private static void processDereferencedCollection(
PersistentCollection coll, SessionImplementor session) {
final PersistenceContext persistenceContext = session.getPersistenceContext();
CollectionEntry entry = persistenceContext.getCollectionEntry(coll);
final CollectionPersister loadedPersister = entry.getLoadedPersister();
if (LOG.isDebugEnabled() && loadedPersister != null) {
LOG.debugf(
"Collection dereferenced: %s",
MessageHelper.collectionInfoString(
loadedPersister, entry.getLoadedKey(), session.getFactory()));
}
// do a check
boolean hasOrphanDelete = loadedPersister != null && loadedPersister.hasOrphanDelete();
if (hasOrphanDelete) {
Serializable ownerId =
loadedPersister.getOwnerEntityPersister().getIdentifier(coll.getOwner(), session);
if (ownerId == null) {
// the owning entity may have been deleted and its identifier unset due to
// identifier-rollback; in which case, try to look up its identifier from
// the persistence context
if (session.getFactory().getSettings().isIdentifierRollbackEnabled()) {
EntityEntry ownerEntry = persistenceContext.getEntry(coll.getOwner());
if (ownerEntry != null) {
ownerId = ownerEntry.getId();
}
}
if (ownerId == null) {
throw new AssertionFailure(
"Unable to determine collection owner identifier for orphan-delete processing");
}
}
EntityKey key = session.generateEntityKey(ownerId, loadedPersister.getOwnerEntityPersister());
Object owner = persistenceContext.getEntity(key);
if (owner == null) {
throw new AssertionFailure(
"collection owner not associated with session: " + loadedPersister.getRole());
}
EntityEntry e = persistenceContext.getEntry(owner);
// only collections belonging to deleted entities are allowed to be dereferenced in the case
// of orphan delete
if (e != null && e.getStatus() != Status.DELETED && e.getStatus() != Status.GONE) {
throw new HibernateException(
"A collection with cascade=\"all-delete-orphan\" was no longer referenced by the owning entity instance: "
+ loadedPersister.getRole());
}
}
// do the work
entry.setCurrentPersister(null);
entry.setCurrentKey(null);
prepareCollectionForUpdate(coll, entry, session.getFactory());
}
private void checkEmptyAuditSessionCache(Session session, String... auditEntityNames) {
List<String> entityNames = Arrays.asList(auditEntityNames);
PersistenceContext persistenceContext = ((SessionImplementor) session).getPersistenceContext();
for (Object entry : persistenceContext.getEntityEntries().values()) {
EntityEntry entityEntry = (EntityEntry) entry;
if (entityNames.contains(entityEntry.getEntityName())) {
assert false
: "Audit data shall not be stored in the session level cache. This causes performance issues.";
}
Assert.assertFalse(
"Revision entity shall not be stored in the session level cache. This causes performance issues.",
DefaultRevisionEntity.class.getName().equals(entityEntry.getEntityName()));
}
}
@Override
public void doBeforeTransactionCompletion(SessionImplementor session) {
final EntityPersister persister = entry.getPersister();
final Object latestVersion = persister.getCurrentVersion(entry.getId(), session);
if (!entry.getVersion().equals(latestVersion)) {
throw new OptimisticLockException(
object,
"Newer version ["
+ latestVersion
+ "] of entity ["
+ MessageHelper.infoString(entry.getEntityName(), entry.getId())
+ "] found in database");
}
}
/**
* process cascade save/update at the start of a flush to discover any newly referenced entity
* that must be passed to saveOrUpdate(), and also apply orphan delete
*/
private void prepareEntityFlushes(EventSource session, PersistenceContext persistenceContext)
throws HibernateException {
LOG.debug("Processing flush-time cascades");
final Object anything = getAnything();
// safe from concurrent modification because of how concurrentEntries() is implemented on
// IdentityMap
for (Map.Entry<Object, EntityEntry> me : persistenceContext.reentrantSafeEntityEntries()) {
// for ( Map.Entry me : IdentityMap.concurrentEntries( persistenceContext.getEntityEntries()
// ) ) {
EntityEntry entry = (EntityEntry) me.getValue();
Status status = entry.getStatus();
