Examples of using Cpu time in English and their translations into Chinese
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And also CPU time.
以及CPU处理时间。In this state, the thread is ready to receive the CPU time.
此刻线程已经有资格获取CPU时间了。Find the CPU time.
得CPU的执行时间。CPU time: This is the CPU usage from the perspective of the operating system.
CPUtime：这是从操作系统的角度来看CPU使用情况。In our case, it is CPU time and electricity that is expended.
在我们的例子中，消耗的是CPU时间和电能。High load averages imply that a system is overloaded;many processes are waiting for CPU time.
高平均负载意味着系统是过载的：许多进程在等待CPU时间。TIME+ total cpu time used by the process.
TIME+:进程使用的CPU时间总计.It is not intended to restrict the use of resources like I/O, bandwidth,disk space or CPU time.
在chroot的机制本身也不是为限制资源的使用而设计，如I/O，带宽，磁盘空间或CPU时间。CPU：该任务使用的CPU时间的总百分比。Whenever extra CPU time is available: this allows dynamic adjustment of path quality;
任何可以使用额外的CPU时间的时候：这允许动态调整路径的性质；.The speed of the language(or the CPU time) is almost never a problem.
语言的速度（或者CPU胜博發）几乎从来不是问题。Conversely, when a program executes a system call such as exec or fork,it is accumulating system CPU time.
相反，当一个程序执行如exec或fork系统调用时，将累加到系统CPU时间。The speed of the language(or CPU time) is almost never the issue.
语言的速度（或者CPU胜博發）几乎从来不是问题。The chroot mechanism in itself also is not intended to restrict the use of resources like I/O, bandwidth,disk space or CPU time.
在chroot的机制本身也不是为限制资源的使用而设计，如I/O，带宽，磁盘空间或CPU时间。Instead of affecting CPU time, M controls a tradeoff between responsiveness and path quality.
M不影响CPU时间，而控制了响应和路径质量的折衷。Back in the mists of time, when C was still a new phenomenon, CPU time and storage of any kind were at a premium.
回过头去看，当C语言还是一个新事物的时候，CPU时间和任何类型的存储都是非常宝贵的。This process frees CPU time to perform other operations, as the CPU is a common bottleneck in modern sites and apps.
此过程会释放CPU时间来执行其他操作，因为CPU是现代网站和应用的最常见瓶颈。Because of this, early OSes tried to minimize wasting CPU time by avoiding unnecessary task switching.
因此，早期的实时操作系统通过减少任务切换次数来避免消耗过多CPU时间。Raspbian/Linux divides CPU time and allocates it as needed to the applications, the Python code, and Raspbian itself.
Raspbian/Linux会根据需要将CPU时间分配给应用程序、Python代码和Raspbian自身。If you write a network application, such as a web server,chances are, CPU time is not the bottleneck of your application.
如果你在写一个网络应用程序，如web服务，很有可能的情况是，CPU时间并不是你的程序的瓶颈。A process that performs a lot of computation is computationally intensive, that is,its running time depends on how much CPU time it gets.
执行大量计算的进程是计算密集的，也就是说它的运行时间取决于得到了多少CPU时间。The resources of the process, e.g. memory and CPU time, are allocated to it through the operating system.
进程的资源诸如内存和CPU时间片都是由操作系统来分配。Therefore, if you have many programs for Windows since it was launched,each program will try and grab CPU time and disk to boot.
因此,如果您有相当多的程序启动Windows启动时,每个程序将尝试和抓取CPU时间,以便它可以加载。A process needs certain resources, including CPU time, memory, files, and I/O devices, to accomplish its task.
进程需要一定的资源（包括CPU时间、内存、文件、I/O设备）以完成其任务。Therefore if you have a lot of programs starting when Windows starts,each program will try and grab CPU time so that it can load.
因此,如果您有相当多的程序启动Windows启动时,每个程序将尝试和抓取CPU时间,以便它可以加载。So CFS always tries to split up CPU time between runnable tasks as close to'ideal multitasking hardware' as possible.
CFS总是试着在可运行任务间分割CPU时间，使之尽可能接近“理想多任务硬件”。However, many users need to be able to extract large amounts of data at one time, which would take a lot of(expensive) CPU time for each extraction.
不过，许多用户一次必须能够析取大量的数据，这样每次析取将花费大量（昂贵的）CPU时间。It also supports adaptive partitioning, an efficient form of CPU time partitioning that prevents malicious code and denial-of-service(DoS) attacks from monopolizing the CPU. .
它也支持自适应分区，这是一种高效的CPU时间分区形式，可以阻止恶意代码和拒绝服务(DoS)攻击来霸占CPU资源。If the context-switch time is approximately 10 percent of the time quantum,then about 10 percent of the CPU time will be spent in context switching.
如果上下文切换时间约为时间片的10%，那么约10%的CPU时间会浪费在上下文切换上。In this situation the operatingsystem could also instantly allocate CPU time to other processes without having to put them on hold.
在这种情况下，操作系统还可以立即将CPU时间分配给其他进程，而无需将其置于保持状态。
