memLimit = resource.NewQuantity(runtimeStatusResources.MemoryLimitInBytes, resource.BinarySI)
		}

		if cpuLimit != nil || memLimit != nil {
			cStatusResources = &kubecontainer.ContainerResources{
				CPULimit:    cpuLimit,
				MemoryLimit: memLimit,
			}
		}
	}
	return cStatusResources
}

func toKubeContainerUser(statusUser *runtimeapi.ContainerUser) *kubecontainer.ContainerUser {
	return nil

	tests := []struct {
		name     string
		cpuLimit resource.Quantity
		cpuCount int64
		want     int64
	}{
		{
			name:     "max range when same amount",
			cpuLimit: resource.MustParse("1"),
			cpuCount: 1,
			want:     10000,
		},
		{
			name:     "percentage calculation is working as intended",
			cpuLimit: resource.MustParse("94"),
			cpuCount: 96,
			want:     9791,
		},

		// only 2 CPUs allocated, we want to have 2 threads, not 100, or we will get excessively throttled.
		if CPULimit != 0 {
			log.Infof("cpu limit detected as %v, setting concurrency", CPULimit)
			proxyConfig.Concurrency = wrapperspb.Int32(int32(CPULimit))
		}
	}
	// Respect the old flag, if they set it. This should never be set in typical installation.
	if concurrency != 0 {

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

    {{security_context}}
    "image": "{{ pillar.get('etcd_docker_repository', 'registry.k8s.io/etcd') }}:{{ pillar.get('etcd_docker_tag', '3.5.14-0') }}",
    "resources": {
      "requests": {
        "cpu": {{ cpulimit }}
      }
    },
    "command": [
              "/bin/sh",
              "-c",

								kubeContainerID: kcs.ID,
								desiredContainerResources: containerResources{
									memoryLimit: mem100M.Value(),
									cpuLimit:    cpu100m.MilliValue(),
								},
								currentContainerResources: &containerResources{
									memoryLimit: mem200M.Value(),
									cpuLimit:    cpu200m.MilliValue(),
								},
							},
						},
						v1.ResourceCPU: {
							{
								apiContainerIdx: 1,

	// type-checking (see golang/go#47729).
	cpulimit := make(chan struct{}, runtime.GOMAXPROCS(0))
	var wg sync.WaitGroup

	for dir := range dirFiles {
		dir := dir

		cpulimit <- struct{}{}
		wg.Add(1)
		go func() {
			defer func() {
				wg.Done()
				<-cpulimit
			}()

			_, err := c.getDirPackage(dir)
			if err != nil {

		if kubeContainerStatus.Resources.MemoryLimit != nil {
			currentMemoryLimit = kubeContainerStatus.Resources.MemoryLimit.Value()
		}
		if kubeContainerStatus.Resources.CPULimit != nil {
			currentCPULimit = kubeContainerStatus.Resources.CPULimit.MilliValue()
		}
		if kubeContainerStatus.Resources.CPURequest != nil {
			currentCPURequest = kubeContainerStatus.Resources.CPURequest.MilliValue()
		}
	}

}

func (cm *containerManagerImpl) SystemCgroupsLimit() v1.ResourceList {
	cpuLimit := int64(0)

	// Sum up resources of all external containers.
	for _, cont := range cm.systemContainers {
		cpuLimit += cont.cpuMillicores
	}

	return v1.ResourceList{
		v1.ResourceCPU: *resource.NewMilliQuantity(
			cpuLimit,
			resource.DecimalSI),
	}
}

func isProcessRunningInHost(pid int) (bool, error) {

				Image:     imageSpec.Image,
				State:     kubecontainer.ContainerStateRunning,
				CreatedAt: time.Unix(0, createdAt),
				StartedAt: time.Unix(0, startedAt),
				Resources: &kubecontainer.ContainerResources{
					CPULimit:    resource.NewMilliQuantity(250, resource.DecimalSI),
					MemoryLimit: resource.NewQuantity(524288000, resource.BinarySI),
				},
			},
			skipOnWindows: true,
		},
		"container reporting cpu only": {