if (status == Status.MANAGED || status == Status.SAVING || status == Status.READ_ONLY) {
cascadeOnFlush(session, entry.getPersister(), me.getKey(), anything);
}
}
}
/**
* process cascade save/update at the start of a flush to discover any newly referenced entity
* that must be passed to saveOrUpdate(), and also apply orphan delete
*/
private void prepareEntityFlushes(EventSource session) throws HibernateException {
LOG.debugf("Processing flush-time cascades");
final Map.Entry[] list =
IdentityMap.concurrentEntries(session.getPersistenceContext().getEntityEntries());
// safe from concurrent modification because of how entryList() is implemented on IdentityMap
final int size = list.length;
final Object anything = getAnything();
for (int i = 0; i < size; i++) {
Map.Entry me = list[i];
EntityEntry entry = (EntityEntry) me.getValue();
Status status = entry.getStatus();
if (status == Status.MANAGED || status == Status.SAVING || status == Status.READ_ONLY) {
cascadeOnFlush(session, entry.getPersister(), me.getKey(), anything);
}
}
}
/**
* 1. detect any dirty entities 2. schedule any entity updates 3. search out any reachable
* collections
*/
private int flushEntities(final FlushEvent event, final PersistenceContext persistenceContext)
throws HibernateException {
LOG.trace("Flushing entities and processing referenced collections");
final EventSource source = event.getSession();
final Iterable<FlushEntityEventListener> flushListeners =
source
.getFactory()
.getServiceRegistry()
.getService(EventListenerRegistry.class)
.getEventListenerGroup(EventType.FLUSH_ENTITY)
.listeners();
// Among other things, updateReachables() will recursively load all
// collections that are moving roles. This might cause entities to
// be loaded.
// So this needs to be safe from concurrent modification problems.
final Map.Entry<Object, EntityEntry>[] entityEntries =
persistenceContext.reentrantSafeEntityEntries();
final int count = entityEntries.length;
for (Map.Entry<Object, EntityEntry> me : entityEntries) {
// Update the status of the object and if necessary, schedule an update
EntityEntry entry = me.getValue();
Status status = entry.getStatus();
if (status != Status.LOADING && status != Status.GONE) {
final FlushEntityEvent entityEvent = new FlushEntityEvent(source, me.getKey(), entry);
for (FlushEntityEventListener listener : flushListeners) {
listener.onFlushEntity(entityEvent);
}
}
}
source.getActionQueue().sortActions();
return count;
}
/**
* 1. detect any dirty entities 2. schedule any entity updates 3. search out any reachable
* collections
*/
private void flushEntities(FlushEvent event) throws HibernateException {
LOG.trace("Flushing entities and processing referenced collections");
// Among other things, updateReachables() will recursively load all
// collections that are moving roles. This might cause entities to
// be loaded.
// So this needs to be safe from concurrent modification problems.
// It is safe because of how IdentityMap implements entrySet()
final EventSource source = event.getSession();
final Map.Entry[] list =
IdentityMap.concurrentEntries(source.getPersistenceContext().getEntityEntries());
final int size = list.length;
for (int i = 0; i < size; i++) {
// Update the status of the object and if necessary, schedule an update
Map.Entry me = list[i];
EntityEntry entry = (EntityEntry) me.getValue();
Status status = entry.getStatus();
if (status != Status.LOADING && status != Status.GONE) {
final FlushEntityEvent entityEvent = new FlushEntityEvent(source, me.getKey(), entry);
final EventListenerGroup<FlushEntityEventListener> listenerGroup =
source
.getFactory()
.getServiceRegistry()
.getService(EventListenerRegistry.class)
.getEventListenerGroup(EventType.FLUSH_ENTITY);
for (FlushEntityEventListener listener : listenerGroup.listeners()) {
listener.onFlushEntity(entityEvent);
}
}
}
source.getActionQueue().sortActions();
}
/**
* Determine whether the entity is persistent, detached, or transient
*
* @param entity The entity to check
* @param entityName The name of the entity
* @param entry The entity's entry in the persistence context
* @param source The originating session.
* @return The state.
