jdk-sandbox: comparison hotspot/src/share/vm/oops/instanceKlass.cpp

equal deleted inserted replaced

-:6061df52d610
+:53ccc37bda19
 bool InstanceKlass::should_be_initialized() const {
 return !is_initialized();
 }
 klassItable* InstanceKlass::itable() const {
-return new klassItable(instanceKlassHandle(this));
+return new klassItable(const_cast<InstanceKlass*>(this));
 }
 void InstanceKlass::eager_initialize(Thread *thread) {
 if (!EagerInitialization) return;
 // abort if the super class should be initialized
 if (!InstanceKlass::cast(super)->is_initialized()) return;
 // call body to expose the this pointer
-instanceKlassHandle this_k(thread, this);
+eager_initialize_impl(this);
-eager_initialize_impl(this_k);
 }
 }
 // JVMTI spec thinks there are signers and protection domain in the
 // instanceKlass.  These accessors pretend these fields are there.
 OrderAccess::storestore();
 java_lang_Class::set_init_lock(java_mirror(), NULL);
 assert(!is_not_initialized(), "class must be initialized now");
 }
-void InstanceKlass::eager_initialize_impl(instanceKlassHandle this_k) {
+void InstanceKlass::eager_initialize_impl(InstanceKlass* this_k) {
 EXCEPTION_MARK;
 HandleMark hm(THREAD);
 Handle init_lock(THREAD, this_k->init_lock());
 ObjectLocker ol(init_lock, THREAD, init_lock() != NULL);
 // See "The Virtual Machine Specification" section 2.16.5 for a detailed explanation of the class initialization
 // process. The step comments refers to the procedure described in that section.
 // Note: implementation moved to static method to expose the this pointer.
 void InstanceKlass::initialize(TRAPS) {
 if (this->should_be_initialized()) {
-instanceKlassHandle this_k(THREAD, this);
+initialize_impl(this, CHECK);
-initialize_impl(this_k, CHECK);
 // Note: at this point the class may be initialized
 //       OR it may be in the state of being initialized
 //       in case of recursive initialization!
 } else {
 assert(is_initialized(), "sanity check");
 }
 }
 bool InstanceKlass::verify_code(
-instanceKlassHandle this_k, bool throw_verifyerror, TRAPS) {
+InstanceKlass* this_k, bool throw_verifyerror, TRAPS) {
 // 1) Verify the bytecodes
 Verifier::Mode mode =
 throw_verifyerror ? Verifier::ThrowException : Verifier::NoException;
 return Verifier::verify(this_k, mode, this_k->should_verify_class(), THREAD);
 }
 }
 void InstanceKlass::link_class(TRAPS) {
 assert(is_loaded(), "must be loaded");
 if (!is_linked()) {
-instanceKlassHandle this_k(THREAD, this);
+link_class_impl(this, true, CHECK);
-link_class_impl(this_k, true, CHECK);
 }
 }
 // Called to verify that a class can link during initialization, without
 // throwing a VerifyError.
 bool InstanceKlass::link_class_or_fail(TRAPS) {
 assert(is_loaded(), "must be loaded");
 if (!is_linked()) {
-instanceKlassHandle this_k(THREAD, this);
+link_class_impl(this, false, CHECK_false);
-link_class_impl(this_k, false, CHECK_false);
 }
 return is_linked();
 }
 bool InstanceKlass::link_class_impl(
-instanceKlassHandle this_k, bool throw_verifyerror, TRAPS) {
+InstanceKlass* this_k, bool throw_verifyerror, TRAPS) {
 if (DumpSharedSpaces && this_k->is_in_error_state()) {
 // This is for CDS dumping phase only -- we use the in_error_state to indicate that
 // the class has failed verification. Throwing the NoClassDefFoundError here is just
 // a convenient way to stop repeat attempts to verify the same (bad) class.
