protected PsmMethodAction(Class c, String m, Class[] argArray) {
// This prevents IllegalAccessExceptions when attempting to
// invoke methods on a class that is in another package and not
// defined 'public'.
if (!Modifier.isPublic(c.getModifiers())) {
throw new IllegalPsmMethodActionException("Action class must be public.");
}
try {
method = c.getMethod(m, argArray);
} catch (NoSuchMethodException ex) {
throw new IllegalPsmMethodActionException(ex.toString() + ": method " + m);
}
// Check each exception this method declares thrown. If it declares
// exceptions, and any of them are not runtime exceptions, abort.
Class[] exceptionTypes = method.getExceptionTypes();
for (int i = 0; i < exceptionTypes.length; i++) {
Class exceptionClass = exceptionTypes[i];
if (!RuntimeException.class.isAssignableFrom(exceptionClass)) {
throw new IllegalPsmMethodActionException(
"Method must not declare non-Runtime " + "exceptions.");
}
}
// Ensure that the method returns PsmEvent
if (PsmEvent.class != method.getReturnType()) {
throw new IllegalPsmMethodActionException("Method return type must be PsmEvent");
}
// Ensure that both the method is both public and static.
if (!Modifier.isStatic(method.getModifiers()) || !Modifier.isPublic(method.getModifiers())) {
throw new IllegalPsmMethodActionException("Method " + m + " must be static and public.");
}
}
public <T> List<Class<T>> getInterfaceImplementations(Class<T> interfaceClass, File f)
throws IOException, ClassNotFoundException {
ArrayList<Class<T>> list = new ArrayList<>();
List<String> classes = null;
if (f.isDirectory()) {
classes = getClassesFromDir(f);
} else {
classes = getClassesFromJar(f);
}
URL url = f.toURI().toURL();
ClassLoader cl = new URLClassLoader(new URL[] {url}, this.getClass().getClassLoader());
for (String klazz : classes) {
try {
Class<?> c = cl.loadClass(klazz);
if (interfaceClass.isAssignableFrom(c) && !Modifier.isAbstract(c.getModifiers())) {
list.add((Class<T>) c);
}
} catch (Throwable t) {
LOGGER.warn(
String.format(
"Error checking if class %s from file %s is implementing %s: %s",
klazz, f, interfaceClass.getName(), t.getMessage()));
}
}
return list;
}
public static void main(String[] args) {
// read class name from command line args or user input
String name;
if (args.length > 0) name = args[0];
else {
Scanner in = new Scanner(System.in);
System.out.println("Enter class name (e.g. java.util.Date): ");
name = in.next();
}
try {
// print class name and superclass name (if != Object)
Class cl = Class.forName(name);
Class supercl = cl.getSuperclass();
String modifiers = Modifier.toString(cl.getModifiers());
if (modifiers.length() > 0) System.out.print(modifiers + " ");
System.out.print("class " + name);
if (supercl != null && supercl != Object.class)
System.out.print(" extends " + supercl.getName());
System.out.print("\n{\n");
printConstructors(cl);
System.out.println();
printMethods(cl);
System.out.println();
printFields(cl);
System.out.println("}");
} catch (ClassNotFoundException e) {
e.printStackTrace();
}
System.exit(0);
}
public static String isLocalType(Class<?> type) {
/* As per [JACKSON-187], GAE seems to throw SecurityExceptions
* here and there... and GAE itself has a bug, too
* (see []). Bah.
*/
try {
// one more: method locals, anonymous, are not good:
if (type.getEnclosingMethod() != null) {
return "local/anonymous";
}
/* But how about non-static inner classes? Can't construct
* easily (theoretically, we could try to check if parent
* happens to be enclosing... but that gets convoluted)
*/
if (type.getEnclosingClass() != null) {
if (!Modifier.isStatic(type.getModifiers())) {
return "non-static member class";
}
}
} catch (SecurityException e) {
} catch (NullPointerException e) {
}
return null;
}
@NotNull
public Instantiator<?> findInstantiator(@NotNull Type type, @NotNull NamedTypeList types) {
// First check if we have an immediate conversion registered. If so, we'll just use that.
if (types.size() == 1) {
TypeConversion conversion = findConversionFromDbValue(types.getType(0), type).orElse(null);
if (conversion != null) return args -> conversion.convert(args.getSingleValue());
}
Class<?> cl = rawType(type);
Instantiator<?> instantiator = findExplicitInstantiatorFor(cl, types).orElse(null);
if (instantiator != null) return instantiator;
if (!isPublic(cl.getModifiers()))
throw new InstantiationFailureException(
type
+ " can't be instantiated reflectively because it is not public or missing a @DalesbredConstructor-annotation");
return candidateConstructorsSortedByDescendingParameterCount(cl)
.map(ctor -> implicitInstantiatorFrom(ctor, types).orElse(null))
.filter(Objects::nonNull)
.findFirst()
.orElseThrow(
() ->
new InstantiationFailureException(
"could not find a way to instantiate " + type + " with parameters " + types));
}
/**
* Register a custom argument creator factory for an unknown final class
*
* @param clazz The class for which this factory should be used
* @param creator The argument factory
* @param <T>
*/
public static <T> void registerFinalClassArgumentCreator(
Class<T> clazz, FinalClassArgumentCreator<T> creator) {
if ((clazz.getModifiers() & Modifier.FINAL) == 0)
throw new RuntimeException(
"A custom argument creator can be registered only for final classes");
FINAL_CLASS_ARGUMENT_CREATORS.put(clazz, creator);
}
private void validateClass(Class<?> source, ValidationProblemCollector problems) {
int modifiers = source.getModifiers();
if (Modifier.isInterface(modifiers)) {
problems.add("Must be a class, not an interface");
}
if (source.getEnclosingClass() != null) {
if (Modifier.isStatic(modifiers)) {
if (Modifier.isPrivate(modifiers)) {
problems.add("Class cannot be private");
}
} else {
problems.add("Enclosed classes must be static and non private");
}
}
Constructor<?>[] constructors = source.getDeclaredConstructors();
for (Constructor<?> constructor : constructors) {
if (constructor.getParameterTypes().length > 0) {
problems.add("Cannot declare a constructor that takes arguments");
break;
}
}
Field[] fields = source.getDeclaredFields();
for (Field field : fields) {
int fieldModifiers = field.getModifiers();
if (!field.isSynthetic()
&& !(Modifier.isStatic(fieldModifiers) && Modifier.isFinal(fieldModifiers))) {
problems.add(field, "Fields must be static final.");
}
}
}
@Nullable
public InstanceFactory findInstanceFactory(@Nonnull Type mockedType) {
InstanceFactory instanceFactory = mockedTypesAndInstances.get(mockedType);
if (instanceFactory != null) {
return instanceFactory;
}
Class<?> mockedClass = getClassType(mockedType);
//noinspection ReuseOfLocalVariable
instanceFactory = mockedTypesAndInstances.get(mockedClass);
if (instanceFactory != null) {
return instanceFactory;
}
boolean abstractType = mockedClass.isInterface() || isAbstract(mockedClass.getModifiers());
for (Entry<Type, InstanceFactory> entry : mockedTypesAndInstances.entrySet()) {
Type registeredMockedType = entry.getKey();
Class<?> registeredMockedClass = getClassType(registeredMockedType);
if (abstractType) {
registeredMockedClass = getMockedClassOrInterfaceType(registeredMockedClass);
}
if (mockedClass.isAssignableFrom(registeredMockedClass)) {
instanceFactory = entry.getValue();
break;
}
}
return instanceFactory;
}
public JavaType findType(String name) {
if (_bindings == null) {
_resolve();
}
JavaType t = _bindings.get(name);
if (t != null) {
return t;
}
if (_placeholders != null && _placeholders.contains(name)) {
return UNBOUND;
}
// New with 1.7: check parent context
if (_parentBindings != null) {
return _parentBindings.findType(name);
}
// nothing found, so...