*/
protected EntityState getEntityState(
Object entity,
String entityName,
EntityEntry entry, // pass this as an argument only to avoid double looking
SessionImplementor source) {
final boolean traceEnabled = LOG.isTraceEnabled();
if (entry != null) { // the object is persistent
// the entity is associated with the session, so check its status
if (entry.getStatus() != Status.DELETED) {
// do nothing for persistent instances
if (traceEnabled) {
LOG.tracev("Persistent instance of: {0}", getLoggableName(entityName, entity));
}
return EntityState.PERSISTENT;
}
// ie. e.status==DELETED
if (traceEnabled) {
LOG.tracev("Deleted instance of: {0}", getLoggableName(entityName, entity));
}
return EntityState.DELETED;
}
// the object is transient or detached
// the entity is not associated with the session, so
// try interceptor and unsaved-value
if (ForeignKeys.isTransient(entityName, entity, getAssumedUnsaved(), source)) {
if (traceEnabled) {
LOG.tracev("Transient instance of: {0}", getLoggableName(entityName, entity));
}
return EntityState.TRANSIENT;
}
if (traceEnabled) {
LOG.tracev("Detached instance of: {0}", getLoggableName(entityName, entity));
}
return EntityState.DETACHED;
}
@Override
public void execute() throws HibernateException {
final Serializable id = getId();
final EntityPersister persister = getPersister();
final SessionImplementor session = getSession();
final Object instance = getInstance();
final boolean veto = preUpdate();
final SessionFactoryImplementor factory = session.getFactory();
Object previousVersion = this.previousVersion;
if (persister.isVersionPropertyGenerated()) {
// we need to grab the version value from the entity, otherwise
// we have issues with generated-version entities that may have
// multiple actions queued during the same flush
previousVersion = persister.getVersion(instance);
}
final Object ck;
if (persister.hasCache()) {
final EntityRegionAccessStrategy cache = persister.getCacheAccessStrategy();
ck = cache.generateCacheKey(id, persister, factory, session.getTenantIdentifier());
lock = cache.lockItem(session, ck, previousVersion);
} else {
ck = null;
}
if (!veto) {
persister.update(
id,
state,
dirtyFields,
hasDirtyCollection,
previousState,
previousVersion,
instance,
rowId,
session);
}
final EntityEntry entry = session.getPersistenceContext().getEntry(instance);
if (entry == null) {
throw new AssertionFailure("possible nonthreadsafe access to session");
}
if (entry.getStatus() == Status.MANAGED || persister.isVersionPropertyGenerated()) {
// get the updated snapshot of the entity state by cloning current state;
// it is safe to copy in place, since by this time no-one else (should have)
// has a reference to the array
TypeHelper.deepCopy(
state, persister.getPropertyTypes(), persister.getPropertyCheckability(), state, session);
if (persister.hasUpdateGeneratedProperties()) {
// this entity defines proeprty generation, so process those generated
// values...
persister.processUpdateGeneratedProperties(id, instance, state, session);
if (persister.isVersionPropertyGenerated()) {
nextVersion = Versioning.getVersion(state, persister);
}
}
// have the entity entry doAfterTransactionCompletion post-update processing, passing it the
// update state and the new version (if one).
entry.postUpdate(instance, state, nextVersion);
}
if (persister.hasCache()) {
if (persister.isCacheInvalidationRequired() || entry.getStatus() != Status.MANAGED) {
persister.getCacheAccessStrategy().remove(session, ck);
} else {
// TODO: inefficient if that cache is just going to ignore the updated state!
final CacheEntry ce = persister.buildCacheEntry(instance, state, nextVersion, getSession());
cacheEntry = persister.getCacheEntryStructure().structure(ce);
final boolean put = cacheUpdate(persister, previousVersion, ck);
if (put && factory.getStatistics().isStatisticsEnabled()) {
factory
.getStatisticsImplementor()
.secondLevelCachePut(getPersister().getCacheAccessStrategy().getRegion().getName());
}
}
}
session
.getPersistenceContext()
.getNaturalIdHelper()
.manageSharedNaturalIdCrossReference(
persister, id, state, previousNaturalIdValues, CachedNaturalIdValueSource.UPDATE);
postUpdate();
if (factory.getStatistics().isStatisticsEnabled() && !veto) {
factory.getStatisticsImplementor().updateEntity(getPersister().getEntityName());
}
}
@Override
public void delete(Serializable id, Object version, Object object, SessionImplementor session)
throws HibernateException {
final int span = getTableSpan();
if (span > 1) {
throw new HibernateException(
"Hibernate OGM does not yet support entities spanning multiple tables");
}
final EntityMetamodel entityMetamodel = getEntityMetamodel();
boolean isImpliedOptimisticLocking = !entityMetamodel.isVersioned() && isAllOrDirtyOptLocking();
Object[] loadedState = null;
if (isImpliedOptimisticLocking) {
// need to treat this as if it where optimistic-lock="all" (dirty does *not* make sense);
// first we need to locate the "loaded" state
//
// Note, it potentially could be a proxy, so doAfterTransactionCompletion the location the
// safe way...
