r.reduce()

	if one != r {
		t.Errorf("inversion identity failed, got: %x", r)
	}

	var bytes [32]byte

	_, err := io.ReadFull(rand.Reader, bytes[:])
	if err != nil {
		t.Fatal(err)
	}
	x.SetBytes(bytes[:])

	xinv.Invert(&x)
	r.Multiply(&x, &xinv)
	r.reduce()

	if one != r {
		t.Errorf("random inversion identity failed, got: %x for field element %x", r, x)
	}

	if d.adobeTransform != adobeTransformUnknown {
		// Convert the YCbCr part of the YCbCrK to RGB, invert the RGB to get
		// CMY, and patch in the original K. The RGB to CMY inversion cancels
		// out the 'Adobe inversion' described in the applyBlack doc comment
		// above, so in practice, only the fourth channel (black) is inverted.
		bounds := d.img3.Bounds()
		img := image.NewRGBA(bounds)

					Type: flowcontrol.LimitResponseTypeReject,
				},
			},
		})
)

// Mandatory FlowSchema objects
var (
	// "exempt" priority-level is used for preventing priority inversion and ensuring that sysadmin
	// requests are always possible.
	MandatoryFlowSchemaExempt = newFlowSchema(
		"exempt",
		flowcontrol.PriorityLevelConfigurationNameExempt,
		1,  // matchingPrecedence

	// "It is also possible to recover U_n using Crandall and Pomerance equation 3.13:
	// U_n = D^-1 (2V_{n+1} - PV_n) allowing us to run the full extra-strong test
	// at the cost of a single modular inversion. This computation is easy and fast in GMP,
	// so we can get the full extra-strong test at essentially the same performance as the
	// almost extra strong test."

	// Compute Lucas sequence V_s(b, 1), where:
	//

	return v.Subtract(feZero, a)
}

// Invert sets v = 1/z mod p, and returns v.
//
// If z == 0, Invert returns v = 0.
func (v *Element) Invert(z *Element) *Element {
	// Inversion is implemented as exponentiation with exponent p − 2. It uses the
	// same sequence of 255 squarings and 11 multiplications as [Curve25519].
	var z2, z9, z11, z2_5_0, z2_10_0, z2_20_0, z2_50_0, z2_100_0, t Element

			}
			hash := f[1]
			version := rev
			if strings.HasPrefix(hash, version) {
				version = hash // extend to full hash
			}
			info := &RevInfo{
				Origin: &Origin{
					Hash: hash,
				},
				Name:    hash,
				Short:   ShortenSHA1(hash),
				Time:    t,
				Version: version,
			}
			return info, nil
		}
	}

	p256MovCond(q, p1, p2, cond)
	return q
}

// p256Inverse sets out to in⁻¹ mod p. If in is zero, out will be zero.
func p256Inverse(out, in *p256Element) {
	// Inversion is calculated through exponentiation by p - 2, per Fermat's
	// little theorem.
	//
	// The sequence of 12 multiplications and 255 squarings is derived from the

	// Inverting the bytes increases the chance that a
	// 4-byte encoding will still be ≥ len(text).
	// In particular, if the first byte is ASCII (<= 0x7E, so +1 <= 0x7F)
	// then the high bit of the inversion will be set,
	// making it clearly not a valid length (it would be a negative one).
	//
	// cx holds the pre-inverted encoding (the packed incremented bytes).
	cx := uint32(0) // byte-only

*/

// This file was duplicated from the auto-generated file by conversion-gen in
// k8s.io/kubernetes/pkg/apis/apidiscovery Unlike most k8s types discovery is
// served by all apiservers and conversion is needed by all apiservers. The
// concept of internal/hub type does not exist for discovery as we work directly
// with the versioned types.

// The conversion code here facilities conversion strictly between v2beta1 and

	metav1 "k8s.io/apimachinery/pkg/apis/meta/v1"
	"k8s.io/apimachinery/pkg/conversion"
	"k8s.io/apimachinery/pkg/runtime"
	"k8s.io/apimachinery/pkg/util/validation/field"
	"k8s.io/kubernetes/pkg/apis/apps"
	"k8s.io/kubernetes/pkg/apis/core"
	utilpointer "k8s.io/utils/pointer"
)

func addConversionFuncs(scheme *runtime.Scheme) error {
	// Add field conversion funcs.