Neuromorphic Computing and Applications: A Topical Review

Pavan Kumar Enuganti, Basabdatta Sen Bhattacharya, Teresa Serrano Gotarredona, Oliver Rhodes
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Abstract

Neuromorphic computers achieve energy efficiency by emulating brain structure and event‐driven processing that reduces energy consumption significantly. An increasing interest in this technology started in the initial years of this millennium, sparked by the awareness and concern on the ever‐increasing power demands of modern‐day computing. In current times, there are several neuromorphic computers and sensors that continue to be developed in both industry and academic research. The focus of this survey is on the neuromorphic computing applications of these devices that include brain‐inspired neural networks, brain‐inspired artificial neural networks, and Hybrid circuits comprising both artificial and brain‐inspired units of computation. Many of these applications use neuromorphic sensors as input devices. We have surveyed three specific neuromorphic computers viz. SpiNNaker, TrueNorth, Loihi, and one neuromorphic sensor viz. Dynamic vision sensor (DVS)‐based electronic retina; the demonstration of neuromorphic computing and applications using these devices far outnumbers those on the others that are currently available, which forms the basis of our choice. The applications include low‐power cognitive machine intelligence as well as neuropathological understanding and knowledge discovery. Overall, our survey identifies the potential for neuromorphic computing to provide low power, low cost, and dynamic solutions for societal and scientific problems in the not‐too‐distant future.
神经形态计算及其应用:专题综述
神经形态计算机通过模拟大脑结构和事件驱动处理来实现能量效率,从而显著降低能量消耗。在这个千年的最初几年,由于对现代计算不断增长的功率需求的认识和关注,人们对这项技术的兴趣越来越大。目前,有几种神经形态计算机和传感器在工业和学术研究中不断发展。本调查的重点是这些设备的神经形态计算应用,包括脑启发神经网络,脑启发人工神经网络,以及由人工和脑启发计算单元组成的混合电路。许多此类应用使用神经形态传感器作为输入设备。我们研究了三种特定的神经形态计算机,即SpiNNaker、TrueNorth、Loihi和一种神经形态传感器,即基于动态视觉传感器(DVS)的电子视网膜;使用这些设备的神经形态计算和应用的演示远远超过了目前可用的其他设备,这构成了我们选择的基础。其应用包括低功耗认知机器智能以及神经病理理解和知识发现。总的来说,我们的调查确定了神经形态计算在不久的将来为社会和科学问题提供低功耗、低成本和动态解决方案的潜力。
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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