org.hibernate.engine.spi.EntityKey key = session.generateEntityKey(id, this);
Object entity = session.getPersistenceContext().getEntity(key);
if (entity != null) {
EntityEntry entry = session.getPersistenceContext().getEntry(entity);
loadedState = entry.getLoadedState();
}
}
final EntityKey key = EntityKeyBuilder.fromPersister(this, id, session);
final Tuple resultset = gridDialect.getTuple(key, this.getTupleContext());
final SessionFactoryImplementor factory = getFactory();
if (isImpliedOptimisticLocking && loadedState != null) {
// we need to utilize dynamic delete statements
for (int j = span - 1; j >= 0; j--) {
boolean[] versionability = getPropertyVersionability();
// TODO do a diff on the properties value from resultset
GridType[] types = gridPropertyTypes;
for (int i = 0; i < entityMetamodel.getPropertySpan(); i++) {
boolean include = isPropertyOfTable(i, j) && versionability[i];
if (include) {
final GridType type = types[i];
final Object snapshotValue =
type.nullSafeGet(resultset, getPropertyColumnNames(i), session, object);
// TODO support other entity modes
if (!type.isEqual(loadedState[i], snapshotValue, factory)) {
if (factory.getStatistics().isStatisticsEnabled()) {
factory.getStatisticsImplementor().optimisticFailure(getEntityName());
}
throw new StaleObjectStateException(getEntityName(), id);
}
}
}
}
} else {
if (entityMetamodel.isVersioned()) {
checkVersionAndRaiseSOSE(id, version, session, resultset);
}
}
for (int j = span - 1; j >= 0; j--) {
if (isInverseTable(j)) {
return;
}
if (log.isTraceEnabled()) {
log.trace("Deleting entity: " + MessageHelper.infoString(this, id, factory));
if (j == 0 && isVersioned()) {
log.trace("Version: " + version);
}
}
// delete association information
// needs to be executed before the tuple removal because the AtomicMap in ISPN is cleared upon
// removal
new EntityDehydrator()
.gridDialect(gridDialect)
.gridPropertyTypes(gridPropertyTypes)
.gridIdentifierType(gridIdentifierType)
.id(id)
.persister(this)
.resultset(resultset)
.session(session)
.tableIndex(j)
.onlyRemovePropertyMetadata()
.dehydrate();
gridDialect.removeTuple(key, getTupleContext());
}
}
// TODO make AbstractEntityPersister#isModifiableEntity protected instead
private boolean isModifiableEntity(EntityEntry entry) {
return (entry == null ? isMutable() : entry.isModifiableEntity());
}
@Override
public void execute() throws HibernateException {
nullifyTransientReferencesIfNotAlready();
final EntityPersister persister = getPersister();
final SessionImplementor session = getSession();
final Object instance = getInstance();
final Serializable id = getId();
final boolean veto = preInsert();
// Don't need to lock the cache here, since if someone
// else inserted the same pk first, the insert would fail
if (!veto) {
persister.insert(id, getState(), instance, session);
final EntityEntry entry = session.getPersistenceContext().getEntry(instance);
if (entry == null) {
throw new AssertionFailure("possible non-threadsafe access to session");
}
entry.postInsert(getState());
if (persister.hasInsertGeneratedProperties()) {
persister.processInsertGeneratedProperties(id, instance, getState(), session);
if (persister.isVersionPropertyGenerated()) {
version = Versioning.getVersion(getState(), persister);
}
entry.postUpdate(instance, getState(), version);
}
getSession().getPersistenceContext().registerInsertedKey(getPersister(), getId());
}
final SessionFactoryImplementor factory = getSession().getFactory();
if (isCachePutEnabled(persister, session)) {
final CacheEntry ce = persister.buildCacheEntry(instance, getState(), version, session);
cacheEntry = persister.getCacheEntryStructure().structure(ce);
final CacheKey ck =
session.generateCacheKey(
id, persister.getIdentifierType(), persister.getRootEntityName());
final boolean put = persister.getCacheAccessStrategy().insert(ck, cacheEntry, version);
if (put && factory.getStatistics().isStatisticsEnabled()) {
factory
.getStatisticsImplementor()
.secondLevelCachePut(getPersister().getCacheAccessStrategy().getRegion().getName());
}
}
handleNaturalIdPostSaveNotifications(id);
postInsert();
if (factory.getStatistics().isStatisticsEnabled() && !veto) {
factory.getStatisticsImplementor().insertEntity(getPersister().getEntityName());
}
markExecuted();
}
/**
* Handle the given delete event. This is the cascaded form.
