPTIONAL_DECIMAL;
    public static final SequenceType OPTIONAL_DOUBLE   = SequenceType.OPTIONAL_DOUBLE;
    public static final SequenceType OPTIONAL_FLOAT    = SequenceType.OPTIONAL_FLOAT;
    public static final SequenceType OPTIONAL_INT      = BuiltInAtomicType.INT.zeroOrOne();
    public static final SequenceType OPTIONAL_INTEGER  = SequenceType.OPTIONAL_INTEGER;
    public static final SequenceType OPTIONAL_LONG     = BuiltInAtomicType.LONG.zeroOrOne();
    public static final SequenceType OPTIONAL_SHORT    = SequenceType.OPTIONAL_SHORT;
    public static final SequenceType OPTIONAL_STRING   = SequenceType.OPTIONAL_STRING;
    public static final SequenceType OPTIONAL_URI      = SequenceType.OPTIONAL_ANY_URI;
    // nodes
    public static final SequenceType OPTIONAL_NODE      = SequenceType.OPTIONAL_NODE;
    public static final SequenceType OPTIONAL_ATTRIBUTE = make(OPTIONAL, ATTRIBUTE);
    public static final SequenceType OPTIONAL_COMMENT   = make(OPTIONAL, COMMENT);
    public static final SequenceType OPTIONAL_DOCUMENT  = make(OPTIONAL, DOCUMENT);
    public static final SequenceType OPTIONAL_ELEMENT   = make(OPTIONAL, ELEMENT);
    public static final SequenceType OPTIONAL_NAMESPACE = make(OPTIONAL, NAMESPACE);
    public static final SequenceType OPTIONAL_PI        = make(OPTIONAL, PI);
    public static final SequenceType OPTIONAL_TEXT      = make(OPTIONAL, TEXT);

    // anys
    public static final SequenceType ANY_ITEM     = SequenceType.ANY_SEQUENCE;
    // atomic types
    public static final SequenceType ANY_BASE64   = make(ANY, BASE64);
    public static final SequenceType ANY_BOOLEAN  = make(ANY, BOOLEAN);
    public static final SequenceType ANY_BYTE     = make(ANY, BYTE);
    public static final SequenceType ANY_DATE     = make(ANY, DATE);
    public static final SequenceType ANY_DATETIME = make(ANY, DATETIME);
    public static final SequenceType ANY_DECIMAL  = make(ANY, DECIMAL);
    public static final SequenceType ANY_DOUBLE   = make(ANY, DOUBLE);
    public static final SequenceType ANY_FLOAT    = make(ANY, FLOAT);
    public static final SequenceType ANY_INT      = make(ANY, INT);
    public static final SequenceType ANY_INTEGER  = make(ANY, INTEGER);
    public static final SequenceType ANY_LONG     = make(ANY, LONG);
    public static final SequenceType ANY_SHORT    = make(ANY, SHORT);
    public static final SequenceType ANY_STRING   = SequenceType.STRING_SEQUENCE;
    public static final SequenceType ANY_URI      = make(ANY, URI);
    // nodes
    public static final SequenceType ANY_NODE      = SequenceType.NODE_SEQUENCE;
    public static final SequenceType ANY_ATTRIBUTE = make(SINGLE, ATTRIBUTE);
    public static final SequenceType ANY_COMMENT   = make(SINGLE, COMMENT);
    public static final SequenceType ANY_DOCUMENT  = make(SINGLE, DOCUMENT);
    public static final SequenceType ANY_ELEMENT   = make(SINGLE, ELEMENT);
    public static final SequenceType ANY_NAMESPACE = make(SINGLE, NAMESPACE);
    public static final SequenceType ANY_PI        = make(SINGLE, PI);
    public static final SequenceType ANY_TEXT      = make(SINGLE, TEXT);

