ticker := time.NewTicker(500 * time.Millisecond)
			defer ticker.Stop()
			readyChan := make(chan bool)
			go func(ctx context.Context, tick <-chan time.Time) {
				for {
					select {
					case <-ctx.Done():
						return
					case <-tick:
						if isReady.Load().(bool) {
							readyChan <- true
						}
					}
				}
			}(ctx, ticker.C)

			// Listen to sleepWatchInstall return value

	} else if c.cfg.DeletePods {
		return c.deleteBrokenPod(pod)
	} else if c.cfg.LabelPods {
		return c.labelBrokenPod(pod)
	}
	return nil
}

// repairPod actually dynamically repairs a pod. This is done by entering the pods network namespace and setting up rules.
// This differs from the general CNI plugin flow, which triggers before the pod fully starts.
// Additionally, we need to jump through hoops to find the network namespace.

			names = append(names, gw.Name)
		}
	}

	var wg sync.WaitGroup
	var mu sync.Mutex
	for _, name := range names {
		wg.Add(1)
		go func(name string) {
			defer wg.Done()
			if err := kubeClient.GatewayAPI().GatewayV1().Gateways(namespace).
				Delete(context.Background(), name, metav1.DeleteOptions{}); err != nil {
				if errors.IsNotFound(err) {

	cmd := &cobra.Command{
		Use:   "remove <revision-tag>",
		Short: "Remove Istio control plane revision tag",
		Long: `Remove Istio control plane revision tag.

Removing a revision tag should be done with care. Removing a revision tag will disrupt sidecar injection in namespaces
that reference the tag in an "istio.io/rev" label. Verify that there are no remaining namespaces referencing a

  // +mapType=atomic
  map<string, string> selector = 2;

  // label selector for pods that should match the replicas count. This is a serializated
  // version of both map-based and more expressive set-based selectors. This is done to
  // avoid introspection in the clients. The string will be in the same format as the
  // query-param syntax. If the target type only supports map-based selectors, both this

}

func (wg *WaitGroup) Add(i int32) {
	select {
	case <-wg.done:
		panic("use of an already closed WaitGroup")
	default:
	}
	atomic.AddInt32(&wg.count, i)
}

func (wg *WaitGroup) Done() {
	i := atomic.AddInt32(&wg.count, -1)
	if i == 0 {
		close(wg.done)
	}
}

func (wg *WaitGroup) C() <-chan struct{} {
	return wg.done

  while read -r value; do
    CLUSTER_NAMES+=("$value")
  done < <(echo "${KUBE_CLUSTERS}" | jq -r '.cluster_name // .clusterName')

  while read -r value; do
    CLUSTER_POD_SUBNETS+=("$value")
  done < <(echo "${KUBE_CLUSTERS}" | jq -r '.pod_subnet // .podSubnet')

  while read -r value; do
    CLUSTER_SVC_SUBNETS+=("$value")
  done < <(echo "${KUBE_CLUSTERS}" | jq -r '.svc_subnet // .svcSubnet')

	if util.PodRedirectionEnabled(ns, pod) {
		return pod, nil
	}
	return nil, nil
}

func (s *InformerHandlers) Start() {
	kube.WaitForCacheSync("informer", s.ctx.Done(), s.pods.HasSynced, s.namespaces.HasSynced)
	go s.queue.Run(s.ctx.Done())
}

func (s *InformerHandlers) GetAmbientPods() []*corev1.Pod {
	var pods []*corev1.Pod
	for _, pod := range s.pods.List(metav1.NamespaceAll, klabels.Everything()) {

	// leave the thread locked to die without a risk of the current thread
	// left lingering with incorrect namespace.
	var innerError error
	go func() {
		defer wg.Done()
		runtime.LockOSThread()
		innerError = containedCall()
	}()
	wg.Wait()

	return innerError

	// There should be 1 or 2 processes that match: the pause container should always be there, and the istio-validation *might*.
	// We want the pause container, as the istio-validation one may exit before we are done.
	// We do this by detecting the longest running process. We could look at `cmdline`, but is likely more reliable to weird platforms.
	for _, p := range procs {
		ns := getPidNamespace(p.PID)