// Kubernetes release.
	for _, rt := range tests {
		t.Run(rt.name, func(t *testing.T) {

			dnsName := constants.CoreDNSDeploymentName

			client := newMockClientForTest(t, dnsName, rt.beforeDNSVersion, rt.deployDNSFailed)

			actualUpgrades, actualErr := GetAvailableUpgrades(rt.vg, rt.allowExperimental, rt.allowRCs, client, &output.TextPrinter{})

// VerifyOptions contains parameters for Certificate.Verify.
type VerifyOptions struct {
	// DNSName, if set, is checked against the leaf certificate with
	// Certificate.VerifyHostname or the platform verifier.
	DNSName string

	// Intermediates is an optional pool of certificates that are not trust
	// anchors, but can be used to form a chain from the leaf certificate to a

                "value": 80
              }
            ]
          },
          "unit": "none"
        },
        "overrides": [
          {
            "matcher": {
              "id": "byName",
              "options": "available 10.13.1.25:9000"
            },
            "properties": [
              {
                "id": "color",
                "value": {

	informerFactory := handle.SharedInformerFactory()
	return newNonCSILimitsWithInformerFactory(ctx, cinderVolumeFilterType, informerFactory, fts), nil
}

// EBSName is the name of the plugin used in the plugin registry and configurations.
const EBSName = names.EBSLimits

// NewEBS returns function that initializes a new plugin and returns it.

			// can close the file.
			_, err := sect.ReadAt(r, int64(addr-sect.Addr))
			if err != nil {
				log.Fatal(err)
			}
			return r
		}
		Exitf("cannot find gcmask for %s", ctxt.loader.SymName(s))
		return nil
	}
	relocs := ctxt.loader.Relocs(s)
	mask := decodeRelocSym(ctxt.loader, s, &relocs, 2*int32(ctxt.Arch.PtrSize)+8+1*int32(ctxt.Arch.PtrSize))
	return ctxt.loader.Data(mask)
}

func isValidConditionReason(value string) []string {
	if !conditionReasonRegexp.MatchString(value) {
		return []string{validation.RegexError(conditionReasonErrMsg, conditionReasonFmt, "my_name", "MY_NAME", "MyName", "ReasonA,ReasonB", "ReasonA:ReasonB")}
	}
	return nil

	// x's type V is identical to T?
	if T == V {
		return true
	}

	// Otherwise at least one of T and V must not be defined
	// and they must have the same kind.
	if T.HasName() && V.HasName() || T.Kind() != V.Kind() {
		return false
	}

	// x's type T and V must  have identical underlying types.
	return haveIdenticalUnderlyingType(T, V, true)
}

			req:    newCSR(kubeletClientPEMOptions, pemOptions{org: "not-system:nodes"}),
			usages: kubeletClientUsages,
			exp:    false,
		},
		"does not default to kube-apiserver-client-kubelet if a dnsName is set": {
			req:    newCSR(kubeletClientPEMOptions, pemOptions{dnsNames: []string{"something"}}),
			usages: kubeletClientUsages,
			exp:    false,
		},

		return tpar.is(func(t *term) bool { return t != nil && isBasic(t.typ, info) })
	}
	return isBasic(t, info)
}

// hasName reports whether t has a name. This includes
// predeclared types, defined types, and type parameters.
// hasName may be called with types that are not fully set up.
func hasName(t Type) bool {
	switch Unalias(t).(type) {
	case *Basic, *Named, *TypeParam:
		return true
	}
	return false
}

		return tpar.is(func(t *term) bool { return t != nil && isBasic(t.typ, info) })
	}
	return isBasic(t, info)
}

// hasName reports whether t has a name. This includes
// predeclared types, defined types, and type parameters.
// hasName may be called with types that are not fully set up.
func hasName(t Type) bool {
	switch Unalias(t).(type) {
	case *Basic, *Named, *TypeParam:
		return true
	}
	return false
}