if m > maxWrite {
			m = maxWrite
		}
		chunk := runes[:m]
		runes = runes[m:]
		uint16s := utf16.Encode(chunk)
		for len(uint16s) > 0 {
			var written uint32
			err := syscall.WriteConsole(fd.Sysfd, &uint16s[0], uint32(len(uint16s)), &written, nil)
			if err != nil {
				return 0, err
			}
			uint16s = uint16s[written:]
		}
	}
	return n, nil
}

// Pwrite emulates the Unix pwrite system call.

// symbol is found.
func (t *huffmanTree) Decode(br *bitReader) (v uint16) {
	nodeIndex := uint16(0) // node 0 is the root of the tree.

	for {
		node := &t.nodes[nodeIndex]

		var bit uint16
		if br.bits > 0 {
			// Get next bit - fast path.
			br.bits--
			bit = uint16(br.n>>(br.bits&63)) & 1
		} else {
			// Get next bit - slow path.
			// Use ReadBits to retrieve a single bit

//
// m must be a power of 2 <= maxPagesPerPhysPage.
func fillAligned(x uint64, m uint) uint64 {
	apply := func(x uint64, c uint64) uint64 {
		// The technique used it here is derived from
		// https://graphics.stanford.edu/~seander/bithacks.html#ZeroInWord
		// and extended for more than just bytes (like nibbles
		// and uint16s) by using an appropriate constant.
		//
		// To summarize the technique, quoting from that page:

func (u uint128) xor(m uint128) uint128 {
	return uint128{u.hi ^ m.hi, u.lo ^ m.lo}
}

// or returns the bitwise OR of u and m (u|m).
func (u uint128) or(m uint128) uint128 {
	return uint128{u.hi | m.hi, u.lo | m.lo}
}

// not returns the bitwise NOT of u.
func (u uint128) not() uint128 {
	return uint128{^u.hi, ^u.lo}
}

// subOne returns u - 1.
func (u uint128) subOne() uint128 {
	lo, borrow := bits.Sub64(u.lo, 1, 0)

	sectionAdditionals: "Additional",
}

// header is the wire format for a DNS message header.
type header struct {
	id          uint16
	bits        uint16
	questions   uint16
	answers     uint16
	authorities uint16
	additionals uint16
}

func (h *header) count(sec section) uint16 {
	switch sec {
	case sectionQuestions:
		return h.questions
	case sectionAnswers:
		return h.answers

      "uint32, uint64, int8, int16, complex64, complex128, qint8, quint8, "
      "qint16, quint16, qint32}");
  TF_OpDefinitionBuilderAddAttr(
      op_builder,
      "type: {bfloat16, half, float, double, int64, int32, uint8, uint16, "
      "uint32, uint64, int8, int16, complex64, complex128, qint8, quint8, "
      "qint16, quint16, qint32}");

	}
	if (uint64(uint16(x)) == x || uint64(uint16(^x)) == ^x) && (uint64(uint16(y)) == y || uint64(uint16(^y)) == ^y) {
		checkuint16(uint16(x), uint16(y))
	}
	if (uint64(uint8(x)) == x || uint64(uint8(^x)) == ^x) && (uint64(uint8(y)) == y || uint64(uint8(^y)) == ^y) {
		checkuint8(uint8(x), uint8(y))
	}
	
	
	sx := int64(x)
	sy := int64(y)
	checkint64(sx, sy)

	Errno   int32
	Use     int32
	Inits   uint64
	Rmx     RtMetrics
}

type RtMetrics struct {
	Locks     uint64
	Mtu       uint64
	Pksent    uint64
	Expire    uint64
	Sendpipe  uint64
	Ssthresh  uint64
	Rtt       uint64
	Rttvar    uint64
	Recvpipe  uint64
	Hopcount  uint64
	Mssopt    uint16
	Pad       uint16
	Msl       uint64
	Iwmaxsegs uint64
	Iwcapsegs uint64
}

const (

	si_pid    int32
	si_uid    uint32
	si_status int32
	si_addr   uint64
	si_value  [8]byte
	_reason   [40]byte
}

type gpregs struct {
	gp_x    [30]uint64
	gp_lr   uint64
	gp_sp   uint64
	gp_elr  uint64
	gp_spsr uint32
	gp_pad  int32
}

type fpregs struct {
	fp_q     [64]uint64 // actually [32]uint128
	fp_sr    uint32
	fp_cr    uint32
	fp_flags int32
	fp_pad   int32
}

	Vhid       uint8
	Datalen    uint16
	Mtu        uint32
	Metric     uint32
	Baudrate   uint64
	Ipackets   uint64
	Ierrors    uint64
	Opackets   uint64
	Oerrors    uint64
	Collisions uint64
	Ibytes     uint64
	Obytes     uint64
	Imcasts    uint64
	Omcasts    uint64
	Iqdrops    uint64
	Oqdrops    uint64
	Noproto    uint64
	Hwassist   uint64
	_          [8]byte
	_          [16]byte