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# Akka Actor Reference Config File #
####################################
# This is the reference config file that contains all the default settings.
# Make your edits/overrides in your application.conf.
# Akka version, checked against the runtime version of Akka. Loaded from generated conf file.
include "version"
akka {
# Home directory of Akka, modules in the deploy directory will be loaded
home = ""
# Loggers to register at boot time (akka.event.Logging$DefaultLogger logs
# to STDOUT)
# loggers = ["akka.event.Logging$DefaultLogger"]
loggers = ["akka.event.slf4j.Slf4jLogger"]
# Filter of log events that is used by the LoggingAdapter before
# publishing log events to the eventStream. It can perform
# fine grained filtering based on the log source. The default
# implementation filters on the `loglevel`.
# FQCN of the LoggingFilter. The Class of the FQCN must implement
# akka.event.LoggingFilter and have a public constructor with
# (akka.actor.ActorSystem.Settings, akka.event.EventStream) parameters.
# logging-filter = "akka.event.DefaultLoggingFilter"
logging-filter = "akka.event.slf4j.Slf4jLoggingFilter"
# Specifies the default loggers dispatcher
loggers-dispatcher = "akka.actor.default-dispatcher"
# Loggers are created and registered synchronously during ActorSystem
# start-up, and since they are actors, this timeout is used to bound the
# waiting time
logger-startup-timeout = 5s
# Log level used by the configured loggers (see "loggers") as soon
# as they have been started; before that, see "stdout-loglevel"
# Options: OFF, ERROR, WARNING, INFO, DEBUG
loglevel = "INFO"
# Log level for the very basic logger activated during ActorSystem startup.
# This logger prints the log messages to stdout (System.out).
# Options: OFF, ERROR, WARNING, INFO, DEBUG
stdout-loglevel = "WARNING"
# Log the complete configuration at INFO level when the actor system is started.
# This is useful when you are uncertain of what configuration is used.
log-config-on-start = off
# Log at info level when messages are sent to dead letters.
# Possible values:
# on: all dead letters are logged
# off: no logging of dead letters
# n: positive integer, number of dead letters that will be logged
log-dead-letters = 10
# Possibility to turn off logging of dead letters while the actor system
# is shutting down. Logging is only done when enabled by 'log-dead-letters'
# setting.
log-dead-letters-during-shutdown = on
# List FQCN of extensions which shall be loaded at actor system startup.
# Library extensions are regular extensions that are loaded at startup and are
# available for third party library authors to enable auto-loading of extensions when
# present on the classpath. This is done by appending entries:
# 'library-extensions += "Extension"' in the library `reference.conf`.
#
# Should not be set by end user applications in 'application.conf', use the extensions property for that
#
library-extensions = ${?akka.library-extensions} []
# List FQCN of extensions which shall be loaded at actor system startup.
# Should be on the format: 'extensions = ["foo", "bar"]' etc.
# See the Akka Documentation for more info about Extensions
extensions = []
# Toggles whether threads created by this ActorSystem should be daemons or not
daemonic = off
# JVM shutdown, System.exit(-1), in case of a fatal error,
# such as OutOfMemoryError
jvm-exit-on-fatal-error = on
actor {
# Either one of "local", "remote" or "cluster" or the
# FQCN of the ActorRefProvider to be used; the below is the built-in default,
# note that "remote" and "cluster" requires the akka-remote and akka-cluster
# artifacts to be on the classpath.
provider = "local"
# The guardian "/user" will use this class to obtain its supervisorStrategy.
# It needs to be a subclass of akka.actor.SupervisorStrategyConfigurator.
# In addition to the default there is akka.actor.StoppingSupervisorStrategy.
guardian-supervisor-strategy = "akka.actor.DefaultSupervisorStrategy"
# Timeout for ActorSystem.actorOf
creation-timeout = 20s
# Serializes and deserializes (non-primitive) messages to ensure immutability,
# this is only intended for testing.
serialize-messages = off
# Serializes and deserializes creators (in Props) to ensure that they can be
# sent over the network, this is only intended for testing. Purely local deployments
# as marked with deploy.scope == LocalScope are exempt from verification.
serialize-creators = off
# Timeout for send operations to top-level actors which are in the process
# of being started. This is only relevant if using a bounded mailbox or the
# CallingThreadDispatcher for a top-level actor.
unstarted-push-timeout = 10s
typed {
# Default timeout for typed actor methods with non-void return type
timeout = 5s
}
# Mapping between ´deployment.router' short names to fully qualified class names
router.type-mapping {
from-code = "akka.routing.NoRouter"
round-robin-pool = "akka.routing.RoundRobinPool"
round-robin-group = "akka.routing.RoundRobinGroup"
random-pool = "akka.routing.RandomPool"
random-group = "akka.routing.RandomGroup"
balancing-pool = "akka.routing.BalancingPool"
smallest-mailbox-pool = "akka.routing.SmallestMailboxPool"
broadcast-pool = "akka.routing.BroadcastPool"
broadcast-group = "akka.routing.BroadcastGroup"
scatter-gather-pool = "akka.routing.ScatterGatherFirstCompletedPool"
scatter-gather-group = "akka.routing.ScatterGatherFirstCompletedGroup"
tail-chopping-pool = "akka.routing.TailChoppingPool"
tail-chopping-group = "akka.routing.TailChoppingGroup"
consistent-hashing-pool = "akka.routing.ConsistentHashingPool"
consistent-hashing-group = "akka.routing.ConsistentHashingGroup"
}
deployment {
# deployment id pattern - on the format: /parent/child etc.
default {
# The id of the dispatcher to use for this actor.
# If undefined or empty the dispatcher specified in code
# (Props.withDispatcher) is used, or default-dispatcher if not
# specified at all.
dispatcher = ""
# The id of the mailbox to use for this actor.
# If undefined or empty the default mailbox of the configured dispatcher
# is used or if there is no mailbox configuration the mailbox specified
# in code (Props.withMailbox) is used.
# If there is a mailbox defined in the configured dispatcher then that
# overrides this setting.
mailbox = ""
# routing (load-balance) scheme to use
# - available: "from-code", "round-robin", "random", "smallest-mailbox",
# "scatter-gather", "broadcast"
# - or: Fully qualified class name of the router class.
# The class must extend akka.routing.CustomRouterConfig and
# have a public constructor with com.typesafe.config.Config
# and optional akka.actor.DynamicAccess parameter.
# - default is "from-code";
# Whether or not an actor is transformed to a Router is decided in code
# only (Props.withRouter). The type of router can be overridden in the
# configuration; specifying "from-code" means that the values specified
# in the code shall be used.
# In case of routing, the actors to be routed to can be specified
# in several ways:
# - nr-of-instances: will create that many children
# - routees.paths: will route messages to these paths using ActorSelection,
# i.e. will not create children
# - resizer: dynamically resizable number of routees as specified in
# resizer below
router = "from-code"
# number of children to create in case of a router;
# this setting is ignored if routees.paths is given
nr-of-instances = 1
# within is the timeout used for routers containing future calls
within = 5 seconds
# number of virtual nodes per node for consistent-hashing router
virtual-nodes-factor = 10
tail-chopping-router {
# interval is duration between sending message to next routee
interval = 10 milliseconds
}
routees {
# Alternatively to giving nr-of-instances you can specify the full
# paths of those actors which should be routed to. This setting takes
# precedence over nr-of-instances
paths = []
