Shift     int32
	Stabil    int32
	Jitcnt    int32
	Calcnt    int32
	Errcnt    int32
	Stbcnt    int32
	Tai       int32
	_         [44]byte
}

type Time_t int32

type Tms struct {
	Utime  int32
	Stime  int32
	Cutime int32
	Cstime int32
}

type Utimbuf struct {
	Actime  int32
	Modtime int32
}

type Rusage struct {
	Utime    Timeval
	Stime    Timeval
	Maxrss   int32

	Shift     int32
	Stabil    int32
	Jitcnt    int32
	Calcnt    int32
	Errcnt    int32
	Stbcnt    int32
	Tai       int32
	_         [44]byte
}

type Time_t int32

type Tms struct {
	Utime  int32
	Stime  int32
	Cutime int32
	Cstime int32
}

type Utimbuf struct {
	Actime  int32
	Modtime int32
}

type Rusage struct {
	Utime    Timeval
	Stime    Timeval
	Maxrss   int32

	Type [64]int8
}

type CryptoReportKPP struct {
	Type [64]int8
}

type CryptoReportAcomp struct {
	Type [64]int8
}

type LoopInfo struct {
	Number           int32
	Device           uint32
	Inode            uint64
	Rdevice          uint32
	Offset           int32
	Encrypt_type     int32
	Encrypt_key_size int32
	Flags            int32
	Name             [64]int8

	Type [64]int8
}

type CryptoReportKPP struct {
	Type [64]int8
}

type CryptoReportAcomp struct {
	Type [64]int8
}

type LoopInfo struct {
	Number           int32
	Device           uint32
	Inode            uint64
	Rdevice          uint32
	Offset           int32
	Encrypt_type     int32
	Encrypt_key_size int32
	Flags            int32
	Name             [64]int8

	Type [64]int8
}

type CryptoReportKPP struct {
	Type [64]int8
}

type CryptoReportAcomp struct {
	Type [64]int8
}

type LoopInfo struct {
	Number           int32
	Device           uint32
	Inode            uint64
	Rdevice          uint32
	Offset           int32
	Encrypt_type     int32
	Encrypt_key_size int32
	Flags            int32
	Name             [64]int8

		}
	}
}

func TestSizeInvalid(t *testing.T) {
	testcases := []any{
		int(0),
		new(int),
		(*int)(nil),
		[1]uint{},
		new([1]uint),
		(*[1]uint)(nil),
		[]int{},
		[]int(nil),
		new([]int),
		(*[]int)(nil),
		(*int8)(nil),
		(*uint8)(nil),
		(*int16)(nil),
		(*uint16)(nil),
		(*int32)(nil),
		(*uint32)(nil),
		(*int64)(nil),
		(*uint64)(nil),
		(*float32)(nil),

      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)));

//go:noescape
func brk_(addr unsafe.Pointer) int32

func sleep(ms int32) int32

func rfork(flags int32) int32

//go:noescape
func plan9_semacquire(addr *uint32, block int32) int32

//go:noescape
func plan9_tsemacquire(addr *uint32, ms int32) int32

//go:noescape
func plan9_semrelease(addr *uint32, count int32) int32

//go:noescape
func notify(fn unsafe.Pointer) int32

func noted(mode int32) int32

}

// Int31 returns a non-negative pseudo-random 31-bit integer as an int32.
func (r *Rand) Int31() int32 { return int32(r.Int63() >> 32) }

// Int returns a non-negative pseudo-random int.
func (r *Rand) Int() int {
	u := uint(r.Int63())
	return int(u << 1 >> 1) // clear sign bit if int == int32
}

// Int63n returns, as an int64, a non-negative pseudo-random number in the half-open interval [0,n).

}

func makeValAndOff(val, off int32) ValAndOff {
	return ValAndOff(int64(val)<<32 + int64(uint32(off)))
}

func (x ValAndOff) canAdd32(off int32) bool {
	newoff := x.Off64() + int64(off)
	return newoff == int64(int32(newoff))
}
func (x ValAndOff) canAdd64(off int64) bool {
	newoff := x.Off64() + off
	return newoff == int64(int32(newoff))
}