assert.NoError(t, err)

	// wait for an update events
	// total 3 update at before unlabel point: 1. init ns reconcile 2. ns label reconcile 3. pod annotation update
	mt.Assert(EventTotals.Name(), map[string]string{"type": "update"}, monitortest.AtLeast(4))

	waitForMockCalls()

	assertPodNotAnnotated(t, client, pod)

	// patch a test label to emulate a POD update event

	event := input.(controllers.Event)
	switch event.Latest().(type) {
	case *corev1.Namespace:
		return s.reconcileNamespace(input)
	case *corev1.Pod:
		return s.reconcilePod(input)
	default:
		return fmt.Errorf("unexpected event type: %+v", input)
	}
}

func (s *InformerHandlers) reconcileNamespace(input any) error {
	event := input.(controllers.Event)
	ns := event.Latest().(*corev1.Namespace)

	queue        controllers.Queue
	cfg          config.RepairConfig
	events       kclient.EventRecorder
	repairedPods map[types.NamespacedName]types.UID
}

func NewRepairController(client kube.Client, cfg config.RepairConfig) (*Controller, error) {
	c := &Controller{
		cfg:          cfg,
		client:       client,
		events:       kclient.NewEventRecorder(client, "cni-repair"),

		return nil
	}

	// If a file we are watching has a change event, yield and let caller check validity
	select {
	case <-watcher.Events:
		// Something changed, and we must yield
		return nil
	case err := <-watcher.Errors:
		// We had a watch error - that's no good
		return err
	case <-ctx.Done():
		return ctx.Err()
	default:

	return &Watcher{
		watcher: watcher,
		Events:  fileModified,
		Errors:  errChan,
	}, nil
}

func watchFiles(watcher *fsnotify.Watcher, fileModified chan struct{}, errChan chan error) {
	for {
		select {
		case event, ok := <-watcher.Events:
			if !ok {
				return
			}
			if event.Op&(fsnotify.Create|fsnotify.Write|fsnotify.Remove) != 0 {
				log.Infof("file modified: %v", event.Name)
				fileModified <- struct{}{}
			}

	// The HTTP port for monitoring
	MonitoringPort int

	// The UDS server address that CNI plugin will send log to.
	LogUDSAddress string

	// The watch server socket address that CNI plugin will forward CNI events to.
	CNIEventAddress string

	// The ztunnel server socket address that the ztunnel will connect to.
	ZtunnelUDSAddress string

	// Whether ambient is enabled
	AmbientEnabled bool

	if err != nil {
		return nil, err
	}
	return data, nil
}

func StableXdsStatusCommand(ctx cli.Context) *cobra.Command {
	cmd := XdsStatusCommand(ctx)
	unstableFlags := []string{"xds-via-agents", "xds-via-agents-limit"}
	cmd.PreRunE = func(cmd *cobra.Command, args []string) error {
		for _, flag := range unstableFlags {
			if cmd.PersistentFlags().Changed(flag) {

		responses = append(responses, response)
		if !all && len(responses) > 0 {
			break
		}
	}
	return responses, nil
}

// queryDebugSynczViaAgents sends a debug/syncz xDS request via Istio Agents.
// By this way, even if istioctl cannot access a specific `istiod` instance directly,
// `istioctl` can access the debug endpoint.
// If `all` is true, `queryDebugSynczViaAgents` iterates all the pod having a proxy

// K8S may get a pod Add event without any IPs in the object, and the pod will later be updated with IPs.
//
// We always need the IPs, but this is fine because this AddPodToMesh can be called from the CNI plugin as well,
// which always has the firsthand info of the IPs, even before K8S does - so we pass them separately here because

	return msg, nil
}

func (s *CniPluginServer) ReconcileCNIAddEvent(ctx context.Context, addCmd CNIPluginAddEvent) error {
	log := log.WithLabels("cni-event", addCmd)

	log.Debugf("netns: %s", addCmd.Netns)

	// The CNI node plugin should have already checked the pod against the k8s API before forwarding us the event,