*
* @param event The delete event.
* @param transientEntities The cache of entities already deleted
* @throws HibernateException
*/
public void onDelete(DeleteEvent event, Set transientEntities) throws HibernateException {
final EventSource source = event.getSession();
final PersistenceContext persistenceContext = source.getPersistenceContext();
Object entity = persistenceContext.unproxyAndReassociate(event.getObject());
EntityEntry entityEntry = persistenceContext.getEntry(entity);
final EntityPersister persister;
final Serializable id;
final Object version;
if (entityEntry == null) {
LOG.trace("Entity was not persistent in delete processing");
persister = source.getEntityPersister(event.getEntityName(), entity);
if (ForeignKeys.isTransient(persister.getEntityName(), entity, null, source)) {
deleteTransientEntity(
source, entity, event.isCascadeDeleteEnabled(), persister, transientEntities);
// EARLY EXIT!!!
return;
}
performDetachedEntityDeletionCheck(event);
id = persister.getIdentifier(entity, source);
if (id == null) {
throw new TransientObjectException(
"the detached instance passed to delete() had a null identifier");
}
final EntityKey key = source.generateEntityKey(id, persister);
persistenceContext.checkUniqueness(key, entity);
new OnUpdateVisitor(source, id, entity).process(entity, persister);
version = persister.getVersion(entity);
entityEntry =
persistenceContext.addEntity(
entity,
(persister.isMutable() ? Status.MANAGED : Status.READ_ONLY),
persister.getPropertyValues(entity),
key,
version,
LockMode.NONE,
true,
persister,
false);
} else {
LOG.trace("Deleting a persistent instance");
if (entityEntry.getStatus() == Status.DELETED || entityEntry.getStatus() == Status.GONE) {
LOG.trace("Object was already deleted");
return;
}
persister = entityEntry.getPersister();
id = entityEntry.getId();
version = entityEntry.getVersion();
}
/*if ( !persister.isMutable() ) {
throw new HibernateException(
"attempted to delete an object of immutable class: " +
MessageHelper.infoString(persister)
);
}*/
if (invokeDeleteLifecycle(source, entity, persister)) {
return;
}
deleteEntity(
source,
entity,
entityEntry,
event.isCascadeDeleteEnabled(),
event.isOrphanRemovalBeforeUpdates(),
persister,
transientEntities);
if (source.getFactory().getSettings().isIdentifierRollbackEnabled()) {
persister.resetIdentifier(entity, id, version, source);
}
}
/**
* Perform the entity deletion. Well, as with most operations, does not really perform it; just
* schedules an action/execution with the {@link org.hibernate.engine.spi.ActionQueue} for
* execution during flush.
*
* @param session The originating session
* @param entity The entity to delete
* @param entityEntry The entity's entry in the {@link PersistenceContext}
* @param isCascadeDeleteEnabled Is delete cascading enabled?
* @param persister The entity persister.
* @param transientEntities A cache of already deleted entities.
*/
protected final void deleteEntity(
final EventSource session,
final Object entity,
final EntityEntry entityEntry,
final boolean isCascadeDeleteEnabled,
final boolean isOrphanRemovalBeforeUpdates,
final EntityPersister persister,
final Set transientEntities) {
if (LOG.isTraceEnabled()) {
LOG.tracev(
"Deleting {0}",
MessageHelper.infoString(persister, entityEntry.getId(), session.getFactory()));
}
final PersistenceContext persistenceContext = session.getPersistenceContext();
final Type[] propTypes = persister.getPropertyTypes();
final Object version = entityEntry.getVersion();
final Object[] currentState;
if (entityEntry.getLoadedState() == null) {
// ie. the entity came in from update()
currentState = persister.getPropertyValues(entity);
} else {
currentState = entityEntry.getLoadedState();
}
final Object[] deletedState = createDeletedState(persister, currentState, session);
entityEntry.setDeletedState(deletedState);
session
.getInterceptor()
.onDelete(
entity, entityEntry.getId(), deletedState, persister.getPropertyNames(), propTypes);
// before any callbacks, etc, so subdeletions see that this deletion happened first
persistenceContext.setEntryStatus(entityEntry, Status.DELETED);
final EntityKey key = session.generateEntityKey(entityEntry.getId(), persister);
cascadeBeforeDelete(session, persister, entity, entityEntry, transientEntities);
new ForeignKeys.Nullifier(entity, true, false, session)
.nullifyTransientReferences(entityEntry.getDeletedState(), propTypes);
new Nullability(session).checkNullability(entityEntry.getDeletedState(), persister, true);
persistenceContext.getNullifiableEntityKeys().add(key);
if (isOrphanRemovalBeforeUpdates) {
// TODO: The removeOrphan concept is a temporary "hack" for HHH-6484. This should be removed
// once action/task
// ordering is improved.
