func isNaN[T Ordered](x T) bool {
	return x != x
}

// Or returns the first of its arguments that is not equal to the zero value.
// If no argument is non-zero, it returns the zero value.
func Or[T comparable](vals ...T) T {
	var zero T
	for _, val := range vals {
		if val != zero {
			return val
		}
	}
	return zero

		zero,
		mkComplex(zero, zero),
		one,
		mkComplex(zero, one),
		mkComplex(one, one),
	}

	for _, v := range vs {
		fmt.Printf("% d %s\n", constant.Sign(v), v)
	}

	// Output:
	//
	// -1 -1
	// -1 (0 + -1i)
	// -1 (1 + -1i)
	// -1 (-1 + 1i)
	// -1 (-1 + -1i)
	//  0 0
	//  0 (0 + 0i)
	//  1 1
	//  1 (0 + 1i)
	//  1 (1 + 1i)
}

        assertTrue(ZERO.setBit(result).compareTo(x) <= 0);
        assertTrue(ZERO.setBit(result + 1).compareTo(x) > 0);
      }
    }
  }

  public void testLog2Ceiling() {
    for (BigInteger x : POSITIVE_BIGINTEGER_CANDIDATES) {
      for (RoundingMode mode : asList(CEILING, UP)) {
        int result = BigIntegerMath.log2(x, mode);
        assertTrue(ZERO.setBit(result).compareTo(x) >= 0);

	}

	z.acc = Exact
	if x.form == zero && y.form == zero || x.form == inf && y.form == inf {
		// ±0 / ±0
		// ±Inf / ±Inf
		// value of z is undefined but make sure it's valid
		z.form = zero
		z.neg = false
		panic(ErrNaN{"division of zero by zero or infinity by infinity"})
	}

	if x.form == zero || y.form == inf {
		// ±0 / y
		// x / ±Inf
		z.form = zero
		return z
	}

	// x / ±0

func (x *Pointer[T]) CompareAndSwap(old, new *T) (swapped bool) {
	return CompareAndSwapPointer(&x.v, unsafe.Pointer(old), unsafe.Pointer(new))
}

// An Int32 is an atomic int32. The zero value is zero.
type Int32 struct {
	_ noCopy
	v int32
}

// Load atomically loads and returns the value stored in x.
func (x *Int32) Load() int32 { return LoadInt32(&x.v) }

// Store atomically stores val into x.

	LVX	(PTR)(TEMP), MASK
	ADD	$0x10, PTR, PTR    // addi  6,6,0x10   PTR to next 16 bytes of RCON
	MOVD	$8, CNT            // li    7,8        CNT = 8
	VXOR	ZERO, ZERO, ZERO   // vxor  0,0,0      Zero to be zero :)
	MOVD	CNT, CTR           // mtctr 7          Set the counter to 8 (rounds)

	// The expanded decrypt key is the expanded encrypt key stored in reverse order.

	zero := metav1.Duration{}
	if obj.ConcurrentHorizontalPodAutoscalerSyncs == 0 {
		obj.ConcurrentHorizontalPodAutoscalerSyncs = 5
	}
	if obj.HorizontalPodAutoscalerSyncPeriod == zero {
		obj.HorizontalPodAutoscalerSyncPeriod = metav1.Duration{Duration: 15 * time.Second}
	}
	if obj.HorizontalPodAutoscalerDownscaleStabilizationWindow == zero {

// values. The produced type has f32 as its expressed type and i8 as its
// storage type. The available values use the full range of the storage value,
// i.e. [-128, 127]. Assumes asymmetric quantization, meaning the zero point
// value can be a non-zero value.
// If `narrow_range` is set true (ex: for weights), a restricted range of
// integers will be used for symmetric mapping, i.e. [-127, 127].
UniformQuantizedType CreateI8F32UniformQuantizedType(Location loc,

	}

	startTime := time.Now().Add(-time.Millisecond)
	_, err := manager.detectImages(ctx, zero)
	assert := assert.New(t)
	require.NoError(t, err)
	assert.Equal(manager.imageRecordsLen(), 3)
	noContainer, ok := manager.getImageRecord(imageID(0))
	require.True(t, ok)
	assert.Equal(zero, noContainer.firstDetected)
	assert.Equal(zero, noContainer.lastUsed)
	withContainerUsingNoNameImage, ok := manager.getImageRecord(imageID(1))

	// See issue 36400.
	zero := 0.0
	// amd64:-"DIVSD"
	inf := 1 / zero // +inf. We can constant propagate this one.
	negone := -1.0

	// amd64:"DIVSD"
	z0 := zero / zero
	// amd64:"MULSD"
	z1 := zero * inf
	// amd64:"SQRTSD"
	z2 := math.Sqrt(negone)
	return z0 + z1 + z2
}

func nanGenerate32() float32 {
	zero := float32(0.0)
	// amd64:-"DIVSS"