podsToMake: []podToMake{
				{name: "high-priority-high-usage", priority: highPriority, pidUsage: 900},
				{name: "default-priority-low-usage", priority: defaultPriority, pidUsage: 100},
				{name: "default-priority-medium-usage", priority: defaultPriority, pidUsage: 400},
				{name: "low-priority-high-usage", priority: lowPriority, pidUsage: 600},
				{name: "low-priority-low-usage", priority: lowPriority, pidUsage: 50},
			},

func TestOrderedByPriority(t *testing.T) {
	low := newPod("low-priority", -134, []v1.Container{
		newContainer("low-priority", newResourceList("", "", ""), newResourceList("", "", "")),
	}, nil)
	medium := newPod("medium-priority", 1, []v1.Container{
		newContainer("medium-priority", newResourceList("100m", "100Mi", ""), newResourceList("200m", "200Mi", "")),
	}, nil)
	high := newPod("high-priority", 12534, []v1.Container{

		{Name: "IP", Type: "string", Priority: 1, Description: apiv1.PodStatus{}.SwaggerDoc()["podIP"]},
		{Name: "Node", Type: "string", Priority: 1, Description: apiv1.PodSpec{}.SwaggerDoc()["nodeName"]},
		{Name: "Nominated Node", Type: "string", Priority: 1, Description: apiv1.PodStatus{}.SwaggerDoc()["nominatedNodeName"]},
		{Name: "Readiness Gates", Type: "string", Priority: 1, Description: apiv1.PodSpec{}.SwaggerDoc()["readinessGates"]},

				return *pod.Spec.Priority%2 == 0 && *pod.Spec.Priority >= 2
			},
			want: []string{"p2", "p4"},
		},
		{
			name:     "move Pods with even and negative priority",
			podInfos: podInfos,
			event:    WildCardEvent,
			preEnqueueCheck: func(pod *v1.Pod) bool {
				return *pod.Spec.Priority%2 == 0 && *pod.Spec.Priority < 0
			},
		},
		{

this level. This is the number of execution seats nominally reserved for this priority level. This DOES NOT limit the dispatching from this priority level but affects the other priority levels through the borrowing mechanism. The server's concurrency limit (ServerCL) is divided among all the priority levels in proportion to their NCS values:\n\nNominalCL(i)  = ceil( ServerCL * NCS(i) / sum_ncs ) sum_ncs = sum[priority level k] NCS(k)\n\nBigger numbers mean a larger nominal concurrency limit, at the...

this level. This is the number of execution seats nominally reserved for this priority level. This DOES NOT limit the dispatching from this priority level but affects the other priority levels through the borrowing mechanism. The server's concurrency limit (ServerCL) is divided among all the priority levels in proportion to their NCS values:\n\nNominalCL(i)  = ceil( ServerCL * NCS(i) / sum_ncs ) sum_ncs = sum[priority level k] NCS(k)\n\nBigger numbers mean a larger nominal concurrency limit, at the...

	}{
		{
			name:          "nominated pods have lower priority, predicate is called once",
			pod:           st.MakePod().Name("1").UID("1").Priority(highPriority).Obj(),
			expectedCount: 1,
		},
		{
			name:          "nominated pods have higher priority, predicate is called twice",
			pod:           st.MakePod().Name("1").UID("1").Priority(lowPriority).Obj(),
			expectedCount: 2,
		},
	}

	var workers, failedWorkers int
	priority := "auto"
	maxWorkers := WorkerMaxLimit
	if opts.Priority != "" {
		priority = opts.Priority
	}
	if opts.MaxWorkers > 0 {
		maxWorkers = opts.MaxWorkers
	}
	switch priority {
	case "fast":
		workers = WorkerMaxLimit
		failedWorkers = MRFWorkerMaxLimit
	case "slow":

		add chain ip kube-proxy filter-forward { type filter hook forward priority -110 ; }
		add chain ip kube-proxy filter-input { type filter hook input priority -110 ; }
		add chain ip kube-proxy filter-output { type filter hook output priority -110 ; }
		add chain ip kube-proxy filter-output-post-dnat { type filter hook output priority -90 ; }
		add chain ip kube-proxy firewall-check

            "description": "description is an arbitrary string that usually provides guidelines on when this priority class should be used.",
            "type": "string"
          },
          "globalDefault": {