可重构多核架构上安全关键型应用的实验分配

Louis Sutter, Thanakorn Khamvilai, P. Monmousseau, John B. Mains, E. Feron, P. Baufreton, Francois Neumann, M. Krishna, S. Nandy, R. Narayan, C. Haldar
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引用次数: 7

摘要

多核处理器遍布各行各业,但对于需要对每个组件进行严格认证的航空航天业来说,多核处理器仍是一项挑战。让多核处理器执行安全关键性约束的一种方法是,当芯片上的关键任务受到硬件故障影响时,确保重新分配这些任务。本文介绍并比较了可重构多核架构任务重新分配问题的不同模型。本文还介绍了以树莓派(Raspberry Pi)为原型制作的第一版宏观模型,该模型用于表示多核架构,并在实际系统上测试任务分配算法,显示了当内核出现故障时,重新分配算法所带来的更高鲁棒性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Experimental Allocation of Safety-Critical Applications on Reconfigurable Multi-Core Architecture
Multi-core processors pervade numerous industries but they still represent a challenge for the aerospace industry, where strong certification of every components is required. One way to make them enforce safety-criticality constraints is to ensure reallocation of critical tasks on the chip when they are affected by hardware faults. This paper describes and compares different models of a task reallocation problem for a reconfigurable multi-core architecture. It also presents the first version of the macroscopic model made of Raspberry Pi that was built to represent the multi-core architecture and to test the task allocation algorithm on an actual system, showing the increased robustness that the reallocation algorithm enables while cores are made faulty.
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