}
# To use a dedicated dispatcher for the routees of the pool you can
# define the dispatcher configuration inline with the property name
# 'pool-dispatcher' in the deployment section of the router.
# For example:
# pool-dispatcher {
# fork-join-executor.parallelism-min = 5
# fork-join-executor.parallelism-max = 5
# }
# Routers with dynamically resizable number of routees; this feature is
# enabled by including (parts of) this section in the deployment
resizer {
enabled = off
# The fewest number of routees the router should ever have.
lower-bound = 1
# The most number of routees the router should ever have.
# Must be greater than or equal to lower-bound.
upper-bound = 10
# Threshold used to evaluate if a routee is considered to be busy
# (under pressure). Implementation depends on this value (default is 1).
# 0: number of routees currently processing a message.
# 1: number of routees currently processing a message has
# some messages in mailbox.
# > 1: number of routees with at least the configured pressure-threshold
# messages in their mailbox. Note that estimating mailbox size of
# default UnboundedMailbox is O(N) operation.
pressure-threshold = 1
# Percentage to increase capacity whenever all routees are busy.
# For example, 0.2 would increase 20% (rounded up), i.e. if current
# capacity is 6 it will request an increase of 2 more routees.
rampup-rate = 0.2
# Minimum fraction of busy routees before backing off.
# For example, if this is 0.3, then we'll remove some routees only when
# less than 30% of routees are busy, i.e. if current capacity is 10 and
# 3 are busy then the capacity is unchanged, but if 2 or less are busy
# the capacity is decreased.
# Use 0.0 or negative to avoid removal of routees.
backoff-threshold = 0.3
# Fraction of routees to be removed when the resizer reaches the
# backoffThreshold.
# For example, 0.1 would decrease 10% (rounded up), i.e. if current
# capacity is 9 it will request an decrease of 1 routee.
backoff-rate = 0.1
# Number of messages between resize operation.
# Use 1 to resize before each message.
messages-per-resize = 10
}
# Routers with dynamically resizable number of routees based on
# performance metrics.
# This feature is enabled by including (parts of) this section in
# the deployment, cannot be enabled together with default resizer.
optimal-size-exploring-resizer {
enabled = off
# The fewest number of routees the router should ever have.
lower-bound = 1
# The most number of routees the router should ever have.
# Must be greater than or equal to lower-bound.
upper-bound = 10
# probability of doing a ramping down when all routees are busy
# during exploration.
chance-of-ramping-down-when-full = 0.2
# Interval between each resize attempt
action-interval = 5s
# If the routees have not been fully utilized (i.e. all routees busy)
# for such length, the resizer will downsize the pool.
downsize-after-underutilized-for = 72h
# Duration exploration, the ratio between the largest step size and
# current pool size. E.g. if the current pool size is 50, and the
# explore-step-size is 0.1, the maximum pool size change during
# exploration will be +- 5
explore-step-size = 0.1
# Probabily of doing an exploration v.s. optmization.
chance-of-exploration = 0.4
# When downsizing after a long streak of underutilization, the resizer
# will downsize the pool to the highest utiliziation multiplied by a
# a downsize rasio. This downsize ratio determines the new pools size
# in comparison to the highest utilization.
# E.g. if the highest utilization is 10, and the down size ratio
# is 0.8, the pool will be downsized to 8
downsize-ratio = 0.8
# When optimizing, the resizer only considers the sizes adjacent to the
# current size. This number indicates how many adjacent sizes to consider.
optimization-range = 16
# The weight of the latest metric over old metrics when collecting
# performance metrics.
# E.g. if the last processing speed is 10 millis per message at pool
# size 5, and if the new processing speed collected is 6 millis per
# message at pool size 5. Given a weight of 0.3, the metrics
# representing pool size 5 will be 6 * 0.3 + 10 * 0.7, i.e. 8.8 millis
# Obviously, this number should be between 0 and 1.
weight-of-latest-metric = 0.5
}
}
/IO-DNS/inet-address {
mailbox = "unbounded"
router = "consistent-hashing-pool"
nr-of-instances = 4
}
}
default-dispatcher {
# Must be one of the following
# Dispatcher, PinnedDispatcher, or a FQCN to a class inheriting
# MessageDispatcherConfigurator with a public constructor with
# both com.typesafe.config.Config parameter and
# akka.dispatch.DispatcherPrerequisites parameters.
# PinnedDispatcher must be used together with executor=thread-pool-executor.
type = "Dispatcher"
# Which kind of ExecutorService to use for this dispatcher
# Valid options:
# - "default-executor" requires a "default-executor" section
# - "fork-join-executor" requires a "fork-join-executor" section
# - "thread-pool-executor" requires a "thread-pool-executor" section
# - A FQCN of a class extending ExecutorServiceConfigurator
executor = "default-executor"
# This will be used if you have set "executor = "default-executor"".
# If an ActorSystem is created with a given ExecutionContext, this
# ExecutionContext will be used as the default executor for all
# dispatchers in the ActorSystem configured with
# executor = "default-executor". Note that "default-executor"
# is the default value for executor, and therefore used if not
# specified otherwise. If no ExecutionContext is given,
# the executor configured in "fallback" will be used.
default-executor {
fallback = "fork-join-executor"
}
# This will be used if you have set "executor = "fork-join-executor""
# Underlying thread pool implementation is scala.concurrent.forkjoin.ForkJoinPool
fork-join-executor {
# Min number of threads to cap factor-based parallelism number to
parallelism-min = 8
# The parallelism factor is used to determine thread pool size using the
# following formula: ceil(available processors * factor). Resulting size
# is then bounded by the parallelism-min and parallelism-max values.
parallelism-factor = 3.0
# Max number of threads to cap factor-based parallelism number to
parallelism-max = 64
# Setting to "FIFO" to use queue like peeking mode which "poll" or "LIFO" to use stack
# like peeking mode which "pop".
task-peeking-mode = "FIFO"
}
# This will be used if you have set "executor = "thread-pool-executor""
# Underlying thread pool implementation is java.util.concurrent.ThreadPoolExecutor
thread-pool-executor {
# Keep alive time for threads
keep-alive-time = 60s
# Define a fixed thread pool size with this property. The corePoolSize
# and the maximumPoolSize of the ThreadPoolExecutor will be set to this
# value, if it is defined. Then the other pool-size properties will not
# be used.
#
# Valid values are: `off` or a positive integer.
fixed-pool-size = off
# Min number of threads to cap factor-based corePoolSize number to
core-pool-size-min = 8
# The core-pool-size-factor is used to determine corePoolSize of the
# ThreadPoolExecutor using the following formula:
# ceil(available processors * factor).
# Resulting size is then bounded by the core-pool-size-min and
# core-pool-size-max values.
core-pool-size-factor = 3.0
# Max number of threads to cap factor-based corePoolSize number to
core-pool-size-max = 64
# Minimum number of threads to cap factor-based maximumPoolSize number to
max-pool-size-min = 8
# The max-pool-size-factor is used to determine maximumPoolSize of the
# ThreadPoolExecutor using the following formula:
# ceil(available processors * factor)
# The maximumPoolSize will not be less than corePoolSize.
# It is only used if using a bounded task queue.
max-pool-size-factor = 3.0
# Max number of threads to cap factor-based maximumPoolSize number to
max-pool-size-max = 64
# Specifies the bounded capacity of the task queue (< 1 == unbounded)
task-queue-size = -1
# Specifies which type of task queue will be used, can be "array" or
# "linked" (default)
task-queue-type = "linked"
# Allow core threads to time out
allow-core-timeout = on
}
# How long time the dispatcher will wait for new actors until it shuts down
shutdown-timeout = 1s
# Throughput defines the number of messages that are processed in a batch
# before the thread is returned to the pool. Set to 1 for as fair as possible.
throughput = 5
# Throughput deadline for Dispatcher, set to 0 or negative for no deadline
throughput-deadline-time = 0ms
# For BalancingDispatcher: If the balancing dispatcher should attempt to
# schedule idle actors using the same dispatcher when a message comes in,
# and the dispatchers ExecutorService is not fully busy already.
attempt-teamwork = on
# If this dispatcher requires a specific type of mailbox, specify the
# fully-qualified class name here; the actually created mailbox will
# be a subtype of this type. The empty string signifies no requirement.
mailbox-requirement = ""
}
default-mailbox {
# FQCN of the MailboxType. The Class of the FQCN must have a public
# constructor with
# (akka.actor.ActorSystem.Settings, com.typesafe.config.Config) parameters.
mailbox-type = "akka.dispatch.UnboundedMailbox"
# If the mailbox is bounded then it uses this setting to determine its
# capacity. The provided value must be positive.
# NOTICE:
# Up to version 2.1 the mailbox type was determined based on this setting;
# this is no longer the case, the type must explicitly be a bounded mailbox.
mailbox-capacity = 1000
# If the mailbox is bounded then this is the timeout for enqueueing
# in case the mailbox is full. Negative values signify infinite
# timeout, which should be avoided as it bears the risk of dead-lock.
mailbox-push-timeout-time = 10s
# For Actor with Stash: The default capacity of the stash.
# If negative (or zero) then an unbounded stash is used (default)
# If positive then a bounded stash is used and the capacity is set using
# the property
stash-capacity = -1
}
mailbox {
# Mapping between message queue semantics and mailbox configurations.
# Used by akka.dispatch.RequiresMessageQueue[T] to enforce different
# mailbox types on actors.
# If your Actor implements RequiresMessageQueue[T], then when you create
# an instance of that actor its mailbox type will be decided by looking
# up a mailbox configuration via T in this mapping
requirements {
"akka.dispatch.UnboundedMessageQueueSemantics" =
akka.actor.mailbox.unbounded-queue-based
"akka.dispatch.BoundedMessageQueueSemantics" =
akka.actor.mailbox.bounded-queue-based
"akka.dispatch.DequeBasedMessageQueueSemantics" =
akka.actor.mailbox.unbounded-deque-based
"akka.dispatch.UnboundedDequeBasedMessageQueueSemantics" =
akka.actor.mailbox.unbounded-deque-based
"akka.dispatch.BoundedDequeBasedMessageQueueSemantics" =
akka.actor.mailbox.bounded-deque-based
"akka.dispatch.MultipleConsumerSemantics" =
akka.actor.mailbox.unbounded-queue-based
"akka.dispatch.ControlAwareMessageQueueSemantics" =
akka.actor.mailbox.unbounded-control-aware-queue-based
"akka.dispatch.UnboundedControlAwareMessageQueueSemantics" =
akka.actor.mailbox.unbounded-control-aware-queue-based
"akka.dispatch.BoundedControlAwareMessageQueueSemantics" =
akka.actor.mailbox.bounded-control-aware-queue-based
"akka.event.LoggerMessageQueueSemantics" =
akka.actor.mailbox.logger-queue
}
unbounded-queue-based {
# FQCN of the MailboxType, The Class of the FQCN must have a public
# constructor with (akka.actor.ActorSystem.Settings,
# com.typesafe.config.Config) parameters.
mailbox-type = "akka.dispatch.UnboundedMailbox"
}
bounded-queue-based {
# FQCN of the MailboxType, The Class of the FQCN must have a public
# constructor with (akka.actor.ActorSystem.Settings,
# com.typesafe.config.Config) parameters.
mailbox-type = "akka.dispatch.BoundedMailbox"
}
unbounded-deque-based {
# FQCN of the MailboxType, The Class of the FQCN must have a public
# constructor with (akka.actor.ActorSystem.Settings,
# com.typesafe.config.Config) parameters.
mailbox-type = "akka.dispatch.UnboundedDequeBasedMailbox"
}
bounded-deque-based {
# FQCN of the MailboxType, The Class of the FQCN must have a public
# constructor with (akka.actor.ActorSystem.Settings,
# com.typesafe.config.Config) parameters.
mailbox-type = "akka.dispatch.BoundedDequeBasedMailbox"
}
unbounded-control-aware-queue-based {
# FQCN of the MailboxType, The Class of the FQCN must have a public
# constructor with (akka.actor.ActorSystem.Settings,
# com.typesafe.config.Config) parameters.
mailbox-type = "akka.dispatch.UnboundedControlAwareMailbox"
}
bounded-control-aware-queue-based {
# FQCN of the MailboxType, The Class of the FQCN must have a public
# constructor with (akka.actor.ActorSystem.Settings,
# com.typesafe.config.Config) parameters.
mailbox-type = "akka.dispatch.BoundedControlAwareMailbox"
}
# The LoggerMailbox will drain all messages in the mailbox
# when the system is shutdown and deliver them to the StandardOutLogger.
# Do not change this unless you know what you are doing.
logger-queue {
mailbox-type = "akka.event.LoggerMailboxType"
}
}
debug {
# enable function of Actor.loggable(), which is to log any received message
# at DEBUG level, see the “Testing Actor Systems” section of the Akka
# Documentation at http://akka.io/docs
receive = off
# enable DEBUG logging of all AutoReceiveMessages (Kill, PoisonPill et.c.)
autoreceive = off
# enable DEBUG logging of actor lifecycle changes
lifecycle = off
# enable DEBUG logging of all LoggingFSMs for events, transitions and timers
fsm = off
# enable DEBUG logging of subscription changes on the eventStream
event-stream = off
# enable DEBUG logging of unhandled messages
unhandled = off
# enable WARN logging of misconfigured routers
router-misconfiguration = off
}
# SECURITY BEST-PRACTICE is to disable java serialization for its multiple
# known attack surfaces.
#
# This setting is a short-cut to
# - using DisabledJavaSerializer instead of JavaSerializer
# - enable-additional-serialization-bindings = on
#
# Completely disable the use of `akka.serialization.JavaSerialization` by the
# Akka Serialization extension, instead DisabledJavaSerializer will
# be inserted which will fail explicitly if attempts to use java serialization are made.
#
# The log messages emitted by such serializer SHOULD be be treated as potential
# attacks which the serializer prevented, as they MAY indicate an external operator
# attempting to send malicious messages intending to use java serialization as attack vector.
# The attempts are logged with the SECURITY marker.
#
# Please note that this option does not stop you from manually invoking java serialization
#
# The default value for this might be changed to off in future versions of Akka.
allow-java-serialization = on
# Entries for pluggable serializers and their bindings.
serializers {
java = "akka.serialization.JavaSerializer"
bytes = "akka.serialization.ByteArraySerializer"
