c.enqueueAll()
		}
	}))
	// For pods, we enqueue all Ingress if its part of the ingress service
	c.pods.AddEventHandler(controllers.ObjectHandler(func(o controllers.Object) {
		if c.meshConfig.Mesh().IngressService != "" {
			// Ingress Service takes precedence
			return
		}
		ingressSelector := c.meshConfig.Mesh().IngressSelector

		// get all pods acting as ingress gateways

    resourceQuotas:
      enabled: false
      pods: 5000

    # The number of pods that can be unavailable during rolling update (see
    # `updateStrategy.rollingUpdate.maxUnavailable` here:
    # https://kubernetes.io/docs/reference/kubernetes-api/workload-resources/daemon-set-v1/#DaemonSetSpec).
    # May be specified as a number of pods or as a percent of the total number
    # of pods at the start of the update.
    rollingMaxUnavailable: 1

)

func TestIndex(t *testing.T) {
	c := kube.NewFakeClient()
	kpc := kclient.New[*corev1.Pod](c)
	pc := clienttest.Wrap(t, kpc)
	pods := krt.WrapClient[*corev1.Pod](kpc)
	stop := test.NewStop(t)
	c.RunAndWait(stop)
	SimplePods := SimplePodCollection(pods)
	tt := assert.NewTracker[string](t)
	IPIndex := krt.NewIndex[SimplePod, string](SimplePods, func(o SimplePod) []string {
		return []string{o.IP}
	})

	logger := klog.FromContext(ctx)
	pods, err := dc.getPodsForPdb(pdb)
	if err != nil {
		dc.recorder.Eventf(pdb, v1.EventTypeWarning, "NoPods", "Failed to get pods: %v", err)
		return err
	}
	if len(pods) == 0 {
		dc.recorder.Eventf(pdb, v1.EventTypeNormal, "NoPods", "No matching pods found")
	}

	expectedCount, desiredHealthy, unmanagedPods, err := dc.getExpectedPodCount(ctx, pdb, pods)
	if err != nil {

			name:           "resources requested, pods scheduled with more resources",
			pods: []*v1.Pod{
				st.MakePod().Obj(),
			},
		},
	}

	for _, test := range tests {
		t.Run(test.name, func(t *testing.T) {
			state := framework.NewCycleState()
			snapshot := cache.NewSnapshot(test.pods, test.nodes)
			_, ctx := ktesting.NewTestContext(t)

	// status from having pods with affinity to NOT having pods with affinity or the other
	// way around.
	updateNodesHavePodsWithAffinity := false
	// HavePodsWithRequiredAntiAffinityNodeInfoList must be re-created if a node changed its
	// status from having pods with required anti-affinity to NOT having pods with required
	// anti-affinity or the other way around.

	var priority int32 = 1
	currentTime := time.Now()
	tests := []struct {
		name              string
		pods              []*v1.Pod
		expectedStartTime *metav1.Time
	}{
		{
			name:              "Pods length is 0",
			pods:              []*v1.Pod{},
			expectedStartTime: nil,
		},
		{
			name: "generate new startTime",
			pods: []*v1.Pod{
				newPriorityPodWithStartTime("pod1", 1, currentTime.Add(-time.Second)),
				{

		return nil
	}

	// list all pods to include the pods that don't match the rs`s selector
	// anymore but has the stale controller ref.
	// TODO: Do the List and Filter in a single pass, or use an index.
	allPods, err := rsc.podLister.Pods(rs.Namespace).List(labels.Everything())
	if err != nil {
		return err
	}
	// Ignore inactive pods.
	filteredPods := controller.FilterActivePods(logger, allPods)

  optional string completionMode = 9;

  // suspend specifies whether the Job controller should create Pods or not. If
  // a Job is created with suspend set to true, no Pods are created by the Job
  // controller. If a Job is suspended after creation (i.e. the flag goes from
  // false to true), the Job controller will delete all active Pods associated
  // with this Job. Users must design their workload to gracefully handle this.

		}
	}
	return nil
}

func (m *qosContainerManagerImpl) setCPUCgroupConfig(configs map[v1.PodQOSClass]*CgroupConfig) error {
	pods := m.activePods()
	burstablePodCPURequest := int64(0)
	reuseReqs := make(v1.ResourceList, 4)
	for i := range pods {
		pod := pods[i]
		qosClass := v1qos.GetPodQOS(pod)
		if qosClass != v1.PodQOSBurstable {
			// we only care about the burstable qos tier
			continue
		}