9781565921153 - Pthreads Programming: A Posix Standard for Better Multiprocessing de Nichols, Bradford; Buttlar, Dick; Proulx Farrell, Jacqueline (18 resultados)

Mixed Media Product. Condición: New. Computers are just as busy as the rest of us nowadays. They have lots of tasks to do at once, and need some cleverness to get them all done at the same time. That's why threads are seen more and more often as a new model for programming. Threads have been available for some time. The Mach operating system, the Distributed Computer Environment (DCE), and Windows NT all feature threads. One advantage of most UNIX implementations, as well as DCE, is that they conform to a recently ratified POSIX standard (originally 1003.4a, now 1003.1c), which allows your programs to be portable between them. POSIX threads are commonly known as pthreads, after the word that starts all the names of the function calls. The standard is supported by Solaris, OSF/1, AIX, and several other UNIX-based operating systems. The idea behind threads programming is to have multiple tasks running concurrently within the same program. They can share a single CPU as processes do, or take advantage of multiple CPUs when available. In either case, they provide a clean way to divide the tasks of a program while sharing data.A window interface can read input on dozens of different buttons, each responsible for a separate task. A network server has to accept simultaneous calls from many clients, providing each with reasonable response time. A multiprocessor runs a number-crunching program on several CPUs at once, combining the results when all are done. All these kinds of applications can benefit from threads. In this book you will learn not only what the pthread calls are, but when it is a good idea to use threads and how to make them efficient (which is the whole reason for using threads in the first place). The authors delves into performance issues, comparing threads to processes, contrasting kernel threads to user threads, and showing how to measure speed. He also describes in a simple, clear manner what all the advanced features are for, and how threads interact with the rest of the UNIX system.Topics include: * Basic design techniques * Mutexes, conditions, and specialized synchronization techniques * Scheduling, priorities, and other real-time issues * Cancellation * UNIX libraries and re-entrant routines * Signals * Debugging tips * Measuring performance * Special considerations for the Distributed Computing Environment (DCE).

Mixed Media Product. Condición: New. Computers are just as busy as the rest of us nowadays. They have lots of tasks to do at once, and need some cleverness to get them all done at the same time. That's why threads are seen more and more often as a new model for programming. Threads have been available for some time. The Mach operating system, the Distributed Computer Environment (DCE), and Windows NT all feature threads. One advantage of most UNIX implementations, as well as DCE, is that they conform to a recently ratified POSIX standard (originally 1003.4a, now 1003.1c), which allows your programs to be portable between them. POSIX threads are commonly known as pthreads, after the word that starts all the names of the function calls. The standard is supported by Solaris, OSF/1, AIX, and several other UNIX-based operating systems. The idea behind threads programming is to have multiple tasks running concurrently within the same program. They can share a single CPU as processes do, or take advantage of multiple CPUs when available. In either case, they provide a clean way to divide the tasks of a program while sharing data.A window interface can read input on dozens of different buttons, each responsible for a separate task. A network server has to accept simultaneous calls from many clients, providing each with reasonable response time. A multiprocessor runs a number-crunching program on several CPUs at once, combining the results when all are done. All these kinds of applications can benefit from threads. In this book you will learn not only what the pthread calls are, but when it is a good idea to use threads and how to make them efficient (which is the whole reason for using threads in the first place). The authors delves into performance issues, comparing threads to processes, contrasting kernel threads to user threads, and showing how to measure speed. He also describes in a simple, clear manner what all the advanced features are for, and how threads interact with the rest of the UNIX system.Topics include: * Basic design techniques * Mutexes, conditions, and specialized synchronization techniques * Scheduling, priorities, and other real-time issues * Cancellation * UNIX libraries and re-entrant routines * Signals * Debugging tips * Measuring performance * Special considerations for the Distributed Computing Environment (DCE).

Condición: New.

Condición: New.

Paperback or Softback. Condición: New. Pthreads Programming: A Posix Standard for Better Multiprocessing 0.85. Book.

Mixed Media Product. Condición: New. Computers are just as busy as the rest of us nowadays. They have lots of tasks to do at once, and need some cleverness to get them all done at the same time. That's why threads are seen more and more often as a new model for programming. Threads have been available for some time. The Mach operating system, the Distributed Computer Environment (DCE), and Windows NT all feature threads. One advantage of most UNIX implementations, as well as DCE, is that they conform to a recently ratified POSIX standard (originally 1003.4a, now 1003.1c), which allows your programs to be portable between them. POSIX threads are commonly known as pthreads, after the word that starts all the names of the function calls. The standard is supported by Solaris, OSF/1, AIX, and several other UNIX-based operating systems. The idea behind threads programming is to have multiple tasks running concurrently within the same program. They can share a single CPU as processes do, or take advantage of multiple CPUs when available. In either case, they provide a clean way to divide the tasks of a program while sharing data.A window interface can read input on dozens of different buttons, each responsible for a separate task. A network server has to accept simultaneous calls from many clients, providing each with reasonable response time. A multiprocessor runs a number-crunching program on several CPUs at once, combining the results when all are done. All these kinds of applications can benefit from threads. In this book you will learn not only what the pthread calls are, but when it is a good idea to use threads and how to make them efficient (which is the whole reason for using threads in the first place). The authors delves into performance issues, comparing threads to processes, contrasting kernel threads to user threads, and showing how to measure speed. He also describes in a simple, clear manner what all the advanced features are for, and how threads interact with the rest of the UNIX system.Topics include: * Basic design techniques * Mutexes, conditions, and specialized synchronization techniques * Scheduling, priorities, and other real-time issues * Cancellation * UNIX libraries and re-entrant routines * Signals * Debugging tips * Measuring performance * Special considerations for the Distributed Computing Environment (DCE).

