Dr. P. G. KuppusamyV.UdayT.S.Tharun SaiG.YashwanthG.Tejaeshwar RaoT.Sai Lakshman Naidu
Neural networks, one of the main artificial intelligencetechnologies today, have the computational power andlearning ability similar to the brain. However,implementation of neural networks based on theCMOS von Neumann computing systems suffers fromthe communication bottleneck restricted by the busbandwidth and memory wall resulting from CMOSdownscaling. With the advances of nanotechnology,the memristors based designs have been widely used inmany applications such as mixed- signal design, nonvolatile memories, CNN- Architectures. Multiplyaccumulate calculations using a memristor crossbararray is an important method to realize neuromorphiccomputing. However, the memristor array fabricationtechnology is still immature, and it is difficult tofabricate large-scale arrays with high-yield, whichrestricts the development of memristor-based neuromorphic computing technology. Therefore,cascading small-scale arrays to achieve theneuromorphic computational ability that can beachieved by large-scale arrays, which is of greatsignificance for promoting the application ofmemristor-based neuromorphic computing. Toaddress this issue, we present a memristor-basedcascaded framework with some basic computationunits, several neural network processing units can becascaded by this means to improve the processingcapability of the dataset.
Dr. P. G. KuppusamyV.UdayT.S.Tharun SaiG.YashwanthG.Tejaeshwar RaoT.Sai Lakshman Naidu
Shengyang SunHui XuJiwei LiQingjiang LiHaijun Liu
Xinjiang ZhangAnping HuangQi HuZhisong XiaoPaul K. Chu
Beiye LiuWei WenYiran ChenXin LiChi-Ruo WuTsung-Yi Ho
Miao HuHai LiYiran ChenQing WuGarrett S. RoseRichard Linderman