/*
     * This trick allows us to avoid having separate states for "first four ints" and "all other
     * four int chunks."  The state we want after the first four bytes is
     *
     * crc0 = ~int0
     * crc1 = int1
     * crc2 = int2
     * crc3 = int3
     *
     * ...so we set crc0 so that computeForWord(crc0) = -1 and xoring it with the first int

      mlir::FloatType::getFloat8E4M3FN(&context)));

  ASSERT_NO_FATAL_FAILURE(VerifyConversion<int4>(
      {static_cast<int4>(1), static_cast<int4>(-1)}, DT_INT4,
      mlir::IntegerType::get(&context, 4,
                             mlir::IntegerType::SignednessSemantics::Signed)));
  ASSERT_NO_FATAL_FAILURE(VerifyConversion<int8>(
      {1, -1}, DT_INT8, mlir::IntegerType::get(&context, 8)));

	"reflect"
	"strings"
	"time"
)

var defaultMaxCount *int = flag.Int("quickchecks", 100, "The default number of iterations for each check")

// A Generator can generate random values of its own type.
type Generator interface {
	// Generate returns a random instance of the type on which it is a
	// method using the size as a size hint.
	Generate(rand *rand.Rand, size int) reflect.Value
}

		golden func(int8) int8
	}{
		{"x|x", func(x int8) int8 { return x | x }, id},
		{"x|0", func(x int8) int8 { return x | 0 }, id},
		{"x|-1", func(x int8) int8 { return x | -1 }, func(x int8) int8 { return -1 }},
		{"x&x", func(x int8) int8 { return x & x }, id},
		{"x&0", func(x int8) int8 { return x & 0 }, zero},
		{"x&-1", func(x int8) int8 { return x & -1 }, id},
		{"x^x", func(x int8) int8 { return x ^ x }, zero},

	if rand.Intn(10) > 5 {
		m.supportedVersion = uint16(rand.Intn(0xffff) + 1)
	}
	if rand.Intn(10) > 5 {
		m.cookie = randomBytes(rand.Intn(500)+1, rand)
	}
	if rand.Intn(10) > 5 {
		for i := 0; i < rand.Intn(5); i++ {
			m.serverShare.group = CurveID(rand.Intn(30000) + 1)
			m.serverShare.data = randomBytes(rand.Intn(200)+1, rand)
		}
	} else if rand.Intn(10) > 5 {
		m.selectedGroup = CurveID(rand.Intn(30000) + 1)
	}

	Type        [64]int8
	Blocksize   uint32
	Min_keysize uint32
	Max_keysize uint32
}

type CryptoReportBlkCipher struct {
	Type        [64]int8
	Geniv       [64]int8
	Blocksize   uint32
	Min_keysize uint32
	Max_keysize uint32
	Ivsize      uint32
}

type CryptoReportAEAD struct {
	Type        [64]int8
	Geniv       [64]int8
	Blocksize   uint32
	Maxauthsize uint32

	Type        [64]int8
	Blocksize   uint32
	Min_keysize uint32
	Max_keysize uint32
}

type CryptoReportBlkCipher struct {
	Type        [64]int8
	Geniv       [64]int8
	Blocksize   uint32
	Min_keysize uint32
	Max_keysize uint32
	Ivsize      uint32
}

type CryptoReportAEAD struct {
	Type        [64]int8
	Geniv       [64]int8
	Blocksize   uint32
	Maxauthsize uint32

	Type        [64]int8
	Blocksize   uint32
	Min_keysize uint32
	Max_keysize uint32
}

type CryptoReportBlkCipher struct {
	Type        [64]int8
	Geniv       [64]int8
	Blocksize   uint32
	Min_keysize uint32
	Max_keysize uint32
	Ivsize      uint32
}

type CryptoReportAEAD struct {
	Type        [64]int8
	Geniv       [64]int8
	Blocksize   uint32
	Maxauthsize uint32

type T0 struct {
	A int
	B int
	C int
	D int
}
type T1 struct {
	A int
	B *int
	C **int
	D ***int
}
type T2 struct {
	A ***int
	B **int
	C *int
	D int
}

func TestAutoIndirection(t *testing.T) {
	// First transfer t1 into t0
	var t1 T1
	t1.A = 17
	t1.B = new(int)
	*t1.B = 177
	t1.C = new(*int)
	*t1.C = new(int)
	**t1.C = 1777

	Type        [64]int8
	Blocksize   uint32
	Min_keysize uint32
	Max_keysize uint32
}

type CryptoReportBlkCipher struct {
	Type        [64]int8
	Geniv       [64]int8
	Blocksize   uint32
	Min_keysize uint32
	Max_keysize uint32
	Ivsize      uint32
}

type CryptoReportAEAD struct {
	Type        [64]int8
	Geniv       [64]int8
	Blocksize   uint32
	Maxauthsize uint32