// Fow now we only support operations which are encoded
	// using a single 2-byte node, so the number of nodes
	// is the number of operations.
	nodes := uint8(2)
	buf := newsehbuf(ctxt, nodes)
	buf.write8(flags | 1)            // Flags + version
	buf.write8(uint8(movbp.Link.Pc)) // Size of prolog
	buf.write8(nodes)                // Count of nodes
	buf.write8(SEH_REG_BP)           // FP register

	// expected to be a subset of the supplied list.
	// The failedNodes and failedAndUnresolvableNodes optionally contains the list
	// of failed nodes and failure reasons, except nodes in the latter are
	// unresolvable.
	Filter(pod *v1.Pod, nodes []*NodeInfo) (filteredNodes []*NodeInfo, failedNodesMap extenderv1.FailedNodesMap, failedAndUnresolvable extenderv1.FailedNodesMap, err error)

    }

    private Map<String, Long> getUniqueIdsPerColor() {
        transformStepIdentities.collectEntries { color, identities ->
            def nodeIds = (identities*.transformStepNodeId as Set<Long>)
            [(color): Iterables.getOnlyElement(nodeIds)]
        }
    }

    private Map<String, List<Map<String, ?>>> getTransformStepIdentities() {

    }

    public Set<Task> getTasks() {
        return nodes.keySet();
    }

    @Nullable
    public TaskNode getNode(Task task) {
        return nodes.get(task);
    }

    public TaskNode getOrCreateNode(Task task) {
        TaskNode node = nodes.get(task);
        if (node == null) {

		{
			name:    "node list is empty",
			nodes:   &v1.NodeList{},
			want:    map[string][]string{},
			wantErr: false,
		},
	}
	for _, tt := range tests {
		client := clientsetfake.NewSimpleClientset()
		t.Run(tt.name, func(t *testing.T) {
			for _, node := range tt.nodes.Items {
				err := client.Tracker().Create(schema.GroupVersionResource{Version: "v1", Resource: "nodes"}, &node, "")
				if err != nil {

					label.TopologySubzone.Name: loc.SubZone,
				}},
				Spec:   v1.NodeSpec{},
				Status: v1.NodeStatus{},
			})
			nodes := kclient.New[*v1.Node](fc)
			fc.RunAndWait(test.NewStop(t))
			cc := &Controller{
				nodes:       nodes,
				meshWatcher: mesh.NewFixedWatcher(mesh.DefaultMeshConfig()),
				networkManager: &networkManager{
					clusterID: c.ctl.cluster,
					network:   c.ctl.network,

	"k8s.io/kubernetes/pkg/controller"

	"k8s.io/klog/v2"
)

// Controller sets ttl annotations on nodes, based on cluster size.
type Controller struct {
	kubeClient clientset.Interface

	// nodeStore is a local cache of nodes.
	nodeStore listers.NodeLister

	// Nodes that need to be synced.
	queue workqueue.TypedRateLimitingInterface[string]

	// Returns true if all underlying informers are synced.

// symbol.
type huffmanTree struct {
	// nodes contains all the non-leaf nodes in the tree. nodes[0] is the
	// root of the tree and nextNode contains the index of the next element
	// of nodes to use when the tree is being constructed.
	nodes    []huffmanNode
	nextNode int
}

// A huffmanNode is a node in the tree. left and right contain indexes into the
// nodes slice of the tree. If left or right is invalidNodeValue then the child

// More specific verb/resource is set for the following request patterns:
//
//	/stats/*   => verb=<api verb from request>, resource=nodes, name=<node name>, subresource=stats
//	/metrics/* => verb=<api verb from request>, resource=nodes, name=<node name>, subresource=metrics
//	/logs/*    => verb=<api verb from request>, resource=nodes, name=<node name>, subresource=log

  // +optional
  optional Overhead overhead = 3;

  // scheduling holds the scheduling constraints to ensure that pods running
  // with this RuntimeClass are scheduled to nodes that support it.
  // If scheduling is nil, this RuntimeClass is assumed to be supported by all
  // nodes.
  // +optional
  optional Scheduling scheduling = 4;
}

// RuntimeClassList is a list of RuntimeClass objects.
message RuntimeClassList {