if !bytes.Equal(newValues[i], value) {
			t.Fatal("trie not updated")
		}
	}

	newKeys := getFreshData(5)
	newValues = getFreshData(5)
	_, err = smt.Update(newKeys, newValues)
	assert.NoError(t, err)
	for i, key := range newKeys {
		value, _ := smt.Get(key)
		if !bytes.Equal(newValues[i], value) {
			t.Fatal("trie not updated")
		}
	}
}

func TestSmtDelete(t *testing.T) {

	// if not full push needed, at least one service unchanged
	if !fullPush {
		s.edsUpdate(serviceInstances)
		return
	}

	// When doing a full push, the non DNS added, updated, unchanged services trigger an eds update
	// so that endpoint shards are updated.
	allServices := make([]*model.Service, 0, len(addedSvcs)+len(updatedSvcs)+len(unchangedSvcs))
	allServices = append(allServices, addedSvcs...)

  // for updates. During a rolling update, all pods from ordinal Replicas-1 to
  // Partition are updated. All pods from ordinal Partition-1 to 0 remain untouched.
  // This is helpful in being able to do a canary based deployment. The default value is 0.
  optional int32 partition = 1;

  // maxUnavailable is the maximum number of pods that can be unavailable during the update.

	// the number of workers up making it a parameter of Run() function.

	// NodeUpdateChannelSize defines the size of channel for node update events.
	NodeUpdateChannelSize = 10
	// UpdateWorkerSize defines the size of workers for node update or/and pod update.
	UpdateWorkerSize     = 8
	podUpdateChannelSize = 1
	retries              = 5
)

type nodeUpdateItem struct {
	nodeName string
}

	// AssignedPodUpdate is the event when a pod is updated that causes pods with matching affinity
	// terms to be more schedulable.
	AssignedPodUpdate = framework.ClusterEvent{Resource: framework.Pod, ActionType: framework.Update, Label: "AssignedPodUpdate"}
	// UnscheduledPodUpdate is the event when an unscheduled pod is updated.
	UnscheduledPodUpdate = framework.ClusterEvent{Resource: framework.Pod, ActionType: framework.Update, Label: "UnschedulablePodUpdate"}

					return
				}
				if fakeStorage.updated != 0 {
					t.Errorf("unexpected calls to underlying storage.Update: %d", fakeStorage.updated)
					return
				}
			}

			if tc.expectAuthz != (authzCalled > 0) {
				t.Fatalf("expected authz=%v, saw %d calls", tc.expectAuthz, authzCalled)
			}
		})
	}
}

type fakeStorage struct {
	updated int
	created int
	rest.StandardStorage
}

// update walks through all existing objects, finds the corresponding update
// function based on name and kind, and replaces those objects that have an
// update function. The rest is left unchanged.
func update(t *testing.T, objects []metav1.Object, updates change) []metav1.Object {
	var updated []metav1.Object

	for _, obj := range objects {
		switch in := obj.(type) {
		case *resourcev1alpha2.ResourceClaim:

  /**
   * Computes the function of current and new value. Subclasses should open-code this update
   * function for most uses, but the virtualized form is needed within retryUpdate.
   *
   * @param currentValue the current value (of either base or a cell)
   * @param newValue the argument from a user update call
   * @return result of the update function
   */
  abstract long fn(long currentValue, long newValue);

  /**

  /**
   * Computes the function of current and new value. Subclasses should open-code this update
   * function for most uses, but the virtualized form is needed within retryUpdate.
   *
   * @param currentValue the current value (of either base or a cell)
   * @param newValue the argument from a user update call
   * @return result of the update function
   */
  abstract long fn(long currentValue, long newValue);

  /**

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