Initializes a new instance of the AsyncWriteJournal class.

Gets the self ActorRef

Gets the sending ActorRef of the current message

TBD

TBD

Can be overridden to intercept calls to `PostRestart`. Calls `PostRestart` by default.

Can be overridden to intercept calls to `PostStop`. Calls `PostStop` by default..

Can be overridden to intercept calls to `PreRestart`. Calls `PreRestart` by default.

Can be overridden to intercept calls to `PreStart`. Calls `PreStart` by default.

TBD

Changes the actor's command behavior and replaces the current receive handler with the specified handler.

Changes the actor's behavior and replaces the current receive handler with the specified handler. The current handler is stored on a stack, and you can revert to it by calling UnbecomeStacked

Asynchronously deletes all persistent messages up to inclusive toSequenceNr bound.

Determines whether the specified object is equal to the current object.

Allows an object to try to free resources and perform other cleanup operations before it is reclaimed by garbage collection.

Serves as the default hash function.

Gets the Type of the current instance.

Creates a shallow copy of the current Object.

User overridable callback: By default it calls `PreStart()`.

Is called right AFTER restart on the newly created Actor to allow reinitialization after an Actor crash.

User overridable callback.

Is called asynchronously after 'actor.stop()' is invoked. Empty default implementation.

TBD

User overridable callback: '''By default it disposes of all children and then calls `postStop()`.'''

Is called on a crashed Actor right BEFORE it is restarted to allow clean up of resources before Actor is terminated.

User overridable callback.

Is called when an Actor is started. Actors are automatically started asynchronously when created. Empty default implementation.

Asynchronously reads the highest stored sequence number for provided persistenceId. The persistent actor will use the highest sequence number after recovery as the starting point when persisting new events. This sequence number is also used as `toSequenceNr` in subsequent calls to ReplayMessagesAsync(IActorContext, String, Int64, Int64, Int64, ActionIPersistentRepresentation) unless the user has specified a lower `toSequenceNr`. Journal must maintain the highest sequence number and never decrease it. This call is protected with a circuit-breaker. Please also not that requests for the highest sequence number may be made concurrently to writes executing for the same persistenceId, in particular it is possible that a restarting actor tries to recover before its outstanding writes have completed.

Processor for user defined messages.

Allows plugin implementers to use PipeToT(TaskT, ICanTell, IActorRef, FuncT, Object, FuncException, Object)Self and handle additional messages for implementing advanced features

TBD

Asynchronously replays persistent messages. Implementations replay a message by calling recoveryCallback. The returned task must be completed when all messages (matching the sequence number bounds) have been replayed. The task must be completed with a failure if any of the persistent messages could not be replayed. The toSequenceNr is the lowest of what was returned by ReadHighestSequenceNrAsync(String, Int64) and what the user specified as recovery Recovery parameter. This does imply that this call is always preceded by reading the highest sequence number for the given persistenceId. This call is NOT protected with a circuit-breaker because it may take a long time to replay all events. The plugin implementation itself must protect against an unresponsive backend store and make sure that the returned Task is completed with success or failure within reasonable time. It is not allowed to ignore completing the Task.

TBD

Returns a string that represents the current object.

TBD

Reverts the Actor behavior to the previous one on the behavior stack.

Is called when a message isn't handled by the current behavior of the actor by default it fails with either a DeathPactException (in case of an unhandled Terminated message) or publishes an UnhandledMessage to the actor's system's EventStream

Plugin API: asynchronously writes a batch of persistent messages to the journal. The batch is only for performance reasons, i.e. all messages don't have to be written atomically. Higher throughput can typically be achieved by using batch inserts of many records compared to inserting records one-by-one, but this aspect depends on the underlying data store and a journal implementation can implement it as efficient as possible. Journals should aim to persist events in-order for a given `persistenceId` as otherwise in case of a failure, the persistent state may be end up being inconsistent. Each AtomicWrite message contains the single Persistent that corresponds to the event that was passed to the PersistTEvent(TEvent, ActionTEvent) method of the PersistentActor, or it contains several Persistent that correspond to the events that were passed to the PersistAllTEvent(IEnumerableTEvent, ActionTEvent) method of the PersistentActor. All Persistent of the AtomicWrite must be written to the data store atomically, i.e. all or none must be stored. If the journal (data store) cannot support atomic writes of multiple events it should reject such writes with a NotSupportedException describing the issue. This limitation should also be documented by the journal plugin. If there are failures when storing any of the messages in the batch the returned Task must be completed with failure. The Task must only be completed with success when all messages in the batch have been confirmed to be stored successfully, i.e. they will be readable, and visible, in a subsequent replay. If there is uncertainty about if the messages were stored or not the Task must be completed with failure. Data store connection problems must be signaled by completing the Task with failure. The journal can also signal that it rejects individual messages (AtomicWrite) by the returned Task. It is possible but not mandatory to reduce number of allocations by returning null for the happy path, i.e. when no messages are rejected. Otherwise the returned list must have as many elements as the input messages. Each result element signals if the corresponding AtomicWrite is rejected or not, with an exception describing the problem. Rejecting a message means it was not stored, i.e. it must not be included in a later replay. Rejecting a message is typically done before attempting to store it, e.g. because of serialization error. Data store connection problems must not be signaled as rejections. It is possible but not mandatory to reduce number of allocations by returning null for the happy path, i.e. when no messages are rejected. Calls to this method are serialized by the enclosing journal actor. If you spawn work in asynchronous tasks it is alright that they complete the futures in any order, but the actual writes for a specific persistenceId should be serialized to avoid issues such as events of a later write are visible to consumers (query side, or replay) before the events of an earlier write are visible. A PersistentActor will not send a new WriteMessages request before the previous one has been completed. Please not that the Sender of the contained Persistent objects has been nulled out (i.e. set to NoSender in order to not use space in the journal for a sender reference that will likely be obsolete during replay. Please also note that requests for the highest sequence number may be made concurrently to this call executing for the same `persistenceId`, in particular it is possible that a restarting actor tries to recover before its outstanding writes have completed. In the latter case it is highly desirable to defer reading the highest sequence number until all outstanding writes have completed, otherwise the PersistentActor may reuse sequence numbers. This call is protected with a circuit-breaker.

TBD

Matches the specified target.

Matches the specified target and return a result of target processing.