public void noCascade(
EventSource session,
Object child,
Object parent,
EntityPersister persister,
int propertyIndex) {
if (child == null) {
return;
}
Type type = persister.getPropertyTypes()[propertyIndex];
if (type.isEntityType()) {
String childEntityName =
((EntityType) type).getAssociatedEntityName(session.getFactory());
if (!isInManagedState(child, session)
&& !(child
instanceof
HibernateProxy) // a proxy cannot be transient and it breaks
// ForeignKeys.isTransient
&& ForeignKeys.isTransient(childEntityName, child, null, session)) {
String parentEntiytName = persister.getEntityName();
String propertyName = persister.getPropertyNames()[propertyIndex];
throw new TransientObjectException(
"object references an unsaved transient instance - "
+ "save the transient instance before flushing: "
+ parentEntiytName
+ "."
+ propertyName
+ " -> "
+ childEntityName);
}
}
}
private void checkNaturalId(
EntityPersister persister,
EntityEntry entry,
Object[] current,
Object[] loaded,
EntityMode entityMode,
SessionImplementor session) {
if (persister.hasNaturalIdentifier() && entry.getStatus() != Status.READ_ONLY) {
Object[] snapshot = null;
Type[] types = persister.getPropertyTypes();
int[] props = persister.getNaturalIdentifierProperties();
boolean[] updateable = persister.getPropertyUpdateability();
for (int i = 0; i < props.length; i++) {
int prop = props[i];
if (!updateable[prop]) {
Object loadedVal;
if (loaded == null) {
if (snapshot == null) {
snapshot =
session.getPersistenceContext().getNaturalIdSnapshot(entry.getId(), persister);
}
loadedVal = snapshot[i];
} else {
loadedVal = loaded[prop];
}
if (!types[prop].isEqual(current[prop], loadedVal, entityMode)) {
throw new HibernateException(
"immutable natural identifier of an instance of "
+ persister.getEntityName()
+ " was altered");
}
}
}
}
}
/**
* Flushes a single entity's state to the database, by scheduling an update action, if necessary
*/
public void onFlushEntity(FlushEntityEvent event) throws HibernateException {
final Object entity = event.getEntity();
final EntityEntry entry = event.getEntityEntry();
final EventSource session = event.getSession();
final EntityPersister persister = entry.getPersister();
final Status status = entry.getStatus();
final EntityMode entityMode = session.getEntityMode();
final Type[] types = persister.getPropertyTypes();
final boolean mightBeDirty = entry.requiresDirtyCheck(entity);
final Object[] values = getValues(entity, entry, entityMode, mightBeDirty, session);
event.setPropertyValues(values);
// TODO: avoid this for non-new instances where mightBeDirty==false
boolean substitute = wrapCollections(session, persister, types, values);
if (isUpdateNecessary(event, mightBeDirty)) {
substitute = scheduleUpdate(event) || substitute;
}
if (status != Status.DELETED) {
// now update the object .. has to be outside the main if block above (because of collections)
if (substitute) persister.setPropertyValues(entity, values, entityMode);
// Search for collections by reachability, updating their role.
// We don't want to touch collections reachable from a deleted object
if (persister.hasCollections()) {
new FlushVisitor(session, entity).processEntityPropertyValues(values, types);
}
}
}
private Object[] createDeletedState(
EntityPersister persister, Object[] currentState, EventSource session) {
Type[] propTypes = persister.getPropertyTypes();
final Object[] deletedState = new Object[propTypes.length];
// TypeFactory.deepCopy( currentState, propTypes, persister.getPropertyUpdateability(),
// deletedState, session );
boolean[] copyability = new boolean[propTypes.length];
java.util.Arrays.fill(copyability, true);
TypeHelper.deepCopy(currentState, propTypes, copyability, deletedState, session);
return deletedState;
}
/**
* Construct a new key for a caching natural identifier resolutions into the second level cache.
* Note that an entity name should always be the root entity name, not a subclass entity name.