session
.getActionQueue()
.addAction(
new OrphanRemovalAction(
entityEntry.getId(),
deletedState,
version,
entity,
persister,
isCascadeDeleteEnabled,
session));
} else {
// Ensures that containing deletions happen before sub-deletions
session
.getActionQueue()
.addAction(
new EntityDeleteAction(
entityEntry.getId(),
deletedState,
version,
entity,
persister,
isCascadeDeleteEnabled,
session));
}
cascadeAfterDelete(session, persister, entity, transientEntities);
// the entry will be removed after the flush, and will no longer
// override the stale snapshot
// This is now handled by removeEntity() in EntityDeleteAction
// persistenceContext.removeDatabaseSnapshot(key);
}
/**
* Performs all the actual work needed to save an entity (well to get the save moved to the
* execution queue).
*
* @param entity The entity to be saved
* @param key The id to be used for saving the entity (or null, in the case of identity columns)
* @param persister The entity's persister instance.
* @param useIdentityColumn Should an identity column be used for id generation?
* @param anything Generally cascade-specific information.
* @param source The session which is the source of the current event.
* @param requiresImmediateIdAccess Is access to the identifier required immediately after the
* completion of the save? persist(), for example, does not require this...
* @return The id used to save the entity; may be null depending on the type of id generator used
* and the requiresImmediateIdAccess value
*/
protected Serializable performSaveOrReplicate(
Object entity,
EntityKey key,
EntityPersister persister,
boolean useIdentityColumn,
Object anything,
EventSource source,
boolean requiresImmediateIdAccess) {
Serializable id = key == null ? null : key.getIdentifier();
boolean inTxn = source.isTransactionInProgress();
boolean shouldDelayIdentityInserts = !inTxn && !requiresImmediateIdAccess;
// Put a placeholder in entries, so we don't recurse back and try to save() the
// same object again. QUESTION: should this be done before onSave() is called?
// likewise, should it be done before onUpdate()?
EntityEntry original =
source
.getPersistenceContext()
.addEntry(
entity,
Status.SAVING,
null,
null,
id,
null,
LockMode.WRITE,
useIdentityColumn,
persister,
false,
false);
cascadeBeforeSave(source, persister, entity, anything);
Object[] values = persister.getPropertyValuesToInsert(entity, getMergeMap(anything), source);
Type[] types = persister.getPropertyTypes();
boolean substitute = substituteValuesIfNecessary(entity, id, values, persister, source);
if (persister.hasCollections()) {
substitute = substitute || visitCollectionsBeforeSave(entity, id, values, types, source);
}
if (substitute) {
persister.setPropertyValues(entity, values);
}
TypeHelper.deepCopy(values, types, persister.getPropertyUpdateability(), values, source);
AbstractEntityInsertAction insert =
addInsertAction(
values, id, entity, persister, useIdentityColumn, source, shouldDelayIdentityInserts);
// postpone initializing id in case the insert has non-nullable transient dependencies
// that are not resolved until cascadeAfterSave() is executed
cascadeAfterSave(source, persister, entity, anything);
if (useIdentityColumn && insert.isEarlyInsert()) {
if (!EntityIdentityInsertAction.class.isInstance(insert)) {
throw new IllegalStateException(
"Insert should be using an identity column, but action is of unexpected type: "
+ insert.getClass().getName());
}
id = ((EntityIdentityInsertAction) insert).getGeneratedId();
insert.handleNaturalIdPostSaveNotifications(id);
}
EntityEntry newEntry = source.getPersistenceContext().getEntry(entity);
if (newEntry != original) {
EntityEntryExtraState extraState = newEntry.getExtraState(EntityEntryExtraState.class);
if (extraState == null) {
newEntry.addExtraState(original.getExtraState(EntityEntryExtraState.class));
}
}
return id;
}