public class DefaultTransformNodeDependency implements TransformNodeDependency {
    private final Collection<TransformStepNode> nodes;

    public DefaultTransformNodeDependency(Collection<TransformStepNode> nodes) {
        this.nodes = nodes;
    }

    public Collection<TransformStepNode> getNodes() {
        return nodes;
    }

		}
	}

	return nil
}

// Untaint nodes if the test failed, so we restore the cluster to a usable state.
func untaintNodes(t resource.Context) {
	nodeC := t.Clusters().Default().
		Kube().CoreV1().Nodes()
	nodes, err := nodeC.List(context.TODO(), metav1.ListOptions{})
	if err != nil {
		// TODO: log
		return
	}

	for _, node := range nodes.Items {
		var taints []corev1.Taint

// Rewrites computations generated by the xla.compile() Python code into
// XlaLaunch nodes.
//
// xla.compile() does two main things:
// a) marks operators that make up an XLA computation with the attribute
//    _xla_compile_id=XYZ, where XYZ is a unique key.
// b) adds XlaClusterOutput nodes to represent outputs of the computation.
//    These nodes are not marked with the _xla_compile_id attribute.

    author: Union[Author, None] = None


class Replies(BaseModel):
    nodes: List[CommentsNode]


class DiscussionsCommentsNode(CommentsNode):
    replies: Replies


class Comments(BaseModel):
    nodes: List[CommentsNode]


class DiscussionsComments(BaseModel):
    nodes: List[DiscussionsCommentsNode]


class DiscussionsNode(BaseModel):
    number: int

	return nil
}

// CompareNodes compares actual nodes with cached nodes.
func (c *CacheComparer) CompareNodes(nodes []*v1.Node, nodeinfos map[string]*framework.NodeInfo) (missed, redundant []string) {
	actual := []string{}
	for _, node := range nodes {
		actual = append(actual, node.Name)
	}

	cached := []string{}
	for nodeName := range nodeinfos {
		cached = append(cached, nodeName)
	}

	return compareStrings(actual, cached)
}

    void applyToSelf(ModelActionRole type, ModelAction action);

    /**
     * Applies an action to all linked nodes of this node that satisfy the given predicate.
     *
     * The predicate and the type returned by {@link ModelAction#getSubject()} are both used to filter the nodes,
     * such that the action is applied only to those linked nodes with a view of the requested type available that
     * also satisfy the predicate.
     */

    assertThat(graph.nodes()).contains(N1);
  }

  @Test
  public void addNode_existingNode() {
    assume().that(graphIsMutable()).isTrue();

    addNode(N1);
    ImmutableSet<Integer> nodes = ImmutableSet.copyOf(graph.nodes());
    assertThat(graphAsMutableGraph.addNode(N1)).isFalse();
    assertThat(graph.nodes()).containsExactlyElementsIn(nodes);
  }

  @Test

            return cl.call()
        }
    }

    def format(Node... nodes) {
        format(nodes as List)
    }

    def formatTree(Node... nodes) {
        formatTree(nodes as List)
    }

    def formatTree(Iterable<? extends Node> nodes) {
        format(nodes, true)
    }

    def format(Iterable<? extends Node> nodes, boolean prettyPrint = false) {
        StringBuilder builder = new StringBuilder()

	// repeatedly, until there are no nodes left.
	// In a valid Go program, those nodes always have zero dependencies (after
	// removing all incoming dependencies), otherwise there are initialization
	// cycles.
	emitted := make(map[*declInfo]bool)
	for len(pq) > 0 {
		// get the next node
		n := heap.Pop(&pq).(*graphNode)

		if debug {
			fmt.Printf("\t%s (src pos %d) depends on %d nodes now\n",

	// repeatedly, until there are no nodes left.
	// In a valid Go program, those nodes always have zero dependencies (after
	// removing all incoming dependencies), otherwise there are initialization
	// cycles.
	emitted := make(map[*declInfo]bool)
	for len(pq) > 0 {
		// get the next node
		n := heap.Pop(&pq).(*graphNode)

		if debug {
			fmt.Printf("\t%s (src pos %d) depends on %d nodes now\n",