    // severals
    public static final SequenceType SEVERAL_ITEM     = SequenceType.NON_EMPTY_SEQUENCE;
    // atomic types
    public static final SequenceType SEVERAL_BASE64   = make(SEVERAL, BASE64);
    public static final SequenceType SEVERAL_BOOLEAN  = make(SEVERAL, BOOLEAN);
    public static final SequenceType SEVERAL_BYTE     = make(SEVERAL, BYTE);
    public static final SequenceType SEVERAL_DATE     = make(SEVERAL, DATE);
    public static final SequenceType SEVERAL_DATETIME = make(SEVERAL, DATETIME);
    public static final SequenceType SEVERAL_DECIMAL  = make(SEVERAL, DECIMAL);
    public static final SequenceType SEVERAL_DOUBLE   = make(SEVERAL, DOUBLE);
    public static final SequenceType SEVERAL_FLOAT    = make(SEVERAL, FLOAT);
    public static final SequenceType SEVERAL_INT      = make(SEVERAL, INT);
    public static final SequenceType SEVERAL_INTEGER  = make(SEVERAL, INTEGER);
    public static final SequenceType SEVERAL_LONG     = make(SEVERAL, LONG);
    public static final SequenceType SEVERAL_SHORT    = make(SEVERAL, SHORT);
    public static final SequenceType SEVERAL_STRING   = make(SEVERAL, STRING);
    public static final SequenceType SEVERAL_URI      = make(SEVERAL, URI);
    // nodes
    public static final SequenceType SEVERAL_NODE      = make(SEVERAL, NODE);
    public static final SequenceType SEVERAL_ATTRIBUTE = make(SEVERAL, ATTRIBUTE);
    public static final SequenceType SEVERAL_COMMENT   = make(SEVERAL, COMMENT);
    public static final SequenceType SEVERAL_DOCUMENT  = make(SEVERAL, DOCUMENT);
    public static final SequenceType SEVERAL_ELEMENT   = make(SEVERAL, ELEMENT);
    public static final SequenceType SEVERAL_NAMESPACE = make(SEVERAL, NAMESPACE);
    public static final SequenceType SEVERAL_PI        = make(SEVERAL, PI);
    public static final SequenceType SEVERAL_TEXT      = make(SEVERAL, TEXT);

    public Types(Library lib)
    {
        myLib = lib;
    }

    /**
     * Create a list of types.
     */
    public static SequenceType[] types(SequenceType... args)
    {
        return args;
    }

    /**
     * Create a QName in the namespace of the library of this object.
     */
    public StructuredQName qname(String local)
    {
        final String uri    = myLib.getNamespace();
        final String prefix = myLib.getPrefix();
        return new StructuredQName(prefix, uri, local);
    }

    /**
     * Create an "element(ns:xxx)" type, in the namespace of the library of this object.
     */
    public SequenceType singleElement(String local, Processor saxon)
    {
        return element(SINGLE, local, saxon);
    }

    /**
     * Create an "element(ns:xxx)?" type, in the namespace of the library of this object.
     */
    public SequenceType optionalElement(String local, Processor saxon)
    {
        return element(OPTIONAL, local, saxon);
    }

    /**
     * Create an "element(ns:xxx)*" type, in the namespace of the library of this object.
     */
    public SequenceType anyElement(String local, Processor saxon)
    {
        return element(ANY, local, saxon);
    }

    /**
     * Create an "element(ns:xxx)+" type, in the namespace of the library of this object.
     */
    public SequenceType severalElement(String local, Processor saxon)
    {
        return element(SEVERAL, local, saxon);
    }

    private SequenceType element(int occurrence, String local, Processor saxon)
    {
        final int      kind   = Type.ELEMENT;
        final String   uri    = myLib.getNamespace();
        final NamePool pool   = saxon.getUnderlyingConfiguration().getNamePool();
        final ItemType itype  = new NameTest(kind, uri, local, pool);
        return SequenceType.makeSequenceType(itype, occurrence);
    }

    private static SequenceType make(int occurrence, ItemType type)
    {
        return SequenceType.makeSequenceType(type, occurrence);
    }