}
# Class to Serializer binding. You only need to specify the name of an
# interface or abstract base class of the messages. In case of ambiguity it
# is using the most specific configured class, or giving a warning and
# choosing the “first” one.
#
# To disable one of the default serializers, assign its class to "none", like
# "java.io.Serializable" = none
serialization-bindings {
"[B" = bytes
"java.io.Serializable" = java
}
# Set this to on to enable serialization-bindings define in
# additional-serialization-bindings. Those are by default not included
# for backwards compatibility reasons. They are enabled by default if
# akka.remote.artery.enabled=on or if akka.actor.allow-java-serialization=off.
enable-additional-serialization-bindings = off
# Additional serialization-bindings that are replacing Java serialization are
# defined in this section and not included by default for backwards compatibility
# reasons. They can be enabled with enable-additional-serialization-bindings=on.
# They are enabled by default if akka.remote.artery.enabled=on or if
# akka.actor.allow-java-serialization=off.
additional-serialization-bindings {
}
# Log warnings when the default Java serialization is used to serialize messages.
# The default serializer uses Java serialization which is not very performant and should not
# be used in production environments unless you don't care about performance. In that case
# you can turn this off.
warn-about-java-serializer-usage = on
# To be used with the above warn-about-java-serializer-usage
# When warn-about-java-serializer-usage = on, and this warn-on-no-serialization-verification = off,
# warnings are suppressed for classes extending NoSerializationVerificationNeeded
# to reduce noize.
warn-on-no-serialization-verification = on
# Configuration namespace of serialization identifiers.
# Each serializer implementation must have an entry in the following format:
# `akka.actor.serialization-identifiers."FQCN" = ID`
# where `FQCN` is fully qualified class name of the serializer implementation
# and `ID` is globally unique serializer identifier number.
# Identifier values from 0 to 40 are reserved for Akka internal usage.
serialization-identifiers {
"akka.serialization.JavaSerializer" = 1
"akka.serialization.ByteArraySerializer" = 4
}
# Configuration items which are used by the akka.actor.ActorDSL._ methods
dsl {
# Maximum queue size of the actor created by newInbox(); this protects
# against faulty programs which use select() and consistently miss messages
inbox-size = 1000
# Default timeout to assume for operations like Inbox.receive et al
default-timeout = 5s
}
}
# Used to set the behavior of the scheduler.
# Changing the default values may change the system behavior drastically so make
# sure you know what you're doing! See the Scheduler section of the Akka
# Documentation for more details.
scheduler {
# The LightArrayRevolverScheduler is used as the default scheduler in the
# system. It does not execute the scheduled tasks on exact time, but on every
# tick, it will run everything that is (over)due. You can increase or decrease
# the accuracy of the execution timing by specifying smaller or larger tick
# duration. If you are scheduling a lot of tasks you should consider increasing
# the ticks per wheel.
# Note that it might take up to 1 tick to stop the Timer, so setting the
# tick-duration to a high value will make shutting down the actor system
# take longer.
tick-duration = 10ms
# The timer uses a circular wheel of buckets to store the timer tasks.
# This should be set such that the majority of scheduled timeouts (for high
# scheduling frequency) will be shorter than one rotation of the wheel
# (ticks-per-wheel * ticks-duration)
# THIS MUST BE A POWER OF TWO!
ticks-per-wheel = 512
# This setting selects the timer implementation which shall be loaded at
# system start-up.
# The class given here must implement the akka.actor.Scheduler interface
# and offer a public constructor which takes three arguments:
# 1) com.typesafe.config.Config
# 2) akka.event.LoggingAdapter
# 3) java.util.concurrent.ThreadFactory
implementation = akka.actor.LightArrayRevolverScheduler
# When shutting down the scheduler, there will typically be a thread which
# needs to be stopped, and this timeout determines how long to wait for
# that to happen. In case of timeout the shutdown of the actor system will
# proceed without running possibly still enqueued tasks.
shutdown-timeout = 5s
}
io {
# By default the select loops run on dedicated threads, hence using a
# PinnedDispatcher
pinned-dispatcher {
type = "PinnedDispatcher"
executor = "thread-pool-executor"
thread-pool-executor.allow-core-timeout = off
}
tcp {
# The number of selectors to stripe the served channels over; each of
# these will use one select loop on the selector-dispatcher.
nr-of-selectors = 1
# Maximum number of open channels supported by this TCP module; there is
# no intrinsic general limit, this setting is meant to enable DoS
# protection by limiting the number of concurrently connected clients.
# Also note that this is a "soft" limit; in certain cases the implementation
# will accept a few connections more or a few less than the number configured
# here. Must be an integer > 0 or "unlimited".
max-channels = 256000
# When trying to assign a new connection to a selector and the chosen
# selector is at full capacity, retry selector choosing and assignment
# this many times before giving up
selector-association-retries = 10
# The maximum number of connection that are accepted in one go,
# higher numbers decrease latency, lower numbers increase fairness on
# the worker-dispatcher
batch-accept-limit = 10
# The number of bytes per direct buffer in the pool used to read or write
# network data from the kernel.
direct-buffer-size = 128 KiB
# The maximal number of direct buffers kept in the direct buffer pool for
# reuse.
direct-buffer-pool-limit = 1000
# The duration a connection actor waits for a `Register` message from
# its commander before aborting the connection.
register-timeout = 5s
# The maximum number of bytes delivered by a `Received` message. Before
# more data is read from the network the connection actor will try to
# do other work.
# The purpose of this setting is to impose a smaller limit than the
# configured receive buffer size. When using value 'unlimited' it will
# try to read all from the receive buffer.
max-received-message-size = unlimited
# Enable fine grained logging of what goes on inside the implementation.
# Be aware that this may log more than once per message sent to the actors
# of the tcp implementation.
trace-logging = off
# Fully qualified config path which holds the dispatcher configuration
# to be used for running the select() calls in the selectors
selector-dispatcher = "akka.io.pinned-dispatcher"
# Fully qualified config path which holds the dispatcher configuration
# for the read/write worker actors
worker-dispatcher = "akka.actor.default-dispatcher"
# Fully qualified config path which holds the dispatcher configuration
# for the selector management actors
management-dispatcher = "akka.actor.default-dispatcher"
# Fully qualified config path which holds the dispatcher configuration
# on which file IO tasks are scheduled
file-io-dispatcher = "akka.actor.default-dispatcher"
# The maximum number of bytes (or "unlimited") to transfer in one batch
# when using `WriteFile` command which uses `FileChannel.transferTo` to
# pipe files to a TCP socket. On some OS like Linux `FileChannel.transferTo`
# may block for a long time when network IO is faster than file IO.
# Decreasing the value may improve fairness while increasing may improve
# throughput.
file-io-transferTo-limit = 512 KiB
# The number of times to retry the `finishConnect` call after being notified about
# OP_CONNECT. Retries are needed if the OP_CONNECT notification doesn't imply that
# `finishConnect` will succeed, which is the case on Android.
finish-connect-retries = 5
# On Windows connection aborts are not reliably detected unless an OP_READ is
# registered on the selector _after_ the connection has been reset. This
# workaround enables an OP_CONNECT which forces the abort to be visible on Windows.
# Enabling this setting on other platforms than Windows will cause various failures
# and undefined behavior.
# Possible values of this key are on, off and auto where auto will enable the
# workaround if Windows is detected automatically.
windows-connection-abort-workaround-enabled = off
}
udp {
# The number of selectors to stripe the served channels over; each of
# these will use one select loop on the selector-dispatcher.
nr-of-selectors = 1
# Maximum number of open channels supported by this UDP module Generally
# UDP does not require a large number of channels, therefore it is
# recommended to keep this setting low.
max-channels = 4096
# The select loop can be used in two modes:
# - setting "infinite" will select without a timeout, hogging a thread
# - setting a positive timeout will do a bounded select call,
# enabling sharing of a single thread between multiple selectors
# (in this case you will have to use a different configuration for the
# selector-dispatcher, e.g. using "type=Dispatcher" with size 1)
# - setting it to zero means polling, i.e. calling selectNow()
select-timeout = infinite
# When trying to assign a new connection to a selector and the chosen
# selector is at full capacity, retry selector choosing and assignment
# this many times before giving up
selector-association-retries = 10
# The maximum number of datagrams that are read in one go,
# higher numbers decrease latency, lower numbers increase fairness on
# the worker-dispatcher
receive-throughput = 3
# The number of bytes per direct buffer in the pool used to read or write
# network data from the kernel.
direct-buffer-size = 128 KiB
# The maximal number of direct buffers kept in the direct buffer pool for
# reuse.
direct-buffer-pool-limit = 1000
# Enable fine grained logging of what goes on inside the implementation.
# Be aware that this may log more than once per message sent to the actors
# of the tcp implementation.
trace-logging = off
# Fully qualified config path which holds the dispatcher configuration
# to be used for running the select() calls in the selectors
selector-dispatcher = "akka.io.pinned-dispatcher"
# Fully qualified config path which holds the dispatcher configuration
# for the read/write worker actors
worker-dispatcher = "akka.actor.default-dispatcher"
# Fully qualified config path which holds the dispatcher configuration
# for the selector management actors
management-dispatcher = "akka.actor.default-dispatcher"
}
udp-connected {
# The number of selectors to stripe the served channels over; each of
# these will use one select loop on the selector-dispatcher.
nr-of-selectors = 1
# Maximum number of open channels supported by this UDP module Generally
# UDP does not require a large number of channels, therefore it is
# recommended to keep this setting low.
max-channels = 4096
# The select loop can be used in two modes:
# - setting "infinite" will select without a timeout, hogging a thread
# - setting a positive timeout will do a bounded select call,
# enabling sharing of a single thread between multiple selectors
# (in this case you will have to use a different configuration for the
# selector-dispatcher, e.g. using "type=Dispatcher" with size 1)
# - setting it to zero means polling, i.e. calling selectNow()
select-timeout = infinite
# When trying to assign a new connection to a selector and the chosen
# selector is at full capacity, retry selector choosing and assignment
# this many times before giving up
selector-association-retries = 10
# The maximum number of datagrams that are read in one go,
# higher numbers decrease latency, lower numbers increase fairness on
# the worker-dispatcher
receive-throughput = 3
# The number of bytes per direct buffer in the pool used to read or write
# network data from the kernel.
direct-buffer-size = 128 KiB
# The maximal number of direct buffers kept in the direct buffer pool for
# reuse.
direct-buffer-pool-limit = 1000
# Enable fine grained logging of what goes on inside the implementation.
# Be aware that this may log more than once per message sent to the actors
# of the tcp implementation.
trace-logging = off
# Fully qualified config path which holds the dispatcher configuration
# to be used for running the select() calls in the selectors
selector-dispatcher = "akka.io.pinned-dispatcher"
# Fully qualified config path which holds the dispatcher configuration
# for the read/write worker actors
worker-dispatcher = "akka.actor.default-dispatcher"
# Fully qualified config path which holds the dispatcher configuration
# for the selector management actors
management-dispatcher = "akka.actor.default-dispatcher"
}
dns {
# Fully qualified config path which holds the dispatcher configuration
# for the manager and resolver router actors.
# For actual router configuration see akka.actor.deployment./IO-DNS/*
dispatcher = "akka.actor.default-dispatcher"
# Name of the subconfig at path akka.io.dns, see inet-address below
resolver = "inet-address"
inet-address {
# Must implement akka.io.DnsProvider
provider-object = "akka.io.InetAddressDnsProvider"
