type wheel struct {
	radius uint32
}

type unicycle struct {
	primaryWheel   *wheel
	licencePlateID string
	tags           map[string]string
}

func TestDeepObjectPointer(t *testing.T) {
	// Arrange
	wheel1 := wheel{radius: 17}
	wheel2 := wheel{radius: 22}
	wheel3 := wheel{radius: 17}

	myUni1 := unicycle{licencePlateID: "blah", primaryWheel: &wheel1, tags: map[string]string{"color": "blue", "name": "john"}}

func (c *sigctxt) siglr() uintptr    { return uintptr(c.lr()) }

// preparePanic sets up the stack to look like a call to sigpanic.
func (c *sigctxt) preparePanic(sig uint32, gp *g) {
	// We arrange lr, and pc to pretend the panicking
	// function calls sigpanic directly.
	// Always save LR to stack so that panics in leaf
	// functions are correctly handled. This smashes
	// the stack frame but we're not going back there

func (c *sigctxt) fault() uintptr { return uintptr(c.sigaddr()) }

// preparePanic sets up the stack to look like a call to sigpanic.
func (c *sigctxt) preparePanic(sig uint32, gp *g) {
	// We arrange link, and pc to pretend the panicking
	// function calls sigpanic directly.
	// Always save LINK to stack so that panics in leaf
	// functions are correctly handled. This smashes
	// the stack frame but we're not going back there

func (c *sigctxt) siglr() uintptr { return uintptr(c.link()) }

// preparePanic sets up the stack to look like a call to sigpanic.
func (c *sigctxt) preparePanic(sig uint32, gp *g) {
	// We arrange link, and pc to pretend the panicking
	// function calls sigpanic directly.
	// Always save LINK to stack so that panics in leaf
	// functions are correctly handled. This smashes
	// the stack frame but we're not going back there

    return new TrustedListenableFutureTask<>(callable);
  }

  /**
   * Creates a {@code ListenableFutureTask} that will upon running, execute the given {@code
   * Runnable}, and arrange that {@code get} will return the given result on successful completion.
   *
   * @param runnable the runnable task
   * @param result the result to return on successful completion. If you don't need a particular

func (c *sigctxt) fault() uintptr { return uintptr(c.sigaddr()) }

// preparePanic sets up the stack to look like a call to sigpanic.
func (c *sigctxt) preparePanic(sig uint32, gp *g) {
	// We arrange link, and pc to pretend the panicking
	// function calls sigpanic directly.
	// Always save LINK to stack so that panics in leaf
	// functions are correctly handled. This smashes
	// the stack frame but we're not going back there

	// but may cause additional latency to some calls.
	metacacheSharePrefix = false
)

//go:generate msgp -file $GOFILE -unexported

// metacache contains a tracked cache entry.
type metacache struct {
	// do not re-arrange the struct this struct has been ordered to use less
	// space - if you do so please run https://github.com/orijtech/structslop
	// and verify if your changes are optimal.
	ended        time.Time  `msg:"end"`

			volumesFailedReconstruction: []podVolume{defaultVolume},
			expectedUnmounts:            1,
		},
	}
	for _, tc := range tests {
		t.Run(tc.name, func(t *testing.T) {
			// Arrange
			tmpKubeletDir, err := os.MkdirTemp("", "")
			if err != nil {
				t.Fatalf("can't make a temp directory for kubeletPods: %v", err)
			}
			defer os.RemoveAll(tmpKubeletDir)

	c2 := <-ch
	if c2 == nil {
		t.Fatal("no server side connection")
	}
	c2.Close()

	// 1 GB of data should be enough to notice the connection is gone.
	// Just a few bytes is not enough.
	// Arrange to reuse the same 1 MB buffer so that we don't allocate much.
	buf := make([]byte, 1<<20)
	buffers := make(Buffers, 1<<10)
	for i := range buffers {
		buffers[i] = buf
	}

	)

	if err != nil {
		t.Fatalf("Run failed with error. Expected: <no error> Actual: <%v>", err)
	}
	return adcObj.(*attachDetachController)
}

func Test_NewAttachDetachController_Positive(t *testing.T) {
	// Arrange
	fakeKubeClient := controllervolumetesting.CreateTestClient()
	informerFactory := informers.NewSharedInformerFactory(fakeKubeClient, controller.NoResyncPeriodFunc())
	tCtx := ktesting.Init(t)

	// Act