// Should we throw an exception or just return null?
/* [JACKSON-499] 18-Feb-2011, tatu: There are some tricky type bindings within
* java.util, such as HashMap$KeySet; so let's punt the problem
* (honestly not sure what to do -- they are unbound for good, I think)
*/
if (_contextClass != null) {
Class<?> enclosing = _contextClass.getEnclosingClass();
if (enclosing != null) {
// [JACKSON-572]: Actually, let's skip this for all non-static inner classes
// (which will also cover 'java.util' type cases...
if (!Modifier.isStatic(_contextClass.getModifiers())) {
return UNBOUND;
}
// ... so this piece of code should not be needed any more
/*
Package pkg = enclosing.getPackage();
if (pkg != null) {
// as per [JACKSON-533], also include "java.util.concurrent":
if (pkg.getName().startsWith("java.util")) {
return UNBOUND;
}
}
*/
}
}
String className;
if (_contextClass != null) {
className = _contextClass.getName();
} else if (_contextType != null) {
className = _contextType.toString();
} else {
className = "UNKNOWN";
}
throw new IllegalArgumentException(
"Type variable '"
+ name
+ "' can not be resolved (with context of class "
+ className
+ ")");
// t = UNBOUND;
}
/** @return the test suite */
public static Test suite() {
TestSuite suite = new TestSuite();
int count = 0;
for (Enumeration e = (new LoadingTestCollector()).collectTests(); e.hasMoreElements(); ) {
Object o = e.nextElement();
if (!(o instanceof String)) continue;
String s = (String) o;
if (s.equals("org.argouml.util.DoAllTests")) continue;
Class candidate;
try {
candidate = Class.forName(s);
} catch (ClassNotFoundException exception) {
System.err.println("Cannot load class: " + s);
continue;
}
if (!Modifier.isAbstract(candidate.getModifiers())) {
suite.addTest(new TestSuite(candidate));
count++;
}
}
System.out.println("Number of test classes found: " + count);
return suite;
}
private ITemplate templateInstance_() {
if (!isValid) return NULL_TEMPLATE;
if (null == templateInstance) {
try {
if (Logger.isTraceEnabled()) logger.trace("About to new template instance");
Class<?> clz = getJavaClass();
if (Logger.isTraceEnabled()) logger.trace("template java class loaded");
templateInstance = (TemplateBase) clz.newInstance();
if (Logger.isTraceEnabled()) logger.trace("template instance generated");
} catch (RythmException e) {
throw e;
} catch (Exception e) {
throw new RuntimeException("Error load template instance for " + getKey(), e);
}
}
if (!engine().isProdMode()) {
// check parent class change
Class<?> c = templateInstance.getClass();
Class<?> pc = c.getSuperclass();
if (null != pc && !Modifier.isAbstract(pc.getModifiers())) {
engine().classes.getByClassName(pc.getName());
}
}
templateInstance.setTemplateClass(this);
return templateInstance;
}
private Configurable getComponentFromAnnotation(String name, S4Component s4Component) {
Configurable configurable;
Class<? extends Configurable> defClass = s4Component.defaultClass();
if (defClass.equals(Configurable.class) && s4Component.mandatory()) {
throw new InternalConfigurationException(
getInstanceName(), name, "mandatory property is not set!");
}
if (Modifier.isAbstract(defClass.getModifiers()) && s4Component.mandatory())
throw new InternalConfigurationException(
getInstanceName(), name, defClass.getName() + " is abstract!");
// because we're forced to use the default type, make sure that it
// is set
if (defClass.equals(Configurable.class)) {
if (s4Component.mandatory()) {
throw new InternalConfigurationException(
getInstanceName(), name, instanceName + ": no default class defined for " + name);
} else {
return null;
}
}
configurable = ConfigurationManager.getInstance(defClass);
if (configurable == null) {
throw new InternalConfigurationException(
getInstanceName(), name, "instantiation of referenenced configurable failed");
}
return configurable;
}
private List<Class> findClassesImpl(Class requiredInterface) throws Exception {
logger.debug(
"ServiceLocator finding classes matching interface " + requiredInterface.getName());
List<Class> classes = new ArrayList<Class>();
classResolver.addClassLoader(resourceAccessor.toClassLoader());
for (Class<?> clazz :
classResolver.findImplementations(
requiredInterface, packagesToScan.toArray(new String[packagesToScan.size()]))) {
if (clazz.getAnnotation(LiquibaseService.class) != null
&& clazz.getAnnotation(LiquibaseService.class).skip()) {
continue;
}
if (!Modifier.isAbstract(clazz.getModifiers())
&& !Modifier.isInterface(clazz.getModifiers())
&& Modifier.isPublic(clazz.getModifiers())) {
try {
clazz.getConstructor();
logger.debug(clazz.getName() + " matches " + requiredInterface.getName());
classes.add(clazz);
} catch (NoSuchMethodException e) {
logger.info(
"Can not use "
+ clazz
+ " as a Liquibase service because it does not have a no-argument constructor");
} catch (NoClassDefFoundError e) {
String message =
"Can not use "
+ clazz
+ " as a Liquibase service because "
+ e.getMessage().replace("/", ".")
+ " is not in the classpath";
if (e.getMessage().startsWith("org/yaml/snakeyaml")) {
logger.info(message);
} else {
logger.warning(message);
}
}
}
}
return classes;
}
/**
* Creates a ClassNode from a real class. The resulting ClassNode will not be a primary ClassNode.
