*
 * <ul>
 *   <li>SafeAtomicHelper: uses AtomicReferenceFieldsUpdaters to implement synchronization
 *   <li>SynchronizedHelper: uses {@code synchronized} blocks for synchronization
 * </ul>
 *
 * To force selection of our fallback strategies we load {@link AbstractFuture} (and all of {@code
 * com.google.common.util.concurrent}) in degenerate class loaders which make certain platform

import org.gradle.execution.ProjectConfigurer;
import org.gradle.execution.TaskNameResolver;
import org.gradle.execution.TaskPathProjectEvaluator;
import org.gradle.execution.TaskSelector;
import org.gradle.execution.selection.DefaultBuildTaskSelector;
import org.gradle.initialization.BuildOptionBuildOperationProgressEventsEmitter;
import org.gradle.initialization.exception.DefaultExceptionAnalyser;

    private final ConcurrentMap<ModuleConfigurationMetadata, DefaultConfigurationGraphResolveState> variants = new ConcurrentHashMap<>();

    // The variants to use for variant selection during graph resolution
    private final Lazy<List<? extends VariantGraphResolveState>> allVariantsForGraphResolution;

    // The public view of all selectable variants of this component

			err = multierror.Append(err, e)
		}

		// Cleanup all secrets and configmaps - these are dynamically created by tests and/or istiod so they are not captured above
		// This includes things like leader election locks (allowing next test to start without 30s delay),
		// custom cacerts, custom kubeconfigs, etc.
		// We avoid deleting the whole namespace since its extremely slow in Kubernetes (30-60s+)

		}

		close(handlerSyncReadyCh)
		logger.V(3).Info("Handlers synced")
	}
	if !cc.ComponentConfig.DelayCacheUntilActive || cc.LeaderElection == nil {
		startInformersAndWaitForSync(ctx)
	}
	// If leader election is enabled, runCommand via LeaderElector until done and exit.
	if cc.LeaderElection != nil {
		cc.LeaderElection.Callbacks = leaderelection.LeaderCallbacks{
			OnStartedLeading: func(ctx context.Context) {

import org.gradle.execution.plan.LocalTaskNodeExecutor;
import org.gradle.execution.plan.NodeExecutor;
import org.gradle.execution.plan.PlanExecutor;
import org.gradle.execution.plan.WorkNodeExecutor;
import org.gradle.execution.selection.BuildTaskSelector;
import org.gradle.execution.taskgraph.DefaultTaskExecutionGraph;
import org.gradle.execution.taskgraph.TaskExecutionGraphInternal;
import org.gradle.execution.taskgraph.TaskListenerInternal;

// In any failure to parse given object, it returns error.
type AttrFunc func(obj runtime.Object) (labels.Set, fields.Set, error)

// FieldMutationFunc allows the mutation of the field selection fields.  It is mutating to
// avoid the extra allocation on this common path
type FieldMutationFunc func(obj runtime.Object, fieldSet fields.Set) error

        when:
        run ':a:checkRelease'

        then:
        result.assertTasksExecuted(':b:barJar', ':a:checkRelease')
    }

    def "explicit configuration selection should take precedence"() {
        given:
        createDirs("a", "b")
        file('settings.gradle') << "include 'a', 'b'"
        buildFile << """
            $typeDefs

            project(':a') {

        where:
        changeDesc                                   | changeArg
        "a new external dependency"                  | "-DexternalDependency=true"
        "changing selection reasons"                 | "-DselectionReason=changed"
        "changing project library variant metadata"  | "-DprojectLibAttrValue=new-value"
        "changing included library variant metadata" | "-DcompositeLibAttrValue=new-value"

            if (reselectVariants) {
                return viewAttributes;
            }

            // Otherwise, artifact views without re-selection are based on the original request attributes.
            return attributesFactory.concat(baseAttributes, viewAttributes);
        }
    }