}

  /**
   * Waits for the {@link ServiceManager} to become {@linkplain #isHealthy() healthy}. The manager
   * will become healthy after all the component services have reached the {@linkplain State#RUNNING
   * running} state.
   *
   * @throws IllegalStateException if the service manager reaches a state from which it cannot
   *     become {@linkplain #isHealthy() healthy}.
   */
  public void awaitHealthy() {

// lattice of a value is changed, we need to update lattices of use. But we don't
// need all uses of it, only uses that can become constants would be added into
// re-visit worklist since no matter how many times they are revisited, uses which
// can't become constants lattice remains unchanged, i.e. Bottom.
func (t *worklist) buildDefUses() {
	for _, block := range t.f.Blocks {
		for _, val := range block.Values {

 * As these phases gradually become more interleaved, we might generalize these states so that the value is "changing" only until its inputs are known and all such inputs have a "fixed" value.
 * A provider whose inputs are only configuration time inputs would become fixed once the configuration of those inputs has completed. A provider whose inputs include a task output would become

  }

  /**
   * Waits for the {@link ServiceManager} to become {@linkplain #isHealthy() healthy}. The manager
   * will become healthy after all the component services have reached the {@linkplain State#RUNNING
   * running} state.
   *
   * @throws IllegalStateException if the service manager reaches a state from which it cannot
   *     become {@linkplain #isHealthy() healthy}.
   */
  public void awaitHealthy() {

// user provided policies accepts it under given constraints), it will become
// a "member" that will participate in the union-find cluster construction.
//
// A block argument can also become a member (or even a root member), however
// only operations will become a part of the outline `tf_device.cluster`, block
// arguments will stay as block arguments, and will later become cluster
// function inputs.
struct Member {

    exit 1
  fi

  timeout=$linux_deployment_timeout
  while [[ $timeout -gt 0 ]]; do
    echo "Waiting for $linux_webserver_replicas Linux $linux_webserver_pod_label pods to become Ready"
    statuses=$(${kubectl} get pods -l app=$linux_webserver_pod_label \
      -o jsonpath='{.items[*].status.conditions[?(@.type=="Ready")].status}' \
      | grep "True" | wc -w)

	// * The new replica set pods crashloop and never become available.
	// * allPodsCount is 13. minAvailable is 8. newRSPodsUnavailable is 5.
	// * A node fails and causes one of the oldRS pods to become unavailable. However, 13 - 8 - 5 = 0, so the oldRS won't be scaled down.
	// * The user notices the crashloop and does kubectl rollout undo to rollback.

  // Build the function type. Region arguments and extern values together
  // become the function arguments, with region arguments going first.
  auto input_types = llvm::to_vector<4>(entry.getArgumentTypes());
  for (auto input : extern_values) input_types.push_back(input.getType());

  // Terminator operands and pass through extern values (if enabled) together
  // become the function return values.

	// First remote pod becomes the leader
	_, stop := createElectionMulticluster(t, "pod1", "", true, false, watcher, true, client)
	// A new local pod should become leader
	_, stop2 := createElectionMulticluster(t, "pod2", "", false, false, watcher, true, client)
	// A new remote pod cannot become leader
	_, stop3 := createElectionMulticluster(t, "pod3", "", true, false, watcher, false, client)
	close(stop3)
	close(stop2)
	close(stop)
}

            .reduce(FileHierarchySet.empty(), FileHierarchySet::plus, nonCombining());
        if (!oldUnwatchableFiles.equals(unwatchableFiles)) {
            // Remove previously unwatchable files, since they may become watchable.
            // If we register a watchable hierarchy, then there mustn't be anything in the VFS at that location.
            newRoot = invalidateUnwatchableHierarchies(newRoot, invalidator, oldUnwatchableFiles);