@StubMethod
public static ClassMirror getCallerClassMirror(int depth) {
// Filter out any non-holographic frames
int nativeDepth = 1;
Class<?> klass = sun.reflect.Reflection.getCallerClass(nativeDepth);
while (klass != null) {
ClassLoader loader = klass.getClassLoader();
if (loader instanceof HologramClassLoader) {
if (depth == 0) {
HologramClassLoader hologramClassLoader = (HologramClassLoader) klass.getClassLoader();
String className = HologramClassGenerator.getOriginalBinaryClassName(klass.getName());
return hologramClassLoader.loadOriginalClassMirror(className);
}
depth--;
}
nativeDepth++;
klass = sun.reflect.Reflection.getCallerClass(nativeDepth);
}
// Off the top of the holographic stack, so refer to the original stack.
ThreadMirror currentThread = ThreadHolograph.currentThreadMirror();
List<FrameMirror> stack = currentThread.getStackTrace();
int frameIndex = stack.size() - 1 - depth;
if (frameIndex < 0) {
return null;
}
FrameMirror frame = stack.get(frameIndex);
return frame.declaringClass();
}
protected boolean hasGetProxySelector() {
if (JavaDetector.isJDK7()) {
Class<?> callerClass8 = Reflection.getCallerClass(8);
String className8 = callerClass8.getName();
if (className8.startsWith(_CLASS_NAME_SOCKS_SOCKET_IMPL)) {
logGetProxySelector(callerClass8, 8);
return true;
}
} else {
Class<?> callerClass7 = Reflection.getCallerClass(7);
String className7 = callerClass7.getName();
if (className7.startsWith(_CLASS_NAME_SOCKS_SOCKET_IMPL)) {
logGetProxySelector(callerClass7, 7);
return true;
}
}
return false;
}
@Nullable
public static Image loadFromResource(@NonNls String s) {
int stackFrameCount = 2;
Class callerClass = Reflection.getCallerClass(stackFrameCount);
while (callerClass != null
&& callerClass.getClassLoader() == null) { // looks like a system class
callerClass = Reflection.getCallerClass(++stackFrameCount);
}
if (callerClass == null) {
callerClass = Reflection.getCallerClass(1);
}
return loadFromResource(s, callerClass);
}
/**
* Invokes the underlying method represented by this {@code Method} object, on the specified
* object with the specified parameters. Individual parameters are automatically unwrapped to
* match primitive formal parameters, and both primitive and reference parameters are subject to
* method invocation conversions as necessary.
*
* <p>If the underlying method is static, then the specified {@code obj} argument is ignored. It
* may be null.
*
* <p>If the number of formal parameters required by the underlying method is 0, the supplied
* {@code args} array may be of length 0 or null.
*
* <p>If the underlying method is an instance method, it is invoked using dynamic method lookup as
* documented in The Java Language Specification, Second Edition, section 15.12.4.4; in
* particular, overriding based on the runtime type of the target object will occur.
*
* <p>If the underlying method is static, the class that declared the method is initialized if it
* has not already been initialized.
*
* <p>If the method completes normally, the value it returns is returned to the caller of invoke;
* if the value has a primitive type, it is first appropriately wrapped in an object. However, if
* the value has the type of an array of a primitive type, the elements of the array are
* <i>not</i> wrapped in objects; in other words, an array of primitive type is returned. If the
* underlying method return type is void, the invocation returns null.
*
* @param obj the object the underlying method is invoked from
* @param args the arguments used for the method call
* @return the result of dispatching the method represented by this object on {@code obj} with
* parameters {@code args}
* @exception IllegalAccessException if this {@code Method} object is enforcing Java language
* access control and the underlying method is inaccessible.
* @exception IllegalArgumentException if the method is an instance method and the specified
* object argument is not an instance of the class or interface declaring the underlying
* method (or of a subclass or implementor thereof); if the number of actual and formal
* parameters differ; if an unwrapping conversion for primitive arguments fails; or if, after
* possible unwrapping, a parameter value cannot be converted to the corresponding formal
* parameter type by a method invocation conversion.
