sc := clienttest.NewWriter[*corev1.Service](t, s.client)
	pod1 := generatePod("127.0.0.1", "pod1", testNS, "sa1", "node1", map[string]string{"app": "a"}, nil)
	pc.CreateOrUpdateStatus(pod1)
	fx.WaitOrFail(t, "xds")

	pod2 := generatePod("127.0.0.2", "pod2", testNS, "sa2", "node1", map[string]string{"app": "a"}, nil)
	pc.CreateOrUpdateStatus(pod2)
	fx.WaitOrFail(t, "xds")

	dir, err := os.MkdirTemp("", "testpcalign")
	if err != nil {
		t.Fatal(err)
	}
	defer os.RemoveAll(dir)
	tmpfile := filepath.Join(dir, "test.s")
	tmpout := filepath.Join(dir, "test.o")

	code1 := []byte("TEXT ·foo(SB),$0-0\nMOVD $0, R0\nPCALIGN $8\nMOVD $1, R1\nRET\n")
	code2 := []byte("TEXT ·foo(SB),$0-0\nMOVD $0, R0\nPCALIGN $16\nMOVD $2, R2\nRET\n")

	}

	verifyVolumeToAttach(t, volumesToAttach, nodeName, generatedVolumeName, string(volumeName))
}

// Populates data struct with pod/volume/node1.
// Calls DeleteNode() to delete the pod/volume/node2.
// Verifies volume still exists, and one volumes to attach.
func Test_DeletePod_Positive_NodeDoesNotExist(t *testing.T) {
	// Arrange

	node0, err := fakeNodeHandler.Get(ctx, "node0", metav1.GetOptions{})
	if err != nil {
		t.Errorf("Can't get current node0...")
		return
	}
	node1, err := fakeNodeHandler.Get(ctx, "node1", metav1.GetOptions{})
	if err != nil {
		t.Errorf("Can't get current node1...")
		return
	}

	if originalTaint != nil && !taintutils.TaintExists(node0.Spec.Taints, originalTaint) {

	asw := NewActualStateOfWorld(volumePluginMgr)
	volumeName := v1.UniqueVolumeName("volume-name")
	volumeSpec := controllervolumetesting.GetTestVolumeSpec(string(volumeName), volumeName)

	node1Name := types.NodeName("node1-name")
	node2Name := types.NodeName("node2-name")
	devicePath := "fake/device/path"

	// Act
	logger, _ := ktesting.NewTestContext(t)

		},
	}

	for _, tc := range tests {
		t.Run(tc.name, func(t *testing.T) {
			nodename := "node01"
			controlPlaneNode := &v1.Node{
				ObjectMeta: metav1.ObjectMeta{
					Name: nodename,
					Labels: map[string]string{
						v1.LabelHostname: nodename,
					},
				},
			}

			},
			claimWithAnnotation(volume.AnnSelectedNode, "node1",
				newClaimArray("claim11-23", "uid11-23", "1Gi", "", v1.ClaimPending, &classCopper)),
			claimWithAnnotation(volume.AnnSelectedNode, "node1",
				newClaimArray("claim11-23", "uid11-23", "1Gi", "", v1.ClaimPending, &classCopper, volume.AnnStorageProvisioner, volume.AnnBetaStorageProvisioner)),

		NodeTopology: &metav1.LabelSelector{
			MatchExpressions: []metav1.LabelSelectorRequirement{
				{
					Key:      "node",
					Operator: metav1.LabelSelectorOpIn,
					Values: []string{
						"node1",
					},
				},
			},
		},
		Capacity: &mib,
	}
	if capacityStr != "" {
		capacityQuantity := resource.MustParse(capacityStr)
		c.Capacity = &capacityQuantity
	}
	return c
}

        given:
        def node1 = requiredNode()
        def node2 = requiredNode(node1)
        def node3 = requiredNode(node2)
        executionPlan.setScheduledWork(scheduledWork(node3, node1, node2))

        when:
        populateGraph()

        then:
        executesNodes(node1, node2, node3)
    }

    def "notifies listener when task is executed"() {

            CycleDetectingLockFactory.class.getName(),
            ExampleStackTrace.class.getName(),
            LockGraphNode.class.getName());

    ExampleStackTrace(LockGraphNode node1, LockGraphNode node2) {
      super(node1.getLockName() + " -> " + node2.getLockName());
      StackTraceElement[] origStackTrace = getStackTrace();
      for (int i = 0, n = origStackTrace.length; i < n; i++) {