var activePods []*v1.Pod
		for p := range tc.assignments {
			pod := v1.Pod{}
			pod.UID = types.UID(p)
			for c := range tc.assignments[p] {
				container := v1.Container{}
				container.Name = c
				pod.Spec.Containers = append(pod.Spec.Containers, container)
			}
			activePods = append(activePods, &pod)
		}

		m := manager{
			policy: &staticPolicy{
				topology: topology,
			},

func (m *kubeGenericRuntimeManager) generateLinuxContainerResources(pod *v1.Pod, container *v1.Container, enforceMemoryQoS bool) *runtimeapi.LinuxContainerResources {
	// set linux container resources
	var cpuRequest *resource.Quantity
	if _, cpuRequestExists := container.Resources.Requests[v1.ResourceCPU]; cpuRequestExists {
		cpuRequest = container.Resources.Requests.Cpu()
	}

			pod: &v1.Pod{
				Spec: v1.PodSpec{
					Containers: []v1.Container{
						{
							Resources: getResourceRequirements(getResourceList("100m", "100m"), getResourceList("100m", "100Mi")),
						},
						{
							Resources: getResourceRequirements(getResourceList("100m", "100m"), getResourceList("", "")),
						},
					},
					InitContainers: []v1.Container{
						{

    }
}
// end::ndos[]

// tag::ndol[]

abstract class MyPluginExtensionNamedDomainObjectList {
    // Define a named domain object container to hold Person objects
    NamedDomainObjectList<Person> people = project.container(Person)

    // Add a person to the container
    void addPerson(String name) {
        people.create(name: name)
    }
}
// end::ndol[]

// tag::ndoc[]

		Windows: m.generateWindowsContainerResources(pod, container),
	}
}

// generateWindowsContainerResources generates windows container resources config for runtime
func (m *kubeGenericRuntimeManager) generateWindowsContainerResources(pod *v1.Pod, container *v1.Container) *runtimeapi.WindowsContainerResources {
	wcr := m.calculateWindowsResources(container.Resources.Limits.Cpu(), container.Resources.Limits.Memory())

	return wcr
}

        EclipseClasspathContainer container = project.classpathContainers.find { it.path == 'classpathContainerPath' }

        then:
        container.accessRules.size() == 2
        container.accessRules[0].kind == 0
        container.accessRules[0].pattern == 'accessibleFilesPattern'
        container.accessRules[1].kind == 1
        container.accessRules[1].pattern == 'nonAccessibleFilesPattern'
    }

When the **container** is started and running (started from a **container image**) it could create or change files, environment variables, etc. Those changes will exist only in that container, but would not persist in the underlying container image (would not be saved to disk).

	}
}

func TestStableKey(t *testing.T) {
	container := &v1.Container{
		Name:  "test_container",
		Image: "foo/image:v1",
	}
	pod := &v1.Pod{
		ObjectMeta: metav1.ObjectMeta{
			Name:      "test_pod",
			Namespace: "test_pod_namespace",
			UID:       "test_pod_uid",
		},
		Spec: v1.PodSpec{
			Containers: []v1.Container{*container},
		},
	}
	oldKey := getStableKey(pod, container)

		done; \
	done
	docker manifest push --purge ${IMAGE}:${TAG}

all-container-docker: $(addprefix sub-container-docker-,$(ALL_OS_ARCH.linux))
all-container-registry: $(addprefix sub-container-registry-,$(ALL_OS_ARCH))

# split words on hyphen, access by 1-index
word-hyphen = $(word $2,$(subst -, ,$1))
sub-container-%:

		if container.GetState() != runtimeapi.ContainerState_CONTAINER_RUNNING {
			continue
		}
		// Doing this to avoid additional overhead with logging of label like arguments that can prove costly
		if v := klog.V(4); v.Enabled() {
			klog.V(4).InfoS("Adding new entry to the queue for processing", "id", container.GetId(), "name", container.Metadata.GetName(), "labels", container.GetLabels())
		}