execution n. 1.实行,履行,执行;贯彻。 2.执行死刑;强制执行;执行命令。 3.作成,完成;签名盖印使法律文件生效;执行法律。 4.扮演,演奏,(演奏)技巧,手法。 5.成功,奏效;效果;(武器的)杀伤力。 forcible execution 强制执行。 The execution leaves much to be desired, though the idea is good. 设想虽好,执行起来很难如愿。 execution by hanging 绞刑。 carry [put] into execution 实行,实施。 do execution奏效,见效;(武器有)摧毁作用 (He did great execution among the cakes. 他吃掉很多饼)。 Every shot did execution . 百发百中。 E- Dock 【英史】(泰晤士 (Thames) 河畔处决海盗等的)死刑码头。 make good execution 【军事】摧毁;使敌方受重大损失。 put to execution 处死刑,执行死刑。
task n. 1.(派定的)工作,任务,功课。 2.艰苦的工作,苦差使。 3.〔废语〕租税,税款。 set (sb.) a task 派(某人)一个任务。 be at one's task 在做着工作。 It's quite a task to figure out 10 problems in an hour. 一小时内算出十道习题可是个艰苦的工作。 bring [call, take] sb. to task (for doing sth.) (为…)责备(某人)。 take a task upon oneself 接受任务。 vt. 1.派给工作。 2.虐待,使作苦工。 3.〔废语〕课税。 task one's energies 尽全力。 taskbar 【计算机】(通常显示于电脑屏幕底部的)任务栏。
It measures function and task execution times, providing minimum, maximum and average execution times for each function or task, as well as the cumulative time spent in the function or task 测量函数和任务的执行时间,提供每个函数或任务的最短、最长及平均时间,以及函数或任务所花费的累积时间。
The behaviors of reconnaissance robot are classified into elementary behaviors, combinational behaviors and macro behaviors according to the ways of responding to the environment changes during task execution 按照机器人对环境变化的响应方式的不同,将机器人的行为分成基本行为、组合行为和宏行为,给出了描述这些行为的方法和一个宏行为的设计实例。
While ogsi and grid core services are generally applicable to any distributed computing system, grid program execution class is unique to the grid model of distributed task execution that supports high-performance computing, parallelism, and distributed collaboration 虽然ogsi和网格核心服务一般适用于任何分布式计算系统,但是网格程序执行类别是支持高性能计算、并行计算和分布式协作的分布式任务执行网格模型所特有的。
A migrating workflow navigation model was defined based on the service type classification provided by the anchorage server, the previous service entity list structure of anchorage server was expanded, and the task execution process of migrating instances was described in detail 摘要在对停靠站服务器提供的服务进行类型划分的基础上,定义了迁移工作流系统的导航模型,扩充了停靠站服务器的服务主体表结构,详细描述了基于导航的迁移实例的任务执行过程。
For example, when troubleshooting a system problem, an engineer may be frustrated by the obscure, bus-cycle level of information most trace tools produce . using the codetest trace tool, the engineer can easily review the sequence of task execution without being encumbered by minute details that are not relevant to solving the problem at hand 凭借这三种视图,可以更容易地只显示感兴趣的信息,确定程序正在进行的工作。例如,在排除系统故障时,工程师可能被大多数追踪工具产生的模糊且总线级别的信息所困扰。使用
In the end, the real-time aspects and fault / error recover of high-level task supervisor are discussed . in chapter 6, based on analysis of features of the task execution level of the acr prototype system control architecture, the task execution level is divided into situation / event surveillance, task execution control and fault / error recovery subsystems 第六章对acr原型系统控制体系结构任务执行层的具体特性作了详细分析,将任务执行层分解为状态/事件监视、任务执行控制以及故障诊断与恢复三部分,并分别针对这三部分的功能特性、组织结构以及运行机制等作了详细描述。
In the end, the real-time aspects and fault / error recover of high-level task supervisor are discussed . in chapter 6, based on analysis of features of the task execution level of the acr prototype system control architecture, the task execution level is divided into situation / event surveillance, task execution control and fault / error recovery subsystems 第六章对acr原型系统控制体系结构任务执行层的具体特性作了详细分析,将任务执行层分解为状态/事件监视、任务执行控制以及故障诊断与恢复三部分,并分别针对这三部分的功能特性、组织结构以及运行机制等作了详细描述。
In the end, the real-time aspects and fault / error recover of high-level task supervisor are discussed . in chapter 6, based on analysis of features of the task execution level of the acr prototype system control architecture, the task execution level is divided into situation / event surveillance, task execution control and fault / error recovery subsystems 第六章对acr原型系统控制体系结构任务执行层的具体特性作了详细分析,将任务执行层分解为状态/事件监视、任务执行控制以及故障诊断与恢复三部分,并分别针对这三部分的功能特性、组织结构以及运行机制等作了详细描述。
In mass, although the ability of each single-agent is limited, it can be improved by the cooperation and coordination among those single-agents, which simultaneously improves the performance of the whole system . consequently, multi-agent systems have better performance, shorter time for task execution and lower energy consumption than single-agent systems 在多智能体系统中,尽管各单智能体的能力是有限的,但通过相互间合作与协调,能改善各个体的基本能力,提高整个系统的性能,因而多智能体系统较单智能体系统具有更优的性能,完成任务所需时间更短,且系统总的能耗更小。