Work-in-Progress: Reinforcement Learning-Based DAG Scheduling Algorithm in Clustered Many-Core Platform

Atsushi Yano, Takuya Azumi
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引用次数: 2

Abstract

Embedded systems have become extensive, complex, and automated; thus, increasingly, computing platforms for such systems are being transformed into multi-/many-core platforms. Typically, self-driving systems, involve various applications that run simultaneously, and such systems require low power consumption and large-scale computation. A many-core processor with instructions, multiple data architecture can satisfy these requirements. Shortening the time required to execute all tasks (i.e., makespan) is an important objective in task scheduling for parallel real-time systems, such as self-driving system. Machine learning algorithms have been introduced to solve this kind of problem. This paper proposes a reinforcement learning-based scheduling algorithm for parallel real-time systems represented by a directed acyclic graph (DAG), and Kalray's MPPA3-80 is used as a target many-core processor.
基于强化学习的聚类多核平台DAG调度算法研究
嵌入式系统已经变得广泛、复杂和自动化;因此,这类系统的计算平台正逐渐转变为多核/多核平台。通常,自动驾驶系统涉及同时运行的各种应用程序,并且此类系统需要低功耗和大规模计算。具有多核指令、多数据架构的处理器可以满足这些要求。缩短执行所有任务所需的时间(即makespan)是并行实时系统(如自动驾驶系统)任务调度的重要目标。机器学习算法已经被引入来解决这类问题。本文提出了一种基于强化学习的并行实时系统调度算法,该算法以有向无环图(DAG)表示,并以Kalray公司的MPPA3-80为多核处理器为目标处理器。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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