*/
public ClassNode(Class c) {
this(c.getName(), c.getModifiers(), null, null, MixinNode.EMPTY_ARRAY);
clazz = c;
lazyInitDone = false;
CompileUnit cu = getCompileUnit();
if (cu != null) cu.addClass(this);
isPrimaryNode = false;
}
private <T> CachedRuleSource doExtract(final Class<T> source) {
final ModelType<T> type = ModelType.of(source);
DefaultMethodModelRuleExtractionContext context =
new DefaultMethodModelRuleExtractionContext(type, this);
// TODO - exceptions thrown here should point to some extensive documentation on the concept of
// class rule sources
StructSchema<T> schema = getSchema(source, context);
if (schema == null) {
throw new InvalidModelRuleDeclarationException(context.problems.format());
}
// sort for determinism
Set<Method> methods = new TreeSet<Method>(Ordering.usingToString());
methods.addAll(Arrays.asList(source.getDeclaredMethods()));
ImmutableList.Builder<ModelProperty<?>> implicitInputs = ImmutableList.builder();
ModelProperty<?> target = null;
for (ModelProperty<?> property : schema.getProperties()) {
if (property.isAnnotationPresent(RuleTarget.class)) {
target = property;
} else if (property.isAnnotationPresent(RuleInput.class)
&& !(property.getSchema() instanceof ScalarValueSchema)) {
implicitInputs.add(property);
}
for (WeaklyTypeReferencingMethod<?, ?> method : property.getAccessors()) {
methods.remove(method.getMethod());
}
}
ImmutableList.Builder<ExtractedRuleDetails> rules = ImmutableList.builder();
for (Method method : methods) {
MethodRuleDefinition<?, ?> ruleDefinition =
DefaultMethodRuleDefinition.create(source, method);
ExtractedModelRule rule = getMethodHandler(ruleDefinition, method, context);
if (rule != null) {
rules.add(new ExtractedRuleDetails(ruleDefinition, rule));
}
}
if (context.hasProblems()) {
throw new InvalidModelRuleDeclarationException(context.problems.format());
}
StructBindings<T> bindings = structBindingsStore.getBindings(schema);
if (schema.getProperties().isEmpty()) {
return new StatelessRuleSource(
rules.build(),
Modifier.isAbstract(source.getModifiers())
? new AbstractRuleSourceFactory<T>(schema, bindings, proxyFactory)
: new ConcreteRuleSourceFactory<T>(type));
} else {
return new ParameterizedRuleSource(
rules.build(), target, implicitInputs.build(), schema, bindings, proxyFactory);
}
}
static {
final Reflections reflections = new Reflections("uk.ac.ebi.interpro.scan.model");
final Set<Class<? extends Match>> allClasses = reflections.getSubTypesOf(Match.class);
for (Class clazz : allClasses) {
if (!Modifier.isAbstract(clazz.getModifiers())) { // Concrete only.
CONCRETE_MATCH_CLASSES.add(clazz.getSimpleName());
}
}
}
private Mod loadCustomMod(URLClassLoader loader, String className)
throws IOException, ClassNotFoundException, IllegalAccessException, InstantiationException {
Class<?> cl = null;
try {
cl = loader.loadClass(className);
} catch (NoClassDefFoundError e) {
Logger.log(Logger.LOG_MOD, "WARNING: skipping %s: %s", className, e.toString());
}
if (cl != null && !cl.isInterface() && Mod.class.isAssignableFrom(cl)) {
int flags = cl.getModifiers();
if (!Modifier.isAbstract(flags) && Modifier.isPublic(flags)) {
return newModInstance(cl.asSubclass(Mod.class));
}
}
return null;
}
/**
* Checks if a class fulfills the JavaBeans contract.
*
* @param cls the class to check
*/
public static void checkJavaBean(Class<?> cls) {
try {
Constructor<?> constructor = cls.getDeclaredConstructor();
int classModifiers = cls.getModifiers();
if (Modifier.isInterface(classModifiers))
throw new RuntimeException(cls.getName() + " is an interface");
if (Modifier.isAbstract(classModifiers))
throw new RuntimeException(
cls.getName() + " cannot be instantiated - it is an abstract class");
int modifiers = constructor.getModifiers();
if (!Modifier.isPublic(modifiers))
throw new RuntimeException("No public default constructor in " + cls);
} catch (NoSuchMethodException e) {
throw new RuntimeException("No default constructor in class " + cls);
} catch (SecurityException e) {
logger.error(
"I am not allowed to check the class by using reflection, "
+ "so I just can hope the class is alright and go on: ",
e);
}
}
/**
* Finds all classes inside the stated scope that implement TetradSerializable and serializes them
* out to the getCurrentDirectory() directory. Abstract methods and interfaces are skipped over.
* For all other classes C, it is assumed that C has a static constructor of the following form:
*
* <pre>
* public static C serializableInstance() {
* // Returns an instance of C. May be a mind-numbingly simple
* // instance, no need to get fancy.
* }
* </pre>
*
* The instance returned may be mind-numbingly simple; there is no need to get fancy. It may
* change over time. The point is to make sure that instances serialized out with earlier versions
* load with the currentDirectory version.
*
* @throws RuntimeException if clazz cannot be serialized. This exception has an informative
* message and wraps the originally thrown exception as root cause.
*/
public void serializeCurrentDirectory() throws RuntimeException {
clearCurrentDirectory();
@SuppressWarnings("Convert2Diamond")
Map<String, List<String>> classFields = new TreeMap<>();
// Get the classes that implement SerializationCanonicalizer.
List classes = getAssignableClasses(new File(getSerializableScope()), TetradSerializable.class);
System.out.println(
"Serializing exemplars of instantiable TetradSerializable "
+ "in "
+ getSerializableScope()
+ ".");
System.out.println("Writing serialized examplars to " + getCurrentDirectory());
int index = -1;
for (Object aClass : classes) {
Class clazz = (Class) aClass;
if (TetradSerializableExcluded.class.isAssignableFrom(clazz)) {
continue;
}
if (Modifier.isAbstract(clazz.getModifiers())) {
continue;
}
if (Modifier.isInterface(clazz.getModifiers())) {
continue;
}
int numFields = getNumNonSerialVersionUIDFields(clazz);
if (numFields > 0 && serializableInstanceMethod(clazz) == null) {
throw new RuntimeException(
"Class "
+ clazz
+ " does not "
+ "\nhave a public static serializableInstance constructor.");
}
if (++index % 50 == 0) {
System.out.println(index);
}
System.out.print(".");
serializeClass(clazz, classFields);
}
try {
File file = new File(getCurrentDirectory(), "class_fields.ser");
FileOutputStream out = new FileOutputStream(file);
ObjectOutputStream objOut = new ObjectOutputStream(out);
objOut.writeObject(classFields);
out.close();
} catch (IOException e) {
e.printStackTrace();
}
System.out.println("\nFinished serializing exemplars.");
}
@Override
public int getModifiers() {
return _class.getModifiers();
}
/**
* Process and loop until told to stop. A callback_done will stop the loop and will return a
* result. Otherwise null is returned.
*/
public Object run() throws CommandException {
Object result = null;
boolean shutdown = false;
boolean closeWhenDone = true;
Commands.ValueObject valueObject =
new Commands.ValueObject(); // Working value object so not continually recreated.