# These TTLs are set to default java 6 values
positive-ttl = 30s
negative-ttl = 10s
# How often to sweep out expired cache entries.
# Note that this interval has nothing to do with TTLs
cache-cleanup-interval = 120s
}
}
}
}
#//#shared
#####################################
# Akka Remote Reference Config File #
#####################################
# This is the reference config file that contains all the default settings.
# Make your edits/overrides in your application.conf.
# comments about akka.actor settings left out where they are already in akka-
# actor.jar, because otherwise they would be repeated in config rendering.
#
# For the configuration of the new remoting implementation (Artery) please look
# at the bottom section of this file as it is listed separately.
akka {
actor {
serializers {
akka-containers = "akka.remote.serialization.MessageContainerSerializer"
akka-misc = "akka.remote.serialization.MiscMessageSerializer"
artery = "akka.remote.serialization.ArteryMessageSerializer"
proto = "akka.remote.serialization.ProtobufSerializer"
daemon-create = "akka.remote.serialization.DaemonMsgCreateSerializer"
primitive-long = "akka.remote.serialization.LongSerializer"
primitive-int = "akka.remote.serialization.IntSerializer"
primitive-string = "akka.remote.serialization.StringSerializer"
primitive-bytestring = "akka.remote.serialization.ByteStringSerializer"
akka-system-msg = "akka.remote.serialization.SystemMessageSerializer"
}
serialization-bindings {
"akka.actor.ActorSelectionMessage" = akka-containers
"akka.remote.DaemonMsgCreate" = daemon-create
"akka.remote.artery.ArteryMessage" = artery
# Since akka.protobuf.Message does not extend Serializable but
# GeneratedMessage does, need to use the more specific one here in order
# to avoid ambiguity.
"akka.protobuf.GeneratedMessage" = proto
# Since com.google.protobuf.Message does not extend Serializable but
# GeneratedMessage does, need to use the more specific one here in order
# to avoid ambiguity.
# This com.google.protobuf serialization binding is only used if the class can be loaded,
# i.e. com.google.protobuf dependency has been added in the application project.
"com.alibaba.schedulerx.shade.com.google.protobuf.GeneratedMessage" = proto
"java.util.Optional" = akka-misc
}
# For the purpose of preserving protocol backward compatibility these bindings are not
# included by default. They can be enabled with enable-additional-serialization-bindings=on.
# They are enabled by default if akka.remote.artery.enabled=on or if
# akka.actor.allow-java-serialization=off.
additional-serialization-bindings {
"akka.actor.Identify" = akka-misc
"akka.actor.ActorIdentity" = akka-misc
"scala.Some" = akka-misc
"scala.None$" = akka-misc
"akka.actor.Status$Success" = akka-misc
"akka.actor.Status$Failure" = akka-misc
"akka.actor.ActorRef" = akka-misc
"akka.actor.PoisonPill$" = akka-misc
"akka.actor.Kill$" = akka-misc
"akka.remote.RemoteWatcher$Heartbeat$" = akka-misc
"akka.remote.RemoteWatcher$HeartbeatRsp" = akka-misc
"akka.actor.ActorInitializationException" = akka-misc
"akka.dispatch.sysmsg.SystemMessage" = akka-system-msg
"java.lang.String" = primitive-string
"akka.util.ByteString$ByteString1C" = primitive-bytestring
"akka.util.ByteString$ByteString1" = primitive-bytestring
"akka.util.ByteString$ByteStrings" = primitive-bytestring
"java.lang.Long" = primitive-long
"scala.Long" = primitive-long
"java.lang.Integer" = primitive-int
"scala.Int" = primitive-int
# Java Serializer is by default used for exceptions.
# It's recommended that you implement custom serializer for exceptions that are
# sent remotely, e.g. in akka.actor.Status.Failure for ask replies. You can add
# binding to akka-misc (MiscMessageSerializerSpec) for the exceptions that have
# a constructor with single message String or constructor with message String as
# first parameter and cause Throwable as second parameter. Note that it's not
# safe to add this binding for general exceptions such as IllegalArgumentException
# because it may have a subclass without required constructor.
"java.lang.Throwable" = java
"akka.actor.IllegalActorStateException" = akka-misc
"akka.actor.ActorKilledException" = akka-misc
"akka.actor.InvalidActorNameException" = akka-misc
"akka.actor.InvalidMessageException" = akka-misc
}
serialization-identifiers {
"akka.remote.serialization.ProtobufSerializer" = 2
"akka.remote.serialization.DaemonMsgCreateSerializer" = 3
"akka.remote.serialization.MessageContainerSerializer" = 6
"akka.remote.serialization.MiscMessageSerializer" = 16
"akka.remote.serialization.ArteryMessageSerializer" = 17
"akka.remote.serialization.LongSerializer" = 18
"akka.remote.serialization.IntSerializer" = 19
"akka.remote.serialization.StringSerializer" = 20
"akka.remote.serialization.ByteStringSerializer" = 21
"akka.remote.serialization.SystemMessageSerializer" = 22
}
deployment {
default {
# if this is set to a valid remote address, the named actor will be
# deployed at that node e.g. "akka.tcp://sys@host:port"
remote = ""
target {
# A list of hostnames and ports for instantiating the children of a
# router
# The format should be on "akka.tcp://sys@host:port", where:
# - sys is the remote actor system name
# - hostname can be either hostname or IP address the remote actor
# should connect to
# - port should be the port for the remote server on the other node
# The number of actor instances to be spawned is still taken from the
# nr-of-instances setting as for local routers; the instances will be
# distributed round-robin among the given nodes.
nodes = []
}
}
}
}
remote {
### Settings shared by classic remoting and Artery (the new implementation of remoting)
# If set to a nonempty string remoting will use the given dispatcher for
# its internal actors otherwise the default dispatcher is used. Please note
# that since remoting can load arbitrary 3rd party drivers (see
# "enabled-transport" and "adapters" entries) it is not guaranteed that
# every module will respect this setting.
use-dispatcher = "akka.remote.default-remote-dispatcher"
# Settings for the failure detector to monitor connections.
# For TCP it is not important to have fast failure detection, since
# most connection failures are captured by TCP itself.
# The default DeadlineFailureDetector will trigger if there are no heartbeats within
# the duration heartbeat-interval + acceptable-heartbeat-pause, i.e. 124 seconds
# with the default settings.
transport-failure-detector {
# FQCN of the failure detector implementation.
# It must implement akka.remote.FailureDetector and have
# a public constructor with a com.typesafe.config.Config and
# akka.actor.EventStream parameter.
implementation-class = "akka.remote.DeadlineFailureDetector"
# How often keep-alive heartbeat messages should be sent to each connection.
heartbeat-interval = 4 s
# Number of potentially lost/delayed heartbeats that will be
# accepted before considering it to be an anomaly.
# A margin to the `heartbeat-interval` is important to be able to survive sudden,
# occasional, pauses in heartbeat arrivals, due to for example garbage collect or
# network drop.
acceptable-heartbeat-pause = 120 s
}
# Settings for the Phi accrual failure detector (http://www.jaist.ac.jp/~defago/files/pdf/IS_RR_2004_010.pdf
# [Hayashibara et al]) used for remote death watch.
# The default PhiAccrualFailureDetector will trigger if there are no heartbeats within
# the duration heartbeat-interval + acceptable-heartbeat-pause + threshold_adjustment,
# i.e. around 12.5 seconds with default settings.
watch-failure-detector {
# FQCN of the failure detector implementation.
# It must implement akka.remote.FailureDetector and have
# a public constructor with a com.typesafe.config.Config and
# akka.actor.EventStream parameter.
implementation-class = "akka.remote.PhiAccrualFailureDetector"
# How often keep-alive heartbeat messages should be sent to each connection.
heartbeat-interval = 1 s
# Defines the failure detector threshold.
# A low threshold is prone to generate many wrong suspicions but ensures
# a quick detection in the event of a real crash. Conversely, a high
# threshold generates fewer mistakes but needs more time to detect
# actual crashes.
threshold = 10.0
# Number of the samples of inter-heartbeat arrival times to adaptively
# calculate the failure timeout for connections.
max-sample-size = 200
# Minimum standard deviation to use for the normal distribution in
# AccrualFailureDetector. Too low standard deviation might result in
# too much sensitivity for sudden, but normal, deviations in heartbeat
# inter arrival times.
min-std-deviation = 100 ms
# Number of potentially lost/delayed heartbeats that will be
# accepted before considering it to be an anomaly.
# This margin is important to be able to survive sudden, occasional,
# pauses in heartbeat arrivals, due to for example garbage collect or
# network drop.
acceptable-heartbeat-pause = 10 s
# How often to check for nodes marked as unreachable by the failure
# detector
unreachable-nodes-reaper-interval = 1s
# After the heartbeat request has been sent the first failure detection
# will start after this period, even though no heartbeat mesage has
# been received.
expected-response-after = 1 s
}
# remote deployment configuration section
deployment {
# If true, will only allow specific classes to be instanciated on this system via remote deployment
enable-whitelist = off
whitelist = []
}
#//#shared
}
}
akka {
remote {
#//#classic
### Configuration for classic remoting
# Timeout after which the startup of the remoting subsystem is considered
# to be failed. Increase this value if your transport drivers (see the
# enabled-transports section) need longer time to be loaded.
startup-timeout = 10 s
# Timout after which the graceful shutdown of the remoting subsystem is
# considered to be failed. After the timeout the remoting system is
# forcefully shut down. Increase this value if your transport drivers
# (see the enabled-transports section) need longer time to stop properly.
shutdown-timeout = 10 s
# Before shutting down the drivers, the remoting subsystem attempts to flush
# all pending writes. This setting controls the maximum time the remoting is
# willing to wait before moving on to shut down the drivers.
flush-wait-on-shutdown = 2 s
# Reuse inbound connections for outbound messages
use-passive-connections = on
# Controls the backoff interval after a refused write is reattempted.
# (Transports may refuse writes if their internal buffer is full)
backoff-interval = 5 ms
# Acknowledgment timeout of management commands sent to the transport stack.
command-ack-timeout = 30 s
# The timeout for outbound associations to perform the handshake.
# If the transport is akka.remote.netty.tcp or akka.remote.netty.ssl
# the configured connection-timeout for the transport will be used instead.
handshake-timeout = 15 s
### Security settings
# Enable untrusted mode for full security of server managed actors, prevents
# system messages to be send by clients, e.g. messages like 'Create',
# 'Suspend', 'Resume', 'Terminate', 'Supervise', 'Link' etc.
untrusted-mode = off
# When 'untrusted-mode=on' inbound actor selections are by default discarded.
# Actors with paths defined in this white list are granted permission to receive actor
# selections messages.
# E.g. trusted-selection-paths = ["/user/receptionist", "/user/namingService"]
trusted-selection-paths = []
# Should the remote server require that its peers share the same
# secure-cookie (defined in the 'remote' section)? Secure cookies are passed
# between during the initial handshake. Connections are refused if the initial
# message contains a mismatching cookie or the cookie is missing.
require-cookie = off
# Deprecated since 2.4-M1
secure-cookie = ""
