SYS_TIMERFD_SETTIME64            = 411
	SYS_UTIMENSAT_TIME64             = 412
	SYS_PSELECT6_TIME64              = 413
	SYS_PPOLL_TIME64                 = 414
	SYS_IO_PGETEVENTS_TIME64         = 416
	SYS_RECVMMSG_TIME64              = 417
	SYS_MQ_TIMEDSEND_TIME64          = 418
	SYS_MQ_TIMEDRECEIVE_TIME64       = 419
	SYS_SEMTIMEDOP_TIME64            = 420
	SYS_RT_SIGTIMEDWAIT_TIME64       = 421

	SYS_TIMERFD_SETTIME64            = 411
	SYS_UTIMENSAT_TIME64             = 412
	SYS_PSELECT6_TIME64              = 413
	SYS_PPOLL_TIME64                 = 414
	SYS_IO_PGETEVENTS_TIME64         = 416
	SYS_RECVMMSG_TIME64              = 417
	SYS_MQ_TIMEDSEND_TIME64          = 418
	SYS_MQ_TIMEDRECEIVE_TIME64       = 419
	SYS_SEMTIMEDOP_TIME64            = 420
	SYS_RT_SIGTIMEDWAIT_TIME64       = 421

	SYS_TIMERFD_SETTIME64            = 411
	SYS_UTIMENSAT_TIME64             = 412
	SYS_PSELECT6_TIME64              = 413
	SYS_PPOLL_TIME64                 = 414
	SYS_IO_PGETEVENTS_TIME64         = 416
	SYS_RECVMMSG_TIME64              = 417
	SYS_MQ_TIMEDSEND_TIME64          = 418
	SYS_MQ_TIMEDRECEIVE_TIME64       = 419
	SYS_SEMTIMEDOP_TIME64            = 420
	SYS_RT_SIGTIMEDWAIT_TIME64       = 421

                          ShapeUtil::MakeScalarShape(xla::F32), "y");
    Add(arg0, arg1);
    TF_ASSERT_OK_AND_ASSIGN(to_apply, sub_builder->Build());
  }
  auto x = Parameter(&builder, 0, ShapeUtil::MakeShape(xla::F32, {4, 16}), "x");
  ReplicaGroup group;
  group.add_replica_ids(0);
  group.add_replica_ids(1);
  XlaOp reduce_scatter =
      ReduceScatter(x, to_apply, /*scatter_dimension=*/1, /*shard_count=*/2,

	serverHelloEmptySCT = append(serverHelloEmptySCT, serverHelloBytes[i+4:]...)

	// Update the handshake message length.
	serverHelloEmptySCT[1] = byte((len(serverHelloEmptySCT) - 4) >> 16)
	serverHelloEmptySCT[2] = byte((len(serverHelloEmptySCT) - 4) >> 8)
	serverHelloEmptySCT[3] = byte(len(serverHelloEmptySCT) - 4)

	// Update the extensions length

		skip := n[NTime]*4 +
			n[NTime] +
			n[NZone]*6 +
			n[NChar] +
			n[NLeap]*8 +
			n[NStdWall] +
			n[NUTCLocal]
		// Skip the version 2 header that we just read.
		skip += 4 + 16
		d.read(skip)

		is64 = true

		// Read the counts again, they can differ.
		for i := 0; i < 6; i++ {
			nn, ok := d.big4()
			if !ok {
				return nil, errBadData
			}

		strs = make([]string, hint)
	}

	m := make(MIMEHeader, hint)

	// Account for 400 bytes of overhead for the MIMEHeader, plus 200 bytes per entry.
	// Benchmarking map creation as of go1.20, a one-entry MIMEHeader is 416 bytes and large
	// MIMEHeaders average about 200 bytes per entry.
	maxMemory -= 400
	const mapEntryOverhead = 200

	// The first line cannot start with a leading space.

			if ellipsis < 0 && i != 12 {
				// Not the right place.
				return Addr{}, parseAddrError{in: in, msg: "embedded IPv4 address must replace the final 2 fields of the address", at: s}
			}
			if i+4 > 16 {
				// Not enough room.
				return Addr{}, parseAddrError{in: in, msg: "too many hex fields to fit an embedded IPv4 at the end of the address", at: s}
			}

			end := len(in)
			if len(zone) > 0 {

		if size == 0 {
			// Some clients add a Range header to all requests to
			// limit the size of the response. If the file is empty,
			// ignore the range header and respond with a 200 rather
			// than a 416.
			ranges = nil
			break
		}
		w.Header().Set("Content-Range", fmt.Sprintf("bytes */%d", size))
		fallthrough
	default:
		serveError(w, err.Error(), StatusRequestedRangeNotSatisfiable)
		return
	}