SYS_LGETXATTR            = 379 // { int|sys||lgetxattr(const char *path, const char *name, void *value, size_t size); }
	SYS_FGETXATTR            = 380 // { int|sys||fgetxattr(int fd, const char *name, void *value, size_t size); }
	SYS_LISTXATTR            = 381 // { int|sys||listxattr(const char *path, char *list, size_t size); }
	SYS_LLISTXATTR           = 382 // { int|sys||llistxattr(const char *path, char *list, size_t size); }

	SYS_LGETXATTR            = 379 // { int|sys||lgetxattr(const char *path, const char *name, void *value, size_t size); }
	SYS_FGETXATTR            = 380 // { int|sys||fgetxattr(int fd, const char *name, void *value, size_t size); }
	SYS_LISTXATTR            = 381 // { int|sys||listxattr(const char *path, char *list, size_t size); }
	SYS_LLISTXATTR           = 382 // { int|sys||llistxattr(const char *path, char *list, size_t size); }

}

func (sb *SymbolBuilder) addSymRef(tgt Sym, add int64, typ objabi.RelocType, rsize int) int64 {
	if sb.kind == 0 {
		sb.kind = sym.SDATA
	}
	i := sb.size

	sb.size += int64(rsize)
	sb.Grow(sb.size)

	r, _ := sb.AddRel(typ)
	r.SetSym(tgt)
	r.SetOff(int32(i))
	r.SetSiz(uint8(rsize))
	r.SetAdd(add)

	return i + int64(rsize)
}

  return operations_.size() - 1;
}

int Rematerializer::AddTensor(const SizeT size) {
  tensors_.emplace_back();
  tensors_.back().size = size;
  return tensors_.size() - 1;
}

void Rematerializer::DelUse(const int ioperation, const int itensor) {
  auto& tensor = tensors_[itensor];
  auto& operation = operations_[ioperation];

  const auto& size = tensor.size;

	St_mode         uint32    // 0x8
	St_ino          uint32    // 0xc
	St_dev          uint32    // 0x10
	St_nlink        uint32    // 0x14
	St_uid          uint32    // 0x18
	St_gid          uint32    // 0x1c
	St_size         uint64    // 0x20
	St_atime        uint32    // 0x28
	St_mtime        uint32    // 0x2c
	St_ctime        uint32    // 0x30
	St_rdev         uint32    // 0x34
	St_auditoraudit uint32    // 0x38

	// address, by encoding it into the instruction.
	R_ADDRMIPS
	// R_ADDROFF resolves to a 32-bit offset from the beginning of the section
	// holding the data being relocated to the referenced symbol.
	R_ADDROFF
	R_SIZE
	R_CALL
	R_CALLARM
	R_CALLARM64
	R_CALLIND
	R_CALLPOWER
	// R_CALLMIPS (only used on mips64) resolves to non-PC-relative target address
	// of a CALL (JAL) instruction, by encoding the address into the instruction.

After the symbol, the arguments are flags (see below)
and the frame size, a constant (but see below):
</p>

<pre>
TEXT runtime·profileloop(SB),NOSPLIT,$8
	MOVQ	$runtime·profileloop1(SB), CX
	MOVQ	CX, 0(SP)
	CALL	runtime·externalthreadhandler(SB)
	RET
</pre>

<p>
In the general case, the frame size is followed by an argument size, separated by a minus sign.
(It's not a subtraction, just idiosyncratic syntax.)

	Type      SectionType
	Flags     SectionFlag
	Addr      uint64
	Offset    uint64
	Size      uint64
	Link      uint32
	Info      uint32
	Addralign uint64
	Entsize   uint64

	// FileSize is the size of this section in the file in bytes.
	// If a section is compressed, FileSize is the size of the
	// compressed data, while Size (above) is the size of the
	// uncompressed data.
	FileSize uint64
}

      return null;
    }
    return entry.getValue();
  }

  @SuppressWarnings("unchecked")
  final Segment<K, V, E, S>[] newSegmentArray(int ssize) {
    return (Segment<K, V, E, S>[]) new Segment<?, ?, ?, ?>[ssize];
  }

  // Inner Classes

  /**
   * Segments are specialized versions of hash tables. This subclass inherits from ReentrantLock

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