SENAS: Security driven ENergy Aware Scheduler for Real Time Approximate Computing Tasks on Multi-Processor Systems

Krishnendu Guha, S. Saha, K. Mcdonald-Maier
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Abstract

Present day real time approximate computing applications like image and video processing involves execution of a set of tasks before a certain amount of time or deadline. In addition to this, present day systems are associated with strict energy budget that cannot be changed post deployment. The tasks comprises of a mandatory and optional part. Completion of all mandatory portions of all tasks before deadline is much more important than result accuracy in such real time approximate computing applications. Based on the energy budget, the optional portions can be executed that determines the quality of service (QoS) of the system. In ideal scenario, sufficient energy budget is present that ensures completion of both mandatory and optional portions in a system with a pre-determined number of processors. However, if fault or malware attack occurs on one or more processors, then the system will cease to work and results may be fatal. In this work, we consider such a scenario where the processors may be faulty and stop functioning in post deployment phases or some malware may cause unexpected delays in processing or may cause unexpected power draining at runtime that will prevent the system from meeting its deadline. We propose a Security driven ENergy Aware Scheduler (SENAS) that works as a self aware agent. Initially, based on the available energy budget, SENAS determines which task is to be executed in which processor of a system. At runtime, SENAS constantly monitors the working of the processors and on detecting any anomaly in any of the processors, it reschedules its tasks at runtime by reducing execution of the optional portions of the tasks and ensuring completion before deadline with high QoS.
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SENAS:多处理器系统上实时近似计算任务的安全驱动的能量感知调度器
现在的实时近似计算应用程序,如图像和视频处理,涉及在一定时间或截止日期之前执行一组任务。除此之外,目前的系统有严格的能源预算,部署后不能改变。任务分为必选和可选两部分。在这种实时近似计算应用中,在截止日期之前完成所有任务的所有强制部分比结果准确性重要得多。可以根据能量预算执行可选部分,决定系统的QoS (quality of service)。在理想情况下,存在足够的能量预算,以确保在预先确定数量的处理器的系统中完成强制和可选部分。但是,如果在一个或多个处理器上发生故障或恶意软件攻击,则系统将停止工作,结果可能是致命的。在这项工作中,我们考虑这样一种场景:处理器可能出现故障,并在部署后阶段停止工作,或者一些恶意软件可能导致处理中的意外延迟,或者可能在运行时导致意外的功耗,从而阻止系统满足其截止日期。我们提出了一个安全驱动的能量感知调度程序(SENAS),它作为一个自我感知代理工作。最初,基于可用的能量预算,SENAS决定在系统的哪个处理器中执行哪个任务。在运行时,SENAS不断地监视处理器的工作,并且在检测到任何处理器中的任何异常时,它通过减少任务的可选部分的执行并确保在截止日期之前以高QoS完成其任务,从而在运行时重新安排任务。
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