InvokableValueSender valueSender =
new InvokableValueSender(); // Working valuesender so not continually recreated.
try {
boolean doLoop = true;
/**
* Note: In the cases below you will see a lot of finally clauses that null variables out.
* This is because this is a long running loop, and variables declared within blocks are not
* garbage collected until the method is terminated, so these variables once set would never
* be GC'd. The nulling at the end of the case makes sure that any of those objects set are
* now available for garbage collection when necessary.
*/
while (doLoop && isConnected()) {
byte cmd = 0;
try {
if (LINUX_1_3) socket.setSoTimeout(1000); // Linux 1.3 bug, see comment on LINUX_1_3
cmd = in.readByte();
if (LINUX_1_3 && isConnected())
socket.setSoTimeout(0); // Linux 1.3 bug, see comment on LINUX_1_3
} catch (InterruptedIOException e) {
continue; // Timeout, try again
}
switch (cmd) {
case Commands.QUIT_CONNECTION:
doLoop = false;
break; // Close this connection
case Commands.TERMINATE_SERVER:
doLoop = false;
shutdown = true; // Shutdown everything
break;
case Commands.GET_CLASS:
String className = in.readUTF();
Class aClass = null;
Class superClass = null;
String superClassName = null;
boolean added = false;
try {
aClass =
Class.forName(
className); // Turns out using JNI format for array type will work fine.
added = server.getIdentityID(aClass, valueObject);
boolean isInterface = aClass.isInterface();
boolean isAbstract = java.lang.reflect.Modifier.isAbstract(aClass.getModifiers());
superClass = aClass.getSuperclass();
superClassName = (superClass != null) ? superClass.getName() : ""; // $NON-NLS-1$
out.writeByte(Commands.GET_CLASS_RETURN);
out.writeInt(valueObject.objectID);
out.writeBoolean(isInterface);
out.writeBoolean(isAbstract);
out.writeUTF(superClassName);
out.flush();
} catch (ClassNotFoundException e) {
valueObject.set();
Commands.sendErrorCommand(out, Commands.GET_CLASS_NOT_FOUND, valueObject);
} catch (ExceptionInInitializerError e) {
sendException(e.getException(), valueObject, out);
} catch (LinkageError e) {
sendException(e, valueObject, out);
} catch (Throwable e) {
// Something bad, did we add a class? If we did remove it from the table.
if (added) server.removeObject(server.getObject(valueObject.objectID));
throw e;
} finally {
// clear out for GC to work.
className = null;
aClass = null;
superClass = null;
superClassName = null;
valueObject.set();
}
break;
case Commands.GET_CLASS_FROM_ID:
int classID = in.readInt();
try {
aClass = (Class) server.getObject(classID);
boolean isInterface = aClass.isInterface();
boolean isAbstract = java.lang.reflect.Modifier.isAbstract(aClass.getModifiers());
superClass = aClass.getSuperclass();
superClassName = (superClass != null) ? superClass.getName() : ""; // $NON-NLS-1$
out.writeByte(Commands.GET_CLASS_ID_RETURN);
out.writeUTF(aClass.getName());
out.writeBoolean(isInterface);
out.writeBoolean(isAbstract);
out.writeUTF(superClassName);
out.flush();
} catch (ClassCastException e) {
valueObject.set();
Commands.sendErrorCommand(out, Commands.CLASS_CAST_EXCEPTION, valueObject);
} finally {
// clear out for GC to work.
aClass = null;
superClass = null;
superClassName = null;
valueObject.set();
}
break;
case Commands.GET_OBJECT_DATA:
int objectID = in.readInt();
Object anObject = null;
try {
anObject = server.getObject(objectID);
valueObject.setObjectID(objectID, server.getIdentityID(anObject.getClass()));
Commands.writeValue(out, valueObject, true);
} catch (ClassCastException e) {
valueObject.set();
Commands.sendErrorCommand(out, Commands.CLASS_CAST_EXCEPTION, valueObject);
} finally {
anObject = null; // Clear out for GC to work
valueObject.set();
}
break;
case Commands.RELEASE_OBJECT:
int id = in.readInt();
server.removeObject(server.getObject(id));
break;
case Commands.NEW_INIT_STRING:
classID = in.readInt(); // ID Of class to do new upon.
String initString = in.readUTF(); // The init string.
Object newValue = null;
Class theClass = null;
try {
theClass = (Class) server.getObject(classID);
if (theClass == null) {
// The class wasn't found. So imply ClassNotFound exception.
throw new ClassNotFoundException();
}
InitializationStringParser parser = null;
try {
parser = InitializationStringParser.createParser(initString);
newValue = parser.evaluate();
boolean primitive = parser.isPrimitive();
// If expected class is Void.TYPE, that means don't test the type of the result
// to verify if correct type, just return what it really is.
if (theClass != Void.TYPE && primitive != theClass.isPrimitive()) {
valueObject.set();
Commands.sendErrorCommand(out, Commands.CLASS_CAST_EXCEPTION, valueObject);
continue; // Goto next command.
}
if (primitive) {
try {
// Need to do special tests for compatibility and assignment.
sendObject(
newValue,
classID != Commands.VOID_TYPE
? classID
: server.getIdentityID(parser.getExpectedType()),
valueObject,
out,
true); // This will make sure it goes out as the correct primitive type
} catch (ClassCastException e) {
// The returned type is not of the correct type for what is expected.
valueObject.set();
Commands.sendErrorCommand(out, Commands.CLASS_CAST_EXCEPTION, valueObject);
continue; // Goto next command
}
} else {
if (newValue != null) {
// Test to see if they are compatible. (Null can be assigned to any object,
// so that is why it was tested out above).
// If expected class is Void.TYPE, that means don't test the type of the result
// to verify if correct type, just return what it really is.
if (theClass != Void.TYPE && !theClass.isInstance(newValue)) {
// The returned type is not of the correct type for what is expected.
valueObject.set();
Commands.sendErrorCommand(out, Commands.CLASS_CAST_EXCEPTION, valueObject);
continue; // Goto next command
}
}
sendObject(
newValue, NOT_A_PRIMITIVE, valueObject, out, true); // Send out as an object.