### Logging
# If this is "on", Akka will log all inbound messages at DEBUG level,
# if off then they are not logged
log-received-messages = off
# If this is "on", Akka will log all outbound messages at DEBUG level,
# if off then they are not logged
log-sent-messages = off
# Sets the log granularity level at which Akka logs remoting events. This setting
# can take the values OFF, ERROR, WARNING, INFO, DEBUG, or ON. For compatibility
# reasons the setting "on" will default to "debug" level. Please note that the effective
# logging level is still determined by the global logging level of the actor system:
# for example debug level remoting events will be only logged if the system
# is running with debug level logging.
# Failures to deserialize received messages also fall under this flag.
log-remote-lifecycle-events = on
# Logging of message types with payload size in bytes larger than
# this value. Maximum detected size per message type is logged once,
# with an increase threshold of 10%.
# By default this feature is turned off. Activate it by setting the property to
# a value in bytes, such as 1000b. Note that for all messages larger than this
# limit there will be extra performance and scalability cost.
log-frame-size-exceeding = off
# Log warning if the number of messages in the backoff buffer in the endpoint
# writer exceeds this limit. It can be disabled by setting the value to off.
log-buffer-size-exceeding = 50000
# After failed to establish an outbound connection, the remoting will mark the
# address as failed. This configuration option controls how much time should
# be elapsed before reattempting a new connection. While the address is
# gated, all messages sent to the address are delivered to dead-letters.
# Since this setting limits the rate of reconnects setting it to a
# very short interval (i.e. less than a second) may result in a storm of
# reconnect attempts.
retry-gate-closed-for = 5 s
# After catastrophic communication failures that result in the loss of system
# messages or after the remote DeathWatch triggers the remote system gets
# quarantined to prevent inconsistent behavior.
# This setting controls how long the Quarantine marker will be kept around
# before being removed to avoid long-term memory leaks.
# WARNING: DO NOT change this to a small value to re-enable communication with
# quarantined nodes. Such feature is not supported and any behavior between
# the affected systems after lifting the quarantine is undefined.
prune-quarantine-marker-after = 5 d
# If system messages have been exchanged between two systems (i.e. remote death
# watch or remote deployment has been used) a remote system will be marked as
# quarantined after the two system has no active association, and no
# communication happens during the time configured here.
# The only purpose of this setting is to avoid storing system message redelivery
# data (sequence number state, etc.) for an undefined amount of time leading to long
# term memory leak. Instead, if a system has been gone for this period,
# or more exactly
# - there is no association between the two systems (TCP connection, if TCP transport is used)
# - neither side has been attempting to communicate with the other
# - there are no pending system messages to deliver
# for the amount of time configured here, the remote system will be quarantined and all state
# associated with it will be dropped.
quarantine-after-silence = 2 d
# This setting defines the maximum number of unacknowledged system messages
# allowed for a remote system. If this limit is reached the remote system is
# declared to be dead and its UID marked as tainted.
system-message-buffer-size = 20000
# This setting defines the maximum idle time after an individual
# acknowledgement for system messages is sent. System message delivery
# is guaranteed by explicit acknowledgement messages. These acks are
# piggybacked on ordinary traffic messages. If no traffic is detected
# during the time period configured here, the remoting will send out
# an individual ack.
system-message-ack-piggyback-timeout = 0.3 s
# This setting defines the time after internal management signals
# between actors (used for DeathWatch and supervision) that have not been
# explicitly acknowledged or negatively acknowledged are resent.
# Messages that were negatively acknowledged are always immediately
# resent.
resend-interval = 2 s
# Maximum number of unacknowledged system messages that will be resent
# each 'resend-interval'. If you watch many (> 1000) remote actors you can
# increase this value to for example 600, but a too large limit (e.g. 10000)
# may flood the connection and might cause false failure detection to trigger.
# Test such a configuration by watching all actors at the same time and stop
# all watched actors at the same time.
resend-limit = 200
# WARNING: this setting should not be not changed unless all of its consequences
# are properly understood which assumes experience with remoting internals
# or expert advice.
# This setting defines the time after redelivery attempts of internal management
# signals are stopped to a remote system that has been not confirmed to be alive by
# this system before.
initial-system-message-delivery-timeout = 3 m
### Transports and adapters
# List of the transport drivers that will be loaded by the remoting.
# A list of fully qualified config paths must be provided where
# the given configuration path contains a transport-class key
# pointing to an implementation class of the Transport interface.
# If multiple transports are provided, the address of the first
# one will be used as a default address.
enabled-transports = ["akka.remote.netty.tcp"]
# Transport drivers can be augmented with adapters by adding their
# name to the applied-adapters setting in the configuration of a
# transport. The available adapters should be configured in this
# section by providing a name, and the fully qualified name of
# their corresponding implementation. The class given here
# must implement akka.akka.remote.transport.TransportAdapterProvider
# and have public constructor without parameters.
adapters {
gremlin = "akka.remote.transport.FailureInjectorProvider"
trttl = "akka.remote.transport.ThrottlerProvider"
}
### Default configuration for the Netty based transport drivers
netty.tcp {
# The class given here must implement the akka.remote.transport.Transport
# interface and offer a public constructor which takes two arguments:
# 1) akka.actor.ExtendedActorSystem
# 2) com.typesafe.config.Config
transport-class = "akka.remote.transport.netty.NettyTransport"
# Transport drivers can be augmented with adapters by adding their
# name to the applied-adapters list. The last adapter in the
# list is the adapter immediately above the driver, while
# the first one is the top of the stack below the standard
# Akka protocol
applied-adapters = []
transport-protocol = tcp
# The default remote server port clients should connect to.
# Default is 2552 (AKKA), use 0 if you want a random available port
# This port needs to be unique for each actor system on the same machine.
port = 2552
# The hostname or ip clients should connect to.
# InetAddress.getLocalHost.getHostAddress is used if empty
hostname = ""
# Use this setting to bind a network interface to a different port
# than remoting protocol expects messages at. This may be used
# when running akka nodes in a separated networks (under NATs or docker containers).
# Use 0 if you want a random available port. Examples:
#
# akka.remote.netty.tcp.port = 2552
# akka.remote.netty.tcp.bind-port = 2553
# Network interface will be bound to the 2553 port, but remoting protocol will
# expect messages sent to port 2552.
#
# akka.remote.netty.tcp.port = 0
# akka.remote.netty.tcp.bind-port = 0
# Network interface will be bound to a random port, and remoting protocol will
# expect messages sent to the bound port.
#
# akka.remote.netty.tcp.port = 2552
# akka.remote.netty.tcp.bind-port = 0
# Network interface will be bound to a random port, but remoting protocol will
# expect messages sent to port 2552.
#
# akka.remote.netty.tcp.port = 0
# akka.remote.netty.tcp.bind-port = 2553
# Network interface will be bound to the 2553 port, and remoting protocol will
# expect messages sent to the bound port.
#
# akka.remote.netty.tcp.port = 2552
# akka.remote.netty.tcp.bind-port = ""
# Network interface will be bound to the 2552 port, and remoting protocol will
# expect messages sent to the bound port.
#
# akka.remote.netty.tcp.port if empty
bind-port = ""
# Use this setting to bind a network interface to a different hostname or ip
# than remoting protocol expects messages at.
# Use "0.0.0.0" to bind to all interfaces.
# akka.remote.netty.tcp.hostname if empty
bind-hostname = ""
# Enables SSL support on this transport
enable-ssl = false
# Sets the connectTimeoutMillis of all outbound connections,
# i.e. how long a connect may take until it is timed out
connection-timeout = 15 s
# If set to "" then the specified dispatcher
# will be used to accept inbound connections, and perform IO. If "" then
# dedicated threads will be used.
# Please note that the Netty driver only uses this configuration and does
# not read the "akka.remote.use-dispatcher" entry. Instead it has to be
# configured manually to point to the same dispatcher if needed.
use-dispatcher-for-io = ""
# Sets the high water mark for the in and outbound sockets,
# set to 0b for platform default
write-buffer-high-water-mark = 0b
# Sets the low water mark for the in and outbound sockets,
# set to 0b for platform default
write-buffer-low-water-mark = 0b
# Sets the send buffer size of the Sockets,
# set to 0b for platform default
send-buffer-size = 256000b
# Sets the receive buffer size of the Sockets,
# set to 0b for platform default
receive-buffer-size = 256000b
# Maximum message size the transport will accept, but at least
# 32000 bytes.
# Please note that UDP does not support arbitrary large datagrams,
# so this setting has to be chosen carefully when using UDP.
# Both send-buffer-size and receive-buffer-size settings has to
# be adjusted to be able to buffer messages of maximum size.
maximum-frame-size = 128000b
# Sets the size of the connection backlog
backlog = 4096
# Enables the TCP_NODELAY flag, i.e. disables Nagle’s algorithm
tcp-nodelay = on
# Enables TCP Keepalive, subject to the O/S kernel’s configuration
tcp-keepalive = on
# Enables SO_REUSEADDR, which determines when an ActorSystem can open
# the specified listen port (the meaning differs between *nix and Windows)
# Valid values are "on", "off" and "off-for-windows"
# due to the following Windows bug: http://bugs.sun.com/bugdatabase/view_bug.do?bug_id=4476378
# "off-for-windows" of course means that it's "on" for all other platforms
tcp-reuse-addr = off-for-windows
# Used to configure the number of I/O worker threads on server sockets
server-socket-worker-pool {
# Min number of threads to cap factor-based number to
pool-size-min = 2
# The pool size factor is used to determine thread pool size
# using the following formula: ceil(available processors * factor).
# Resulting size is then bounded by the pool-size-min and
# pool-size-max values.
pool-size-factor = 1.0
# Max number of threads to cap factor-based number to
pool-size-max = 2
}
# Used to configure the number of I/O worker threads on client sockets
client-socket-worker-pool {
# Min number of threads to cap factor-based number to
pool-size-min = 2
# The pool size factor is used to determine thread pool size
# using the following formula: ceil(available processors * factor).
# Resulting size is then bounded by the pool-size-min and
# pool-size-max values.
pool-size-factor = 1.0
# Max number of threads to cap factor-based number to
pool-size-max = 2
}
}
netty.udp = ${akka.remote.netty.tcp}
netty.udp {
transport-protocol = udp
}
netty.ssl = ${akka.remote.netty.tcp}
netty.ssl = {
# Enable SSL/TLS encryption.
# This must be enabled on both the client and server to work.
enable-ssl = true
security {
# This is the Java Key Store used by the server connection
key-store = "keystore"
# This password is used for decrypting the key store
key-store-password = "changeme"
# This password is used for decrypting the key
key-password = "changeme"
# This is the Java Key Store used by the client connection
trust-store = "truststore"
# This password is used for decrypting the trust store
trust-store-password = "changeme"
# Protocol to use for SSL encryption, choose from:
# TLS 1.2 is available since JDK7, and default since JDK8:
# https://blogs.oracle.com/java-platform-group/entry/java_8_will_use_tls
protocol = "TLSv1.2"
