}
    ClassPath classPath = ClassPath.from(getClass().getClassLoader());
    // ClassPath may contain resources from the boot class loader; just not from the class path.
    for (ResourceInfo resource : classPath.getResources()) {
      assertThat(resource.getResourceName()).doesNotContain("com/google/common/reflect/");
    }
  }

  private static ClassPath.ClassInfo findClass(

buildscript {
  dependencies {
    classpath(libs.gradlePlugin.dokka)
    classpath(libs.gradlePlugin.kotlin)
    classpath(libs.gradlePlugin.kotlinSerialization)
    classpath(libs.gradlePlugin.androidJunit5)
    classpath(libs.gradlePlugin.android)
    classpath(libs.gradlePlugin.graal)
    classpath(libs.gradlePlugin.bnd)
    classpath(libs.gradlePlugin.shadow)
    classpath(libs.gradlePlugin.animalsniffer)

        res = transform.transform(graph, ArtifactScopeEnum.compile, false);

        assertNotNull(res, "null classpath container after compile transform");
        assertNotNull(res.getClasspath(), "null classpath after compile transform");
        assertEquals(3, res.getClasspath().size(), "compile classpath should have 3 entries");
    }

    // ------------------------------------------------------------------------------------------

     * Whether the artifact should be added to the classpath depends on other
     * dependency properties.
     *
     * @return if the artifact can be added to the class path
     *
     * @deprecated A value of {@code true} does not mean that the dependency should
     * be placed on the classpath. See {@code JavaPathType} instead for better analysis.

    private Collection<String> toScopes(String classpath) {
        Collection<String> scopes = Collections.emptyList();

        if (classpath != null && !classpath.isEmpty()) {
            if (Artifact.SCOPE_COMPILE.equals(classpath)) {
                scopes = Arrays.asList(Artifact.SCOPE_COMPILE, Artifact.SCOPE_SYSTEM, Artifact.SCOPE_PROVIDED);
            } else if (Artifact.SCOPE_RUNTIME.equals(classpath)) {

       changes with every test execution, such that running the test
       actually changes the test classpath itself. This means that it
       can"t benefit from incremental build acceleration, because on every
       execution it sees that the classpath has changed, and so to be
       safe, it needs to re-run.

       - This is unfortunate, because actually it would be safe to declare

         * Only kill local Gradle processes (classpath in checkout directory).
         * Not clean up global Gradle processes (i.e. classpath in ~/.gradle/...).
         */
        KILL_LEAKED_PROCESSES_FROM_PREVIOUS_BUILDS,
        /**
         * Run at the end of each build. Kill potentially leaked processes in the current build.
         * Only kill local Gradle processes (classpath in checkout directory).

        DEPENDENCY_GRAPH_EXCLUDE_CONFIGURATIONS: 'ktlint|checkstyle|.*[Tt]est(Compile|Runtime)Classpath|.*[Tt]estImplementationDependenciesMetadata|.*[Tt]estFixtures(Compile|Runtime)Classpath|.*[Tt]estFixturesImplementationDependenciesMetadata'...

    for (path in fileSystem.list(directory)) {
      deployFile(path)
    }
  }

  private fun RepositoryPlugin.deployClassPath() {
    val classpath = System.getProperty("java.class.path")
    val entries =
      classpath.split(File.pathSeparator.toRegex())
        .dropLastWhile { it.isEmpty() }
        .toTypedArray()
    for (classPathEntry in entries) {
      deployFile(classPathEntry.toPath())

import org.apache.maven.artifact.resolver.DefaultArtifactResolver;

@Named("classpath")
@Singleton
@Deprecated
public class TestArtifactResolver extends DefaultArtifactResolver {
    private ArtifactMetadataSource source;

    @Inject
    public TestArtifactResolver(final @Named("classpath") ArtifactMetadataSource source) {
        this.source = source;
    }