import org.jetbrains.kotlin.load.kotlin.PackagePartProvider

public abstract class KotlinPackagePartProviderFactory : KotlinPlatformComponent {
    /**
     * Create a [PackagePartProvider] for a given scope. [PackagePartProvider] is responsible for searching sub packages in a library.
     */
    public abstract fun createPackagePartProvider(scope: GlobalSearchScope): PackagePartProvider

    public companion object {

 * See the License for the specific language governing permissions and
 * limitations under the License.
 */

package org.gradle.internal.buildtree;

import javax.annotation.Nullable;

/**
 * Responsible for creating a model from the build tree model.
 */
public interface BuildTreeModelCreator {
    <T> void beforeTasks(BuildTreeModelAction<? extends T> action);

    @Nullable

import org.gradle.internal.service.scopes.Scope;
import org.gradle.internal.service.scopes.ServiceScope;

/**
 * Marker interface that can be used to obtain the action executor responsible for actually running builds.
 */
@ServiceScope(Scope.Global.class)
public interface BuildExecutor extends BuildActionExecutor<BuildActionParameters, BuildRequestContext> {

import org.gradle.internal.service.ServiceRegistration;
import org.gradle.internal.service.scopes.AbstractGradleModuleServices;

/**
 * Service registration entry point for the Problems API.
 * <p>
 * This class is responsible registering all service providers for the Problems API.
 * See the {@code META-INF/services} directory to find the respective metadata file triggering the DI framework to load this class.
 */

public interface GradleUserHomeScopeServiceRegistry {
    /**
     * Locates the shared services to use for the given Gradle user home dir. The returned registry also includes global services.
     *
     * <p>The caller is responsible for releasing the registry when it is finished using it by calling {@link #release(ServiceRegistry)}.</p>
     */
    ServiceRegistry getServicesFor(File gradleUserHomeDir);

    /**

		// pod is unmounted from the first pod before being mounted to the new
		// pod.
		rc.unmountVolumes()
	}

	// Next we mount required volumes. This function could also trigger
	// attach if kubelet is responsible for attaching volumes.
	// If underlying PVC was resized while in-use then this function also handles volume
	// resizing.
	rc.mountOrAttachVolumes()

import org.gradle.tooling.provider.model.UnknownModelException
import org.gradle.tooling.provider.model.internal.ToolingModelParameterCarrier
import org.gradle.util.Path


/**
 * Responsible for loading and storing intermediate models used during tooling API build action execution.
 */
internal
class IntermediateModelController(
    private val host: DefaultConfigurationCache.Host,

import java.util.Enumeration;
import java.util.Iterator;
import java.util.zip.ZipFile;

public class FileZipInput implements ZipInput {

    /**
     * Creates a stream of the entries in the given zip file. Caller is responsible for closing the return value.
     *
     * @throws FileException on failure to open the Zip
     */
    public static ZipInput create(File file) throws FileException {
        if (isZipFileSafeToUse()) {

		opts.MeshWatcher = mesh.NewFixedWatcher(&meshconfig.MeshConfig{TrustDomain: "cluster.local"})
	}
	cleanupStop := false
	stop := opts.Stop
	if stop == nil {
		// If we created the stop, clean it up. Otherwise, caller is responsible
		cleanupStop = true
		stop = make(chan struct{})
	}
	f := namespace.NewDiscoveryNamespacesFilter(
		kclient.New[*corev1.Namespace](opts.Client),
		opts.MeshWatcher,
		stop,
	)

		// that cannot be closed by the user.
		// This also alleviates us from concerns about the
		// lifetime and finalization of f.
		// (DupCloseOnExec returns an fd, not a *File, so
		// there is no finalizer, and we are responsible for
		// closing it.)
		//
		// The new fd must be close-on-exec, otherwise if the
		// crash monitor is a child process, it may inherit
		// it, so it will never see EOF from the pipe even