# Example: ["TLS_RSA_WITH_AES_128_CBC_SHA", "TLS_RSA_WITH_AES_256_CBC_SHA"]
# You need to install the JCE Unlimited Strength Jurisdiction Policy
# Files to use AES 256.
# More info here:
# http://docs.oracle.com/javase/7/docs/technotes/guides/security/SunProviders.html#SunJCEProvider
enabled-algorithms = ["TLS_RSA_WITH_AES_128_CBC_SHA"]
# There are three options, in increasing order of security:
# "" or SecureRandom => (default)
# "SHA1PRNG" => Can be slow because of blocking issues on Linux
# "AES128CounterSecureRNG" => fastest startup and based on AES encryption
# algorithm
# "AES256CounterSecureRNG"
#
# The following are deprecated in Akka 2.4. They use one of 3 possible
# seed sources, depending on availability: /dev/random, random.org and
# SecureRandom (provided by Java)
# "AES128CounterInetRNG"
# "AES256CounterInetRNG" (Install JCE Unlimited Strength Jurisdiction
# Policy Files first)
# Setting a value here may require you to supply the appropriate cipher
# suite (see enabled-algorithms section above)
random-number-generator = ""
# Require mutual authentication between TLS peers
#
# Without mutual authentication only the peer that actively establishes a connection (TLS client side)
# checks if the passive side (TLS server side) sends over a trusted certificate. With the flag turned on,
# the passive side will also request and verify a certificate from the connecting peer.
#
# To prevent man-in-the-middle attacks you should enable this setting. For compatibility reasons it is
# still set to 'off' per default.
#
# Note: Nodes that are configured with this setting to 'on' might not be able to receive messages from nodes that
# run on older versions of akka-remote. This is because in older versions of Akka the active side of the remoting
# connection will not send over certificates.
#
# However, starting from the version this setting was added, even with this setting "off", the active side
# (TLS client side) will use the given key-store to send over a certificate if asked. A rolling upgrades from
# older versions of Akka can therefore work like this:
# - upgrade all nodes to an Akka version supporting this flag, keeping it off
# - then switch the flag on and do again a rolling upgrade of all nodes
# The first step ensures that all nodes will send over a certificate when asked to. The second
# step will ensure that all nodes finally enforce the secure checking of client certificates.
require-mutual-authentication = off
}
}
### Default configuration for the failure injector transport adapter
gremlin {
# Enable debug logging of the failure injector transport adapter
debug = off
}
### Default dispatcher for the remoting subsystem
default-remote-dispatcher {
type = Dispatcher
executor = "fork-join-executor"
fork-join-executor {
parallelism-min = 2
parallelism-factor = 0.5
parallelism-max = 16
}
throughput = 10
}
backoff-remote-dispatcher {
type = Dispatcher
executor = "fork-join-executor"
fork-join-executor {
# Min number of threads to cap factor-based parallelism number to
parallelism-min = 2
parallelism-max = 2
}
}
}
}
#//#classic
akka {
remote {
#//#artery
### Configuration for Artery, the reimplementation of remoting
artery {
# Enable the new remoting with this flag
enabled = off
# Canonical address is the address other clients should connect to.
# Artery transport will expect messages to this address.
canonical {
# The default remote server port clients should connect to.
# Default is 25520, use 0 if you want a random available port
# This port needs to be unique for each actor system on the same machine.
port = 25520
# Hostname clients should connect to. Can be set to an ip, hostname
# or one of the following special values:
# "" InetAddress.getLocalHost.getHostAddress
# "" InetAddress.getLocalHost.getHostName
#
hostname = ""
}
# Use these settings to bind a network interface to a different address
# than artery expects messages at. This may be used when running Akka
# nodes in a separated networks (under NATs or in containers). If canonical
# and bind addresses are different, then network configuration that relays
# communications from canonical to bind addresses is expected.
bind {
# Port to bind a network interface to. Can be set to a port number
# of one of the following special values:
# 0 random available port
# "" akka.remote.artery.canonical.port
#
port = ""
# Hostname to bind a network interface to. Can be set to an ip, hostname
# or one of the following special values:
# "0.0.0.0" all interfaces
# "" akka.remote.artery.canonical.hostname
# "" InetAddress.getLocalHost.getHostAddress
# "" InetAddress.getLocalHost.getHostName
#
hostname = ""
}
# Actor paths to use the large message stream for when a message
# is sent to them over remoting. The large message stream dedicated
# is separate from "normal" and system messages so that sending a
# large message does not interfere with them.
# Entries should be the full path to the actor. Wildcards in the form of "*"
# can be supplied at any place and matches any name at that segment -
# "/user/supervisor/actor/*" will match any direct child to actor,
# while "/supervisor/*/child" will match any grandchild to "supervisor" that
# has the name "child"
# Messages sent to ActorSelections will not be passed through the large message
# stream, to pass such messages through the large message stream the selections
# but must be resolved to ActorRefs first.
large-message-destinations = []
# Enable untrusted mode, which discards inbound system messages, PossiblyHarmful and
# ActorSelection messages. E.g. remote watch and remote deployment will not work.
# ActorSelection messages can be enabled for specific paths with the trusted-selection-paths
untrusted-mode = off
# When 'untrusted-mode=on' inbound actor selections are by default discarded.
# Actors with paths defined in this white list are granted permission to receive actor
# selections messages.
# E.g. trusted-selection-paths = ["/user/receptionist", "/user/namingService"]
trusted-selection-paths = []
# If this is "on", all inbound remote messages will be logged at DEBUG level,
# if off then they are not logged
log-received-messages = off
# If this is "on", all outbound remote messages will be logged at DEBUG level,
# if off then they are not logged
log-sent-messages = off
advanced {
# Maximum serialized message size, including header data.
maximum-frame-size = 256 KiB
# Direct byte buffers are reused in a pool with this maximum size.
# Each buffer has the size of 'maximum-frame-size'.
# This is not a hard upper limit on number of created buffers. Additional
# buffers will be created if needed, e.g. when using many outbound
# associations at the same time. Such additional buffers will be garbage
# collected, which is not as efficient as reusing buffers in the pool.
buffer-pool-size = 128
# Maximum serialized message size for the large messages, including header data.
# See 'large-message-destinations'.
maximum-large-frame-size = 2 MiB
# Direct byte buffers for the large messages are reused in a pool with this maximum size.
# Each buffer has the size of 'maximum-large-frame-size'.
# See 'large-message-destinations'.
# This is not a hard upper limit on number of created buffers. Additional
# buffers will be created if needed, e.g. when using many outbound
# associations at the same time. Such additional buffers will be garbage
# collected, which is not as efficient as reusing buffers in the pool.
large-buffer-pool-size = 32
# For enabling testing features, such as blackhole in akka-remote-testkit.
test-mode = off
# Settings for the materializer that is used for the remote streams.
materializer = ${akka.stream.materializer}
# If set to a nonempty string artery will use the given dispatcher for
# the ordinary and large message streams, otherwise the default dispatcher is used.
use-dispatcher = "akka.remote.default-remote-dispatcher"
# If set to a nonempty string remoting will use the given dispatcher for
# the control stream, otherwise the default dispatcher is used.
# It can be good to not use the same dispatcher for the control stream as
# the dispatcher for the ordinary message stream so that heartbeat messages
# are not disturbed.
use-control-stream-dispatcher = ""
# Controls whether to start the Aeron media driver in the same JVM or use external
# process. Set to 'off' when using external media driver, and then also set the
# 'aeron-dir'.
embedded-media-driver = on
# Directory used by the Aeron media driver. It's mandatory to define the 'aeron-dir'
# if using external media driver, i.e. when 'embedded-media-driver = off'.
# Embedded media driver will use a this directory, or a temporary directory if this
# property is not defined (empty).
aeron-dir = ""
