MethodMetaData methodA = method('a', classMetaData)
        MethodMetaData methodB = method('b', classMetaData)
        MethodMetaData methodBOverload = method('b', classMetaData)
        MethodDoc methodAOverridden = methodDoc('a')
        MethodDoc methodC = methodDoc('c')
        MethodDoc methodD = methodDoc('d')
        MethodDoc methodE = methodDoc('e')

import java.lang.annotation.Target;

/**
 * Marks a method as an event subscriber.
 *
 * <p>The type of event will be indicated by the method's first (and only) parameter, which cannot
 * be primitive. If this annotation is applied to methods with zero parameters, or more than one
 * parameter, the object containing the method will not be able to register for event delivery from
 * the {@link EventBus}.
 *

     * Returns the method.
     *
     * @return the method
     */
    Method getMethod();

    /**
     * Returns the method name.
     *
     * @return the method name
     */
    String getMethodName();

    /**
     * Returns an array of the method's parameter types.
     *
     * @return an array of the method's parameter types
     */
    Class<?>[] getParameterTypes();

    /**

import java.lang.annotation.Target;

/**
 * Marks a method as an event subscriber.
 *
 * <p>The type of event will be indicated by the method's first (and only) parameter, which cannot
 * be primitive. If this annotation is applied to methods with zero parameters, or more than one
 * parameter, the object containing the method will not be able to register for event delivery from
 * the {@link EventBus}.
 *

   *
   * <p>Unlike the other {@code EndpointPair}-accepting methods, this method does not throw if the
   * endpoints are unordered; it simply returns false. This is for consistency with the behavior of
   * {@link Collection#contains(Object)} (which does not generally throw if the object cannot be
   * present in the collection), and the desire to have this method's behavior be compatible with
   * {@code edges().contains(endpoints)}.
   *

    for (int i = 0; i < methods.length; i++) {
      try {
        methods[i] = type.getMethod(methods[i].getName(), methods[i].getParameterTypes());
      } catch (Exception e) {
        throwIfUnchecked(e);
        throw new RuntimeException(e);
      }
    }
    return methods;
  }

  private static <T> void testSuccessfulForwarding(

            Collection<MethodMetaData> methods = classDoc.getClassMetaData().findDeclaredMethods(methodName);
            if (methods.isEmpty()) {
                throw new RuntimeException(String.format("No metadata for method '%s.%s()'. Available methods: %s", classDoc.getName(), methodName, classDoc.getClassMetaData().getDeclaredMethodNames()));
            }
            for (MethodMetaData method : methods) {

@DisplayName("NetbiosName Tests")
class NetbiosNameTest extends BaseTest {

    @Mock
    private NetbiosName mockNetbiosName;

    @Test
    @DisplayName("Should define interface methods")
    void testNetbiosNameInterface() {
        // Verify interface methods exist
        try {
            assertNotNull(NetbiosName.class.getMethod("getName"));
            assertNotNull(NetbiosName.class.getMethod("getScope"));

    checkState(method == null);
    Method[] methods = getClass().getMethods();
    Arrays.sort(
        methods,
        new Comparator<Method>() {
          @Override
          public int compare(Method a, Method b) {
            return a.getName().compareTo(b.getName());
          }
        });
    for (Method method : methods) {
      if (method.isAnnotationPresent(TestSubtype.class)) {

            method = method.substring(0, method.length() - 4) + "[])";
        }

        MethodLinkMetaData metaData = methods.get(method);
        if (metaData != null) {
            return metaData;
        }

        List<MethodLinkMetaData> candidates = new ArrayList<MethodLinkMetaData>();
        for (MethodLinkMetaData methodLinkMetaData : methods.values()) {
            if (methodLinkMetaData.name.equals(method)) {