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Set the hour, minute, and second for the online countdown timer, and start it. Alternatively, you can set the date and time to count days, hours, minutes, and seconds till (or from) the event. The timer triggered alert will appear, and the pre-selected sound will be played at the set time.

The following example shows a timer trigger binding and function code that uses the binding, where an instance representing the timer is passed to the function. The function writes a log indicating whether this function invocation is due to a missed schedule occurrence. The example depends on whether you use the v1 or v2 Python programming model.

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Unlike a CRON expression, a TimeSpan value specifies the time interval between each function invocation. When a function completes after running longer than the specified interval, the timer immediately invokes the function again.

If a function app scales out to multiple instances, only a single instance of a timer-triggered function is run across all instances. It will not trigger again if there is an outstanding invocation is still running.

The timer trigger uses a storage lock to ensure that there is only one timer instance when a function app scales out to multiple instances. If two function apps share the same identifying configuration and each uses a timer trigger, only one timer runs.

The following example instantiates a System.Timers.Timer object that fires its Timer.Elapsed event every two seconds (2,000 milliseconds), sets up an event handler for the event, and starts the timer. The event handler displays the value of the ElapsedEventArgs.SignalTime property each time it is raised.

The Timer component is a server-based timer that raises an Elapsed event in your application after the number of milliseconds in the Interval property has elapsed. You can configure the Timer object to raise the event just once or repeatedly using the AutoReset property. Typically, a Timer object is declared at the class level so that it stays in scope as long as it is needed. You can then handle its Elapsed event to provide regular processing. For example, suppose you have a critical server that must be kept running 24 hours a day, 7 days a week. You could create a service that uses a Timer object to periodically check the server and ensure that the system is up and running. If the system is not responding, the service could attempt to restart the server or notify an administrator.

The server-based System.Timers.Timer class is designed for use with worker threads in a multithreaded environment. Server timers can move among threads to handle the raised Elapsed event, resulting in more accuracy than Windows timers in raising the event on time.

The event-handling method might run on one thread at the same time that another thread calls the Stop method or sets the Enabled property to false. This might result in the Elapsed event being raised after the timer is stopped. The example code for the Stop method shows one way to avoid this race condition.

If you use the System.Timers.Timer class with a user interface element, such as a form or control, without placing the timer on that user interface element, assign the form or control that contains the Timer to the SynchronizingObject property, so that the event is marshaled to the user interface thread.

