}
	return int32(sh<<16 | mb<<8 | me)
}

func GetPPC64Shiftsh(auxint int64) int64 {
	return int64(int8(auxint >> 16))
}

func GetPPC64Shiftmb(auxint int64) int64 {
	return int64(int8(auxint >> 8))
}

func GetPPC64Shiftme(auxint int64) int64 {
	return int64(int8(auxint))
}

// Test if this value can encoded as a mask for a rlwinm like

		return kindNames[uint(k)]
	}
	return "kind" + strconv.Itoa(int(k))
}

var kindNames = []string{
	Invalid:       "invalid",
	Bool:          "bool",
	Int:           "int",
	Int8:          "int8",
	Int16:         "int16",
	Int32:         "int32",
	Int64:         "int64",
	Uint:          "uint",
	Uint8:         "uint8",
	Uint16:        "uint16",
	Uint32:        "uint32",

  ASSERT_THAT(op->inputs, SizeIs(3));
  ASSERT_THAT(op->outputs, SizeIs(1));

  auto float_graph = readonly_model_->subgraphs()->Get(0);
  // Verify FC input tensor and weight are int8 quantized.
  auto float_op = float_graph->operators()->Get(0);
  ASSERT_THAT(float_graph->tensors()->Get(float_op->inputs()->Get(0))->type(),
              Eq(TensorType_FLOAT32));

}

// Instruction layout.

const (
	FuncAlign = 4
	loopAlign = 16
)

type Optab struct {
	as    obj.As
	from1 uint8
	reg   uint8
	from3 uint8
	to1   uint8
	to2   uint8
	type_ int8
	size  int8
	param int16
	flag  uint8
}

const (
	NOTUSETMP = 1 << iota // p expands to multiple instructions, but does NOT use REGTMP

	// branchLoopHead marks loop entry.

	c.m = make(map[string]*Type)
	c.ptrs = make(map[string][]*Type)
	c.getTypeIDs = make(map[string]bool)
	c.incompleteStructs = make(map[string]bool)
	c.bool = c.Ident("bool")
	c.byte = c.Ident("byte")
	c.int8 = c.Ident("int8")
	c.int16 = c.Ident("int16")
	c.int32 = c.Ident("int32")
	c.int64 = c.Ident("int64")
	c.uint8 = c.Ident("uint8")
	c.uint16 = c.Ident("uint16")
	c.uint32 = c.Ident("uint32")

}

// Instruction layout.

const (
	mips64FuncAlign = 8
)

const (
	r0iszero = 1
)

type Optab struct {
	as     obj.As
	a1     uint8
	a2     uint8
	a3     uint8
	type_  int8
	size   int8
	param  int16
	family sys.ArchFamily // 0 means both sys.MIPS and sys.MIPS64
	flag   uint8
}

const (
	// Optab.flag
	NOTUSETMP = 1 << iota // p expands to multiple instructions, but does NOT use REGTMP

	N := int32(1e3)
	if testing.Short() {
		N = int32(1e2)
	}
	c := make(chan bool, 2)
	type Data struct {
		signal int32
		pad1   [128]int8
		data1  int32
		pad2   [128]int8
		data2  float32
	}
	var X Data
	for p := int32(0); p < 2; p++ {
		go func(p int32) {
			for i := int32(1); i < N; i++ {
				if (i+p)%2 == 0 {
					X.data1 = i

		{name: "MOVBload", argLength: 2, reg: gpload, aux: "SymOff", asm: "MOVB", typ: "Int8", faultOnNilArg0: true, symEffect: "Read"},       // load from arg0 + auxInt + aux.  arg1=mem.

func (t Time) MarshalBinary() ([]byte, error) {
	var offsetMin int16 // minutes east of UTC. -1 is UTC.
	var offsetSec int8
	version := timeBinaryVersionV1

	if t.Location() == UTC {
		offsetMin = -1
	} else {
		_, offset := t.Zone()
		if offset%60 != 0 {
			version = timeBinaryVersionV2
			offsetSec = int8(offset % 60)
		}

		offset /= 60
		if offset < -32768 || offset == -1 || offset > 32767 {

	MSIEmpty map[string]int
	MXI      map[any]int
	MII      map[int]int
	MI32S    map[int32]string
	MI64S    map[int64]string
	MUI32S   map[uint32]string
	MUI64S   map[uint64]string
	MI8S     map[int8]string
	MUI8S    map[uint8]string
	SMSI     []map[string]int
	// Empty interfaces; used to see if we can dig inside one.
	Empty0 any // nil
	Empty1 any
	Empty2 any
	Empty3 any
	Empty4 any