具有可靠性约束的不精确混合临界系统的松弛时间管理

IF 3.6 2区 计算机科学 Q2 COMPUTER SCIENCE, HARDWARE & ARCHITECTURE
Yi-Wen Zhang;Hui Zheng
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引用次数: 0

摘要

混合临界系统(MCS)是在同一硬件平台上集成具有不同临界级别的多个应用程序的系统。对于功率和能量受限的系统,如无人机,在满足可靠性约束的同时最小化计算系统的能量消耗是非常重要的。本文首先根据给定的可靠性目标确定系统的容错数量。其次,我们提出了具有半透视和检查点的MCS的可调度性测试。第三,针对具有半洞察力和检查点的MCS,提出了具有可靠性约束的能量感知调度算法(EASRC)。它由离线阶段和在线阶段组成。在脱机阶段,我们通过回收静态空闲时间来确定脱机处理器的速度。在在线阶段,我们通过回收动态空闲时间来调整处理器速度,进一步节省能量。最后,通过实验验证了所提算法的性能。结果表明,与现有方法相比,该算法平均可节省9.67%的能耗。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Slack Time Management for Imprecise Mixed-Criticality Systems With Reliability Constraints
A Mixed-Criticality System (MCS) integrates multiple applications with different criticality levels on the same hardware platform. For power and energy-constrained systems such as Unmanned Aerial Vehicles, it is important to minimize energy consumption of the computing system while meeting reliability constraints. In this paper, we first determine the number of tolerated faults according to the given reliability target. Second, we propose a schedulability test for MCS with semi-clairvoyance and checkpointing. Third, we propose the Energy-Aware Scheduling with Reliability Constraint (EASRC) scheduling algorithm for MCS with semi-clairvoyance and checkpointing. It consists of an offline phase and an online phase. In the offline phase, we determine the offline processor speed by reclaiming static slack time. In the online phase, we adjust the processor speed by reclaiming dynamic slack time to further save energy. Finally, we show the performance of our proposed algorithm through experimental evaluations. The results show that the proposed algorithm can save an average of 9.67% of energy consumption compared with existing methods.
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来源期刊
IEEE Transactions on Computers
IEEE Transactions on Computers 工程技术-工程:电子与电气
CiteScore
6.60
自引率
5.40%
发文量
199
审稿时长
6.0 months
期刊介绍: The IEEE Transactions on Computers is a monthly publication with a wide distribution to researchers, developers, technical managers, and educators in the computer field. It publishes papers on research in areas of current interest to the readers. These areas include, but are not limited to, the following: a) computer organizations and architectures; b) operating systems, software systems, and communication protocols; c) real-time systems and embedded systems; d) digital devices, computer components, and interconnection networks; e) specification, design, prototyping, and testing methods and tools; f) performance, fault tolerance, reliability, security, and testability; g) case studies and experimental and theoretical evaluations; and h) new and important applications and trends.
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