 //
 // timer handles recursion
 assert(THREAD->is_Java_thread(), "non-JavaThread in link_class_impl");
 JavaThread* jt = (JavaThread*)THREAD;
 // link super class before linking this class
-instanceKlassHandle super(THREAD, this_k->super());
+Klass* super = this_k->super();
-if (super.not_null()) {
+if (super != NULL) {
 if (super->is_interface()) {  // check if super class is an interface
 ResourceMark rm(THREAD);
 Exceptions::fthrow(
 THREAD_AND_LOCATION,
 vmSymbols::java_lang_IncompatibleClassChangeError(),
 super->external_name()
 );
 return false;
 }
-link_class_impl(super, throw_verifyerror, CHECK_false);
+InstanceKlass* ik_super = InstanceKlass::cast(super);
+link_class_impl(ik_super, throw_verifyerror, CHECK_false);
 }
 // link all interfaces implemented by this class before linking this class
 Array<Klass*>* interfaces = this_k->local_interfaces();
 int num_interfaces = interfaces->length();
 for (int index = 0; index < num_interfaces; index++) {
-instanceKlassHandle ih(THREAD, interfaces->at(index));
+InstanceKlass* interk = InstanceKlass::cast(interfaces->at(index));
-link_class_impl(ih, throw_verifyerror, CHECK_false);
+link_class_impl(interk, throw_verifyerror, CHECK_false);
 }
 // in case the class is linked in the process of linking its superclasses
 if (this_k->is_linked()) {
 return true;
 #endif
 this_k->set_init_state(linked);
 if (JvmtiExport::should_post_class_prepare()) {
 Thread *thread = THREAD;
 assert(thread->is_Java_thread(), "thread->is_Java_thread()");
-JvmtiExport::post_class_prepare((JavaThread *) thread, this_k());
+JvmtiExport::post_class_prepare((JavaThread *) thread, this_k);
 }
 }
 }
 return true;
 }
 // Rewrite the byte codes of all of the methods of a class.
 // The rewriter must be called exactly once. Rewriting must happen after
 // verification but before the first method of the class is executed.
 void InstanceKlass::rewrite_class(TRAPS) {
 assert(is_loaded(), "must be loaded");
-instanceKlassHandle this_k(THREAD, this);
+if (is_rewritten()) {
-if (this_k->is_rewritten()) {
+assert(is_shared(), "rewriting an unshared class?");
-assert(this_k()->is_shared(), "rewriting an unshared class?");
 return;
 }
-Rewriter::rewrite(this_k, CHECK);
+Rewriter::rewrite(this, CHECK);
-this_k->set_rewritten();
+set_rewritten();
 }
 // Now relocate and link method entry points after class is rewritten.
 // This is outside is_rewritten flag. In case of an exception, it can be
 // executed more than once.
 m->link_method(m, CHECK);
 }
 }
 // Eagerly initialize superinterfaces that declare default methods (concrete instance: any access)
-void InstanceKlass::initialize_super_interfaces(instanceKlassHandle this_k, TRAPS) {
+void InstanceKlass::initialize_super_interfaces(InstanceKlass* this_k, TRAPS) {
 assert (this_k->has_nonstatic_concrete_methods(), "caller should have checked this");
 for (int i = 0; i < this_k->local_interfaces()->length(); ++i) {
 Klass* iface = this_k->local_interfaces()->at(i);
 InstanceKlass* ik = InstanceKlass::cast(iface);
 ik->initialize(CHECK);
 }
 }
 }
-void InstanceKlass::initialize_impl(instanceKlassHandle this_k, TRAPS) {
+void InstanceKlass::initialize_impl(InstanceKlass* this_k, TRAPS) {
 HandleMark hm(THREAD);
 // Make sure klass is linked (verified) before initialization
 // A class could already be verified, since it has been reflected upon.