}
} catch (InitializationStringEvaluationException e) {
if (e instanceof EvaluationException) {
// Want to return the real exception.
sendException(e.getOriginalException(), valueObject, out);
} else {
// Couldn't be evaluated, return an error for this.
setExceptionIntoValue(e.getOriginalException(), valueObject);
Commands.sendErrorCommand(out, Commands.CANNOT_EVALUATE_STRING, valueObject);
}
} finally {
parser = null; // Clear out for GC to work
}
} catch (Throwable e) {
sendException(e, valueObject, out);
} finally {
// Clear out for GC to work
initString = null;
theClass = null;
newValue = null;
valueObject.set();
}
break;
case Commands.INVOKE:
Object target = null;
Object[] parms = null;
Class returnType = null;
java.lang.reflect.Method aMethod = null;
try {
int methodID = in.readInt(); // ID of method to invoke
aMethod = (java.lang.reflect.Method) server.getObject(methodID); // Method to invoke
Commands.readValue(in, valueObject);
target = getInvokableObject(valueObject);
Commands.readValue(in, valueObject);
if (valueObject.type == Commands.ARRAY_IDS) {
// It is an array containing IDs, as it normally would be.
valueSender.initialize(valueObject);
Commands.readArray(in, valueObject.anInt, valueSender, valueObject, false);
parms = (Object[]) valueSender.getArray();
} else {
// It is all objects or null, so it should be an Object[] or null. If not, then this
// is an error.
parms = (Object[]) valueObject.anObject;
}
if (!aMethod.isAccessible())
aMethod.setAccessible(
true); // We will allow all to occur. Let access control be handled by IDE and
// compiler.
newValue = aMethod.invoke(target, parms);
returnType = aMethod.getReturnType();
if (returnType.isPrimitive()) {
int returnTypeID = server.getIdentityID(returnType);
// Need to tell sendObject the correct primitive type.
sendObject(newValue, returnTypeID, valueObject, out, true);
} else {
sendObject(
newValue,
NOT_A_PRIMITIVE,
valueObject,
out,
true); // Just send the object back. sendObject knows how to iterpret the type
}
} catch (CommandException e) {
throw e; // Throw it again. These we don't want to come up as an exception proxy.
// These should end the thread.
} catch (java.lang.reflect.InvocationTargetException e) {
// This is a wrappered exception. Return the wrappered one so it looks like
// it was the real one. (Sometimes the method being invoked is on a
// java.lang.reflect.Constructor.newInstance,
// which in turn is an InvocationTargetException, so we will go until we don't have an
// InvocationTargetException.
Throwable t = e;
do {
t = ((java.lang.reflect.InvocationTargetException) t).getTargetException();
} while (t instanceof java.lang.reflect.InvocationTargetException);
sendException(t, valueObject, out);
} catch (Throwable e) {
sendException(e, valueObject, out); // Turn it into a exception proxy on the client.
} finally {
// Clear out for GC to work
valueObject.set();
parms = null;
target = null;
aMethod = null;
returnType = null;
newValue = null;
valueSender.clear();
}
break;
case Commands.INVOKE_WITH_METHOD_PASSED:
aClass = null;
String methodName = null;
Class[] parmTypes = null;
target = null;
parms = null;
returnType = null;
aMethod = null;
try {
Commands.readValue(in, valueObject);
aClass = (Class) getInvokableObject(valueObject); // The class that has the method.
methodName = in.readUTF();
Commands.readValue(in, valueObject);
if (valueObject.type == Commands.ARRAY_IDS) {
// It is an array containing IDs, as it normally would be.
valueSender.initialize(valueObject);
Commands.readArray(in, valueObject.anInt, valueSender, valueObject, false);
parmTypes = (Class[]) valueSender.getArray();
} else {
// It null, so it should be an null. If not, then this is an error.
parmTypes = null;
}
aMethod = aClass.getMethod(methodName, parmTypes);
// Now we get the info for the invocation of the method and execute it.
Commands.readValue(in, valueObject);
target = getInvokableObject(valueObject);
Commands.readValue(in, valueObject);
if (valueObject.type == Commands.ARRAY_IDS) {
// It is an array containing IDs, as it normally would be.
valueSender.initialize(valueObject);
Commands.readArray(in, valueObject.anInt, valueSender, valueObject, false);
parms = (Object[]) valueSender.getArray();
} else {
// It is all objects or null, so it should be an Object[] or null. If not, then this
// is an error.
parms = (Object[]) valueObject.anObject;
}
if (!aMethod.isAccessible())
aMethod.setAccessible(
true); // We will allow all to occur. Let access control be handled by IDE and
// compiler.
newValue = aMethod.invoke(target, parms);
returnType = aMethod.getReturnType();
if (returnType.isPrimitive()) {
int returnTypeID = server.getIdentityID(returnType);
// Need to tell sendObject the correct primitive type.
sendObject(newValue, returnTypeID, valueObject, out, true);
} else {
sendObject(
newValue,
NOT_A_PRIMITIVE,
valueObject,
out,
true); // Just send the object back. sendObject knows how to iterpret the type
}
} catch (CommandException e) {
throw e; // Throw it again. These we don't want to come up as an exception proxy.
// These should end the thread.
} catch (java.lang.reflect.InvocationTargetException e) {
// This is a wrappered exception. Return the wrappered one so it looks like
// it was the real one. (Sometimes the method being invoked is on a
// java.lang.reflect.Constructor.newInstance,
// which in turn is an InvocationTargetException, so we will go until we don't have an
// InvocationTargetException.
Throwable t = e;
do {
t = ((java.lang.reflect.InvocationTargetException) t).getTargetException();
} while (t instanceof java.lang.reflect.InvocationTargetException);
sendException(t, valueObject, out);
} catch (Throwable e) {
sendException(e, valueObject, out); // Turn it into a exception proxy on the client.
} finally {
aClass = null;
methodName = null;
parmTypes = null;
// Clear out for GC to work
valueObject.set();
parms = null;
target = null;
aMethod = null;
returnType = null;
newValue = null;
valueSender.clear();
}
break;
case Commands.GET_ARRAY_CONTENTS:
try {
target = server.getObject(in.readInt()); // Array to get the ids for.
valueObject.setArrayIDS(
new ArrayContentsRetriever(target),
Array.getLength(target),
Commands.OBJECT_CLASS);
Commands.writeValue(out, valueObject, true); // Write it back as a value command.
} catch (CommandException e) {
throw e; // Throw it again. These we don't want to come up as an exception proxy.
// These should end the thread.
} catch (Throwable e) {
sendException(e, valueObject, out); // Turn it into a exception proxy on the client.
} finally {
target = null;
valueObject.set();
}
break;
case Commands.CALLBACK_DONE:
try {
if (connectionThread != null) {
valueObject.set();
Commands.sendErrorCommand(out, Commands.UNKNOWN_COMMAND_SENT, valueObject);
} else {
try {
Commands.readBackValue(in, valueObject, Commands.NO_TYPE_CHECK);
if (valueObject.type == Commands.ARRAY_IDS) {
// It is an array containing IDs, as it normally would be.
valueSender.initialize(valueObject);
Commands.readArray(in, valueObject.anInt, valueSender, valueObject, false);
result = valueSender.getArray();
} else {
result = getInvokableObject(valueObject);
}
doLoop = false; // We need to terminate and return result
closeWhenDone = false; // Don't close, we will continue.
} catch (CommandErrorException e) {
// There was an command error on the other side. This means
// connection still good, but don't continue the callback processing.
doLoop = false; // We need to terminate and return result
closeWhenDone = false; // Don't close, we will continue.
throw e; // Let it go on out.
