sizeLimit = resource.NewQuantity(ephemeralStorageLimit.Value(), resource.BinarySI)
				if volumeSpec.Volume.EmptyDir != nil &&
					volumeSpec.Volume.EmptyDir.SizeLimit != nil &&
					volumeSpec.Volume.EmptyDir.SizeLimit.Value() > 0 &&
					(sizeLimit.Value() == 0 || volumeSpec.Volume.EmptyDir.SizeLimit.Value() < sizeLimit.Value()) {

			deletedResources.Insert(resourceName)
			needsUpdateCheckpoint = true
		} else {
			capacity[v1.ResourceName(resourceName)] = *resource.NewQuantity(int64(devices.Len()), resource.DecimalSI)
			allocatable[v1.ResourceName(resourceName)] = *resource.NewQuantity(int64(devices.Len()), resource.DecimalSI)
		}
	}
	for resourceName, devices := range m.unhealthyDevices {
		eI, ok := m.endpoints[resourceName]

				v1.ResourceMemory: *resource.NewQuantity(cInfo.desiredContainerResources.memoryLimit, resource.BinarySI),
			}
			container.Resources.Requests = v1.ResourceList{
				v1.ResourceCPU:    *resource.NewMilliQuantity(cInfo.currentContainerResources.cpuRequest, resource.DecimalSI),
				v1.ResourceMemory: *resource.NewQuantity(cInfo.desiredContainerResources.memoryRequest, resource.BinarySI),
			}

		equal bool
	}{
		{
			a: evictionapi.ThresholdValue{
				Quantity: resource.NewQuantity(123, resource.BinarySI),
			},
			b: evictionapi.ThresholdValue{
				Quantity: resource.NewQuantity(123, resource.BinarySI),
			},
			equal: true,
		},
		{
			a: evictionapi.ThresholdValue{
				Quantity: resource.NewQuantity(123, resource.BinarySI),
			},
			b: evictionapi.ThresholdValue{

						Name: containerName,
						Usage: v1.ResourceList{
							v1.ResourceCPU: *resource.NewMilliQuantity(
								cpu,
								resource.DecimalSI),
							v1.ResourceMemory: *resource.NewQuantity(
								int64(1024*1024),
								resource.BinarySI),
						},
					}
					metric.Containers = append(metric.Containers, cm)
				}
				metrics.Items = append(metrics.Items, metric)
			}

			if milliCPU > 0 {
				cpuRequest = resource.NewMilliQuantity(milliCPU, resource.DecimalSI)
			}
		}
		if runtimeStatusResources.MemoryLimitInBytes > 0 {
			memLimit = resource.NewQuantity(runtimeStatusResources.MemoryLimitInBytes, resource.BinarySI)
		}
		if cpuLimit != nil || memLimit != nil || cpuRequest != nil {
			cStatusResources = &kubecontainer.ContainerResources{
				CPULimit:    cpuLimit,

			if v1helper.IsExtendedResourceName(k) {
				klog.InfoS("Zero out resource capacity in existing node", "resourceName", k, "node", klog.KObj(node))
				node.Status.Capacity[k] = *resource.NewQuantity(int64(0), resource.DecimalSI)
				node.Status.Allocatable[k] = *resource.NewQuantity(int64(0), resource.DecimalSI)
				requiresUpdate = true
			}
		}
	}
	return requiresUpdate
}

	return SupportsQuotas(dummyQuotaTest(), path)
}

func fakeAssignQuota(path string, poduid types.UID, bytes int64) error {
	dummySetFSInfo(path)
	return AssignQuota(dummyQuotaTest(), path, poduid, resource.NewQuantity(bytes, resource.DecimalSI))
}

func fakeClearQuota(path string) error {
	dummySetFSInfo(path)
	return ClearQuota(dummyQuotaTest(), path)
}

type quotaTestCase struct {

		},
		{
			description:                "static policy",
			cpuPolicyName:              "static",
			nodeAllocatableReservation: v1.ResourceList{v1.ResourceCPU: *resource.NewQuantity(3, resource.DecimalSI)},
			expectedPolicy:             "static",
		},
		{
			description:                "static policy - broken topology",
			cpuPolicyName:              "static",

	// where "pods" tracks all pods that have not reached a terminal state,
	// count/pods tracks all pods independent of state.
	result := corev1.ResourceList{
		podObjectCountName: *(resource.NewQuantity(1, resource.DecimalSI)),
	}

	// by convention, we do not quota compute resources that have reached end-of life
	// note: the "pods" resource is considered a compute resource since it is tied to life-cycle.