}
                } else if (rcs instanceof ProjectComponentSelector) {
                    ProjectComponentSelectorInternal pcs = (ProjectComponentSelectorInternal) rcs;
                    if (pcs.getIdentityPath().equals(identityPath)) {
                        return getModuleVersionId(selected);
                    }
                }
            }
        }

				claim := newClaim("claim5-2", "uid5-2", "1Gi", "", v1.ClaimPending, nil)
				reactor.AddClaimEvent(claim)
				return nil
			},
		},
		{
			name:            "5-2-2 - complete bind when PV and PVC both exist",
			initialVolumes:  newVolumeArray("volume5-2", "1Gi", "", "", v1.VolumeAvailable, v1.PersistentVolumeReclaimRetain, classEmpty),

		evt.stacks.insert(stackID(id), stack{pcs: stk})
	}

	// OPT(dh): if we could share the frame type between this package and
	// oldtrace we wouldn't have to copy the map.
	for pc, f := range pr.PCs {
		evt.pcs[pc] = frame{
			pc:     pc,
			funcID: stringID(f.Fn),
			fileID: stringID(f.File),
			line:   uint64(f.Line),
		}
	}
	pr.Stacks = nil
	pr.PCs = nil
	evt.stacks.compactify()
	return nil

		return fail(errors.New("tls: unknown public key algorithm"))
	}

	return cert, nil
}

// Attempt to parse the given private key DER block. OpenSSL 0.9.8 generates
// PKCS #1 private keys by default, while OpenSSL 1.0.0 generates PKCS #8 keys.
// OpenSSL ecparam generates SEC1 EC private keys for ECDSA. We try all three.
func parsePrivateKey(der []byte) (crypto.PrivateKey, error) {

// obvious is to ensure that the value is large enough that the
// exponentiation is larger than the modulus. (Otherwise it could be
// decrypted with a square-root.)
//
// In these designs, when using PKCS #1 v1.5, it's vitally important to
// avoid disclosing whether the received RSA message was well-formed
// (that is, whether the result of decrypting is a correctly padded
// message) because this leaks secret information.

			time: s.time,
		},
	}
	e.base.args[0] = uint64(s.stack)
	return e
}

// stack represents a goroutine stack sample.
type stack struct {
	pcs []uint64
}

func (s stack) String() string {
	var sb strings.Builder
	for _, frame := range s.pcs {
		fmt.Fprintf(&sb, "\t%#v\n", frame)
	}
	return sb.String()
}

// frame represents a single stack frame.
type frame struct {
	pc     uint64

			fieldpath.MakePathOrDie("spec"),
		),
	}

	return fields
}

var NowFunc = metav1.Now

// PrepareForUpdate sets the Spec field which is not allowed to be changed when updating a PV's Status
func (persistentvolumeStatusStrategy) PrepareForUpdate(ctx context.Context, obj, old runtime.Object) {
	newPv := obj.(*api.PersistentVolume)
	oldPv := old.(*api.PersistentVolume)
	newPv.Spec = oldPv.Spec

   *
   * [rfc_7468]: https://tools.ietf.org/html/rfc7468
   */
  fun certificatePem(): String = certificate.certificatePem()

  /**
   * Returns the private key encoded in [PKCS #8][rfc_5208] [PEM format][rfc_7468].
   *
   * [rfc_5208]: https://tools.ietf.org/html/rfc5208
   * [rfc_7468]: https://tools.ietf.org/html/rfc7468
   */
  fun privateKeyPkcs8Pem(): String {
    return buildString {

- The AnyVolumeDataSource feature is now beta, and the feature gate is enabled by default. In order to provide user feedback on PVCs with data sources, deployers must install the VolumePopulators CRD and the data-source-validator controller. ([#108736](https://github.com/kubernetes/kubernetes/pull/108736), [@bswartz](https://github.com/bswartz))

	if util.CheckPersistentVolumeClaimModeBlock(r.options.PVC) {
		return nil, fmt.Errorf("%s does not support block volume provisioning", r.plugin.GetPluginName())
	}

	fullpath := fmt.Sprintf("/tmp/%s/%s", r.basePath, uuid.NewUUID())

	capacity := r.options.PVC.Spec.Resources.Requests[v1.ResourceName(v1.ResourceStorage)]
	pv := &v1.PersistentVolume{