*
* @param naturalIdValues The naturalIdValues associated with the cached data
* @param persister The persister for the entity
* @param session The originating session
*/
public NaturalIdCacheKey(
final Object[] naturalIdValues,
final EntityPersister persister,
final SessionImplementor session) {
this.entityName = persister.getRootEntityName();
this.tenantId = session.getTenantIdentifier();
this.naturalIdValues = new Serializable[naturalIdValues.length];
final SessionFactoryImplementor factory = session.getFactory();
final int[] naturalIdPropertyIndexes = persister.getNaturalIdentifierProperties();
final Type[] propertyTypes = persister.getPropertyTypes();
final int prime = 31;
int result = 1;
result = prime * result + ((this.entityName == null) ? 0 : this.entityName.hashCode());
result = prime * result + ((this.tenantId == null) ? 0 : this.tenantId.hashCode());
for (int i = 0; i < naturalIdValues.length; i++) {
final Type type = propertyTypes[naturalIdPropertyIndexes[i]];
final Object value = naturalIdValues[i];
result = prime * result + (value != null ? type.getHashCode(value, factory) : 0);
this.naturalIdValues[i] = type.disassemble(value, session, null);
}
this.hashCode = result;
this.toString =
new ValueHolder<String>(
new ValueHolder.DeferredInitializer<String>() {
@Override
public String initialize() {
// Complex toString is needed as naturalIds for entities are not simply based on a
// single value like primary keys
// the only same way to differentiate the keys is to included the disassembled
// values in the string.
final StringBuilder toStringBuilder =
new StringBuilder(entityName).append("##NaturalId[");
for (int i = 0; i < naturalIdValues.length; i++) {
toStringBuilder.append(naturalIdValues[i]);
if (i + 1 < naturalIdValues.length) {
toStringBuilder.append(", ");
}
}
toStringBuilder.append("]");
return toStringBuilder.toString();
}
});
}
private boolean hasDirtyCollections(
FlushEntityEvent event, EntityPersister persister, Status status) {
if (isCollectionDirtyCheckNecessary(persister, status)) {
DirtyCollectionSearchVisitor visitor =
new DirtyCollectionSearchVisitor(
event.getSession(), persister.getPropertyVersionability());
visitor.processEntityPropertyValues(event.getPropertyValues(), persister.getPropertyTypes());
boolean hasDirtyCollections = visitor.wasDirtyCollectionFound();
event.setHasDirtyCollection(hasDirtyCollections);
return hasDirtyCollections;
} else {
return false;
}
}
@Override
protected boolean invokeInterceptor(
SessionImplementor session,
Object entity,
EntityEntry entry,
Object[] values,
EntityPersister persister) {
boolean isDirty = false;
if (entry.getStatus() != Status.DELETED) {
if (callbackHandler.preUpdate(entity)) {
isDirty = copyState(entity, persister.getPropertyTypes(), values, session.getFactory());
}
}
return super.invokeInterceptor(session, entity, entry, values, persister) || isDirty;
}
protected boolean invokeInterceptor(
SessionImplementor session,
Object entity,
EntityEntry entry,
final Object[] values,
EntityPersister persister) {
return session
.getInterceptor()
.onFlushDirty(
entity,
entry.getId(),
values,
entry.getLoadedState(),
persister.getPropertyNames(),
persister.getPropertyTypes());
}
/**
* Perform any property value substitution that is necessary (interceptor callback, version
* initialization...)
*
* @param entity The entity
* @param id The entity identifier
* @param values The snapshot entity state
* @param persister The entity persister
* @param source The originating session
* @return True if the snapshot state changed such that reinjection of the values into the entity
* is required.
*/
protected boolean substituteValuesIfNecessary(
Object entity,
Serializable id,
Object[] values,
EntityPersister persister,
SessionImplementor source) {
boolean substitute =
source
.getInterceptor()
.onSave(entity, id, values, persister.getPropertyNames(), persister.getPropertyTypes());
// keep the existing version number in the case of replicate!