    private final Library myLib;
}

/* ------------------------------------------------------------------------ */
/*  DO NOT ALTER OR REMOVE COPYRIGHT NOTICES OR THIS COMMENT.               */
/*                                                                          */
/*  The contents of this file are subject to the Mozilla Public License     */
/*  Version 1.0 (the "License"); you may not use this file except in        */
/*  compliance with the License. You may obtain a copy of the License at    */
/*  http://www.mozilla.org/MPL/.                                            */
/*                                                                          */
/*  Software distributed under the License is distributed on an "AS IS"     */
/*  basis, WITHOUT WARRANTY OF ANY KIND, either express or implied.  See    */
/*  the License for the specific language governing rights and limitations  */
/*  under the License.                                                      */
/*                                                                          */
/*  The Original Code is: all this file.                                    */
/*                                                                          */
/*  The Initial Developer of the Original Code is Florent Georges.          */
/*                                                                          */
/*  Contributor(s): none.                                                   */
/* ------------------------------------------------------------------------ */

redpajama_set_name: RedPajamaGithub


text:
class Node:
    def __init__(self, val):
        self.val = val
        self.leftChild = None
        self.rightChild = None

    def get(self):
        return self.val

    def set(self, val):
        self.val = val

    def getChildren(self):
        children = []
        if(self.leftChild != None):
            children.append(self.leftChild)
        if(self.rightChild != None):
            children.append(self.rightChild)
        return children

class BST:
    def __init__(self):
        self.root = None

    def setRoot(self, val):
        self.root = Node(val)

    def insert(self, val):
        if(self.root is None):
            self.setRoot(val)
        else:
            self.insertNode(self.root, val)

    def insertNode(self, currentNode, val):
        if(val <= currentNode.val):
            if(currentNode.leftChild):
                self.insertNode(currentNode.leftChild, val)
            else:
                currentNode.leftChild = Node(val)
        elif(val > currentNode.val):
            if(currentNode.rightChild):
                self.insertNode(currentNode.rightChild, val)
            else:
                currentNode.rightChild = Node(val)

    def find(self, val):
        return self.findNode(self.root, val)

    def findNode(self, currentNode, val):
        if(currentNode is None):
            return False
        elif(val == currentNode.val):
            print("Found!\n")
            return True
        elif(val < currentNode.val):
            print("->left")
            return self.findNode(currentNode.leftChild, val)
        else:
            print("->right")
            return self.findNode(currentNode.rightChild, val)

def main():
    myBST = BST()
    myBST.insert("Test")
    myBST.insert("Adrian")
    myBST.insert("Z")
    myBST.find("Test")
    myBST.find("Adrian")
    myBST.find("Z")
    myBST.find("NotHere")

if __name__ == "__main__":
    main()


text:
import math

import torch
from numpy.testing import assert_almost_equal
import numpy

from allennlp.common import Params
from allennlp.common.testing.test_case import AllenNlpTestCase
from allennlp.modules.matrix_attention import ScaledDotProductMatrixAttention
from allennlp.modules.matrix_attention.matrix_attention import MatrixAttention

class TestScaledDotProductMatrixAttention(AllenNlpTestCase):
    def test_can_init_dot(self):
        legacy_attention = MatrixAttention.from_params(Params({"type": "scaled_dot_product"}))
        isinstance(legacy_attention, ScaledDotProductMatrixAttention)

    def test_dot_product_similarity(self):
        # example use case: a batch of size 2,
        # with a time element component (e.g. sentences of length 2) each word is a vector of length 3.
        # it is comparing this with another input of the same type
        output = ScaledDotProductMatrixAttention()(
            torch.FloatTensor([[[0, 0, 0], [4, 5, 6]], [[-7, -8, -9], [10, 11, 12]]]),
            torch.FloatTensor([[[1, 2, 3], [4, 5, 6]], [[7, 8, 9], [10, 11, 12]]]),
        )

        # for the first batch there is
        #       no correlation between the first words of the input matrix
        #       but perfect correlation for the second word
        # for the second batch there is
        #       negative correlation for the first words
        #       a correlation for the second word
        assert_almost_equal(
            output.numpy(),
            numpy.array([[[0, 0], [32, 77]], [[-194, -266], [266, 365]]]) / math.sqrt(3),
            decimal=2,
        )


text:
import { createInnerSliderWrapper } from "./testUtils";

