{{- end }}
        {{- end }}
    {{- if or .Values.pilot.cni.enabled .Values.istio_cni.enabled }}
        {{- if or (eq .Values.pilot.cni.provider "multus") (eq .Values.istio_cni.provider "multus") (not .Values.istio_cni.chained)}}
        k8s.v1.cni.cncf.io/networks: '{{ appendMultusNetwork (index .ObjectMeta.Annotations `k8s.v1.cni.cncf.io/networks`) `default/istio-cni` }}',
        {{- end }}

        {{- end }}
        {{- end }}
    {{- if or .Values.pilot.cni.enabled .Values.istio_cni.enabled }}
        {{- if or (eq .Values.pilot.cni.provider "multus") (eq .Values.istio_cni.provider "multus") (not .Values.istio_cni.chained)}}
        k8s.v1.cni.cncf.io/networks: '{{ appendMultusNetwork (index .ObjectMeta.Annotations `k8s.v1.cni.cncf.io/networks`) `default/istio-cni` }}',
        {{- end }}

So why should you bother?

Dependency verification is about **trust** in what you get and what you ship.

Without dependency verification it's easy for an attacker to compromise your supply chain.
There are many real world examples of tools compromised by adding a malicious dependency.

=== Other deprecations

 * You should no longer run Gradle versions older than 2.6 via the Tooling API.
 * You should no longer run any version of Gradle via an older version of the Tooling API than 3.0.

	nested, runtime, processed := createPodWorkers()
	w := &timeIncrementingWorkers{
		w:       nested,
		runtime: runtime,
	}
	nested.workerChannelFn = func(uid types.UID, in chan struct{}) <-chan struct{} {
		ch := make(chan struct{})
		go func() {
			defer close(ch)
			// TODO: this is an eager loop, we might want to lazily read from in only once
			// ch is empty
			for range in {
				w.waitForPod(uid)

        assertTasksReady(finalizerDepBC, finalizerA)
        assertTasksReadyAndNoMoreToStart(finalizerB, finalizerC)
        assertAllWorkComplete()
    }

    def "dependency of finalizers in chain of finalizers are deferred"() {
        given:
        TaskInternal finalizerA = createTask("finalizerA", project, Async)
        TaskInternal finalizerB = createTask("finalizerB", project, Async)

//
// It allows parsing and generating certificates, certificate signing
// requests, certificate revocation lists, and encoded public and private keys.
// It provides a certificate verifier, complete with a chain builder.
//
// The package targets the X.509 technical profile defined by the IETF (RFC
// 2459/3280/5280), and as further restricted by the CA/Browser Forum Baseline

// in the form of "{XXXXXX-XXXX-XXXX-XXXX-XXXXXXXXXXXX}".
func (guid GUID) String() string {
	var str [100]uint16
	chars := stringFromGUID2(&guid, &str[0], int32(len(str)))
	if chars <= 1 {
		return ""
	}
	return string(utf16.Decode(str[:chars-1]))
}

// KnownFolderPath returns a well-known folder path for the current user, specified by one of

	name     string            // Name of test or benchmark.
	start    highPrecisionTime // Time test or benchmark started
	duration time.Duration
	barrier  chan bool // To signal parallel subtests they may start. Nil when T.Parallel is not present (B) or not usable (when fuzzing).
	signal   chan bool // To signal a test is done.
	sub      []*T      // Queue of subtests to be run in parallel.

// DER encoded X.509 certificates signed by keys in another keyring. Restrictions
// for "asymmetric" include "builtin_trusted", "builtin_and_secondary_trusted",
// "key_or_keyring:<key>", and "key_or_keyring:<key>:chain".
//
// As of Linux 4.12, only the "asymmetric" keyType defines type-specific
// restrictions.
//
// See the full documentation at:
// http://man7.org/linux/man-pages/man3/keyctl_restrict_keyring.3.html