}
}
} finally {
valueObject.set();
valueSender.clear();
}
break;
case Commands.ERROR:
try {
// Got an error command. Don't know what to do but read the
// value and simply print it out.
Commands.readValue(in, valueObject);
result = getInvokableObject(valueObject);
System.out.println("Error sent to server: Result=" + result); // $NON-NLS-1$
} finally {
valueObject.set();
}
break;
case Commands.EXPRESSION_TREE_COMMAND:
try {
processExpressionCommand(valueObject, valueSender);
} finally {
valueObject.set();
valueSender.clear();
}
break;
default:
// Unknown command. We don't know how long it is, so we need to shut the connection
// down.
System.err.println("Error: Invalid cmd send to server: Cmd=" + cmd); // $NON-NLS-1$
doLoop = false;
closeWhenDone = true;
break;
}
}
} catch (EOFException e) {
// This is ok. It means that the connection on the other side was terminated.
// So just accept this and go down.
} catch (CommandException e) {
throw e;
} catch (SocketException e) {
if (socket != null)
throw new UnexpectedExceptionCommandException(
false, e); // socket null means a valid close request
} catch (Throwable e) {
e.printStackTrace();
} finally {
if (closeWhenDone) {
try {
for (Iterator itr = expressionProcessors.values().iterator(); itr.hasNext(); ) {
ExpressionProcesserController exp = (ExpressionProcesserController) itr.next();
exp.close();
}
} finally {
expressionProcessors.clear();
}
if (in != null)
try {
in.close();
} catch (Exception e) {
}
in = null;
if (out != null)
try {
out.close();
} catch (Exception e) {
}
out = null;
close();
}
}
if (closeWhenDone && connectionThread != null) server.removeConnectionThread(connectionThread);
if (shutdown) server.requestShutdown();
return result;
}
/** Calculates a MD5 digest of the class. */
public String getDigest() {
try {
if (_className == null || "".equals(_className)) return "";
DynamicClassLoader loader =
(DynamicClassLoader) Thread.currentThread().getContextClassLoader();
ClassLoader tmpLoader = loader.getNewTempClassLoader();
Class cl = Class.forName(_className, false, tmpLoader);
if (cl == null) return "";
MessageDigest digest = MessageDigest.getInstance("MD5");
addDigest(digest, cl.getName());
addDigest(digest, cl.getModifiers());
Class superClass = cl.getSuperclass();
if (superClass != null) addDigest(digest, superClass.getName());
Class[] interfaces = cl.getInterfaces();
for (int i = 0; i < interfaces.length; i++) addDigest(digest, interfaces[i].getName());
Field[] fields = cl.getDeclaredFields();
Arrays.sort(fields, new FieldComparator());
if (_checkFields) {
for (Field field : fields) {
if (Modifier.isPrivate(field.getModifiers()) && !_checkPrivate) continue;
if (Modifier.isProtected(field.getModifiers()) && !_checkProtected) continue;
addDigest(digest, field.getName());
addDigest(digest, field.getModifiers());
addDigest(digest, field.getType().getName());
addDigest(digest, field.getAnnotations());
}
}
Method[] methods = cl.getDeclaredMethods();
Arrays.sort(methods, new MethodComparator());
for (int i = 0; i < methods.length; i++) {
Method method = methods[i];
if (Modifier.isPrivate(method.getModifiers()) && !_checkPrivate) continue;
if (Modifier.isProtected(method.getModifiers()) && !_checkProtected) continue;
if (Modifier.isStatic(method.getModifiers()) && !_checkStatic) continue;
addDigest(digest, method.getName());
addDigest(digest, method.getModifiers());
addDigest(digest, method.getName());
Class[] param = method.getParameterTypes();
for (int j = 0; j < param.length; j++) addDigest(digest, param[j].getName());
addDigest(digest, method.getReturnType().getName());
Class[] exn = method.getExceptionTypes();
for (int j = 0; j < exn.length; j++) addDigest(digest, exn[j].getName());
addDigest(digest, method.getAnnotations());
}
byte[] digestBytes = new byte[256];
int len = digest.digest(digestBytes, 0, digestBytes.length);
return digestToBase64(digestBytes, len);
} catch (Exception e) {
log.log(Level.FINER, e.toString(), e);
return "";
}
}
private void addTestsFromFile(TestSuite suite, File file) {
Class<?> rawClass = getClassFrom(file);
if (rawClass == null || !TestCase.class.isAssignableFrom(rawClass)) {
return;
}
@SuppressWarnings("unchecked")
Class<? extends TestCase> clazz = (Class<? extends TestCase>) rawClass;
int modifiers = clazz.getModifiers();
if (Modifier.isAbstract(modifiers) || !Modifier.isPublic(modifiers)) {
return;
}
if (onlyRun.size() > 0 && !onlyRun.contains(rawClass.getSimpleName())) {
return;
}
if (isIgnored(clazz)) {
System.err.println(
"Ignoring test class: " + clazz + ": " + clazz.getAnnotation(Ignore.class).reason());
return;
}
if (!withDriver && NeedsDriver.class.isAssignableFrom(clazz)) {
return;
}
boolean include = true;
if (patterns.size() > 0) {
include = false;
for (String pattern : patterns) {
include |= clazz.getName().matches(pattern);
}
}
if (!include) {
return;
}
for (String excludePattern : excludePatterns) {
if (clazz.getName().matches(excludePattern)) {
return;
}
}
Method[] methods = clazz.getMethods();
for (Method method : methods) {
if (isTestMethod(method)) {
Test test = TestSuite.createTest(clazz, method.getName());
if (test instanceof NeedsDriver) {
boolean freshDriver = false;
if (method.isAnnotationPresent(NeedsFreshDriver.class)) {
freshDriver = true;
}
boolean restartDriver = false;
if (method.isAnnotationPresent(NoDriverAfterTest.class)) {
restartDriver = true;
}
if (withDriver) {
test =
new DriverTestDecorator(test, driverClass, keepDriver, freshDriver, restartDriver);
}
}
if (outputTestNames) {
test = new TestNameDecorator(test);
}
suite.addTest(test);
}
}
}
public static void main(String[] args) throws Exception {
System.out.println(
"Checking that all known MBeans that are "
+ "NotificationBroadcasters have sane "
+ "MBeanInfo.getNotifications()");
System.out.println("Checking platform MBeans...");
checkPlatformMBeans();
URL codeBase = ClassLoader.getSystemResource("javax/management/MBeanServer.class");
if (codeBase == null) {
throw new Exception("Could not determine codeBase for " + MBeanServer.class);
}
System.out.println();
System.out.println("Looking for standard MBeans...");
String[] classes = findStandardMBeans(codeBase);
System.out.println("Testing standard MBeans...");
for (int i = 0; i < classes.length; i++) {
String name = classes[i];
Class<?> c;
try {
c = Class.forName(name);
} catch (Throwable e) {
System.out.println(name + ": cannot load (not public?): " + e);
continue;
}
if (!NotificationBroadcaster.class.isAssignableFrom(c)) {
System.out.println(name + ": not a NotificationBroadcaster");
continue;
}
if (Modifier.isAbstract(c.getModifiers())) {
System.out.println(name + ": abstract class");
continue;
}
NotificationBroadcaster mbean;
Constructor<?> constr;
try {
constr = c.getConstructor();
} catch (Exception e) {
System.out.println(name + ": no public no-arg constructor: " + e);
continue;
}
try {
mbean = (NotificationBroadcaster) constr.newInstance();
} catch (Exception e) {
System.out.println(name + ": no-arg constructor failed: " + e);
continue;
}
check(mbean);
}
System.out.println();
System.out.println("Testing some explicit cases...");
check(new RelationService(false));
/*
We can't do this:
check(new RequiredModelMBean());
because the Model MBean spec more or less forces us to use the
names GENERIC and ATTRIBUTE_CHANGE for its standard notifs.
