_ = y[128]
	_ = z[128]
	// ppc64x: -"MOVBZ", -"SRW", "RLWNM"
	z[0] = uint32(uint8(a >> 5))
	// ppc64x: -"MOVBZ", -"SRW", "RLWNM"
	z[1] = uint32(uint8((a >> 4) & 0x7e))
	// ppc64x: "RLWNM\t[$]25, R[0-9]+, [$]27, [$]29, R[0-9]+"
	z[2] = uint32(uint8(a>>7)) & 0x1c
	// ppc64x: -"MOVWZ"
	y[0] = uint64((a >> 6) & 0x1c)
	// ppc64x: -"MOVWZ"
	y[1] = uint64(uint32(b)<<6) + 1

		v := x & (1<<8 - 1)
		rot := (x >> 8) & (1<<4 - 1) * 2
		if rot > 0 && v&3 == 0 {
			// could rotate less
			return ImmAlt{uint8(v), uint8(rot)}
		}
		if rot >= 24 && ((v<<(32-rot))&0xFF)>>(32-rot) == v {
			// could wrap around to rot==0.
			return ImmAlt{uint8(v), uint8(rot)}
		}
		return Imm(v>>rot | v<<(32-rot))

	case arg_endian:
		return Endian((x >> 9) & 1)

	case arg_fbits:

//go:nosplit
func (i *Int64) Add(delta int64) int64 {
	return Xaddint64(&i.value, delta)
}

// Uint8 is an atomically accessed uint8 value.
//
// A Uint8 must not be copied.
type Uint8 struct {
	noCopy noCopy
	value  uint8
}

// Load accesses and returns the value atomically.
//
//go:nosplit
func (u *Uint8) Load() uint8 {
	return Load8(&u.value)
}

// Store updates the value atomically.
//

		for n := 0; n < (1 << d); n++ {
			expected := DecompressRat(uint16(n), uint8(d))
			result := decompress(uint16(n), uint8(d))
			if result != expected {
				t.Errorf("decompress(%d, %d): got %d, expected %d", n, d, result, expected)
			}
		}
	}
}

func BitRev7(n uint8) uint8 {
	if n>>7 != 0 {
		panic("not 7 bits")
	}
	var r uint8
	r |= n >> 6 & 0b0000_0001
	r |= n >> 4 & 0b0000_0010

	var sixU, nineteenU uint64 = 6, 19
	// test all inputs for uint8, uint16
	for i := uint64(0); i <= math.MaxUint16; i++ {
		if i <= math.MaxUint8 {
			if want, got := uint8(i)%uint8(sixU) == 0, div6_uint8(uint8(i)); got != want {
				t.Errorf("div6_uint8(%d) = %v want %v", i, got, want)
			}
			if want, got := uint8(i)%uint8(nineteenU) == 0, div19_uint8(uint8(i)); got != want {

		e.bool(v.Bool())

	case reflect.Int8:
		e.int8(int8(v.Int()))
	case reflect.Int16:
		e.int16(int16(v.Int()))
	case reflect.Int32:
		e.int32(int32(v.Int()))
	case reflect.Int64:
		e.int64(v.Int())

	case reflect.Uint8:
		e.uint8(uint8(v.Uint()))
	case reflect.Uint16:
		e.uint16(uint16(v.Uint()))
	case reflect.Uint32:
		e.uint32(uint32(v.Uint()))
	case reflect.Uint64:
		e.uint64(v.Uint())

  TF_OpDefinitionBuilder* builder = TF_NewOpDefinitionBuilder("UnknownShapeOp");
  TF_OpDefinitionBuilderAddInput(builder, "input1: uint8");
  TF_OpDefinitionBuilderAddInput(builder, "input2: uint32");
  TF_OpDefinitionBuilderAddOutput(builder, "output1: uint8");
  TF_OpDefinitionBuilderAddOutput(builder, "output2: uint8");
  TF_OpDefinitionBuilderSetShapeInferenceFunction(
      builder, &TF_ShapeInferenceContextSetUnknownShape);

	x18 := uint8((x16 >> 8))
	x19 := (uint8(x3) & 0xff)
	x20 := (x3 >> 8)
	x21 := (uint8(x20) & 0xff)
	x22 := (x20 >> 8)
	x23 := (uint8(x22) & 0xff)
	x24 := (x22 >> 8)
	x25 := (uint8(x24) & 0xff)
	x26 := (x24 >> 8)
	x27 := (uint8(x26) & 0xff)
	x28 := (x26 >> 8)
	x29 := (uint8(x28) & 0xff)
	x30 := (x28 >> 8)
	x31 := (uint8(x30) & 0xff)
	x32 := uint8((x30 >> 8))
	x33 := (uint8(x2) & 0xff)

	e.buf[4] = uint8(size.X & 0xff)
	e.buf[5] = uint8(nComponent)
	if nComponent == 1 {
		e.buf[6] = 1
		// No subsampling for grayscale image.
		e.buf[7] = 0x11
		e.buf[8] = 0x00
	} else {
		for i := 0; i < nComponent; i++ {
			e.buf[3*i+6] = uint8(i + 1)
			// We use 4:2:0 chroma subsampling.
			e.buf[3*i+7] = "\x22\x11\x11"[i]
			e.buf[3*i+8] = "\x00\x01\x01"[i]
		}
	}

pkg crypto/tls, method (*SessionState) Bytes() ([]uint8, error) #60105
pkg crypto/tls, type AlertError uint8 #44886
pkg crypto/tls, type Config struct, UnwrapSession func([]uint8, ConnectionState) (*SessionState, error) #60105
pkg crypto/tls, type Config struct, WrapSession func(ConnectionState, *SessionState) ([]uint8, error) #60105
pkg crypto/tls, type QUICConfig struct #44886