Represents an operating system process thread.
Assembly: System (in System.dll)
Gets the base priority of the thread.
Gets a value indicating whether the component can raise an event.(Inherited from Component.)
Gets the current priority of the thread.
Gets the unique identifier of the thread.
Sets the preferred processor for this thread to run on.
Gets or sets a value indicating whether the operating system should temporarily boost the priority of the associated thread whenever the main window of the thread's process receives the focus.
Gets or sets the priority level of the thread.
Gets the amount of time that the thread has spent running code inside the operating system core.
Sets the processors on which the associated thread can run.
Gets the memory address of the function that the operating system called that started this thread.
Gets the time that the operating system started the thread.
Gets the current state of this thread.
Gets the total amount of time that this thread has spent using the processor.
Gets the amount of time that the associated thread has spent running code inside the application.
Gets the reason that the thread is waiting.
Creates an object that contains all the relevant information required to generate a proxy used to communicate with a remote object.(Inherited from MarshalByRefObject.)
Determines whether the specified object is equal to the current object.(Inherited from Object.)
Serves as the default hash function. (Inherited from Object.)
Retrieves the current lifetime service object that controls the lifetime policy for this instance.(Inherited from MarshalByRefObject.)
Obtains a lifetime service object to control the lifetime policy for this instance.(Inherited from MarshalByRefObject.)
Resets the ideal processor for this thread to indicate that there is no single ideal processor. In other words, so that any processor is ideal.
Useto obtain information about a thread that is currently running on the system. Doing so allows you, for example, to monitor the thread's performance characteristics.
This type implements the IDisposable interface. When you have finished using the type, you should dispose of it either directly or indirectly. To dispose of the type directly, call its Dispose method in a try/catch block. To dispose of it indirectly, use a language construct such as using (in C#) or Using (in Visual Basic). For more information, see the “Using an Object that Implements IDisposable” section in the IDisposable interface topic.
A thread is a path of execution through a program. It is the smallest unit of execution that Win32 schedules. It consists of a stack, the state of the CPU registers, and an entry in the execution list of the system scheduler.
A process consists of one or more threads and the code, data, and other resources of a program in memory. Typical program resources are open files, semaphores, and dynamically allocated memory. Each resource of a process is shared by all that process's threads.
A program executes when the system scheduler gives execution control to one of the program's threads. The scheduler determines which threads should run and when. A lower-priority thread might be forced to wait while higher-priority threads complete their tasks. On multiprocessor computers, the scheduler can move individual threads to different processors, thus balancing the CPU load.
Each process starts with a single thread, which is known as the primary thread. Any thread can create additional threads. All the threads within a process share the address space of that process.
The primary thread is not necessarily located at the first index in the collection.
Starting with the .NET Framework version 2.0, the ability to reference performance counter data on other computers has been eliminated for many of the .NET Framework methods and properties. This change was made to improve performance and to enable non-administrators to use the NotSupportedException. The methods and properties affected are too numerous to list here, but the exception information has been added to the affected member topics.class. As a result, some applications that did not get exceptions in earlier versions of the .NET Framework may now get a
The threads of a process execute individually and are unaware of each other unless you make them visible to each other. Threads that share common resources, however, must coordinate their work by using semaphores or another method of interprocess communication.
Available since 1.1
Any public static ( Shared in Visual Basic) members of this type are thread safe. Any instance members are not guaranteed to be thread safe.