/**
     * Finds the parent symbol of the given [KaSymbol] by traversing back up the symbol hierarchy a certain number of steps,
     * or until the containing class or object symbol is found.
     *
     * @param symbol The [KaSymbol] whose parent symbol needs to be found.
     * @param goBackSteps The number of steps to go back up the symbol hierarchy.
     * @param selectedFqName The fully qualified name of the selected package.

	}

	return out, nil
}

// Resources defines a tree of cluster resource names.
type Resources struct {
	// Root is the first level in the cluster resource hierarchy.
	// Each level in the hierarchy is a map[string]interface{} to the next level.
	// The levels are: namespaces/deployments/pods/containers.
	Root map[string]any
	// Labels maps a pod name to a map of labels key-values.

        this.getEventRegister().registerLazyAddAction(x -> rootComponentMetadataBuilder.getValidator().validateMutation(MutationValidator.MutationType.HIERARCHY));
        this.whenObjectRemoved(x -> rootComponentMetadataBuilder.getValidator().validateMutation(MutationValidator.MutationType.HIERARCHY));
    }

    @Override
    @SuppressWarnings("deprecation")
    protected Configuration doCreate(String name) {

	podContainerName, _ := m.GetPodContainerName(pod)
	return m.cgroupManager.Exists(podContainerName)
}

// EnsureExists takes a pod as argument and makes sure that
// pod cgroup exists if qos cgroup hierarchy flag is enabled.
// If the pod level container doesn't already exist it is created.
func (m *podContainerManagerImpl) EnsureExists(pod *v1.Pod) error {
	// check if container already exist
	alreadyExists := m.Exists(pod)

		// Register current phase as part of its own parent hierarchy
		parent := p.parent
		for parent != nil {
			phaseHierarchy[parent.generatedName] = append(phaseHierarchy[parent.generatedName], p.generatedName)
			parent = parent.parent
		}
		return nil
	})

	// If a filter option is specified, set all phaseRunFlags to false except for
	// the phases included in the filter and their hierarchy of nested phases.

            // A normal gradle build does this by adding the MixInLegacyTypesClassLoader to the class loader hierarchy.
            // In a test run, which is essentially a plain Java application, the classpath is flattened and injected
            // into the system class loader and there exists no Gradle class loader hierarchy in the running test. (See Implementation

        json.replace('"formatVersion": "1.1"', '"formatVersion": "' + metadataVersion + '"')
    }

    def "new hierarchy in ModuleDependency is added to equals and hashcode"() {
        when:
        // If this test fails, you added a type hierarchy to GradleModuleMetadataParser.ModuleDependency, update this test _after_ making sure it is considered by hashcode and equals

        given:
        dependency "org.test:buildB:1.0"
        dependency "org.test:buildC:1.0"

        def buildC = file("hierarchy", "buildB")
        buildC.file('settings.gradle') << """
            rootProject.name = 'buildC'
"""
        buildC.file('build.gradle') << """
            apply plugin: 'java'
            apply plugin: 'idea'

	}

	// since we use this container for accounting, we need to ensure its a unified hierarchy.
	if cpu != memory {
		return "", fmt.Errorf("cpu and memory cgroup hierarchy not unified.  cpu: %s, memory: %s", cpu, memory)
	}

	// on systemd, every pid is in a unified cgroup hierarchy (name=systemd as seen in systemd-cgls)

#### Figure 2 - KMS key hierarchy

```
                                                          CMK (master key)
                                                           |