}
    }


    private static byte[] deriveKey ( byte[] masterKey, String cnst ) {
        MessageDigest md5 = Crypto.getMD5();
        md5.update(masterKey);
        md5.update(cnst.getBytes(StandardCharsets.US_ASCII));
        md5.update((byte) 0);
        return md5.digest();
    }


    @Override

	expectCx128(t, "quot", quot, 3+0i)
	expectCx128(t, "neg", neg, -1-2i)
	expect64(t, "real", r, 1)
	expect64(t, "imag", i, 2)
	expectCx128(t, "cnst", cnst, -4+7i)
	expectTrue(t, fmt.Sprintf("%v==%v", a, a), c1)
	expectFalse(t, fmt.Sprintf("%v==%v", a, b), c2)
	expectFalse(t, fmt.Sprintf("%v!=%v", a, a), c3)
	expectTrue(t, fmt.Sprintf("%v!=%v", a, b), c4)
}

func complexTest64(t *testing.T) {

	r   Reg
	a   Arrangement
	cnt uint8
}

func (RegisterWithArrangement) isArg() {}

func (r RegisterWithArrangement) String() string {
	result := r.r.String()
	result += r.a.String()
	if r.cnt > 0 {
		result = "{" + result
		if r.cnt == 2 {
			r1 := V0 + Reg((uint16(r.r)-uint16(V0)+1)&31)
			result += ", " + r1.String() + r.a.String()
		} else if r.cnt > 2 {

		return fmt.Sprintf("Op(%d)", int(op))
	}
	return opstr[op]
}

// An Inst is a single instruction.
type Inst struct {
	Op   Op     // Opcode mnemonic
	Enc  uint32 // Raw encoding bits.
	Len  int    // Length of encoding in bytes.
	Args Args   // Instruction arguments, in ARM manual order.
}

func (i Inst) String() string {
	var buf bytes.Buffer
	buf.WriteString(i.Op.String())
	for j, arg := range i.Args {

import (
	"bytes"
	"fmt"
)

type Inst struct {
	Op        Op     // Opcode mnemonic
	Enc       uint32 // Raw encoding bits (if Len == 8, this is the prefix word)
	Len       int    // Length of encoding in bytes.
	SuffixEnc uint32 // Raw encoding bits of second word (if Len == 8)
	Args      Args   // Instruction arguments, in Power ISA manual order.
}

func (i Inst) String() string {
	var buf bytes.Buffer

// license that can be found in the LICENSE file.

// Package x86asm implements decoding of x86 machine code.
package x86asm

import (
	"bytes"
	"fmt"
)

// An Inst is a single instruction.
type Inst struct {
	Prefix   Prefixes // Prefixes applied to the instruction.
	Op       Op       // Opcode mnemonic
	Opcode   uint32   // Encoded opcode bits, left aligned (first byte is Opcode>>24, etc)

		var cost uint64
		if len(args) > 0 {
			cost += traversalCost(args[0]) // these O(n) operations all cost roughly the cost of a single traversal
		}
		return &cost
	case "url", "lowerAscii", "upperAscii", "substring", "trim":
		if len(args) >= 1 {
			cost := uint64(math.Ceil(float64(actualSize(args[0])) * common.StringTraversalCostFactor))
			return &cost
		}
	case "replace", "split":
		if len(args) >= 1 {

  %cst = arith.constant dense<[false, true]> : tensor<2xi1>
  %0 = "tfl.cast"(%cst) : (tensor<2xi1>) -> tensor<2xi8>
  func.return %0 : tensor<2xi8>

// CHECK: %[[CST:.*]] = arith.constant dense<[0, 1]> : tensor<2xi8>
// CHECK:  return %[[CST]]
}

// CHECK-LABEL: @cast_i1_to_ui8
func.func @cast_i1_to_ui8() -> tensor<2xui8> {
  %cst = arith.constant dense<[false, true]> : tensor<2xi1>

		return &inst{0x2f, 0x2, 0x0, -512, 0x70}
	case AAMOMIND:
		return &inst{0x2f, 0x3, 0x0, -2048, 0x40}
	case AAMOMINW:
		return &inst{0x2f, 0x2, 0x0, -2048, 0x40}
	case AAMOMINUD:
		return &inst{0x2f, 0x3, 0x0, -1024, 0x60}
	case AAMOMINUW:
		return &inst{0x2f, 0x2, 0x0, -1024, 0x60}
	case AAMOORD:
		return &inst{0x2f, 0x3, 0x0, 1024, 0x20}
	case AAMOORW:
		return &inst{0x2f, 0x2, 0x0, 1024, 0x20}
	case AAMOSWAPD:

     *
     * @param outputType The type to cast the input to
     * @param object The object to be cast (must not be {@code null})
     * @param <O> The type to be cast to
     * @param <I> The type of the object to be vast
     * @return The input object, cast to the output type
     */
    public static <O, I> O cast(Class<O> outputType, I object) {
        try {