* Prefer returning {@code null} instead of the {@code classfileBuffer} to continue loading the original bytecode.
     * <p>
     * Throwing the exception from this method aborts the transformation but doesn't affect class loading. The caller
     * (the agent) will catch all throwables thrown by this method and forward them to {@link #transformFailed(String, Throwable)}.
     * <p>

        );
    }

    /**
     * Add a dependency or dependency constraint.
     *
     * <p>
     * Unfortunately, this method cannot be split into two methods, one for {@link Dependency} and one for {@link DependencyConstraint},

        }

        return taskActionFactory;
    }

    private static class StandardTaskActionFactory implements TaskActionFactory {
        private final Class<? extends Task> taskType;
        private final Method method;

        public StandardTaskActionFactory(Class<? extends Task> taskType, Method method) {
            this.taskType = taskType;
            this.method = method;
        }

 * <p>
 * The deprecateX methods in this class return a builder that guides creation of the deprecation message.
 * Summary is populated by the deprecateX methods in this class.
 * Context can be added in free text using {@link DeprecationMessageBuilder#withContext(String)}.
 * Advice is constructed contextually using {@link DeprecationMessageBuilder.WithReplacement#replaceWith(Object)} methods based on the thing being deprecated.

    for (Method method : getInstanceMethodsToTest(instance.getClass(), minimalVisibility)) {
      testMethod(instance, method);
    }
  }

  ImmutableList<Method> getInstanceMethodsToTest(Class<?> c, Visibility minimalVisibility) {
    ImmutableList.Builder<Method> builder = ImmutableList.builder();
    for (Method method : minimalVisibility.getInstanceMethods(c)) {

			//
			// In this case the interface will not be substituted here, because its
			// method signatures do not depend on the type parameter P, but we still
			// need to create new interface methods to hold the instantiated
			// receiver. This is handled by Named.expandUnderlying.
			iface.methods, _ = replaceRecvType(methods, t, iface)

			// If check != nil, check.newInterface will have saved the interface for later completion.

}

func (check *Checker) collectMethods(obj *TypeName) {
	// get associated methods
	// (Checker.collectObjects only collects methods with non-blank names;
	// Checker.resolveBaseTypeName ensures that obj is not an alias name
	// if it has attached methods.)
	methods := check.methods[obj]
	if methods == nil {
		return
	}
	delete(check.methods, obj)

The property getter method must be `public` or `protected`. The method can be `abstract` or, in cases where this isn't possible, can have a dummy method body.
The method body is discarded.

Here is an example that shows a task type that receives a two services via property getter methods:

====

// A Func represents a declared function, concrete method, or abstract
// (interface) method. Its Type() is always a *Signature.
// An abstract method may belong to many interfaces due to embedding.
type Func struct {
	object
	hasPtrRecv_ bool  // only valid for methods that don't have a type yet; use hasPtrRecv() to read

    for (Method method : getInstanceMethodsToTest(instance.getClass(), minimalVisibility)) {
      testMethod(instance, method);
    }
  }

  ImmutableList<Method> getInstanceMethodsToTest(Class<?> c, Visibility minimalVisibility) {
    ImmutableList.Builder<Method> builder = ImmutableList.builder();
    for (Method method : minimalVisibility.getInstanceMethods(c)) {