* @exception InvocationTargetException if the underlying method throws an exception.
* @exception NullPointerException if the specified object is null and the method is an instance
* method.
* @exception ExceptionInInitializerError if the initialization provoked by this method fails.
*/
public Object invoke(Object obj, Object... args)
throws IllegalAccessException, IllegalArgumentException, InvocationTargetException {
if (!override) {
if (!Reflection.quickCheckMemberAccess(clazz, modifiers)) {
Class<?> caller = Reflection.getCallerClass(1);
checkAccess(caller, clazz, obj, modifiers);
}
}
MethodAccessor ma = methodAccessor; // read volatile
if (ma == null) {
ma = acquireMethodAccessor();
}
return ma.invoke(obj, args);
}
/**
* Initialise les composants du conteneur sémantique une fois les URI des ontologies dispatchées
* par OwlDistributionInitializer.
*/
public void semInit() throws ExceptionInInitializerError {
if (isInitialized()) {
/** Initialisation de l'ontologie locale. Cette ontologie n'est plus modifiée ensuite. */
// Initialisation du manager de l'ontologie locale. N'est utilisé qu'ici.
OWLOntologyManager localOntoManager = OWLManager.createOWLOntologyManager();
OWLOntologyIRIMapper localOntoMapper =
new SimpleIRIMapper(getOntologyIri(), getPhysicalIri());
localOntoManager.addIRIMapper(localOntoMapper);
// Initialisation de l'ontologie
try {
// On crée l'ontologie locale.
this.localOntology = localOntoManager.loadOntology(getPhysicalIri());
} catch (OWLOntologyCreationException e) {
e.printStackTrace();
}
// System.out.println("localOntology : " + localOntology + " ; pyhsicalIri : " +
// getPhysicalIri().toString());
/**
* Initialisation de l'ontologie du reasoner, qui contiendra l'ontologie locale plus d'autres
* axiomes éventuels. On crée l'instance, qu'on rattache à un manager et un reasoner
* accessibles par des getters. L'instance reste la même, mais le contenu change.
*/
// Initialisation du manager de l'ontologie du reasoner
this.manager = OWLManager.createOWLOntologyManager();
// On crée une deuxième ontologie.
try {
IRI ontoName = IRI.create(this.nameSpace);
OWLOntologyID ontoId = new OWLOntologyID(ontoName);
this.reasoningOntology = this.manager.createOntology(ontoId);
} catch (OWLOntologyCreationException e) {
e.printStackTrace();
}
// Initialisation du reasoner
PelletReasonerFactory reasonerFactory = PelletReasonerFactory.getInstance();
PelletOptions.USE_INCREMENTAL_CONSISTENCY = true;
PelletOptions.USE_COMPLETION_QUEUE = true;
// PelletReasoner reasoner = reasonerFactory.createReasoner(reasoningOntology);
PelletReasoner reasoner = reasonerFactory.createNonBufferingReasoner(reasoningOntology);
// add the reasoner as an ontology change listener
this.manager.addOntologyChangeListener(reasoner);
reasoner.precomputeInferences(InferenceType.CLASS_HIERARCHY);
/* reasoner.precomputeInferences(InferenceType.CLASS_ASSERTIONS);
reasoner.precomputeInferences(InferenceType.DATA_PROPERTY_HIERARCHY);
reasoner.precomputeInferences(InferenceType.DISJOINT_CLASSES);
reasoner.precomputeInferences(InferenceType.OBJECT_PROPERTY_HIERARCHY);
reasoner.precomputeInferences(InferenceType.SAME_INDIVIDUAL);
*/ this.reasoner = reasoner;
} else
throw new ExceptionInInitializerError(
"Paramètres de l'ontologie non initialisés ; ontoParamsInit = "
+ Reflection.getCallerClass(2));
// initOntoReasoner();
}
/**
* Attempts to locate a driver that understands the given URL. The <code>DriverManager</code>
* attempts to select an appropriate driver from the set of registered JDBC drivers.