*/
checkRMIConnectorServer();
System.out.println();
if (!suspicious.isEmpty()) System.out.println("SUSPICIOUS CLASSES: " + suspicious);
if (failed.isEmpty()) System.out.println("TEST PASSED");
else {
System.out.println("TEST FAILED: " + failed);
System.exit(1);
}
}
protected void loadHttpServlet(final AnyValue conf, final ClassFilter<? extends Servlet> filter)
throws Exception {
final StringBuilder sb = logger.isLoggable(Level.INFO) ? new StringBuilder() : null;
final String prefix = conf == null ? "" : conf.getValue("path", "");
final String threadName = "[" + Thread.currentThread().getName() + "] ";
List<FilterEntry<? extends Servlet>> list = new ArrayList(filter.getFilterEntrys());
list.sort(
(FilterEntry<? extends Servlet> o1,
FilterEntry<? extends Servlet>
o2) -> { // 必须保证WebSocketServlet优先加载， 因为要确保其他的HttpServlet可以注入本地模式的WebSocketNode
boolean ws1 = WebSocketServlet.class.isAssignableFrom(o1.getType());
boolean ws2 = WebSocketServlet.class.isAssignableFrom(o2.getType());
if (ws1 == ws2) return o1.getType().getName().compareTo(o2.getType().getName());
return ws1 ? -1 : 1;
});
final List<AbstractMap.SimpleEntry<String, String[]>> ss =
sb == null ? null : new ArrayList<>();
for (FilterEntry<? extends Servlet> en : list) {
Class<HttpServlet> clazz = (Class<HttpServlet>) en.getType();
if (Modifier.isAbstract(clazz.getModifiers())) continue;
WebServlet ws = clazz.getAnnotation(WebServlet.class);
if (ws == null || ws.value().length == 0) continue;
final HttpServlet servlet = clazz.newInstance();
resourceFactory.inject(servlet, this);
final String[] mappings = ws.value();
String pref = ws.repair() ? prefix : "";
DefaultAnyValue servletConf = (DefaultAnyValue) en.getProperty();
WebInitParam[] webparams = ws.initParams();
if (webparams.length > 0) {
if (servletConf == null) servletConf = new DefaultAnyValue();
for (WebInitParam webparam : webparams) {
servletConf.addValue(webparam.name(), webparam.value());
}
}
this.httpServer.addHttpServlet(servlet, pref, servletConf, mappings);
if (ss != null) {
for (int i = 0; i < mappings.length; i++) {
mappings[i] = pref + mappings[i];
}
ss.add(new AbstractMap.SimpleEntry<>(clazz.getName(), mappings));
}
}
if (ss != null) {
Collections.sort(
ss,
(AbstractMap.SimpleEntry<String, String[]> o1,
AbstractMap.SimpleEntry<String, String[]> o2) -> o1.getKey().compareTo(o2.getKey()));
int max = 0;
for (AbstractMap.SimpleEntry<String, String[]> as : ss) {
if (as.getKey().length() > max) max = as.getKey().length();
}
for (AbstractMap.SimpleEntry<String, String[]> as : ss) {
sb.append(threadName).append(" Loaded ").append(as.getKey());
for (int i = 0; i < max - as.getKey().length(); i++) {
sb.append(' ');
}
sb.append(" mapping to ").append(Arrays.toString(as.getValue())).append(LINE_SEPARATOR);
}
}
if (sb != null && sb.length() > 0) logger.log(Level.INFO, sb.toString());
}
private <T> Class<? extends T> generateUnderLock(Class<T> type) {
Map<Class<?>, Class<?>> cache = GENERATED_CLASSES.get(getClass());
if (cache == null) {
// WeakHashMap won't work here. It keeps a strong reference to the mapping value, which is the
// generated class in this case
// However, the generated class has a strong reference to the source class (by extending it),
// so the keys will always be
// strongly reachable while this Class is strongly reachable. Use weak references for both key
// and value of the mapping instead.
