import org.apache.commons.lang3.StringUtils;

                            public class Hello {
                                public void greet(String name) {
                                    System.out.println("Hello " + StringUtils.capitalize(name));
                                }
                            }
                        ''')

	}
}

// A TreeProof is a verifiable proof that a particular log tree contains
// as a prefix all records present in an earlier tree.
// RFC 6962 calls this a “Merkle consistency proof.”
type TreeProof []Hash

// ProveTree returns the proof that the tree of size t contains
// as a prefix all the records from the tree of smaller size n.
func ProveTree(t, n int64, h HashReader) (TreeProof, error) {

	ipAddressInformer networkingv1alpha1informers.IPAddressInformer
	queue             workqueue.TypedRateLimitingInterface[string]

	internalStopCh chan struct{}

	muTree sync.Mutex
	tree   *iptree.Tree[*Allocator]

	ipFamily api.IPFamily
}

var _ Interface = &MetaAllocator{}

// NewMetaAllocator returns an IP allocator that use the IPAddress
// and ServiceCIDR objects to track the assigned IP addresses,

                @Inject abstract ArchiveOperations getArchiveOperations()

                @TaskAction
                void update() {
                    FileTree tree = archiveOperations.${archiveType}Tree(archive.asFile.get())
                    tree.visit(new EditingFileVisitor())
                }

                private final class EditingFileVisitor implements FileVisitor {
                    @Override

        expect:
        def dirVar = factory.newDirectoryProperty()
        def tree = dirVar.asFileTree

        dirVar.set(dir1)
        tree.files == [file1, file2] as Set

        dirVar.set(dir2)
        tree.files == [file3] as Set

        dirVar.set(dir3)
        tree.files == [] as Set
    }

    def "Directory.files are relative to the directory"() {

     * Asserts that the events form exactly one well-formed trees of operations.
     */
    void assertHasSingleTree() {
        assertHasZeroOrMoreTrees()
        assert !operations.empty
        assert operations[0].descriptor.parent == null

        operations.tail().each { assert it.descriptor.parent != null }
    }

    /**
     * Asserts that the events form a typical tree of operations for a build.
     */

            tasks.register("greet", MyTask) {
                greeting = greetValueSource
            }
        """)

        when:
        configurationCacheRun "greet"

        then:
        configurationCache.assertStateStored()
        output.contains("Hello!")

        when:
        configurationCacheRun "greet"

        then:
        configurationCache.assertStateLoaded()

			}
		} else if usageRatio > 1.0 {
			// on a scale-up, treat missing pods as using 0% of the resource request
			for podName := range missingPods {
				metrics[podName] = metricsclient.PodMetric{Value: 0}
			}
		}
	}

	if scaleUpWithUnready {
		// on a scale-up, treat unready pods as using 0% of the resource request
		for podName := range unreadyPods {

                // Visit the contents of the tree to generate the tree
                if (visitAll(sourceTree)) {
                    fileTrees.add(sourceTree.getMirror());
                }
            }
        });
        return fileTrees;
    }

    /**
     * Visits all the files of the given tree.
     */
    protected static boolean visitAll(FileSystemMirroringFileTree tree) {

					"159.122.219.2": 4,

					// 3 endpoints on network 3, weights split across 2 gateways.
					"159.122.219.3": 3,
					"179.114.119.3": 3,

					// no gateway defined for network 4 - treat as directly reachable.
					"10.4.0.1": 2,
					"10.4.0.2": 2,
					"10.4.0.3": 2,
					"10.4.0.4": 2,
				},
			},
		},
		{