*
* @param url a database URL of the form <code>jdbc:<em>subprotocol</em>:<em>subname</em></code>
* @return a <code>Driver</code> object representing a driver that can connect to the given URL
* @exception SQLException if a database access error occurs
*/
@CallerSensitive
public static Driver getDriver(String url) throws SQLException {
println("DriverManager.getDriver(\"" + url + "\")");
Class<?> callerClass = Reflection.getCallerClass();
// Walk through the loaded registeredDrivers attempting to locate someone
// who understands the given URL.
for (DriverInfo aDriver : registeredDrivers) {
// If the caller does not have permission to load the driver then
// skip it.
if (isDriverAllowed(aDriver.driver, callerClass)) {
try {
if (aDriver.driver.acceptsURL(url)) {
// Success!
println("getDriver returning " + aDriver.driver.getClass().getName());
return (aDriver.driver);
}
} catch (SQLException sqe) {
// Drop through and try the next driver.
}
} else {
println(" skipping: " + aDriver.driver.getClass().getName());
}
}
println("getDriver: no suitable driver");
throw new SQLException("No suitable driver", "08001");
}
/**
* Removes the specified driver from the {@code DriverManager}'s list of registered drivers.
*
* <p>If a {@code null} value is specified for the driver to be removed, then no action is taken.
*
* <p>If a security manager exists and its {@code checkPermission} denies permission, then a
* {@code SecurityException} will be thrown.
*
* <p>If the specified driver is not found in the list of registered drivers, then no action is
* taken. If the driver was found, it will be removed from the list of registered drivers.
*
* <p>If a {@code DriverAction} instance was specified when the JDBC driver was registered, its
* deregister method will be called prior to the driver being removed from the list of registered
* drivers.
*
* @param driver the JDBC Driver to remove
* @exception SQLException if a database access error occurs
* @throws SecurityException if a security manager exists and its {@code checkPermission} method
* denies permission to deregister a driver.
* @see SecurityManager#checkPermission
*/
@CallerSensitive
public static synchronized void deregisterDriver(Driver driver) throws SQLException {
if (driver == null) {
return;
}
SecurityManager sec = System.getSecurityManager();
if (sec != null) {
sec.checkPermission(DEREGISTER_DRIVER_PERMISSION);
}
println("DriverManager.deregisterDriver: " + driver);
DriverInfo aDriver = new DriverInfo(driver, null);
if (registeredDrivers.contains(aDriver)) {
if (isDriverAllowed(driver, Reflection.getCallerClass())) {
DriverInfo di = registeredDrivers.get(registeredDrivers.indexOf(aDriver));
// If a DriverAction was specified, Call it to notify the
// driver that it has been deregistered
if (di.action() != null) {
di.action().deregister();
}
registeredDrivers.remove(aDriver);
} else {
// If the caller does not have permission to load the driver then
// throw a SecurityException.
throw new SecurityException();
}
} else {
println(" couldn't find driver to unload");
}
}
protected boolean hasReflect(Permission permission) {
int stackIndex = getStackIndex(13, 12);
Class<?> callerClass = Reflection.getCallerClass(stackIndex);
if (isTrustedCaller(callerClass, permission)) {
return true;
}
return false;
}
protected boolean hasSetContextClassLoader(Permission permission) {
int stackIndex = getStackIndex(11, 10);
Class<?> callerClass = Reflection.getCallerClass(stackIndex);
if (isTrustedCaller(callerClass, permission)) {
return true;
}
return false;
}
protected boolean hasWriteFileDescriptor(Permission permission) {
int stackIndex = getStackIndex(12, 11);
Class<?> callerClass = Reflection.getCallerClass(stackIndex);
if (isTrustedCaller(callerClass, permission)) {
return true;
}
return false;
}
protected boolean hasCreateSecurityManager(Permission permission) {
int stackIndex = getStackIndex(11, 10);
Class<?> callerClass = Reflection.getCallerClass(stackIndex);
if (isTrustedCaller(callerClass, permission)) {
return true;
}
return false;
}
/*
* Reflection.ensureMemberAccess is overly-restrictive
* due to a bug. We awkwardly work around it for now.
