*   Iterator<Long> it = set.iterator(); // Must be in synchronized block
   *   while (it.hasNext()) {
   *     foo(it.next());
   *   }
   * }
   * }</pre>
   *
   * <p>Failure to follow this advice may result in non-deterministic behavior.
   *
   * <p>The returned bimap will be serializable if the specified bimap is serializable.
   *
   * @param bimap the bimap to be wrapped in a synchronized view

}

def SimpleTFDeviceAssignmentPass : Pass<"tf-simple-device-assignment", "mlir::func::FuncOp"> {
  let summary = "Simple device assignment in TF dialect.";
  let constructor = "TF::CreateSimpleTFDeviceAssignmentPass()";
  let options = [
    Option<"default_device_", "default-device", "std::string", /*default=*/"\"cpu\"",
           "The default device to assign.">
  ];
  let description = [{

// After globalMapPath is removed, fd lock by loopback for the device can
// be released safely because no one can consume the device at this point.
// At last, device open status will be checked just in case.
// If all steps are completed, the device is marked as unmounted.
func (og *operationGenerator) GenerateUnmapDeviceFunc(
	deviceToDetach AttachedVolume,

#Formats the given device ($1) if needed and mounts it at given mount point
# ($2).
function safe-format-and-mount() {
  local device
  local mountpoint
  device="$1"
  mountpoint="$2"

  # Format only if the disk is not already formatted.
  if ! tune2fs -l "${device}" ; then
    echo "Formatting '${device}'"
    mkfs.ext4 -F "${device}"
  fi

  mkdir -p "${mountpoint}"
  echo "Mounting '${device}' at '${mountpoint}'"

  %1 = "tf.Const"() {device = "", dtype = f32, value = dense<0.000000e+00>: tensor<16x28xf32>} : () -> tensor<16x28xf32>
  %2 = "tf.Const"() {device = "", dtype = f32, value = dense<0.000000e+00>: tensor<16x16xf32>} : () -> tensor<16x16xf32>
  %3 = "tf.Const"() {device = "", dtype = f32, value = dense<0.000000e+00>: tensor<16xf32>} : () -> tensor<16xf32>

			return nil, fmt.Errorf("cannot find volume %q to pass into container %q", device.Name, container.Name)
		}
		// Get a symbolic link associated to a block device under pod device path
		dirPath, volName := vol.BlockVolumeMapper.GetPodDeviceMapPath()
		symlinkPath := filepath.Join(dirPath, volName)

						},
						{
							Type:    v1.NodeInternalIP,
							Address: testKubeletHostIPv6,
						},
					},
					VolumesAttached: []v1.AttachedVolume{
						{
							Name:       "fake/fake-device",
							DevicePath: "fake/path",
						},
					},
				},
			},
		},
	}
	kubelet.recorder = fakeRecorder
	if err := kubelet.setupDataDirs(); err != nil {

		(Zero [s-s%16] ptr mem))
(Zero [s] ptr mem) && s%16 != 0 && s%16 > 8 && s > 16 =>
	(Zero [16]
		(OffPtr <ptr.Type> ptr [s-16])
		(Zero [s-s%16] ptr mem))

// medium zeroing uses a duff device
// 4, 16, and 64 are magic constants, see runtime/mkduff.go
(Zero [s] ptr mem)
	&& s%16 == 0 && s > 64 && s <= 16*64
	&& !config.noDuffDevice =>
	(DUFFZERO [4 * (64 - s/16)] ptr mem)

			},
		},
		{
			// Build the following graph, which contains a cross-signature loop
			// (A and C cross sign each other). Paths that include the A -> C -> A
			// (and vice versa) loop should be ignored, resulting in the paths:
			//   * Trust Anchor -> A -> B -> EE
			//   * Trust Anchor -> C -> B -> EE
			//   * Trust Anchor -> A -> C -> B -> EE
			//   * Trust Anchor -> C -> A -> B -> EE

		kl.pluginManager.AddHandler(pluginwatcherapi.DRAPlugin, plugincache.PluginHandler(draplugin.NewRegistrationHandler(kl.kubeClient, kl.getNodeAnyWay)))
	}
	// Adding Registration Callback function for Device Manager
	kl.pluginManager.AddHandler(pluginwatcherapi.DevicePlugin, kl.containerManager.GetPluginRegistrationHandler())

	// Start the plugin manager
	klog.V(4).InfoS("Starting plugin manager")