A survey on mixed operating mode/self synchronization

Dipak S. Marathe
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引用次数: 1

Abstract

Mixed Operating Mode (MOM) is a digital hardware system which utilizes the advantages of Synchronous and Asynchronous Sequential circuit. But, an Asynchronous sequential circuit suffers from essential hazard. Earlier there were two design philosophies: by the addition of delay elements to the state output, or by input gate modification. These approaches make the whole design slower. On the other hand, the latter approach is based on the assumption that the gate delays are always higher than any wire delay present in the network, but in VLSI circuits the above assumption may not be true and also GALS (Globally Asynchronous, Locally Synchronous)FPGA model has a major drawback of implementing AI(Asynchronous Interfaces) in FPGA devices. AI design style which is based on asynchronous controllers that provides communication between modules(called ports) subject to essential hazard. Using the concept of MOM results in not only saving the logic but also uses less power and making the whole design faster and more flexible. It also improves the throughput and reducing the latency, by satisfying the essential signal condition, this method is capable of providing robust ports, i.e. essential-hazard-free.
混合工作模式/自同步研究综述
混合工作模式(MOM)是一种利用同步和异步顺序电路优点的数字硬件系统。但是,异步顺序电路存在本质上的危险。早期有两种设计理念:通过向状态输出添加延迟元素,或通过修改输入门。这些方法使整个设计变慢。另一方面,后一种方法是基于门延迟总是高于网络中存在的任何线延迟的假设,但在VLSI电路中,上述假设可能不成立,而且GALS(全局异步,局部同步)FPGA模型在FPGA设备中实现AI(异步接口)有一个主要缺点。基于异步控制器的AI设计风格,提供了模块(称为端口)之间的通信,并受到基本危险的影响。使用MOM的概念不仅节省了逻辑,而且节省了功耗,使整个设计更快、更灵活。它还提高了吞吐量,减少了延迟,通过满足基本信号条件,该方法能够提供健壮的端口,即基本无危险。
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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