2D Materials-based Neuromorphic Computing Electronic Device

Yonghun Kim, Jung-Dae Kwon, Jongwon Yoon
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Abstract

Nowadays, with the rapid information explosion connected to all devices, there is a huge demand for effectively processing big data. In particular, conventional von Neumann computing system with physically separated processing and memory units face significant problems in dealing with massive unstructured data such as sound, images, and video because of a von Neumann bottleneck. As a key feature of parallel operations, neuromorphic computing systems can analyze massive unstructured data in a time and energy efficient manner. However, critical issues related to reliability and variability of nonlinearity and asymmetric weight update, have been great challenges in the implementation of artificial synaptic device in practical neuromorphic hardware system. Also, hardware systems enabling artificial neural networks in-situ personal data are essential for adaptive wearable neuromorphic edge computing.
基于二维材料的神经形态计算电子设备
如今,随着与所有设备相连的信息迅速爆炸,人们对有效处理大数据有着巨大的需求。特别是传统的冯-诺依曼计算系统,由于冯-诺依曼瓶颈的存在,其物理上分离的处理单元和内存单元在处理声音、图像和视频等海量非结构化数据时面临着巨大问题。作为并行操作的一个关键特征,神经形态计算系统能以省时省力的方式分析海量非结构化数据。然而,与非线性和非对称权重更新的可靠性和可变性有关的关键问题,一直是在实用神经形态硬件系统中实现人工突触设备的巨大挑战。此外,支持人工神经网络现场个人数据的硬件系统对于自适应可穿戴神经形态边缘计算至关重要。
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