case objabi.R_ADDRMIPSTLS:
		// thread pointer is at 0x7000 offset from the start of TLS data area
		t := ldr.SymValue(rs) + r.Add() - 0x7000
		if target.IsOpenbsd() {
			// OpenBSD mips64 does not currently offset TLS by 0x7000,
			// as such we need to add this back to get the correct offset.
			t += 0x7000
		}
		if t < -32768 || t >= 32678 {
			ldr.Errorf(s, "TLS offset out of range %d", t)
		}

			let offset = 4096;

			const strPtr = (str) => {
				const ptr = offset;
				const bytes = encoder.encode(str + "\0");
				new Uint8Array(this.mem.buffer, offset, bytes.length).set(bytes);
				offset += bytes.length;
				if (offset % 8 !== 0) {
					offset += 8 - (offset % 8);
				}
				return ptr;
			};

			const argc = this.argv.length;

	if lastAddr, ok := p.dataAddr[name]; ok && nameAddr.Offset < lastAddr {
		p.errorf("overlapping DATA entry for %s", name)
		return
	}
	p.dataAddr[name] = nameAddr.Offset + int64(sz)

	switch valueAddr.Type {
	case obj.TYPE_CONST:
		switch sz {
		case 1, 2, 4, 8:
			nameAddr.Sym.WriteInt(p.ctxt, nameAddr.Offset, int(sz), valueAddr.Offset)
		default:
			p.errorf("bad int size for DATA argument: %d", sz)

//
// - arg_Xns_mem_optional_imm12_4_unsigned:
//     addressing mode of unsigned offset with a base register: Xns and an optional unsigned
//     offset encoded in the "imm12" field times 4
//
// - arg_Xns_mem_wb_imm7_4_signed:
//     addressing mode of pre-index with a base register: Xns and the signed offset encoded
//     in the "imm7" field times 4
//
// - arg_Xns_mem_post_size_1_8_unsigned__4_0__8_1__16_2__32_3:

		if p != base {
			return false
		}
		r[i] = LoadRecord{load: load, offset: off, shift: shift}
	}

	// Sort in memory address order.
	sort.Slice(r, func(i, j int) bool {
		return r[i].offset < r[j].offset
	})

	// Check that we have contiguous offsets.
	for i := int64(0); i < n; i++ {
		if r[i].offset != r[0].offset+i*size {
			return false
		}
	}

				p.To.Reg = r
				return
			}
			p := s.Prog(v.Op.Asm())
			p.From.Type = obj.TYPE_CONST
			p.From.Offset = v.AuxInt
			p.To.Type = obj.TYPE_REG
			p.To.Reg = r
			return
		}
		p := s.Prog(x86.ALEAL)
		p.From.Type = obj.TYPE_MEM
		p.From.Reg = a
		p.From.Offset = v.AuxInt
		p.To.Type = obj.TYPE_REG
		p.To.Reg = r

	case ssa.Op386MULLconst:
		r := v.Reg()

    writeBytesToImpl(dest, offset, maxLength);
    return maxLength;
  }

  abstract void writeBytesToImpl(byte[] dest, int offset, int maxLength);

  /**
   * Returns a mutable view of the underlying bytes for the given {@code HashCode} if it is a
   * byte-based hashcode. Otherwise it returns {@link HashCode#asBytes}. Do <i>not</i> mutate this

        } else {
            context = Context.ElementContent;
        }
        return this;
    }

    private void writeCDATA(char[] cdata, int offset, int count) throws IOException {
        int end = offset + count;
        for (int i = offset; i < end;) {
            int codePoint = Character.codePointAt(cdata, i);
            i += Character.charCount(codePoint);
            writeCDATA(codePoint);
        }

	}
	for i, m := range methods {
		m.Offset = int64(i) * int64(PtrSize)
	}

	t.SetAllMethods(methods)
}

// calcStructOffset computes the offsets of a sequence of fields,
// starting at the given offset. It returns the resulting offset and
// maximum field alignment.
func calcStructOffset(t *Type, fields []*Field, offset int64) int64 {
	for _, f := range fields {
		CalcSize(f.Type)

		// by this relocation.
		relocs := ldr.Relocs(s)
		offset := int64(relocs.At(ri).Off())
		hi20Sym := findHI20Symbol(ctxt, ldr, ldr.SymValue(s)+offset)
		if hi20Sym == 0 {
			ld.Errorf(nil, "failed to find text symbol for HI20 relocation at %d (%x)", sectoff, ldr.SymValue(s)+offset)
			return false
		}
		hi20ElfSym := ld.ElfSymForReloc(ctxt, hi20Sym)