shentsize = int64(byteOrder.Uint16(buf[58:]))
		if shentsize != 64 {
			return "", errBadELF
		}
		shnum = int(byteOrder.Uint16(buf[60:]))
	}

	for i := 0; i < shnum; i++ {
		if _, err := f.ReadAt(buf[:shentsize], shoff+int64(i)*shentsize); err != nil {
			return "", err
		}
		if typ := byteOrder.Uint32(buf[4:]); typ != 7 { // SHT_NOTE
			continue
		}
		var off, size int64
		if shentsize == 40 {

	}
	if phnum > 0 && phentsize < wantPhentsize {
		return nil, &FormatError{0, "invalid ELF phentsize", phentsize}
	}

	// Read program headers
	f.Progs = make([]*Prog, phnum)
	phdata, err := saferio.ReadDataAt(sr, uint64(phnum)*uint64(phentsize), phoff)
	if err != nil {
		return nil, err
	}
	for i := 0; i < phnum; i++ {
		off := uintptr(i) * uintptr(phentsize)
		p := new(Prog)
		switch f.Class {

		elfobj.entry = hdr.Entry
		elfobj.phoff = hdr.Phoff
		elfobj.shoff = hdr.Shoff
		elfobj.flags = hdr.Flags
		elfobj.ehsize = uint32(hdr.Ehsize)
		elfobj.phentsize = uint32(hdr.Phentsize)
		elfobj.phnum = uint32(hdr.Phnum)
		elfobj.shentsize = uint32(hdr.Shentsize)
		elfobj.shnum = uint32(hdr.Shnum)
		elfobj.shstrndx = uint32(hdr.Shstrndx)
	} else {
		elfobj.type_ = uint32(hdr.Type)
		elfobj.machine = uint32(hdr.Machine)

		if elf.Machine(eh.Machine) == elf.EM_X86_64 {
			sh.Entsize = 16
		} else if elf.Machine(eh.Machine) == elf.EM_S390 {
			sh.Entsize = 32
		} else if elf.Machine(eh.Machine) == elf.EM_PPC64 {
			// On ppc64, this is just a table of addresses
			// filled by the dynamic linker
			sh.Type = uint32(elf.SHT_NOBITS)

			sh.Flags = uint64(elf.SHF_ALLOC + elf.SHF_WRITE)
			sh.Entsize = 8
		} else {
			sh.Entsize = 4
		}

	Flags     uint32          /* Architecture-specific flags. */
	Ehsize    uint16          /* Size of ELF header in bytes. */
	Phentsize uint16          /* Size of program header entry. */
	Phnum     uint16          /* Number of program header entries. */
	Shentsize uint16          /* Size of section header entry. */
	Shnum     uint16          /* Number of section header entries. */

			Link:      0xFF10,
			Info:      0x02,
			Addralign: 0x04,
			Entsize:   0x10,
		})
		// .symtab_shndx
		binary.Write(&buf, binary.LittleEndian, Section32{
			Name:      0x0CF3AD,
			Type:      uint32(SHT_SYMTAB_SHNDX),
			Off:       0x13ED1C,
			Size:      0x03FC28,
			Link:      0xFF0E,
			Addralign: 0x04,
			Entsize:   0x04,
		})
		// .strtab

	sh_size      uint64 /* Section size in bytes */
	sh_link      uint32 /* Link to another section */
	sh_info      uint32 /* Additional section information */
	sh_addralign uint64 /* Section alignment */
	sh_entsize   uint64 /* Entry size if section holds table */
}

type elfDyn struct {
	d_tag int64  /* Dynamic entry type */
	d_val uint64 /* Integer value */
}

type elfVerdaux struct {

	sh_size      uint32 /* Section size in bytes */
	sh_link      uint32 /* Link to another section */
	sh_info      uint32 /* Additional section information */
	sh_addralign uint32 /* Section alignment */
	sh_entsize   uint32 /* Entry size if section holds table */
}

type elfDyn struct {
	d_tag int32  /* Dynamic entry type */
	d_val uint32 /* Integer value */
}

type elfVerdaux struct {

   * can hold setSize elements with the desired load factor.
   */
  @VisibleForTesting
  static int chooseTableSize(int setSize) {
    if (setSize == 1) {
      return 2;
    }
    // Correct the size for open addressing to match desired load factor.
    // Round up to the next highest power of 2.
    int tableSize = Integer.highestOneBit(setSize - 1) << 1;

			return nil, config.ErrInvalidNumberOfErasureEndpoints(nil).Msg(msg)
		}

		// Final set size with all the symmetry accounted for.
		setSize = commonSetDriveCount(commonSize, setCounts)
	}

	// Check whether setSize is with the supported range.
	if !isValidSetSize(setSize) {