 this_k->link_class(CHECK);
-DTRACE_CLASSINIT_PROBE(required, this_k(), -1);
+DTRACE_CLASSINIT_PROBE(required, this_k, -1);
 bool wait = false;
 // refer to the JVM book page 47 for description of steps
 // Step 1
 ol.waitUninterruptibly(CHECK);
 }
 // Step 3
 if (this_k->is_being_initialized() && this_k->is_reentrant_initialization(self)) {
-DTRACE_CLASSINIT_PROBE_WAIT(recursive, this_k(), -1,wait);
+DTRACE_CLASSINIT_PROBE_WAIT(recursive, this_k, -1,wait);
 return;
 }
 // Step 4
 if (this_k->is_initialized()) {
-DTRACE_CLASSINIT_PROBE_WAIT(concurrent, this_k(), -1,wait);
+DTRACE_CLASSINIT_PROBE_WAIT(concurrent, this_k, -1,wait);
 return;
 }
 // Step 5
 if (this_k->is_in_error_state()) {
-DTRACE_CLASSINIT_PROBE_WAIT(erroneous, this_k(), -1,wait);
+DTRACE_CLASSINIT_PROBE_WAIT(erroneous, this_k, -1,wait);
 ResourceMark rm(THREAD);
 const char* desc = "Could not initialize class ";
 const char* className = this_k->external_name();
 size_t msglen = strlen(desc) + strlen(className) + 1;
 char* message = NEW_RESOURCE_ARRAY(char, msglen);
 EXCEPTION_MARK;
 // Locks object, set state, and notify all waiting threads
 this_k->set_initialization_state_and_notify(initialization_error, THREAD);
 CLEAR_PENDING_EXCEPTION;
 }
-DTRACE_CLASSINIT_PROBE_WAIT(super__failed, this_k(), -1,wait);
+DTRACE_CLASSINIT_PROBE_WAIT(super__failed, this_k, -1,wait);
 THROW_OOP(e());
 }
 }
 // Step 8
 {
 assert(THREAD->is_Java_thread(), "non-JavaThread in initialize_impl");
 JavaThread* jt = (JavaThread*)THREAD;
-DTRACE_CLASSINIT_PROBE_WAIT(clinit, this_k(), -1,wait);
+DTRACE_CLASSINIT_PROBE_WAIT(clinit, this_k, -1,wait);
 // Timer includes any side effects of class initialization (resolution,
 // etc), but not recursive entry into call_class_initializer().
 PerfClassTraceTime timer(ClassLoader::perf_class_init_time(),
 ClassLoader::perf_class_init_selftime(),
 ClassLoader::perf_classes_inited(),
 CLEAR_PENDING_EXCEPTION;   // ignore any exception thrown, class initialization error is thrown below
 // JVMTI has already reported the pending exception
 // JVMTI internal flag reset is needed in order to report ExceptionInInitializerError
 JvmtiExport::clear_detected_exception((JavaThread*)THREAD);
 }
-DTRACE_CLASSINIT_PROBE_WAIT(error, this_k(), -1,wait);
+DTRACE_CLASSINIT_PROBE_WAIT(error, this_k, -1,wait);
 if (e->is_a(SystemDictionary::Error_klass())) {
 THROW_OOP(e());
 } else {
 JavaCallArguments args(e);
 THROW_ARG(vmSymbols::java_lang_ExceptionInInitializerError(),
 vmSymbols::throwable_void_signature(),
 &args);
 }
 }
-DTRACE_CLASSINIT_PROBE_WAIT(end, this_k(), -1,wait);
+DTRACE_CLASSINIT_PROBE_WAIT(end, this_k, -1,wait);
 }
 // Note: implementation moved to static method to expose the this pointer.
 void InstanceKlass::set_initialization_state_and_notify(ClassState state, TRAPS) {
-instanceKlassHandle kh(THREAD, this);
+set_initialization_state_and_notify_impl(this, state, CHECK);
-set_initialization_state_and_notify_impl(kh, state, CHECK);
+}
-}
+void InstanceKlass::set_initialization_state_and_notify_impl(InstanceKlass* this_k, ClassState state, TRAPS) {
-void InstanceKlass::set_initialization_state_and_notify_impl(instanceKlassHandle this_k, ClassState state, TRAPS) {
 Handle init_lock(THREAD, this_k->init_lock());
 if (init_lock() != NULL) {
 ObjectLocker ol(init_lock, THREAD);
 this_k->set_init_state(state);
 this_k->fence_and_clear_init_lock();
 JvmtiExport::post_array_size_exhausted();
 THROW_OOP_0(Universe::out_of_memory_error_array_size());
 }
 int size = objArrayOopDesc::object_size(length);
 Klass* ak = array_klass(n, CHECK_NULL);
-KlassHandle h_ak (THREAD, ak);
 objArrayOop o =
-(objArrayOop)CollectedHeap::array_allocate(h_ak, size, length, CHECK_NULL);
+(objArrayOop)CollectedHeap::array_allocate(ak, size, length, CHECK_NULL);
 return o;
 }
 instanceOop InstanceKlass::register_finalizer(instanceOop i, TRAPS) {
 if (TraceFinalizerRegistration) {
 instanceOop InstanceKlass::allocate_instance(TRAPS) {
 bool has_finalizer_flag = has_finalizer(); // Query before possible GC
 int size = size_helper();  // Query before forming handle.