# Whether to delete aeron embeded driver directory upon driver stop.
delete-aeron-dir = yes
# Level of CPU time used, on a scale between 1 and 10, during backoff/idle.
# The tradeoff is that to have low latency more CPU time must be used to be
# able to react quickly on incoming messages or send as fast as possible after
# backoff backpressure.
# Level 1 strongly prefer low CPU consumption over low latency.
# Level 10 strongly prefer low latency over low CPU consumption.
idle-cpu-level = 5
# WARNING: This feature is not supported yet. Don't use other value than 1.
# It requires more hardening and performance optimizations.
# Number of outbound lanes for each outbound association. A value greater than 1
# means that serialization can be performed in parallel for different destination
# actors. The selection of lane is based on consistent hashing of the recipient
# ActorRef to preserve message ordering per receiver.
outbound-lanes = 1
# WARNING: This feature is not supported yet. Don't use other value than 1.
# It requires more hardening and performance optimizations.
# Total number of inbound lanes, shared among all inbound associations. A value
# greater than 1 means that deserialization can be performed in parallel for
# different destination actors. The selection of lane is based on consistent
# hashing of the recipient ActorRef to preserve message ordering per receiver.
inbound-lanes = 1
# Size of the send queue for outgoing messages. Messages will be dropped if
# the queue becomes full. This may happen if you send a burst of many messages
# without end-to-end flow control. Note that there is one such queue per
# outbound association. The trade-off of using a larger queue size is that
# it consumes more memory, since the queue is based on preallocated array with
# fixed size.
outbound-message-queue-size = 3072
# Size of the send queue for outgoing control messages, such as system messages.
# If this limit is reached the remote system is declared to be dead and its UID
# marked as quarantined.
# The trade-off of using a larger queue size is that it consumes more memory,
# since the queue is based on preallocated array with fixed size.
outbound-control-queue-size = 3072
# Size of the send queue for outgoing large messages. Messages will be dropped if
# the queue becomes full. This may happen if you send a burst of many messages
# without end-to-end flow control. Note that there is one such queue per
# outbound association. The trade-off of using a larger queue size is that
# it consumes more memory, since the queue is based on preallocated array with
# fixed size.
outbound-large-message-queue-size = 256
# This setting defines the maximum number of unacknowledged system messages
# allowed for a remote system. If this limit is reached the remote system is
# declared to be dead and its UID marked as quarantined.
system-message-buffer-size = 20000
# unacknowledged system messages are re-delivered with this interval
system-message-resend-interval = 1 second
# The timeout for outbound associations to perform the handshake.
# This timeout must be greater than the 'image-liveness-timeout'.
handshake-timeout = 20 s
# incomplete handshake attempt is retried with this interval
handshake-retry-interval = 1 second
# handshake requests are performed periodically with this interval,
# also after the handshake has been completed to be able to establish
# a new session with a restarted destination system
inject-handshake-interval = 1 second
# messages that are not accepted by Aeron are dropped after retrying for this period
give-up-message-after = 60 seconds
# System messages that are not acknowledged after re-sending for this period are
# dropped and will trigger quarantine. The value should be longer than the length
# of a network partition that you need to survive.
give-up-system-message-after = 6 hours
# during ActorSystem termination the remoting will wait this long for
# an acknowledgment by the destination system that flushing of outstanding
# remote messages has been completed
shutdown-flush-timeout = 1 second
# See 'inbound-max-restarts'
inbound-restart-timeout = 5 seconds
# Max number of restarts within 'inbound-restart-timeout' for the inbound streams.
# If more restarts occurs the ActorSystem will be terminated.
inbound-max-restarts = 5
# See 'outbound-max-restarts'
outbound-restart-timeout = 5 seconds
# Max number of restarts within 'outbound-restart-timeout' for the outbound streams.
# If more restarts occurs the ActorSystem will be terminated.
outbound-max-restarts = 5
# Stop outbound stream of a quarantined association after this idle timeout, i.e.
# when not used any more.
stop-quarantined-after-idle = 3 seconds
# Timeout after which aeron driver has not had keepalive messages
# from a client before it considers the client dead.
client-liveness-timeout = 20 seconds
# Timeout for each the INACTIVE and LINGER stages an aeron image
# will be retained for when it is no longer referenced.
# This timeout must be less than the 'handshake-timeout'.
image-liveness-timeout = 10 seconds
# Timeout after which the aeron driver is considered dead
# if it does not update its C'n'C timestamp.
driver-timeout = 20 seconds
flight-recorder {
// FIXME it should be enabled by default when we have a good solution for naming the files
enabled = off
# Controls where the flight recorder file will be written. There are three options:
# 1. Empty: a file will be generated in the temporary directory of the OS
# 2. A relative or absolute path ending with ".afr": this file will be used
# 3. A relative or absolute path: this directory will be used, the file will get a random file name
destination = ""
}
# compression of common strings in remoting messages, like actor destinations, serializers etc
compression {
actor-refs {
# Max number of compressed actor-refs
# Note that compression tables are "rolling" (i.e. a new table replaces the old
# compression table once in a while), and this setting is only about the total number
# of compressions within a single such table.
# Must be a positive natural number.
max = 256
# interval between new table compression advertisements.
# this means the time during which we collect heavy-hitter data and then turn it into a compression table.
advertisement-interval = 1 minute
}
manifests {
# Max number of compressed manifests
# Note that compression tables are "rolling" (i.e. a new table replaces the old
# compression table once in a while), and this setting is only about the total number
# of compressions within a single such table.
# Must be a positive natural number.
max = 256
# interval between new table compression advertisements.
# this means the time during which we collect heavy-hitter data and then turn it into a compression table.
advertisement-interval = 1 minute
}
}
# List of fully qualified class names of remote instruments which should
# be initialized and used for monitoring of remote messages.
# The class must extend akka.remote.artery.RemoteInstrument and
# have a public constructor with empty parameters or one ExtendedActorSystem
# parameter.
# A new instance of RemoteInstrument will be created for each encoder and decoder.
# It's only called from the stage, so if it dosn't delegate to any shared instance
# it doesn't have to be thread-safe.
# Refer to `akka.remote.artery.RemoteInstrument` for more information.
instruments = ${?akka.remote.artery.advanced.instruments} []
}
}
}
}
#//#artery
#####################################
# Akka Stream Reference Config File #
#####################################
akka {
stream {
# Default flow materializer settings
materializer {
# Initial size of buffers used in stream elements
initial-input-buffer-size = 4
# Maximum size of buffers used in stream elements
max-input-buffer-size = 16
# Fully qualified config path which holds the dispatcher configuration
# to be used by FlowMaterialiser when creating Actors.
# When this value is left empty, the default-dispatcher will be used.
dispatcher = ""
# Cleanup leaked publishers and subscribers when they are not used within a given
# deadline
subscription-timeout {
# when the subscription timeout is reached one of the following strategies on
# the "stale" publisher:
# cancel - cancel it (via `onError` or subscribing to the publisher and
# `cancel()`ing the subscription right away
# warn - log a warning statement about the stale element (then drop the
# reference to it)
# noop - do nothing (not recommended)
mode = cancel
# time after which a subscriber / publisher is considered stale and eligible
# for cancelation (see `akka.stream.subscription-timeout.mode`)
timeout = 5s
}
# Enable additional troubleshooting logging at DEBUG log level
debug-logging = off
# Maximum number of elements emitted in batch if downstream signals large demand
output-burst-limit = 1000
# Enable automatic fusing of all graphs that are run. For short-lived streams
# this may cause an initial runtime overhead, but most of the time fusing is
# desirable since it reduces the number of Actors that are created.
auto-fusing = on
# Those stream elements which have explicit buffers (like mapAsync, mapAsyncUnordered,
# buffer, flatMapMerge, Source.actorRef, Source.queue, etc.) will preallocate a fixed
# buffer upon stream materialization if the requested buffer size is less than this
# configuration parameter. The default is very high because failing early is better
# than failing under load.
#
# Buffers sized larger than this will dynamically grow/shrink and consume more memory
# per element than the fixed size buffers.
max-fixed-buffer-size = 1000000000
# Maximum number of sync messages that actor can process for stream to substream communication.
# Parameter allows to interrupt synchronous processing to get upsteam/downstream messages.
# Allows to accelerate message processing that happening withing same actor but keep system responsive.
sync-processing-limit = 1000
debug {
# Enables the fuzzing mode which increases the chance of race conditions
# by aggressively reordering events and making certain operations more
# concurrent than usual.
# This setting is for testing purposes, NEVER enable this in a production
# environment!
# To get the best results, try combining this setting with a throughput
# of 1 on the corresponding dispatchers.
fuzzing-mode = off
}
}
# Fully qualified config path which holds the dispatcher configuration
# to be used by FlowMaterialiser when creating Actors for IO operations,
# such as FileSource, FileSink and others.
blocking-io-dispatcher = "akka.stream.default-blocking-io-dispatcher"
default-blocking-io-dispatcher {
type = "Dispatcher"
executor = "thread-pool-executor"
throughput = 1
thread-pool-executor {
core-pool-size-min = 2
core-pool-size-factor = 2.0
core-pool-size-max = 16
}
}
}
# configure overrides to ssl-configuration here (to be used by akka-streams, and akka-http – i.e. when serving https connections)
ssl-config {
protocol = "TLSv1.2"
}
}
# ssl configuration
# folded in from former ssl-config-akka module
ssl-config {
logger = "com.typesafe.sslconfig.akka.util.AkkaLoggerBridge"
}
###########################################################
# Akka Persistence Extension Reference Configuration File #
###########################################################
# This is the reference config file that contains all the default settings.
# Make your edits in your application.conf in order to override these settings.
# Directory of persistence journal and snapshot store plugins is available at the
# Akka Community Projects page http://akka.io/community/
# Default persistence extension settings.
akka.persistence {
# When starting many persistent actors at the same time the journal
# and its data store is protected from being overloaded by limiting number
# of recoveries that can be in progress at the same time. When
# exceeding the limit the actors will wait until other recoveries have
# been completed.
max-concurrent-recoveries = 50
# Fully qualified class name providing a default internal stash overflow strategy.
# It needs to be a subclass of akka.persistence.StashOverflowStrategyConfigurator.
# The default strategy throws StashOverflowException.
internal-stash-overflow-strategy = "akka.persistence.ThrowExceptionConfigurator"
journal {
# Absolute path to the journal plugin configuration entry used by
# persistent actor or view by default.
# Persistent actor or view can override `journalPluginId` method
# in order to rely on a different journal plugin.
plugin = ""
# List of journal plugins to start automatically. Use "" for the default journal plugin.
auto-start-journals = []
}
snapshot-store {
# Absolute path to the snapshot plugin configuration entry used by
# persistent actor or view by default.
# Persistent actor or view can override `snapshotPluginId` method
# in order to rely on a different snapshot plugin.
# It is not mandatory to specify a snapshot store plugin.
# If you don't use snapshots you don't have to configure it.
# Note that Cluster Sharding is using snapshots, so if you
# use Cluster Sharding you need to define a snapshot store plugin.
plugin = ""
# List of snapshot stores to start automatically. Use "" for the default snapshot store.
auto-start-snapshot-stores = []
}
# used as default-snapshot store if no plugin configured
# (see `akka.persistence.snapshot-store`)
no-snapshot-store {
class = "akka.persistence.snapshot.NoSnapshotStore"
}
# Default persistent view settings.
view {
# Automated incremental view update.
auto-update = on
# Interval between incremental updates.
auto-update-interval = 5s
# Maximum number of messages to replay per incremental view update.
# Set to -1 for no upper limit.
auto-update-replay-max = -1
}
# Default reliable delivery settings.
at-least-once-delivery {
# Interval between re-delivery attempts.
redeliver-interval = 5s
# Maximum number of unconfirmed messages that will be sent in one
# re-delivery burst.
redelivery-burst-limit = 10000
# After this number of delivery attempts a
# `ReliableRedelivery.UnconfirmedWarning`, message will be sent to the actor.
warn-after-number-of-unconfirmed-attempts = 5
# Maximum number of unconfirmed messages that an actor with
# AtLeastOnceDelivery is allowed to hold in memory.
max-unconfirmed-messages = 100000
}
# Default persistent extension thread pools.
dispatchers {
# Dispatcher used by every plugin which does not declare explicit
# `plugin-dispatcher` field.
default-plugin-dispatcher {
type = PinnedDispatcher
executor = "thread-pool-executor"
}
# Default dispatcher for message replay.
default-replay-dispatcher {
type = Dispatcher
executor = "fork-join-executor"
fork-join-executor {
parallelism-min = 2
parallelism-max = 8
}
}
# Default dispatcher for streaming snapshot IO
default-stream-dispatcher {
type = Dispatcher
executor = "fork-join-executor"
fork-join-executor {
parallelism-min = 2
parallelism-max = 8
}
}
}
# Fallback settings for journal plugin configurations.
# These settings are used if they are not defined in plugin config section.
journal-plugin-fallback {
# Fully qualified class name providing journal plugin api implementation.
# It is mandatory to specify this property.
# The class must have a constructor without parameters or constructor with
# one `com.typesafe.config.Config` parameter.
class = ""
# Dispatcher for the plugin actor.
plugin-dispatcher = "akka.persistence.dispatchers.default-plugin-dispatcher"
# Dispatcher for message replay.
replay-dispatcher = "akka.persistence.dispatchers.default-replay-dispatcher"