if (persister.isVersioned()) {
substitute =
Versioning.seedVersion(
values, persister.getVersionProperty(), persister.getVersionType(), source)
|| substitute;
}
return substitute;
}
private Object assembleCacheEntry(
final CacheEntry entry,
final Serializable id,
final EntityPersister persister,
final LoadEvent event)
throws HibernateException {
final Object optionalObject = event.getInstanceToLoad();
final EventSource session = event.getSession();
final SessionFactoryImplementor factory = session.getFactory();
if (log.isTraceEnabled()) {
log.trace(
"assembling entity from second-level cache: "
+ MessageHelper.infoString(persister, id, factory));
}
EntityPersister subclassPersister = factory.getEntityPersister(entry.getSubclass());
Object result =
optionalObject == null ? session.instantiate(subclassPersister, id) : optionalObject;
// make it circular-reference safe
TwoPhaseLoad.addUninitializedCachedEntity(
new EntityKey(id, subclassPersister, session.getEntityMode()),
result,
subclassPersister,
LockMode.NONE,
entry.areLazyPropertiesUnfetched(),
entry.getVersion(),
session);
Type[] types = subclassPersister.getPropertyTypes();
Object[] values =
entry.assemble(
result,
id,
subclassPersister,
session.getInterceptor(),
session); // intializes result by side-effect
TypeFactory.deepCopy(
values, types, subclassPersister.getPropertyUpdateability(), values, session);
Object version = Versioning.getVersion(values, subclassPersister);
if (log.isTraceEnabled()) log.trace("Cached Version: " + version);
final PersistenceContext persistenceContext = session.getPersistenceContext();
persistenceContext.addEntry(
result,
Status.MANAGED,
values,
null,
id,
version,
LockMode.NONE,
true,
subclassPersister,
false,
entry.areLazyPropertiesUnfetched());
subclassPersister.afterInitialize(result, entry.areLazyPropertiesUnfetched(), session);
persistenceContext.initializeNonLazyCollections();
// upgrade the lock if necessary:
// lock(result, lockMode);
// PostLoad is needed for EJB3
// TODO: reuse the PostLoadEvent...
PostLoadEvent postLoadEvent =
new PostLoadEvent(session).setEntity(result).setId(id).setPersister(persister);
PostLoadEventListener[] listeners = session.getListeners().getPostLoadEventListeners();
for (int i = 0; i < listeners.length; i++) {
listeners[i].onPostLoad(postLoadEvent);
}
return result;
}
@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());
}
}
/**
* 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;
}
/**
* Perform the second step of 2-phase load. Fully initialize the entity instance.
*
* <p>After processing a JDBC result set, we "resolve" all the associations between the entities
* which were instantiated and had their state "hydrated" into an array
*/
public static void initializeEntity(
final Object entity,
final boolean readOnly,
final SessionImplementor session,
final PreLoadEvent preLoadEvent,
final PostLoadEvent postLoadEvent)
throws HibernateException {
// TODO: Should this be an InitializeEntityEventListener??? (watch out for performance!)
final PersistenceContext persistenceContext = session.getPersistenceContext();
EntityEntry entityEntry = persistenceContext.getEntry(entity);
if (entityEntry == null) {
throw new AssertionFailure("possible non-threadsafe access to the session");
}
EntityPersister persister = entityEntry.getPersister();
Serializable id = entityEntry.getId();
Object[] hydratedState = entityEntry.getLoadedState();
if (log.isDebugEnabled())
log.debug(
"resolving associations for "
+ MessageHelper.infoString(persister, id, session.getFactory()));
Type[] types = persister.getPropertyTypes();
for (int i = 0; i < hydratedState.length; i++) {
final Object value = hydratedState[i];
if (value != LazyPropertyInitializer.UNFETCHED_PROPERTY
&& value != BackrefPropertyAccessor.UNKNOWN) {
hydratedState[i] = types[i].resolve(value, session, entity);
}
}
// Must occur after resolving identifiers!
if (session.isEventSource()) {
preLoadEvent.setEntity(entity).setState(hydratedState).setId(id).setPersister(persister);
PreLoadEventListener[] listeners = session.getListeners().getPreLoadEventListeners();
for (int i = 0; i < listeners.length; i++) {
listeners[i].onPreLoad(preLoadEvent);
}
}
persister.setPropertyValues(entity, hydratedState, session.getEntityMode());
final SessionFactoryImplementor factory = session.getFactory();
if (persister.hasCache() && session.getCacheMode().isPutEnabled()) {
if (log.isDebugEnabled())
log.debug(
"adding entity to second-level cache: "
+ MessageHelper.infoString(persister, id, session.getFactory()));
Object version = Versioning.getVersion(hydratedState, persister);
CacheEntry entry =
new CacheEntry(
hydratedState,
persister,
entityEntry.isLoadedWithLazyPropertiesUnfetched(),
version,
session,
entity);