-KlassHandle h_k(THREAD, this);
 instanceOop i;
-i = (instanceOop)CollectedHeap::obj_allocate(h_k, size, CHECK_NULL);
+i = (instanceOop)CollectedHeap::obj_allocate(this, size, CHECK_NULL);
 if (has_finalizer_flag && !RegisterFinalizersAtInit) {
 i = register_finalizer(i, CHECK_NULL);
 }
 return i;
 }
 : vmSymbols::java_lang_IllegalAccessException(), external_name());
 }
 }
 Klass* InstanceKlass::array_klass_impl(bool or_null, int n, TRAPS) {
-instanceKlassHandle this_k(THREAD, this);
+return array_klass_impl(this, or_null, n, THREAD);
-return array_klass_impl(this_k, or_null, n, THREAD);
+}
-}
+Klass* InstanceKlass::array_klass_impl(InstanceKlass* this_k, bool or_null, int n, TRAPS) {
-Klass* InstanceKlass::array_klass_impl(instanceKlassHandle this_k, bool or_null, int n, TRAPS) {
 // Need load-acquire for lock-free read
 if (this_k->array_klasses_acquire() == NULL) {
 if (or_null) return NULL;
 ResourceMark rm;
 Klass* InstanceKlass::array_klass_impl(bool or_null, TRAPS) {
 return array_klass_impl(or_null, 1, THREAD);
 }
 void InstanceKlass::call_class_initializer(TRAPS) {
-instanceKlassHandle ik (THREAD, this);
+call_class_initializer_impl(this, THREAD);
-call_class_initializer_impl(ik, THREAD);
 }
 static int call_class_initializer_impl_counter = 0;   // for debugging
-Method* InstanceKlass::class_initializer() {
+Method* InstanceKlass::class_initializer() const {
 Method* clinit = find_method(
 vmSymbols::class_initializer_name(), vmSymbols::void_method_signature());
 if (clinit != NULL && clinit->has_valid_initializer_flags()) {
 return clinit;
 }
 return NULL;
 }
-void InstanceKlass::call_class_initializer_impl(instanceKlassHandle this_k, TRAPS) {
+void InstanceKlass::call_class_initializer_impl(InstanceKlass* this_k, TRAPS) {
 if (ReplayCompiles &&
 (ReplaySuppressInitializers == 1 ||
 ReplaySuppressInitializers >= 2 && this_k->class_loader() != NULL)) {
 // Hide the existence of the initializer for the purpose of replaying the compile
 return;
 if (log_is_enabled(Info, class, init)) {
 ResourceMark rm;
 outputStream* log = Log(class, init)::info_stream();
 log->print("%d Initializing ", call_class_initializer_impl_counter++);
 this_k->name()->print_value_on(log);
-log->print_cr("%s (" INTPTR_FORMAT ")", h_method() == NULL ? "(no method)" : "", p2i(this_k()));
+log->print_cr("%s (" INTPTR_FORMAT ")", h_method() == NULL ? "(no method)" : "", p2i(this_k));
 }
 if (h_method() != NULL) {
 JavaCallArguments args; // No arguments
 JavaValue result(T_VOID);
 JavaCalls::call(&result, h_method, &args, CHECK); // Static call (no args)
 }
 }
 void InstanceKlass::do_local_static_fields(void f(fieldDescriptor*, Handle, TRAPS), Handle mirror, TRAPS) {
-instanceKlassHandle h_this(THREAD, this);
+do_local_static_fields_impl(this, f, mirror, CHECK);
-do_local_static_fields_impl(h_this, f, mirror, CHECK);
+}
-}
+void InstanceKlass::do_local_static_fields_impl(InstanceKlass* this_k,
-void InstanceKlass::do_local_static_fields_impl(instanceKlassHandle this_k,
 void f(fieldDescriptor* fd, Handle, TRAPS), Handle mirror, TRAPS) {
-for (JavaFieldStream fs(this_k()); !fs.done(); fs.next()) {
+for (JavaFieldStream fs(this_k); !fs.done(); fs.next()) {
 if (fs.access_flags().is_static()) {
 fieldDescriptor& fd = fs.field_descriptor();
 f(&fd, mirror, CHECK);
 }
 }
 }
 return NULL;
 }
 /* jni_id_for_impl for jfieldIds only */
-JNIid* InstanceKlass::jni_id_for_impl(instanceKlassHandle this_k, int offset) {
+JNIid* InstanceKlass::jni_id_for_impl(InstanceKlass* this_k, int offset) {
 MutexLocker ml(JfieldIdCreation_lock);
 // Retry lookup after we got the lock
 JNIid* probe = this_k->jni_ids() == NULL ? NULL : this_k->jni_ids()->find(offset);
 if (probe == NULL) {
 // Slow case, allocate new static field identifier
-probe = new JNIid(this_k(), offset, this_k->jni_ids());
+probe = new JNIid(this_k, offset, this_k->jni_ids());
 this_k->set_jni_ids(probe);
 }
 return probe;
 }
 // Lookup or create a jmethodID.