# Removed: used to be the Maximum size of a persistent message batch written to the journal.
# Now this setting is without function, PersistentActor will write as many messages
# as it has accumulated since the last write.
max-message-batch-size = 200
# If there is more time in between individual events gotten from the journal
# recovery than this the recovery will fail.
# Note that it also affects reading the snapshot before replaying events on
# top of it, even though it is configured for the journal.
recovery-event-timeout = 30s
circuit-breaker {
max-failures = 10
call-timeout = 10s
reset-timeout = 30s
}
# The replay filter can detect a corrupt event stream by inspecting
# sequence numbers and writerUuid when replaying events.
replay-filter {
# What the filter should do when detecting invalid events.
# Supported values:
# `repair-by-discard-old` : discard events from old writers,
# warning is logged
# `fail` : fail the replay, error is logged
# `warn` : log warning but emit events untouched
# `off` : disable this feature completely
mode = repair-by-discard-old
# It uses a look ahead buffer for analyzing the events.
# This defines the size (in number of events) of the buffer.
window-size = 100
# How many old writerUuid to remember
max-old-writers = 10
# Set this to `on` to enable detailed debug logging of each
# replayed event.
debug = off
}
}
# Fallback settings for snapshot store plugin configurations
# These settings are used if they are not defined in plugin config section.
snapshot-store-plugin-fallback {
# Fully qualified class name providing snapshot store plugin api
# implementation. It is mandatory to specify this property if
# snapshot store is enabled.
# The class must have a constructor without parameters or constructor with
# one `com.typesafe.config.Config` parameter.
class = ""
# Dispatcher for the plugin actor.
plugin-dispatcher = "akka.persistence.dispatchers.default-plugin-dispatcher"
circuit-breaker {
max-failures = 5
call-timeout = 20s
reset-timeout = 60s
}
}
}
# Protobuf serialization for the persistent extension messages.
akka.actor {
serializers {
akka-persistence-message = "akka.persistence.serialization.MessageSerializer"
akka-persistence-snapshot = "akka.persistence.serialization.SnapshotSerializer"
}
serialization-bindings {
"akka.persistence.serialization.Message" = akka-persistence-message
"akka.persistence.serialization.Snapshot" = akka-persistence-snapshot
}
serialization-identifiers {
"akka.persistence.serialization.MessageSerializer" = 7
"akka.persistence.serialization.SnapshotSerializer" = 8
}
}
###################################################
# Persistence plugins included with the extension #
###################################################
# In-memory journal plugin.
akka.persistence.journal.inmem {
# Class name of the plugin.
class = "akka.persistence.journal.inmem.InmemJournal"
# Dispatcher for the plugin actor.
plugin-dispatcher = "akka.actor.default-dispatcher"
}
# Local file system snapshot store plugin.
akka.persistence.snapshot-store.local {
# Class name of the plugin.
class = "akka.persistence.snapshot.local.LocalSnapshotStore"
# Dispatcher for the plugin actor.
plugin-dispatcher = "akka.persistence.dispatchers.default-plugin-dispatcher"
# Dispatcher for streaming snapshot IO.
stream-dispatcher = "akka.persistence.dispatchers.default-stream-dispatcher"
# Storage location of snapshot files.
dir = "snapshots"
# Number load attempts when recovering from the latest snapshot fails
# yet older snapshot files are available. Each recovery attempt will try
# to recover using an older than previously failed-on snapshot file
# (if any are present). If all attempts fail the recovery will fail and
# the persistent actor will be stopped.
max-load-attempts = 3
}
# LevelDB journal plugin.
# Note: this plugin requires explicit LevelDB dependency, see below.
akka.persistence.journal.leveldb {
# Class name of the plugin.
class = "akka.persistence.journal.leveldb.LeveldbJournal"
# Dispatcher for the plugin actor.
plugin-dispatcher = "akka.persistence.dispatchers.default-plugin-dispatcher"
# Dispatcher for message replay.
replay-dispatcher = "akka.persistence.dispatchers.default-replay-dispatcher"
# Storage location of LevelDB files.
dir = "journal"
# Use fsync on write.
fsync = on
# Verify checksum on read.
checksum = off
# Native LevelDB (via JNI) or LevelDB Java port.
native = on
}
# Shared LevelDB journal plugin (for testing only).
# Note: this plugin requires explicit LevelDB dependency, see below.
akka.persistence.journal.leveldb-shared {
# Class name of the plugin.
class = "akka.persistence.journal.leveldb.SharedLeveldbJournal"
# Dispatcher for the plugin actor.
plugin-dispatcher = "akka.actor.default-dispatcher"
# Timeout for async journal operations.
timeout = 10s
store {
# Dispatcher for shared store actor.
store-dispatcher = "akka.persistence.dispatchers.default-plugin-dispatcher"
# Dispatcher for message replay.
replay-dispatcher = "akka.persistence.dispatchers.default-replay-dispatcher"
# Storage location of LevelDB files.
dir = "journal"
# Use fsync on write.
fsync = on
# Verify checksum on read.
checksum = off
# Native LevelDB (via JNI) or LevelDB Java port.
native = on
}
}
akka.persistence.journal.proxy {
# Class name of the plugin.
class = "akka.persistence.journal.PersistencePluginProxy"
# Dispatcher for the plugin actor.
plugin-dispatcher = "akka.actor.default-dispatcher"
# Set this to on in the configuration of the ActorSystem
# that will host the target journal
start-target-journal = off
# The journal plugin config path to use for the target journal
target-journal-plugin = ""
# The address of the proxy to connect to from other nodes. Optional setting.
target-journal-address = ""
# Initialization timeout of target lookup
init-timeout = 10s
}
akka.persistence.snapshot-store.proxy {
# Class name of the plugin.
class = "akka.persistence.journal.PersistencePluginProxy"
# Dispatcher for the plugin actor.
plugin-dispatcher = "akka.actor.default-dispatcher"
# Set this to on in the configuration of the ActorSystem
# that will host the target snapshot-store
start-target-snapshot-store = off
# The journal plugin config path to use for the target snapshot-store
target-snapshot-store-plugin = ""
# The address of the proxy to connect to from other nodes. Optional setting.
target-snapshot-store-address = ""
# Initialization timeout of target lookup
init-timeout = 10s
}
akka {
loglevel = "INFO"
log-dead-letters = 10
log-dead-letters-during-shutdown = off
jvm-exit-on-fatal-error = false
actor {
provider = "akka.remote.RemoteActorRefProvider"
default-dispatcher {
type = Dispatcher
executor = "thread-pool-executor"
thread-pool-executor {
fixed-pool-size = 32
}
throughput = 100
}
thread-dispatcher-heartbeat {
type = Dispatcher
executor = "thread-pool-executor"
thread-pool-executor {
fixed-pool-size = 4
}
throughput = 10
}
thread-dispatcher-instance {
type = Dispatcher
executor = "thread-pool-executor"
thread-pool-executor {
fixed-pool-size = 32
}
throughput = 10
}
thread-dispatcher-log {
type = Dispatcher
executor = "thread-pool-executor"
thread-pool-executor {
fixed-pool-size = 32
}
throughput = 10
}
thread-dispatcher-container {
type = Dispatcher
executor = "thread-pool-executor"
thread-pool-executor {
fixed-pool-size = 16
}
throughput = 10
}
thread-dispatcher-task {
type = Dispatcher
executor = "thread-pool-executor"
thread-pool-executor {
fixed-pool-size = 32
}
throughput = 10
}
thread-dispatcher-delivery {
type = Dispatcher
executor = "thread-pool-executor"
thread-pool-executor {
fixed-pool-size = 32
}
throughput = 10
}
thread-dispatcher-inmem {
type = Dispatcher
executor = "thread-pool-executor"
thread-pool-executor {
fixed-pool-size = 16
}
throughput = 10
}
}
remote {
enabled-transports = ["akka.remote.netty.tcp"]
maximum-payload-bytes = 30000000 bytes
### Settings shared by classic remoting and Artery (the new implementation of remoting)
remote-dispatcher-thread8 {
type = Dispatcher
executor = "thread-pool-executor"
thread-pool-executor {
fixed-pool-size = 8
}
throughput = 100
}
# If set to a nonempty string remoting will use the given dispatcher for
# its internal actors otherwise the default dispatcher is used. Please note
# that since remoting can load arbitrary 3rd party drivers (see
# "enabled-transport" and "adapters" entries) it is not guaranteed that
# every module will respect this setting.
use-dispatcher = "akka.remote.remote-dispatcher-thread8"
# Settings for the failure detector to monitor connections.
# For TCP it is not important to have fast failure detection, since
# most connection failures are captured by TCP itself.
# The default DeadlineFailureDetector will trigger if there are no heartbeats within
# the duration heartbeat-interval + acceptable-heartbeat-pause, i.e. 124 seconds
# with the default settings.
transport-failure-detector {
# FQCN of the failure detector implementation.
# It must implement akka.remote.FailureDetector and have
# a public constructor with a com.typesafe.config.Config and
# akka.actor.EventStream parameter.
implementation-class = "akka.remote.DeadlineFailureDetector"
# How often keep-alive heartbeat messages should be sent to each connection.
heartbeat-interval = 10 s
# Number of potentially lost/delayed heartbeats that will be
# accepted before considering it to be an anomaly.
# A margin to the `heartbeat-interval` is important to be able to survive sudden,
# occasional, pauses in heartbeat arrivals, due to for example garbage collect or
# network drop.
acceptable-heartbeat-pause = 120 s
}
# Settings for the Phi accrual failure detector (http://www.jaist.ac.jp/~defago/files/pdf/IS_RR_2004_010.pdf
# [Hayashibara et al]) used for remote death watch.
# The default PhiAccrualFailureDetector will trigger if there are no heartbeats within
# the duration heartbeat-interval + acceptable-heartbeat-pause + threshold_adjustment,
# i.e. around 12.5 seconds with default settings.
watch-failure-detector {
# FQCN of the failure detector implementation.
# It must implement akka.remote.FailureDetector and have
# a public constructor with a com.typesafe.config.Config and
# akka.actor.EventStream parameter.
implementation-class = "akka.remote.PhiAccrualFailureDetector"
# How often keep-alive heartbeat messages should be sent to each connection.
heartbeat-interval = 30 s
# Defines the failure detector threshold.
# A low threshold is prone to generate many wrong suspicions but ensures
# a quick detection in the event of a real crash. Conversely, a high
# threshold generates fewer mistakes but needs more time to detect
# actual crashes.
threshold = 15
# Number of the samples of inter-heartbeat arrival times to adaptively
# calculate the failure timeout for connections.
max-sample-size = 100
# Minimum standard deviation to use for the normal distribution in
# AccrualFailureDetector. Too low standard deviation might result in
# too much sensitivity for sudden, but normal, deviations in heartbeat
# inter arrival times.
min-std-deviation = 5 s
# Number of potentially lost/delayed heartbeats that will be
# accepted before considering it to be an anomaly.
# This margin is important to be able to survive sudden, occasional,
# pauses in heartbeat arrivals, due to for example garbage collect or
# network drop.
acceptable-heartbeat-pause = 30 s
# How often to check for nodes marked as unreachable by the failure
# detector
unreachable-nodes-reaper-interval = 30 s
# After the heartbeat request has been sent the first failure detection
# will start after this period, even though no heartbeat mesage has
# been received.
expected-response-after = 10 s
}
netty.tcp {
port = 0
message-frame-size = 30000000b
send-buffer-size = 30000000b
receive-buffer-size = 30000000b
maximum-frame-size = 30000000b
execution-pool-size = 32
# Used to configure the number of I/O worker threads on server sockets
server-socket-worker-pool {
# Min number of threads to cap factor-based number to
pool-size-min = 32
# The pool size factor is used to determine thread pool size
# using the following formula: ceil(available processors * factor).
# Resulting size is then bounded by the pool-size-min and
# pool-size-max values.
pool-size-factor = 1.0
# Max number of threads to cap factor-based number to
pool-size-max = 32
}
# Used to configure the number of I/O worker threads on client sockets
client-socket-worker-pool {
# Min number of threads to cap factor-based number to
pool-size-min = 32
# The pool size factor is used to determine thread pool size
# using the following formula: ceil(available processors * factor).
# Resulting size is then bounded by the pool-size-min and
# pool-size-max values.
pool-size-factor = 1.0
# Max number of threads to cap factor-based number to
pool-size-max = 32
}
network-event-sender-dispatcher {
type = Dispatcher
executor = "thread-pool-executor"
thread-pool-executor {
fixed-pool-size = 32
}
throughput = 100
}
}
}
persistence {
journal.plugin = "akka.persistence.journal.inmem"
journal.inmem.plugin-dispatcher = "akka.actor.thread-dispatcher-inmem"
snapshot-store.plugin = "akka.persistence.snapshot-store.local"
snapshot-store.local.dir = ${user.home}/schedulerx/store/snapshot
at-least-once-delivery {
redeliver-interval = 30s
redelivery-burst-limit = 100
warn-after-number-of-unconfirmed-attempts = 2
}
}
}
