n. 信号标; 旗语 v. 打旗语; (用其他类似的信号系统)发信号 semaphore的第三人称单数和复数
双语例句
In Linux, conditional variable and POSIX semaphores are of the auto-reset type. 在Linux中,条件变量和POSIX信号量都是自动重置类型的。
What this means is that any entries regarding shared memory or semaphores ( I.E.sem) in/ etc/ system are no longer relevant. 这意味着不再需要在/etc/system中设置与共享内存和信号量(即sem)相关的任何条目。
Linux POSIX semaphores use sem_wait() to suspend the calling thread until the semaphore has a non-zero count. LinuxPOSIX信号使用semwait()来挂起发出调用的线程,直到信号拥有了非零的计数值。
A real application would use semaphores or other techniques to control reading and writing to the shared segment. 真实的应用程序会使用信号量或其他技术控制对共享内存段的读写。
In Linux, POSIX semaphores and System V semaphores are asynchronous but pthreads conditional variables are not asynchronous. 在Linux中,POSIX信号量和SystemV信号量也都是异步的,不过pthreads条件变量不是异步的。
Between processes, System V semaphores can be used. 在进程之间,可以使用SystemV信号量。
Timeout: Win32 event semaphores support timed wait. 超时:Win32事件信号支持定时等待。
This second part of the series has introduced synchronization objects and primitives, starting with semaphores and events. 本文是这一系列的第2部分,这篇文章从信号量和事件入手,介绍了有关同步对象和原语的内容。
Notice that in System V semaphores, key is used to uniquely identify the semaphore; in Windows, the semaphore is identified by a name. 注意,在SystemV信号量中,key被用来惟一标识信号量;在Windows中,信号量是使用一个名称来标识的。
Nsems is the number of semaphores in the semaphore set. nsems是这个信号量集中信号量的数量。
Named semaphores extend the synchronization between processes. 有名信号量可以在进程之间进行同步。
In Linux, pthreads does not provide an initial state, but POSIX semaphores provide an initial state. 在Linux中,pthreads并没有提供初始状态,而POSIX信号量则提供了一个初始状态。
Linux POSIX semaphores use sem_post() to post an event semaphore. LinuxPOSIX信号使用sempost()来发布事件信号。
Linux POSIX semaphores use sem_destroy() to destroy the unnamed semaphore. LinuxPOSIX信号使用semdestroy()来销毁无名称的信号。
Specifically, semaphores ensure that a server completes certain tasks before it begins other tasks. 具体地说,信号量确保服务器完成某些任务,然后再开始其他任务。
Refer to the section on semaphores in this article for the prototype for each of these System V semaphores. 关于每个SystemV信号量的原型,请参阅本文中有关信号量一节的内容。
Type of semaphore: Win32 supports both named and un-named event semaphores. 信号的类型:Win32既支持有名称的事件信号,也支持无名称的事件信号。
On Linux, POSIX semaphores are used only between the threads of same process. 在Linux上,在相同进程的不同线程之间,则只使用POSIX信号量。
Windows semaphores are count variables allowing a limited number of threads/ processes to access the shared resource. Windows信号量是一些计数器变量,允许有限个线程/进程访问共享资源。
The threading module does provide many synchronization primatives, including semaphores, condition variables, events, and locks. 线程模块提供了许多同步原语,包括信号量、条件变量、事件和锁。
Semaphores allow synchronization of processes by testing and setting the integer value in a single atomic operation. 信号允许进程通过一个单一的原子操作来测试和设置那个整数的值,以此实现同步。
Semaphores are a well-understood concept in computer science. 信号量在计算机科学领域中是一个益于理解的概念。
These resources, including shared memory and semaphores, are not adjustable by the user. 这些资源,包括共享内存和信号量,都是用户不可修改的。
C and semaphores in ipc/ sem. c和信号灯位于ipc/sem。
Cannot request exclusive semaphores at interrupt time. 无法在中断时请求独占的信号灯。
The most common building blocks of intertask communication are semaphores and mutexes. 大部分进程间通讯的建立的基石是信号灯和互斥。
Message queues are a really simple concept that derives from the power of queueing semaphores. 消息队列是个从信号量队列引申出的简单的概念。
SEMMNS A system-wide limit on the number of semaphores in all semaphore sets. 一个系统宽度限制所有的旗语的旗语号码。
Interprocess communication is not allowed. This includes pipes, semaphores, and shared memory. 进程内通讯不可以。这包括管道,信号,和共享内存。
A data structure that is used for intertask synchronization. Semaphores are usually provided by the operating system. 用于进程间同步的数据结构。信号灯常常由操作系统提供。