 // This code is called by the VMThread and JavaThreads so the
 // locking has to be done very carefully to avoid deadlocks
 // and/or other cache consistency problems.
 //
-jmethodID InstanceKlass::get_jmethod_id(instanceKlassHandle ik_h, const methodHandle& method_h) {
+jmethodID InstanceKlass::get_jmethod_id(InstanceKlass* ik, const methodHandle& method_h) {
 size_t idnum = (size_t)method_h->method_idnum();
-jmethodID* jmeths = ik_h->methods_jmethod_ids_acquire();
+jmethodID* jmeths = ik->methods_jmethod_ids_acquire();
 size_t length = 0;
 jmethodID id = NULL;
 // We use a double-check locking idiom here because this cache is
 // performance sensitive. In the normal system, this cache only
 // cache accesses and freeing of the old cache so a lock is generally
 // acquired when the RedefineClasses() API has been used.
 if (jmeths != NULL) {
 // the cache already exists
-if (!ik_h->idnum_can_increment()) {
+if (!ik->idnum_can_increment()) {
 // the cache can't grow so we can just get the current values
 get_jmethod_id_length_value(jmeths, idnum, &length, &id);
 } else {
 // cache can grow so we have to be more careful
 if (Threads::number_of_threads() == 0 ||
 // may not allocate new_jmeths or use it if we allocate it
 jmethodID* new_jmeths = NULL;
 if (length <= idnum) {
 // allocate a new cache that might be used
-size_t size = MAX2(idnum+1, (size_t)ik_h->idnum_allocated_count());
+size_t size = MAX2(idnum+1, (size_t)ik->idnum_allocated_count());
 new_jmeths = NEW_C_HEAP_ARRAY(jmethodID, size+1, mtClass);
 memset(new_jmeths, 0, (size+1)*sizeof(jmethodID));
 // cache size is stored in element[0], other elements offset by one
 new_jmeths[0] = (jmethodID)size;
 }
 // allocate a new jmethodID that might be used
 jmethodID new_id = NULL;
 if (method_h->is_old() && !method_h->is_obsolete()) {
 // The method passed in is old (but not obsolete), we need to use the current version
-Method* current_method = ik_h->method_with_idnum((int)idnum);
+Method* current_method = ik->method_with_idnum((int)idnum);
 assert(current_method != NULL, "old and but not obsolete, so should exist");
-new_id = Method::make_jmethod_id(ik_h->class_loader_data(), current_method);
+new_id = Method::make_jmethod_id(ik->class_loader_data(), current_method);
 } else {
 // It is the current version of the method or an obsolete method,
 // use the version passed in
-new_id = Method::make_jmethod_id(ik_h->class_loader_data(), method_h());
+new_id = Method::make_jmethod_id(ik->class_loader_data(), method_h());
 }
 if (Threads::number_of_threads() == 0 ||
 SafepointSynchronize::is_at_safepoint()) {
 // we're single threaded or at a safepoint - no locking needed
-id = get_jmethod_id_fetch_or_update(ik_h, idnum, new_id, new_jmeths,
+id = get_jmethod_id_fetch_or_update(ik, idnum, new_id, new_jmeths,
 &to_dealloc_id, &to_dealloc_jmeths);
 } else {
 MutexLocker ml(JmethodIdCreation_lock);
-id = get_jmethod_id_fetch_or_update(ik_h, idnum, new_id, new_jmeths,
+id = get_jmethod_id_fetch_or_update(ik, idnum, new_id, new_jmeths,
 &to_dealloc_id, &to_dealloc_jmeths);
 }
 // The lock has been dropped so we can free resources.