*/
public static void ensureMemberAccess(
Class currentClass, Class memberClass, Object target, int modifiers)
throws IllegalAccessException {
if (target == null && Modifier.isProtected(modifiers)) {
int mods = modifiers;
mods = mods & (~Modifier.PROTECTED);
mods = mods | Modifier.PUBLIC;
/*
* See if we fail because of class modifiers
*/
Reflection.ensureMemberAccess(currentClass, memberClass, target, mods);
try {
/*
* We're still here so class access was ok.
* Now try with default field access.
*/
mods = mods & (~Modifier.PUBLIC);
Reflection.ensureMemberAccess(currentClass, memberClass, target, mods);
/*
* We're still here so access is ok without
* checking for protected.
*/
return;
} catch (IllegalAccessException e) {
/*
* Access failed but we're 'protected' so
* if the test below succeeds then we're ok.
*/
if (isSubclassOf(currentClass, memberClass)) {
return;
} else {
throw e;
}
}
} else {
Reflection.ensureMemberAccess(currentClass, memberClass, target, modifiers);
}
}
/**
* Attempts to establish a connection to the given database URL. The <code>DriverManager</code>
* attempts to select an appropriate driver from the set of registered JDBC drivers.
*
* <p><B>Note:</B> If the {@code user} or {@code password} property are also specified as part of
* the {@code url}, it is implementation-defined as to which value will take precedence. For
* maximum portability, an application should only specify a property once.
*
* @param url a database url of the form <code>jdbc:<em>subprotocol</em>:<em>subname</em></code>
* @param user the database user on whose behalf the connection is being made
* @param password the user's password
* @return a connection to the URL
* @exception SQLException if a database access error occurs or the url is {@code null}
* @throws SQLTimeoutException when the driver has determined that the timeout value specified by
* the {@code setLoginTimeout} method has been exceeded and has at least tried to cancel the
* current database connection attempt
*/
@CallerSensitive
public static Connection getConnection(String url, String user, String password)
throws SQLException {
java.util.Properties info = new java.util.Properties();
if (user != null) {
info.put("user", user);
}
if (password != null) {
info.put("password", password);
}
return (getConnection(url, info, Reflection.getCallerClass()));
}
@CallerSensitive
public <T> Prop<T> type() {
Prop on = this;
if (!isCannon()) {
Prop<T> already = (Prop<T>) findCannon();
if (already == null) {
toCannon();
on.setCannon();
} else {
on = already;
}
}
Class c = sun.reflect.Reflection.getCallerClass(2);
on.definedInClass = c;
Field f = null;
try {
f = c.getField(name);
} catch (NoSuchFieldException e) {
try {
f = c.getField("_" + name);
} catch (NoSuchFieldException e3) {
if (name.startsWith("_"))
try {
f = c.getField(name.substring(1));
} catch (NoSuchFieldException e1) {
if (name.startsWith("__"))
try {
f = c.getField(name.substring(1));
} catch (NoSuchFieldException e2) {
}
}
}
}
if (f == null)
throw new IllegalStateException(
" cannot type a Dict.Prop<T> that we can't find. Name is :" + name + " class is :" + c);
on.typeInformation = Conversions.linearize(f.getGenericType());
on.typeInformation.remove(0);
return (Prop<T>) on;
}
private static String getCalling(boolean methodName) {
int depth = 4;
if (methodName) {
StackTraceElement e[] = Thread.currentThread().getStackTrace();
if ((e != null) && (e.length >= depth)) {
StackTraceElement s = e[depth];
if (s != null) {
String finalValue = s.getClassName().substring((s.getClassName().lastIndexOf(".") + 1));
finalValue = finalValue + "." + s.getMethodName() + "():" + s.getLineNumber();
return finalValue;
}
}
return null;
} else {
return sun.reflect.Reflection.getCallerClass(depth + 1).getSimpleName();
}
}
/**
* Retrieves an Enumeration with all of the currently loaded JDBC drivers to which the current
* caller has access.