CacheKey cacheKey =
new CacheKey(
id,
persister.getIdentifierType(),
persister.getRootEntityName(),
session.getEntityMode(),
session.getFactory());
boolean put =
persister
.getCache()
.put(
cacheKey,
persister.getCacheEntryStructure().structure(entry),
session.getTimestamp(),
version,
persister.isVersioned() ? persister.getVersionType().getComparator() : null,
useMinimalPuts(
session,
entityEntry)); // we could use persister.hasLazyProperties() instead of true
if (put && factory.getStatistics().isStatisticsEnabled()) {
factory
.getStatisticsImplementor()
.secondLevelCachePut(persister.getCache().getRegionName());
}
}
if (readOnly || !persister.isMutable()) {
// no need to take a snapshot - this is a
// performance optimization, but not really
// important, except for entities with huge
// mutable property values
persistenceContext.setEntryStatus(entityEntry, Status.READ_ONLY);
} else {
// take a snapshot
TypeFactory.deepCopy(
hydratedState,
persister.getPropertyTypes(),
persister.getPropertyUpdateability(),
hydratedState, // after setting values to object, entityMode
session);
persistenceContext.setEntryStatus(entityEntry, Status.MANAGED);
}
persister.afterInitialize(entity, entityEntry.isLoadedWithLazyPropertiesUnfetched(), session);
if (session.isEventSource()) {
postLoadEvent.setEntity(entity).setId(id).setPersister(persister);
PostLoadEventListener[] listeners = session.getListeners().getPostLoadEventListeners();
for (int i = 0; i < listeners.length; i++) {
listeners[i].onPostLoad(postLoadEvent);
}
}
if (log.isDebugEnabled())
log.debug(
"done materializing entity "
+ MessageHelper.infoString(persister, id, session.getFactory()));
if (factory.getStatistics().isStatisticsEnabled()) {
factory.getStatisticsImplementor().loadEntity(persister.getEntityName());
}
}
/** Perform a dirty check, and attach the results to the event */
protected void dirtyCheck(FlushEntityEvent event) throws HibernateException {
final Object entity = event.getEntity();
final Object[] values = event.getPropertyValues();
final SessionImplementor session = event.getSession();
final EntityEntry entry = event.getEntityEntry();
final EntityPersister persister = entry.getPersister();
final Serializable id = entry.getId();
final Object[] loadedState = entry.getLoadedState();
int[] dirtyProperties =
session
.getInterceptor()
.findDirty(
entity,
id,
values,
loadedState,
persister.getPropertyNames(),
persister.getPropertyTypes());
event.setDatabaseSnapshot(null);
final boolean interceptorHandledDirtyCheck;
boolean cannotDirtyCheck;
if (dirtyProperties == null) {
// Interceptor returned null, so do the dirtycheck ourself, if possible
interceptorHandledDirtyCheck = false;
cannotDirtyCheck = loadedState == null; // object loaded by update()
if (!cannotDirtyCheck) {
// dirty check against the usual snapshot of the entity
dirtyProperties = persister.findDirty(values, loadedState, entity, session);
} else if (entry.getStatus() == Status.DELETED
&& !event.getEntityEntry().isModifiableEntity()) {
// A non-modifiable (e.g., read-only or immutable) entity needs to be have
// references to transient entities set to null before being deleted. No other
// fields should be updated.
if (values != entry.getDeletedState()) {
throw new IllegalStateException(
"Entity has status Status.DELETED but values != entry.getDeletedState");
}
// Even if loadedState == null, we can dirty-check by comparing currentState and
// entry.getDeletedState() because the only fields to be updated are those that
// refer to transient entities that are being set to null.
// - currentState contains the entity's current property values.
// - entry.getDeletedState() contains the entity's current property values with
// references to transient entities set to null.
// - dirtyProperties will only contain properties that refer to transient entities
final Object[] currentState =
persister.getPropertyValues(event.getEntity(), event.getSession().getEntityMode());
dirtyProperties =
persister.findDirty(entry.getDeletedState(), currentState, entity, session);
cannotDirtyCheck = false;
} else {
// dirty check against the database snapshot, if possible/necessary
final Object[] databaseSnapshot = getDatabaseSnapshot(session, persister, id);
if (databaseSnapshot != null) {
dirtyProperties = persister.findModified(databaseSnapshot, values, entity, session);
cannotDirtyCheck = false;
event.setDatabaseSnapshot(databaseSnapshot);
}
}
} else {
// the Interceptor handled the dirty checking
cannotDirtyCheck = false;
interceptorHandledDirtyCheck = true;
}
logDirtyProperties(id, dirtyProperties, persister);
event.setDirtyProperties(dirtyProperties);
event.setDirtyCheckHandledByInterceptor(interceptorHandledDirtyCheck);
event.setDirtyCheckPossible(!cannotDirtyCheck);
}