Mixed media product. Condición: New. New copy - Usually dispatched within 4 working days. 494.

Mixed Media Product. Condición: New. Computers are just as busy as the rest of us nowadays. They have lots of tasks to do at once, and need some cleverness to get them all done at the same time. That's why threads are seen more and more often as a new model for programming. Threads have been available for some time. The Mach operating system, the Distributed Computer Environment (DCE), and Windows NT all feature threads. One advantage of most UNIX implementations, as well as DCE, is that they conform to a recently ratified POSIX standard (originally 1003.4a, now 1003.1c), which allows your programs to be portable between them. POSIX threads are commonly known as pthreads, after the word that starts all the names of the function calls. The standard is supported by Solaris, OSF/1, AIX, and several other UNIX-based operating systems. The idea behind threads programming is to have multiple tasks running concurrently within the same program. They can share a single CPU as processes do, or take advantage of multiple CPUs when available. In either case, they provide a clean way to divide the tasks of a program while sharing data.A window interface can read input on dozens of different buttons, each responsible for a separate task. A network server has to accept simultaneous calls from many clients, providing each with reasonable response time. A multiprocessor runs a number-crunching program on several CPUs at once, combining the results when all are done. All these kinds of applications can benefit from threads. In this book you will learn not only what the pthread calls are, but when it is a good idea to use threads and how to make them efficient (which is the whole reason for using threads in the first place). The authors delves into performance issues, comparing threads to processes, contrasting kernel threads to user threads, and showing how to measure speed. He also describes in a simple, clear manner what all the advanced features are for, and how threads interact with the rest of the UNIX system.Topics include: * Basic design techniques * Mutexes, conditions, and specialized synchronization techniques * Scheduling, priorities, and other real-time issues * Cancellation * UNIX libraries and re-entrant routines * Signals * Debugging tips * Measuring performance * Special considerations for the Distributed Computing Environment (DCE).

Condición: New. In.

Condición: New. 1996. 1st Edition. Paperback. The idea behind POSIX threads is to have multiple tasks running concurrently within the same program. This book features realistic examples, a look behind the scenes at the implementation and performance issues, and special topics such as DCE and real-time extensions. Series: A Nutshell handbook. Num Pages: 286 pages, black & white illustrations. BIC Classification: UM. Category: (P) Professional & Vocational; (UP) Postgraduate, Research & Scholarly; (UU) Undergraduate. Dimension: 232 x 178 x 15. Weight in Grams: 506. . . . . .

Condición: New.

Paperback. Condición: Brand New. 1st edition. 286 pages. 9.00x7.50x0.50 inches. In Stock.

Condición: New. 1996. 1st Edition. Paperback. The idea behind POSIX threads is to have multiple tasks running concurrently within the same program. This book features realistic examples, a look behind the scenes at the implementation and performance issues, and special topics such as DCE and real-time extensions. Series: A Nutshell handbook. Num Pages: 286 pages, black & white illustrations. BIC Classification: UM. Category: (P) Professional & Vocational; (UP) Postgraduate, Research & Scholarly; (UU) Undergraduate. Dimension: 232 x 178 x 15. Weight in Grams: 506. . . . . . Books ship from the US and Ireland.

Condición: New. The idea behind POSIX threads is to have multiple tasks running concurrently within the same program. This book features realistic examples, a look behind the scenes at the implementation and performance issues, and special topics such as DCE and real-time .

Taschenbuch. Condición: Neu. Neuware - Computers are just as busy as the rest of us nowadays. They have lots of tasks to do at once, and need some cleverness to get them all done at the same time.That's why threads are seen more and more often as a new model for programming. Threads have been available for some time. The Mach operating system, the Distributed Computer Environment (DCE), and Windows NT all feature threads.One advantage of most UNIX implementations, as well as DCE, is that they conform to a recently ratified POSIX standard (originally 1003.4a, now 1003.1c), which allows your programs to be portable between them. POSIX threads are commonly known as pthreads, after the word that starts all the names of the function calls. The standard is supported by Solaris, OSF/1, AIX, and several other UNIX-based operating systems.The idea behind threads programming is to have multiple tasks running concurrently within the same program. They can share a single CPU as processes do, or take advantage of multiple CPUs when available. In either case, they provide a clean way to divide the tasks of a program while sharing data.A window interface can read input on dozens of different buttons, each responsible for a separate task. A network server has to accept simultaneous calls from many clients, providing each with reasonable response time. A multiprocessor runs a number-crunching program on several CPUs at once, combining the results when all are done. All these kinds of applications can benefit from threads.In this book you will learn not only what the pthread calls are, but when it is a good idea to use threads and how to make them efficient (which is the whole reason for using threads in the first place). The authors delves into performance issues, comparing threads to processes, contrasting kernel threads to user threads, and showing how to measure speed. He also describes in a simple, clear manner what all the advanced features are for, and how threads interact with the rest of the UNIX system.Topics include: Basic design techniques - Mutexes, conditions, and specialized synchronization techniques - Scheduling, priorities, and other real-time issues - Cancellation - UNIX libraries and re-entrant routines - Signals - Debugging tips - Measuring performance - Special considerations for the Distributed Computing Environment (DCE).

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Condición: New.

paperback. Condición: New. In shrink wrap. Looks like an interesting title!