*
* <p><B>Note:</B> The classname of a driver can be found using <CODE>d.getClass().getName()
* </CODE>
*
* @return the list of JDBC Drivers loaded by the caller's class loader
*/
@CallerSensitive
public static java.util.Enumeration<Driver> getDrivers() {
java.util.Vector<Driver> result = new java.util.Vector<>();
Class<?> callerClass = Reflection.getCallerClass();
// Walk through the loaded registeredDrivers.
for (DriverInfo aDriver : registeredDrivers) {
// If the caller does not have permission to load the driver then
// skip it.
if (isDriverAllowed(aDriver.driver, callerClass)) {
result.addElement(aDriver.driver);
} else {
println(" skipping: " + aDriver.getClass().getName());
}
}
return (result.elements());
}
protected boolean hasGetEnv(String name, Permission permission) {
for (Pattern environmentVariablePattern : _environmentVariablePatterns) {
Matcher matcher = environmentVariablePattern.matcher(name);
if (matcher.matches()) {
return true;
}
}
int stackIndex = getStackIndex(11, 10);
Class<?> callerClass = Reflection.getCallerClass(stackIndex);
if (isTrustedCaller(callerClass, permission)) {
return true;
}
return false;
}
/**
* Creates and returns an updater for objects with the given field. The Class argument is needed
* to check that reflective types and generic types match.
*
* @param tclass the class of the objects holding the field
* @param fieldName the name of the field to be updated.
* @return the updater
* @throws IllegalArgumentException if the field is not a volatile long type.
* @throws RuntimeException with a nested reflection-based exception if the class does not hold
* field or is the wrong type.
*/
@CallerSensitive
public static <U> AtomicLongFieldUpdater<U> newUpdater(Class<U> tclass, String fieldName) {
Class<?> caller = Reflection.getCallerClass();
if (AtomicLong.VM_SUPPORTS_LONG_CAS) return new CASUpdater<U>(tclass, fieldName, caller);
else return new LockedUpdater<U>(tclass, fieldName, caller);
}
public ClassLoader missingCallerSensitiveAnnotation() {
Class<?> c = sun.reflect.Reflection.getCallerClass();
return c.getClassLoader();
}
@sun.reflect.CallerSensitive
public ClassLoader getCallerLoader() {
Class<?> c = sun.reflect.Reflection.getCallerClass();
return c.getClassLoader();
}
/**
* Creates and returns an updater for objects with the given field. The Class arguments are needed
* to check that reflective types and generic types match.
*
* @param tclass the class of the objects holding the field.
* @param vclass the class of the field
* @param fieldName the name of the field to be updated.
* @return the updater
* @throws IllegalArgumentException if the field is not a volatile reference type.
* @throws RuntimeException with a nested reflection-based exception if the class does not hold
* field or is the wrong type.
*/
@CallerSensitive
public static <U, W> AtomicReferenceFieldUpdater<U, W> newUpdater(
Class<U> tclass, Class<W> vclass, String fieldName) {
return new AtomicReferenceFieldUpdaterImpl<U, W>(
tclass, vclass, fieldName, Reflection.getCallerClass());
}
/**
* Attempts to establish a connection to the given database URL. The <code>DriverManager</code>
* attempts to select an appropriate driver from the set of registered JDBC drivers.
*
* @param url a database url of the form <code> jdbc:<em>subprotocol</em>:<em>subname</em></code>
* @return a connection to the URL
* @exception SQLException if a database access error occurs or the url is {@code null}
* @throws SQLTimeoutException when the driver has determined that the timeout value specified by
* the {@code setLoginTimeout} method has been exceeded and has at least tried to cancel the
* current database connection attempt
*/
@CallerSensitive
public static Connection getConnection(String url) throws SQLException {
java.util.Properties info = new java.util.Properties();
return (getConnection(url, info, Reflection.getCallerClass()));
}
/* returns the class of the caller. */
static Class<?> getCallerClass() {
// NOTE use of more generic Reflection.getCallerClass()
return Reflection.getCallerClass(3);
}