// given slider and actions objects, and simulates given actions
function simulateActions(slider, actions) {
  const nextArrow = slider.find(".slick-next");
  const prevArrow = slider.find(".slick-prev");
  if (actions.clickNext) {
    for (let click = 0; click < actions.clickNext; click++) {
      nextArrow.simulate("click");
    }
  }
  if (actions.clickPrev) {
    for (let click = 0; click < actions.clickPrev; click++) {
      prevArrow.simulate("click");
    }
  }
  if (actions.clickSequence) {
    for (let click of actions.clickSequence) {
      if (click === "n") {
        nextArrow.simulate("click");
      } else if (click === "p") {
        prevArrow.simulate("click");
      } else {
        // not a valid action for now
      }
    }
  }
  // console.log('after simulating actions, state of slider:', slider.state())
}

function fetchDetails(slider, keys) {
  let details = { ...fetchDOMDetails(slider, keys) };
  if (keys.currentSlide) {
    details.currentSlide = slider.state().currentSlide.toString();
  }
  return details;
}

function fetchDOMDetails(slider, keys) {
  let details = {};
  let currentSlide = null,
    activeSlides = [],
    allSlides = [],
    clonedSlides = [],
    visibleSlides = []; // currently no way to find these
  slider.find("div.slick-slide").forEach((slide, index) => {
    const slideObj = {
      index: slide.prop("data-index").toString(),
      value: slide.find("h3").length === 1 ? slide.find("h3").text() : "..."
    };
    allSlides.push(slideObj);
    if (slide.hasClass("slick-active")) {
      activeSlides.push(slideObj);
    }
    if (slide.hasClass("slick-cloned")) {
      clonedSlides.push(slideObj);
    }
    if (slide.hasClass("slick-current")) {
      currentSlide = slideObj;
    }
  });
  if (keys.currentSlide) {
    details.currentSlide = currentSlide;
  }
  if (keys.activeSlides) {
    details.activeSlides = activeSlides;
  }
  if (keys.allSlides) {
    details.allSlides = allSlides;
  }
  if (keys.clonedSlides) {
    details.clonedSlides = clonedSlides;
  }
  if (keys.visibleSlides) {
    details.visibleSlides = visibleSlides;
  }
  return details;
}

export function getReactSlickDetails(settings, actions, keys) {
  const slider = createInnerSliderWrapper(settings);
  simulateActions(slider, actions);
  return fetchDetails(slider, keys);
}

/*
settings: [...sliderProps, noOfSlides],
actions: [clickNext, clickPrev, clickSequence],
keys: [currentSlide, activeSlides, clonedSlides, allSlides, visibleSlides]
*/

test("fake test", () => {
  expect(1).toBe(1);
});


text:
const config = require('../knexfile');

const environment = process.env.NODE_ENV || 'development';

const pg = require('knex')(config[environment]);

module.exports = pg;


text:
using System;
using System.Linq;
using Microsoft.Azure.Management.Insights.Models;

namespace Microsoft.Azure.Management.Insights.Models
{
    /// <summary>
    /// The public diagnostics settings for Storage account services.
    /// </summary>
    public partial class StorageConfiguration
    {
        private StorageLoggingConfiguration _loggingConfiguration;

        /// <summary>
        /// Optional. Settings for logging successful and failed requests to a
        /// storage service. This information can be used to monitor
        /// individual requests and to diagnose issues with a storage service.
        /// Requests are logged on a best-effort basis.
        /// </summary>
        public StorageLoggingConfiguration LoggingConfiguration
        {
            get { return this._loggingConfiguration; }
            set { this._loggingConfiguration = value; }
        }

        private StorageMetricConfiguration _metricConfiguration;

        /// <summary>
        /// Optional. Settings for metrics that include aggregated transaction
        /// statistics and capacity data about requests to a storage service.
        /// </summary>
        public StorageMetricConfiguration MetricConfiguration
        {
            get { return this._metricConfiguration; }
            set { this._metricConfiguration = value; }
        }

        /// <summary>
        /// Initializes a new instance of the StorageConfiguration class.
        /// </summary>
        public StorageConfiguration()
        {
        }
    }
}