}

  @SuppressWarnings("unchecked") // The declaring class is T's raw class, or one of its supertypes.
  @Override
  public final Class<? super T> getDeclaringClass() {
    return (Class<? super T>) member.getDeclaringClass();
  }

  /** Returns the type of {@code T}. */
  // Overridden in TypeToken#method() and TypeToken#constructor()
  @SuppressWarnings("unchecked") // The declaring class is T.
  public TypeToken<T> getOwnerType() {

  }

  @SuppressWarnings("unchecked") // The declaring class is T's raw class, or one of its supertypes.
  @Override
  public final Class<? super T> getDeclaringClass() {
    return (Class<? super T>) member.getDeclaringClass();
  }

  /** Returns the type of {@code T}. */
  // Overridden in TypeToken#method() and TypeToken#constructor()
  @SuppressWarnings("unchecked") // The declaring class is T.
  public TypeToken<T> getOwnerType() {

  /**
   * Get the full set of requirements for a tester class.
   *
   * @param testerMethod a test method of a tester class
   * @return all the constraints implicitly or explicitly required by the method, its declaring
   *     class, or any of its superclasses.
   * @throws ConflictingRequirementsException if the requirements are mutually inconsistent.
   */
  public static TesterRequirements getTesterRequirements(Method testerMethod)

  /**
   * Get the full set of requirements for a tester class.
   *
   * @param testerMethod a test method of a tester class
   * @return all the constraints implicitly or explicitly required by the method, its declaring
   *     class, or any of its superclasses.
   * @throws ConflictingRequirementsException if the requirements are mutually inconsistent.
   */
  public static TesterRequirements getTesterRequirements(Method testerMethod)

     * This method will look for a method with same name
     * and signature declared in a public superclass or implemented interface of this
     * method's declaring class. This counterpart method is publicly callable.
     *
     * @param method a method whose publicly callable counterpart is requested.
     * @return the publicly callable counterpart method. Note that if the parameter

        }

        where:
        mechanism << SystemPropertyInjection.all("CI", "false")
    }

    def "build logic can read system property with no value without declaring access and loading fails when value set using #mechanism.description"() {
        file("buildSrc/src/main/java/SneakyPlugin.java") << """
            import ${Project.name};
            import ${Plugin.name};

The first one is important for both configuration cache instrumentation and API upgrades while the second one is used just for API upgrades. 
Collecting the Gradle API type hierarchy is fully automatic, while declaring interceptors have to be done by Gradle developers. 

```mermaid
flowchart TB
    api[[Gradle API]] --> transform{{"Gradle API type\nhierarchy collector\n(Artifact transform)"}}

	labels map[string]*label // all label declarations inside the function; allocated lazily
}

type label struct {
	parent *block       // block containing this label declaration
	lstmt  *LabeledStmt // statement declaring the label
	used   bool         // whether the label is used or not
}

type block struct {
	parent *block       // immediately enclosing block, or nil
	start  Pos          // start of block

        assertThat(projects, hasItem(pluginProject));
        assertThat(projects, hasItem(pluginLevelDepProject));

        // the declaring project MUST be listed after the plugin and its plugin-level dep, though.
        assertEquals(declaringProject, projects.get(3));
    }

    @Test

		return m.Run()
	}

	cwd, err := os.Getwd()
	if err != nil {
		log.Fatal(err)
	}
	goroot = filepath.Join(cwd, "../../../../..")

	// Copy testdata into GOPATH/src/testplugin, along with a go.mod file
	// declaring the same path.

	GOPATH, err := os.MkdirTemp("", "plugin_test")
	if err != nil {
		log.Panic(err)
	}
	defer os.RemoveAll(GOPATH)
	tmpDir = GOPATH
	fmt.Printf("TMPDIR=%s\n", tmpDir)