具有容错机制的异步NoC:综述

Renu Siddagangappa, N. K
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引用次数: 2

摘要

片上网络(NoC)是大多数多核网络中基于总线的连接的一种经济有效的替代方案。NoC系统通过提供更高的可扩展性和可靠性,解决了基于总线的网络的缺点。noc通常在全局时钟的帮助下进行同步建模。这些全球时钟在同步noc中远距离传播,有一定程度的偏差。对于需要昂贵的定制校准过程的高性能NoC设计,需要一个重要的全局树。因此,异步noc为全局时钟分布困难提供了另一种解决方案。NoC使用异步电路表示,并通过握手协议进行管理,以解决全局时钟困难。准延迟不敏感电路(QDI)不同于具有时间松弛的直接延迟电路。与基于di的设计不同,QDI电路中的导线延迟可以快速调节并纳入大多数实际异步系统。本文详细讨论了现有的基于ANoC的具有容错机制的架构。突出显示了当前方法的摘要及其性能度量实现。讨论了ANoC及其容错机制面临的挑战和可能的解决方案。
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Asynchronous NoC with Fault tolerant mechanism: A Comprehensive Review
The Network on Chip (NoC) is a cost-effective alternative to bus-based connectivity in most multi-core networks. The NoC system solves the drawbacks of bus-based networks by providing higher scalability and dependability. The NoCs are modeled synchronously with the help of global clocks in general. These global clocks are disseminated over vast distances in synchronous NoCs with a modest degree of skew. For high-performance NoC designs that need an expensive customized calibration procedure, a significant global tree is required. As a result, asynchronous NoCs provide an alternate solution to the global clock distribution difficulties. NoC is represented using asynchronous circuits and managed through handshake protocols to tackle global clock difficulties. The Quasi-Delay Insensitive (QDI) circuits are different from DI circuits with time relaxation. The wire delays in QDI circuits are rapidly regulated and incorporated in most practical asynchronous systems, unlike DI-based designs. This manuscript discusses existing ANoC based architecture with fault tolerant mechanisms in detail. The Summary of the current approach, and its performance metrics realization, is highlighted. The challenges and possible solutions for ANoC and its fault-tolerant mechanism are discussed.
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