并发异步系统的数据流实现

F. Gebali, Ali Alzahrani
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引用次数: 0

摘要

嵌入式多核系统是作为片上系统(SoC)实现的,它依赖于数据包存储和转发片上网络(NoC)进行通信。这些系统不使用总线,也不使用全局时钟。相反,路由器用于在核心之间移动数据,每个核心使用自己的本地时钟。这意味着并发异步计算。在这样的系统中使用事件驱动的概念实现算法是非常方便的。在这项工作中,我们提出了一个事件驱动的硬件计算模型,它更适合于描述、模拟和设计并发异步系统。该计算模型在调度策略方面具有灵活的I/O定时、处理明智地尽快执行和自定时事件驱动系统等优点。换句话说,在这项工作中,I/O时序和算法评估的正确性是分离的。该提议的主要优点是能够混淆算法评估以阻止侧信道攻击,这对密码学应用具有重要意义。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Data-flow implementation of concurrent asynchronous systems
Embedded multi core systems are implemented as systems-on-chip (SoC) that rely on packet store-and-forward networks-on-chip (NoC) for communications. These systems do not use busses nor global clock. Instead routers are used to move data between the cores and each core uses its own local clock. This implies concurrent asynchronous computing. Implementing algorithms in such system is very much facilitated using event-driven concepts. In this work, we propose an event-driven hardware computational model that is more suitable to describe, simulate, and design concurrent asynchronous systems. The proposed model of computation has advantages such as flexible I/O timing in term of scheduling policy, processing wise execute as soon as possible, and self timed event driven system. In other words, I/O timing and correctness of algorithm evaluation are dissociated in this work. The main advantage of this proposal is ability to obfuscate algorithm evaluation to thwart side-channel attacks which has important implications for cryptographic applications.
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