Guest Editorial Special Issue on Neuromorphic Devices and Circuits for Next-Generation Flexible Electronics in IEEE Journal on Flexible Electronics

Fengyuan Liu;Sreetosh Goswami;Lijia Pan;Yanzhi Wang
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Abstract

It is fascinating how our body receives an immense amount of sensory information through numerous receptors distributed throughout the body and efficiently integrates it to make decisions for daily activities, while maintaining extremely low energy consumption and cognitive load. This bioinspired sensory information processing paradigm offers unparalleled advantages over traditional von Neumann architectures due to its exceptional energy efficiency, fault tolerance, and adaptability. While previous efforts in this area have mainly focused on the development of biomimetic sensors, it is equally important to create a computing architecture that can process sensory data locally before transmitting it to a higher level. The strategy of offloading computation at the edge can significantly reduce data latency, saving transmission bandwidth and relieving the burden of computation at a higher level, just like the way our peripheral nervous system complements the central nervous system.
IEEE 柔性电子学报》"下一代柔性电子的神经形态器件和电路 "特邀编辑专刊
令人着迷的是,我们的身体如何通过遍布全身的无数感受器接收大量的感官信息,并有效地整合这些信息,为日常活动做出决策,同时保持极低的能耗和认知负荷。与传统的冯-诺依曼体系结构相比,这种生物启发的感官信息处理模式具有无可比拟的优势,因为它具有卓越的能效、容错性和适应性。虽然之前在这一领域的工作主要集中在开发仿生物传感器上,但同样重要的是创建一种计算架构,能够在将感官数据传输到更高层次之前在本地进行处理。在边缘卸载计算的策略可以大大减少数据延迟,节省传输带宽,减轻更高层次的计算负担,就像我们的外周神经系统对中枢神经系统的补充一样。
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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