 // Free up either the old cache or the new cache if we allocated one.
 if (to_dealloc_jmeths != NULL) {
 FreeHeap(to_dealloc_jmeths);
 }
 // free up the new ID since it wasn't needed
 if (to_dealloc_id != NULL) {
-Method::destroy_jmethod_id(ik_h->class_loader_data(), to_dealloc_id);
+Method::destroy_jmethod_id(ik->class_loader_data(), to_dealloc_id);
 }
 }
 return id;
 }
 // cache with the new jmethodID. This function should never do anything
 // that causes the caller to go to a safepoint or we can deadlock with
 // the VMThread or have cache consistency issues.
 //
 jmethodID InstanceKlass::get_jmethod_id_fetch_or_update(
-instanceKlassHandle ik_h, size_t idnum, jmethodID new_id,
+InstanceKlass* ik, size_t idnum, jmethodID new_id,
 jmethodID* new_jmeths, jmethodID* to_dealloc_id_p,
 jmethodID** to_dealloc_jmeths_p) {
 assert(new_id != NULL, "sanity check");
 assert(to_dealloc_id_p != NULL, "sanity check");
 assert(to_dealloc_jmeths_p != NULL, "sanity check");
 assert(Threads::number_of_threads() == 0 ||
 SafepointSynchronize::is_at_safepoint() ||
 JmethodIdCreation_lock->owned_by_self(), "sanity check");
 // reacquire the cache - we are locked, single threaded or at a safepoint
-jmethodID* jmeths = ik_h->methods_jmethod_ids_acquire();
+jmethodID* jmeths = ik->methods_jmethod_ids_acquire();
 jmethodID  id     = NULL;
 size_t     length = 0;
 if (jmeths == NULL ||                         // no cache yet
 (length = (size_t)jmeths[0]) <= idnum) {  // cache is too short
 for (size_t index = 0; index < length; index++) {
 new_jmeths[index+1] = jmeths[index+1];
 }
 *to_dealloc_jmeths_p = jmeths;  // save old cache for later delete
 }
-ik_h->release_set_methods_jmethod_ids(jmeths = new_jmeths);
+ik->release_set_methods_jmethod_ids(jmeths = new_jmeths);
 } else {
 // fetch jmethodID (if any) from the existing cache
 id = jmeths[idnum+1];
 *to_dealloc_jmeths_p = new_jmeths;  // save new cache for later delete
 }
 // --> see ArrayKlass::complete_create_array_klass()
 k->restore_unshareable_info(ClassLoaderData::the_null_class_loader_data(), Handle(), CHECK);
 }
 void InstanceKlass::restore_unshareable_info(ClassLoaderData* loader_data, Handle protection_domain, TRAPS) {
-instanceKlassHandle ik(THREAD, this);
+set_package(loader_data, CHECK);
-ik->set_package(loader_data, CHECK);
 Klass::restore_unshareable_info(loader_data, protection_domain, CHECK);
-Array<Method*>* methods = ik->methods();
+Array<Method*>* methods = this->methods();
 int num_methods = methods->length();
 for (int index2 = 0; index2 < num_methods; ++index2) {
 methodHandle m(THREAD, methods->at(index2));
 m->restore_unshareable_info(CHECK);
 }
 // entries in this vtable for super classes so the CDS vtable might
 // point to old or obsolete entries.  RedefineClasses doesn't fix up
 // vtables in the shared system dictionary, only the main one.
 // It also redefines the itable too so fix that too.
