this.type = type;
            this.dispatch = dispatch;
        }

        @Override
        public Object invoke(Object target, Method method, Object[] parameters) throws Throwable {
            if (method.getName().equals("equals")) {
                Object parameter = parameters[0];
                if (parameter == null || !Proxy.isProxyClass(parameter.getClass())) {

    // we create a test suite containing a test for every AbstractFutureTest test method and we
    // set it as the name of the test.  Then in runTest we can reflectively load and invoke the
    // corresponding method on AbstractFutureTest in the correct classloader.
    TestSuite suite = new TestSuite(AbstractFutureFallbackAtomicHelperTest.class.getName());
    for (Method method : AbstractFutureTest.class.getDeclaredMethods()) {

no\ classes\ should\ call\ method\ RoleBasedConfigurationContainerInternal.resolvableDependencyScopeUnlocked(String)\ or\ should\ call\ method\ RoleBasedConfigurationContainerInternal.resolvableDependencyScopeUnlocked(String,\ Action)\ or\ should\ call\ method\ RoleBasedConfigurationContainerInternal.maybeCreateResolvableUnlocked(String)\ or\ should\ call\ method\ RoleBasedConfigurationContainerInternal.maybeCreateConsumableUnlocked(String)\ or\...

package p

import "io"

// A "duplicate method" error should be reported for
// all these interfaces, irrespective of which package
// the embedded Reader is coming from.

type _ interface {
	Reader
	Reader // ERROR "duplicate method Read"
}

type Reader interface {
	Read(p []byte) (n int, err error)
}

type _ interface {
	io.Reader
	Reader // ERROR "duplicate method Read"
}

type _ interface {
	io.Reader

							<className>**</className>
							<differenceType>7006</differenceType>
							<method>*</method>
							<from>*</from>
							<to>*</to>
						</difference>
						<difference>
							<className>jcifs/Configuration</className>
							<differenceType>7012</differenceType>
							<method>boolean isSendNTLMTargetName()</method>
						</difference>

						<difference>

     * <p>
     * When invoked on a property with no value, this method first sets the value
     * of the property to its current convention value, if set, or an empty map.
     * </p>
     * <p>Even if the given provider has no value, after this method is invoked,
     * the actual value of this property is guaranteed to be present.</p>
     *
     * @param key the key

) : DynamicObject {
    override fun hasMethod(name: String, vararg arguments: Any?): Boolean {
        onAccess(MemberKind.METHOD, name)
        return delegate.hasMethod(name, *arguments)
    }

    override fun tryInvokeMethod(name: String, vararg arguments: Any?): DynamicInvokeResult {
        onAccess(MemberKind.METHOD, name)
        return delegate.tryInvokeMethod(name, *arguments)
    }

    @Requires(
        value = IntegTestPreconditions.NotIsolatedProjects,
        reason = "Exercises IP incompatible behavior: Groovy method inheritance"
    )
    def "inherited convention method is preferred over property with closure value"() {
        given:
        createDirs("child")
        settingsFile << "include 'child'"
        buildFile """
class ContactConvention {

    }

    def "succeeds when registering a service via #method in the correct scope in strict mode"() {
        given:
        def registry = strictScopedRegistry(Scope.BuildTree)

        when:
        registration(registry)
        registry.get(BuildTreeScopedServiceInterface) != null

        then:
        noExceptionThrown()

        where:
        method     | registration

	fmt.Printf("Method set of %s:\n", styp)
	fmt.Println(types.NewMethodSet(styp))

	// Output:
	// Method set of temperature.Celsius:
	// method (temperature.Celsius) String() string
	//
	// Method set of *temperature.Celsius:
	// method (*temperature.Celsius) SetF(f float64)
	// method (*temperature.Celsius) String() string
	//
	// Method set of temperature.S:
	// MethodSet {}
}