},
		}
	}

	addDriversCSINode := func(addLimits bool) {
		initCSINode()
		for _, driver := range driverNames {
			driver := storagev1.CSINodeDriver{
				Name:   driver,
				NodeID: "node-for-max-pd-test-1",
			}
			if addLimits {
				driver.Allocatable = &storagev1.VolumeNodeResources{
					Count: ptr.To(limit),
				}
			}
			csiNode.Spec.Drivers = append(csiNode.Spec.Drivers, driver)

	// Waypoint overrides
	metadataDiscovery := cfg.Metadata.MetadataDiscovery
	if strings.HasPrefix(cfg.ID, "waypoint~") {
		xdsType = "DELTA_GRPC"
		metadataDiscovery = true
	}

	opts = append(opts,
		option.NodeID(cfg.ID),
		option.NodeType(cfg.ID),
		option.PilotSubjectAltName(cfg.Metadata.PilotSubjectAltName),
		option.OutlierLogPath(cfg.Metadata.OutlierLogPath),
		option.ApplicationLogJSON(cfg.LogAsJSON),

			ObjectMeta: metav1.ObjectMeta{
				Name: "mynode",
			},
			Spec: storage.CSINodeSpec{
				Drivers: []storage.CSINodeDriver{
					{
						Name:         "com.example.csi/mydriver",
						NodeID:       "com.example.csi/mynode",
						TopologyKeys: []string{"com.example.csi/zone"},
					},
				},
			},
		}
		nodeInfoWrongName = &storage.CSINode{
			ObjectMeta: metav1.ObjectMeta{
				Name: "foo",

				nodeUID, _ := value.UID.(string)
				pods, err := nodeController.getPodsAssignedToNode(value.Value)
				if err != nil {
					t.Errorf("unexpected error: %v", err)
				}
				controllerutil.DeletePods(ctx, item.fakeNodeHandler, pods, nodeController.recorder, value.Value, nodeUID, nodeController.daemonSetStore)
				return true, 0
			})
		}

	pod2ns1 := makeID("v1", "Pod", "ns1", "podname2", "poduid2")
	pod2ns2 := makeID("v1", "Pod", "ns2", "podname2", "poduid2")
	node1 := makeID("v1", "Node", "", "nodename", "nodeuid1")

	role1v1beta1 := makeID("rbac.authorization.k8s.io/v1beta1", "Role", "ns1", "role1", "roleuid1")
	role1v1 := makeID("rbac.authorization.k8s.io/v1", "Role", "ns1", "role1", "roleuid1")

}

}  // end extern "C"

namespace tensorflow {

void RecordMutation(TF_Graph* graph, const TF_Operation& op,
                    const char* mutation_type) {
  // If any session has already run this node_id, mark this session as
  // unrunnable.
  for (auto it : graph->sessions) {
    mutex_lock session_lock(it.first->mu);
    if (it.first->last_num_graph_nodes > op.node.id()) {
      it.second = strings::StrCat(

				Name: container.Name,
				ID:   kubecontainer.ContainerID{Type: "test", ID: fmt.Sprintf("c%d", i)},
			})
		}
		return runningPod
	}
	mirrorPod := func(pod *v1.Pod, nodeName string, nodeUID types.UID) *v1.Pod {
		copied := pod.DeepCopy()
		if copied.Annotations == nil {
			copied.Annotations = make(map[string]string)
		}

	// These are EBCDIC encoded by the kernel, but we still need to pad them
	// with blanks. Initializing with blanks allows the caller to feed in either
	// a padded or an unpadded string.
	for i := 0; i < 8; i++ {
		sa.raw.Nodeid[i] = ' '
		sa.raw.User_id[i] = ' '
		sa.raw.Name[i] = ' '
	}
	if len(sa.UserID) > 8 || len(sa.Name) > 8 {
		return nil, 0, EINVAL
	}
	for i, b := range []byte(sa.UserID[:]) {
		sa.raw.User_id[i] = int8(b)

	Unused   uint16
	Flowinfo uint32
	Addr     [16]byte /* in6_addr */
	Scope_id uint32
	Conn_id  uint32
}

type RawSockaddrIUCV struct {
	Family  uint16
	Port    uint16
	Addr    uint32
	Nodeid  [8]int8
	User_id [8]int8
	Name    [8]int8
}

type RawSockaddrNFC struct {
	Sa_family    uint16
	Dev_idx      uint32
	Target_idx   uint32
	Nfc_protocol uint32
}

type _Socklen uint32

	// These are static for all objects extracted.
	reqParams := extractReqParams(r)
	respElements := map[string]string{
		"requestId": w.Header().Get(xhttp.AmzRequestID),
		"nodeId":    w.Header().Get(xhttp.AmzRequestHostID),
	}
	if sc == "" {
		sc = storageclass.STANDARD
	}

	putObjectTar := func(reader io.Reader, info os.FileInfo, object string) error {
		size := info.Size()