 ResourceMark rm(THREAD);
-ik->vtable()->initialize_vtable(false, CHECK);
+vtable()->initialize_vtable(false, CHECK);
-ik->itable()->initialize_itable(false, CHECK);
+itable()->initialize_itable(false, CHECK);
 }
 // restore constant pool resolved references
-ik->constants()->restore_unshareable_info(CHECK);
+constants()->restore_unshareable_info(CHECK);
-ik->array_klasses_do(restore_unshareable_in_class, CHECK);
+array_klasses_do(restore_unshareable_in_class, CHECK);
 }
 // returns true IFF is_in_error_state() has been changed as a result of this call.
 bool InstanceKlass::check_sharing_error_state() {
 assert(DumpSharedSpaces, "should only be called during dumping");
 assert(super_method->is_package_private(), "must be package private");
 return(is_same_class_package(targetclassloader(), targetclassname));
 }
 /* defined for now in jvm.cpp, for historical reasons *--
-Klass* InstanceKlass::compute_enclosing_class_impl(instanceKlassHandle self,
+Klass* InstanceKlass::compute_enclosing_class_impl(InstanceKlass* self,
 Symbol*& simple_name_result, TRAPS) {
 ...
 }
 */
 // If by this point we have not found an equality between the
 // two classes, we know they are in separate package members.
 return false;
 }
-bool InstanceKlass::find_inner_classes_attr(instanceKlassHandle k, int* ooff, int* noff, TRAPS) {
+bool InstanceKlass::find_inner_classes_attr(const InstanceKlass* k, int* ooff, int* noff, TRAPS) {
 constantPoolHandle i_cp(THREAD, k->constants());
 for (InnerClassesIterator iter(k); !iter.done(); iter.next()) {
 int ioff = iter.inner_class_info_index();
 if (ioff != 0) {
 // Check to see if the name matches the class we're looking for
 // before attempting to find the class.
 if (i_cp->klass_name_at_matches(k, ioff)) {
 Klass* inner_klass = i_cp->klass_at(ioff, CHECK_false);
-if (k() == inner_klass) {
+if (k == inner_klass) {
 *ooff = iter.outer_class_info_index();
 *noff = iter.inner_name_index();
 return true;
 }
 }
 jint InstanceKlass::compute_modifier_flags(TRAPS) const {
 jint access = access_flags().as_int();
 // But check if it happens to be member class.
-instanceKlassHandle ik(THREAD, this);
+InnerClassesIterator iter(this);
-InnerClassesIterator iter(ik);
 for (; !iter.done(); iter.next()) {
 int ioff = iter.inner_class_info_index();
 // Inner class attribute can be zero, skip it.
 // Strange but true:  JVM spec. allows null inner class refs.
 if (ioff == 0) continue;
 // only look at classes that are already loaded
 // since we are looking for the flags for our self.
-Symbol* inner_name = ik->constants()->klass_name_at(ioff);
+Symbol* inner_name = constants()->klass_name_at(ioff);
-if ((ik->name() == inner_name)) {
+if (name() == inner_name) {
 // This is really a member class.
 access = iter.inner_access_flags();
 break;
 }
 }
 }
 // Save the scratch_class as the previous version if any of the methods are running.
 // The previous_versions are used to set breakpoints in EMCP methods and they are
 // also used to clean MethodData links to redefined methods that are no longer running.
-void InstanceKlass::add_previous_version(instanceKlassHandle scratch_class,
+void InstanceKlass::add_previous_version(InstanceKlass* scratch_class,
 int emcp_method_count) {
 assert(Thread::current()->is_VM_thread(),
 "only VMThread can add previous versions");
 ResourceMark rm;
 ConstantPool* cp_ref = scratch_class->constants();
 if (!cp_ref->on_stack()) {
 log_trace(redefine, class, iklass, add)("scratch class not added; no methods are running");
 // For debugging purposes.
 scratch_class->set_is_scratch_class();
-scratch_class->class_loader_data()->add_to_deallocate_list(scratch_class());
+scratch_class->class_loader_data()->add_to_deallocate_list(scratch_class);
 return;
 }
 if (emcp_method_count != 0) {
 // At least one method is still running, check for EMCP methods
 // Set has_previous_version flag for processing during class unloading.
 _has_previous_versions = true;
 log_trace(redefine, class, iklass, add) ("scratch class added; one of its methods is on_stack.");
 assert(scratch_class->previous_versions() == NULL, "shouldn't have a previous version");
 scratch_class->link_previous_versions(previous_versions());
-link_previous_versions(scratch_class());
+link_previous_versions(scratch_class);
 } // end add_previous_version()
 #endif // INCLUDE_JVMTI
 Method* InstanceKlass::method_with_idnum(int idnum) {

changeset 46329	53ccc37bda19
parent 46327	91576389a517
child 46341	4c676683bdb9