cache = new ReferenceMap(AbstractReferenceMap.WEAK, AbstractReferenceMap.WEAK);
GENERATED_CLASSES.put(getClass(), cache);
}
Class<?> generatedClass = cache.get(type);
if (generatedClass != null) {
return generatedClass.asSubclass(type);
}
if (Modifier.isPrivate(type.getModifiers())) {
throw new GradleException(
String.format(
"Cannot create a proxy class for private class '%s'.", type.getSimpleName()));
}
if (Modifier.isAbstract(type.getModifiers())) {
throw new GradleException(
String.format(
"Cannot create a proxy class for abstract class '%s'.", type.getSimpleName()));
}
Class<? extends T> subclass;
try {
ClassMetaData classMetaData = inspectType(type);
ClassBuilder<T> builder = start(type, classMetaData);
builder.startClass();
if (!DynamicObjectAware.class.isAssignableFrom(type)) {
if (ExtensionAware.class.isAssignableFrom(type)) {
throw new UnsupportedOperationException(
"A type that implements ExtensionAware must currently also implement DynamicObjectAware.");
}
builder.mixInDynamicAware();
}
if (!GroovyObject.class.isAssignableFrom(type)) {
builder.mixInGroovyObject();
}
builder.addDynamicMethods();
if (classMetaData.conventionAware && !IConventionAware.class.isAssignableFrom(type)) {
builder.mixInConventionAware();
}
Class noMappingClass = Object.class;
for (Class<?> c = type; c != null && noMappingClass == Object.class; c = c.getSuperclass()) {
if (c.getAnnotation(NoConventionMapping.class) != null) {
noMappingClass = c;
}
}
Set<PropertyMetaData> conventionProperties = new HashSet<PropertyMetaData>();
for (PropertyMetaData property : classMetaData.properties.values()) {
if (SKIP_PROPERTIES.contains(property.name)) {
continue;
}
if (property.injector) {
builder.addInjectorProperty(property);
for (Method getter : property.getters) {
builder.applyServiceInjectionToGetter(property, getter);
}
for (Method setter : property.setters) {
builder.applyServiceInjectionToSetter(property, setter);
}
continue;
}
boolean needsConventionMapping = false;
if (classMetaData.isExtensible()) {
for (Method getter : property.getters) {
if (!Modifier.isFinal(getter.getModifiers())
&& !getter.getDeclaringClass().isAssignableFrom(noMappingClass)) {
needsConventionMapping = true;
break;
}
}
}
if (needsConventionMapping) {
conventionProperties.add(property);
builder.addConventionProperty(property);
for (Method getter : property.getters) {
builder.applyConventionMappingToGetter(property, getter);
}
}
if (needsConventionMapping) {
for (Method setter : property.setters) {
if (!Modifier.isFinal(setter.getModifiers())) {
builder.applyConventionMappingToSetter(property, setter);
}
}
}
}
Set<Method> actionMethods = classMetaData.missingOverloads;
for (Method method : actionMethods) {
builder.addActionMethod(method);
}
// Adds a set method for each mutable property
for (PropertyMetaData property : classMetaData.properties.values()) {
if (property.setters.isEmpty()) {
continue;
}
if (Iterable.class.isAssignableFrom(property.getType())) {
// Currently not supported
continue;
}
if (property.setMethods.isEmpty()) {
for (Method setter : property.setters) {
builder.addSetMethod(property, setter);
}
} else if (conventionProperties.contains(property)) {
for (Method setMethod : property.setMethods) {
builder.applyConventionMappingToSetMethod(property, setMethod);
}
}
}
for (Constructor<?> constructor : type.getConstructors()) {
if (Modifier.isPublic(constructor.getModifiers())) {
builder.addConstructor(constructor);
}
}
subclass = builder.generate();
} catch (Throwable e) {
throw new GradleException(
String.format("Could not generate a proxy class for class %s.", type.getName()), e);
}
cache.put(type, subclass);
cache.put(subclass, subclass);
return subclass;
}
@Test
public void testModifiers() throws Exception {
for (Class<?> type : standardTypes) {
assertThat(describe(type).getModifiers(), is(type.getModifiers()));
}
}
/**
* Instantiate a new {@link ADDFFunctionalGroupHandler} given its class name
*
* @param theInterface
* @return
* @throws ClassNotFoundException
* @throws NoSuchMethodException
* @throws SecurityException
* @throws InvocationTargetException
* @throws IllegalArgumentException
* @throws IllegalAccessException
* @throws InstantiationException
*/
@SuppressWarnings("unchecked")
protected <I> I newHandler(Class<I> theInterface) {
if (theInterface == null) return null;
String className = null;
try {
className = Config.getValueWithGlobalDefault(this.getEngine(), theInterface.getSimpleName());
mLog.info(">>> className = " + className);
if (Strings.isNullOrEmpty(className)) {
mLog.error(
String.format(
"Cannot determine classname for %s from configuration source [%s] %s",
theInterface.getSimpleName(),
Config.getConfigHandler().getSource(),
this.getEngine()));
return null;
}
Class<?> clazz = Class.forName(className);
if (Modifier.isAbstract(clazz.getModifiers())) {
throw new InstantiationError(
String.format("Class %s is abstract and cannot be instantiated", className));
}
Constructor<ADDFFunctionalGroupHandler> cons =
(Constructor<ADDFFunctionalGroupHandler>)
clazz.getDeclaredConstructor(new Class<?>[] {DDF.class});
if (cons != null) cons.setAccessible(true);
return cons != null ? (I) cons.newInstance(this) : null;
} catch (ClassNotFoundException cnfe) {
mLog.error(
String.format(
"Cannot instantiate handler for [%s] %s/%s",
this.getEngine(), theInterface.getSimpleName(), className),
cnfe);
} catch (NoSuchMethodException nsme) {
mLog.error(
String.format(
"Cannot instantiate handler for [%s] %s/%s",
this.getEngine(), theInterface.getSimpleName(), className),
nsme);
} catch (IllegalAccessException iae) {
mLog.error(
String.format(
"Cannot instantiate handler for [%s] %s/%s",
this.getEngine(), theInterface.getSimpleName(), className),
iae);
} catch (InstantiationException ie) {
mLog.error(
String.format(
"Cannot instantiate handler for [%s] %s/%s",
this.getEngine(), theInterface.getSimpleName(), className),
ie);
} catch (InvocationTargetException ite) {
mLog.error(
String.format(
"Cannot instantiate handler for [%s] %s/%s",
this.getEngine(), theInterface.getSimpleName(), className),
ite);
}
return null;
}
private static Object createPlaceholder(Class<?> clazz, InvocationSequence invocationSequence) {
return !Modifier.isFinal(clazz.getModifiers())
? createProxy(new ProxyArgument(clazz, invocationSequence), clazz, false)
: createArgumentPlaceholder(clazz);
}
private static void discoverAccessibleMethods(
Class<?> clazz,
Map<MethodSignature, Method> map,
boolean includeProtected,
boolean includePrivate) {
if (Modifier.isPublic(clazz.getModifiers()) || includePrivate) {
try {
if (includeProtected || includePrivate) {
while (clazz != null) {
try {
Method[] methods = clazz.getDeclaredMethods();
for (int i = 0; i < methods.length; i++) {
Method method = methods[i];
int mods = method.getModifiers();
if (Modifier.isPublic(mods) || Modifier.isProtected(mods) || includePrivate) {
if (includePrivate) method.setAccessible(true);
map.put(new MethodSignature(method), method);
}
}
clazz = clazz.getSuperclass();
} catch (SecurityException e) {
// Some security settings (i.e., applets) disallow
// access to Class.getDeclaredMethods. Fall back to
// Class.getMethods.
Method[] methods = clazz.getMethods();
for (int i = 0; i < methods.length; i++) {
Method method = methods[i];
MethodSignature sig = new MethodSignature(method);
if (map.get(sig) == null) map.put(sig, method);
}
break; // getMethods gets superclass methods, no
// need to loop any more
}
}
} else {
Method[] methods = clazz.getMethods();
for (int i = 0; i < methods.length; i++) {
Method method = methods[i];
MethodSignature sig = new MethodSignature(method);
map.put(sig, method);
}
}
return;
} catch (SecurityException e) {
Context.reportWarning(
"Could not discover accessible methods of class "
+ clazz.getName()
+ " due to lack of privileges, "
+ "attemping superclasses/interfaces.");
// Fall through and attempt to discover superclass/interface
// methods
}
}
Class<?>[] interfaces = clazz.getInterfaces();
for (int i = 0; i < interfaces.length; i++) {
discoverAccessibleMethods(interfaces[i], map, includeProtected, includePrivate);
}
Class<?> superclass = clazz.getSuperclass();
if (superclass != null) {
discoverAccessibleMethods(superclass, map, includeProtected, includePrivate);
}
}