Corresponding to each Timer object is a single background thread that is used to execute all of the timer's tasks, sequentially. Timer tasks should complete quickly. If a timer task takes excessive time to complete, it "hogs" the timer's task execution thread. This can, in turn, delay the execution of subsequent tasks, which may "bunch up" and execute in rapid succession when (and if) the offending task finally completes. After the last live reference to a Timer object goes away and all outstanding tasks have completed execution, the timer's task execution thread terminates gracefully (and becomes subject to garbage collection). However, this can take arbitrarily long to occur. By default, the task execution thread does not run as a daemon thread, so it is capable of keeping an application from terminating. If a caller wants to terminate a timer's task execution thread rapidly, the caller should invoke the timer's cancel method. If the timer's task execution thread terminates unexpectedly, for example, because its stop method is invoked, any further attempt to schedule a task on the timer will result in an IllegalStateException, as if the timer's cancel method had been invoked. This class is thread-safe: multiple threads can share a single Timer object without the need for external synchronization. This class does not offer real-time guarantees: it schedules tasks using the Object.wait(long) method. Java 5.0 introduced the java.util.concurrent package and one of the concurrency utilities therein is the ScheduledThreadPoolExecutor which is a thread pool for repeatedly executing tasks at a given rate or delay. It is effectively a more versatile replacement for the Timer/TimerTask combination, as it allows multiple service threads, accepts various time units, and doesn't require subclassing TimerTask (just implement Runnable). Configuring ScheduledThreadPoolExecutor with one thread makes it equivalent to Timer. Implementation note: This class scales to large numbers of concurrently scheduled tasks (thousands should present no problem). Internally, it uses a binary heap to represent its task queue, so the cost to schedule a task is O(log n), where n is the number of concurrently scheduled tasks. Implementation note: All constructors start a timer thread.Since:1.3See Also:TimerTask, Object.wait(long)Constructor SummaryConstructors Constructor and DescriptionTimer()Creates a new timer.Timer(boolean isDaemon)Creates a new timer whose associated thread may be specified to run as a daemon.Timer(String name)Creates a new timer whose associated thread has the specified name.Timer(String name, boolean isDaemon)Creates a new timer whose associated thread has the specified name, and may be specified to run as a daemon.Method SummaryAll Methods Instance Methods Concrete Methods Modifier and TypeMethod and Descriptionvoidcancel()Terminates this timer, discarding any currently scheduled tasks.intpurge()Removes all cancelled tasks from this timer's task queue.voidschedule(TimerTask task, Date time)Schedules the specified task for execution at the specified time.voidschedule(TimerTask task, Date firstTime, long period)Schedules the specified task for repeated fixed-delay execution, beginning at the specified time.voidschedule(TimerTask task, long delay)Schedules the specified task for execution after the specified delay.voidschedule(TimerTask task, long delay, long period)Schedules the specified task for repeated fixed-delay execution, beginning after the specified delay.voidscheduleAtFixedRate(TimerTask task, Date firstTime, long period)Schedules the specified task for repeated fixed-rate execution, beginning at the specified time.voidscheduleAtFixedRate(TimerTask task, long delay, long period)Schedules the specified task for repeated fixed-rate execution, beginning after the specified delay.Methods inherited from class java.lang.Objectclone, equals, finalize, getClass, hashCode, notify, notifyAll, toString, wait, wait, waitConstructor DetailTimerpublic Timer()Creates a new timer. The associated thread does not run as a daemon.Timerpublic Timer(boolean isDaemon)Creates a new timer whose associated thread may be specified to run as a daemon. A daemon thread is called for if the timer will be used to schedule repeating "maintenance activities", which must be performed as long as the application is running, but should not prolong the lifetime of the application.Parameters:isDaemon - true if the associated thread should run as a daemon.Timerpublic Timer(String name)Creates a new timer whose associated thread has the specified name. The associated thread does not run as a daemon.Parameters:name - the name of the associated threadThrows:NullPointerException - if name is nullSince:1.5Timerpublic Timer(String name, boolean isDaemon)Creates a new timer whose associated thread has the specified name, and may be specified to run as a daemon.Parameters:name - the name of the associated threadisDaemon - true if the associated thread should run as a daemonThrows:NullPointerException - if name is nullSince:1.5Method Detailschedulepublic void schedule(TimerTask task, long delay)Schedules the specified task for execution after the specified delay.Parameters:task - task to be scheduled.delay - delay in milliseconds before task is to be executed.Throws:IllegalArgumentException - if delay is negative, or delay + System.currentTimeMillis() is negative.IllegalStateException - if task was already scheduled or cancelled, timer was cancelled, or timer thread terminated.NullPointerException - if task is nullschedulepublic void schedule(TimerTask task, Date time)Schedules the specified task for execution at the specified time. If the time is in the past, the task is scheduled for immediate execution.Parameters:task - task to be scheduled.time - time at which task is to be executed.Throws:IllegalArgumentException - if time.getTime() is negative.IllegalStateException - if task was already scheduled or cancelled, timer was cancelled, or timer thread terminated.NullPointerException - if task or time is nullschedulepublic void schedule(TimerTask task, long delay, long period)Schedules the specified task for repeated fixed-delay execution, beginning after the specified delay. Subsequent executions take place at approximately regular intervals separated by the specified period. In fixed-delay execution, each execution is scheduled relative to the actual execution time of the previous execution. If an execution is delayed for any reason (such as garbage collection or other background activity), subsequent executions will be delayed as well. In the long run, the frequency of execution will generally be slightly lower than the reciprocal of the specified period (assuming the system clock underlying Object.wait(long) is accurate). Fixed-delay execution is appropriate for recurring activities that require "smoothness." In other words, it is appropriate for activities where it is more important to keep the frequency accurate in the short run than in the long run. This includes most animation tasks, such as blinking a cursor at regular intervals. It also includes tasks wherein regular activity is performed in response to human input, such as automatically repeating a character as long as a key is held down.Parameters:task - task to be scheduled.delay - delay in milliseconds before task is to be executed.period - time in milliseconds between successive task executions.Throws:IllegalArgumentException - if delay < 0, or delay + System.currentTimeMillis() < 0, or period be457b7860