A review on methods, issues and challenges in neuromorphic engineering

Mohammed Riyaz Ahmed, B. Sujatha
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引用次数: 8

Abstract

Biological systems have many key answers for our current limitations in scaling. Miniaturization and more speed were the driving forces for VLSI technology in past few decades. As we are reaching the dead end of Moore's law, now the paradigm has shifted towards intelligent machines. Many efforts are made to mimic the commonsense observed in animals. Automation and smart devices have taken a great momentum in recent years, but to imitate human intelligence in machines with existing hardware is not viable. By only developing complex algorithms and implementing software, intelligence is not accomplishable. This paper brings out the very basic differences between brain and computers. The complexity of human brain and flaws of current computing architecture is discussed. Neuromorphic Engineering emerges as a realistic solution whose architecture and circuit components resemble to their biological counterparts. This paper acts as a primer for Neuromorphic engineering. Brain functionality being analogous, the limitation of only digital systems is addressed by the mixed mode operation of ICs. Modelling of Neuron, various software and hardware available to realize these morphed architectures are studied. The gap between the software simulation and Hardware emulation, FPGA and VLSI implementation is debated. To reach to a larger audience the paper exposes many limitations of Neuromorphic engineering and come out with many open research issues.
神经形态工程方法、问题与挑战综述
生物系统对我们目前的规模限制有许多关键的答案。在过去的几十年里,小型化和更高的速度是VLSI技术的驱动力。当我们到达摩尔定律的死胡同时,现在范式已经转向智能机器。人们做了很多努力来模仿在动物身上观察到的常识。自动化和智能设备近年来取得了很大的发展势头,但用现有的硬件在机器上模仿人类的智能是不可行的。仅仅通过开发复杂的算法和实现软件,智能是无法实现的。这篇文章指出了人脑和计算机之间最基本的区别。讨论了人脑的复杂性和当前计算体系结构的缺陷。神经形态工程作为一种现实的解决方案出现,它的结构和电路元件与它们的生物对应物相似。本文可作为神经形态工程的基础。脑功能是类似的,只有数字系统的限制是由集成电路的混合模式操作解决。研究了神经元的建模、实现这些变形结构的各种软件和硬件。讨论了软件仿真与硬件仿真、FPGA与VLSI实现之间的差距。为了达到更广泛的受众,本文揭示了神经形态工程的许多局限性,并提出了许多开放的研究问题。
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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