return visitState;
    }

    public void setVisitState(DependencyGraphBuilder.VisitState visitState) {
        this.visitState = visitState;
    }

    public List<NodeState> getNodes() {
        return nodes;
    }

    public ModuleResolveState getModule() {
        return module;
    }

    public void selectAndRestartModule() {
        module.replaceWith(this);
    }

                // of the platform was discovered. In this case, we need to restart the selection,
                // or some members will not be upgraded
                for (NodeState nodeState : selected.getNodes()) {
                    nodeState.markForVirtualPlatformRefresh();
                }
            }
            hasForcedParticipatingModule |= isParticipatingModuleForced(state);
        }
    }

    @Nullable

    /**
     * Returns the nodes from a subgraph that are of the given or lower detail level
     * (lower if the requested detail level is higher than the available detail level).
     */
    public List<? extends PlannedNode> getNodes(DetailLevel detailLevel) {
        if (detailLevel.level >= this.detailLevel.level) {
            return plannedNodes;
        }

        return computePlan(detailLevel);
    }

        assertNotNull(result);
        List<Dependency> deps = new ArrayList<>(result.getDependencies().keySet());
        List<Dependency> deps2 = result.getNodes().stream()
                .map(Node::getDependency)
                .filter(Objects::nonNull)
                .collect(Collectors.toList());
        assertEquals(deps, deps2);
        for (Dependency dep : deps2) {

				respDevs = append(respDevs, &podresourcesapi.ContainerDevices{
					ResourceName: resourceName,
					DeviceIds:    []string{devID},
				})
				continue
			}

			for _, node := range topo.GetNodes() {
				respDevs = append(respDevs, &podresourcesapi.ContainerDevices{
					ResourceName: resourceName,
					DeviceIds:    []string{devID},
					Topology: &podresourcesapi.TopologyInfo{

            componentState.setState(state, graphState);
        }
        return componentState;
    }

    public Collection<NodeState> getNodes() {
        return nodes.values();
    }

    public NodeState getNode(ComponentState component, VariantGraphResolveState variant, boolean selectedByVariantAwareResolution) {

				if numaid != nodeWithoutTopology {
					NUMANodes := []*pluginapi.NUMANode{{ID: numaid}}
					if pDev, ok := devicePluginMap[devID]; ok && pDev.Topology != nil {
						if nodes := pDev.Topology.GetNodes(); nodes != nil {
							NUMANodes = append(NUMANodes, nodes...)
						}
					}

					// ID and Healthy are not relevant here.
					topology = &pluginapi.TopologyInfo{Nodes: NUMANodes}
				}

    public List<Exception> getExceptions() {
        return exceptions;
    }

    @Override
    public Node getRoot() {
        return root;
    }

    @Override
    public List<Node> getNodes() {
        return nodes;
    }

    @Override
    public List<Path> getPaths() {
        return paths;
    }

    @Override
    public Map<PathType, List<Path>> getDispatchedPaths() {

    rewriter.setInsertionPointToStart(func.addEntryBlock());
    auto executor_graph =
        rewriter.create<tf_executor::GraphOp>(loc, func_type.getResults());
    rewriter.inlineRegionBefore(graph.getNodes(), executor_graph.getBody(),
                                executor_graph.getBody().end());

    // Add terminator of tf_executor::graph
    rewriter.setInsertionPointToEnd(&executor_graph.getBody().front());

	client.pools = make([]int, len(p))
	copy(client.pools, p)
}

// newPeerS3Clients creates new peer clients.
func newPeerS3Clients(endpoints EndpointServerPools) (peers []peerS3Client) {
	nodes := endpoints.GetNodes()
	peers = make([]peerS3Client, len(nodes))
	for i, node := range nodes {
		if node.IsLocal {
			peers[i] = &localPeerS3Client{node: node}
		} else {
			peers[i] = newPeerS3Client(node)
		}