计算机科学
解码方法
并行计算
编译程序
光子学
编码(内存)
可扩展性
物理
程序设计语言
算法
光学
数据库
人工智能
作者
Zhimu Guo,Alexander N. Tait,Bicky A. Márquez,Matthew J. Filipovich,Hugh Morison,Paul R. Prucnal,Lukas Chrostowski,Sudip Shekhar,Bhavin J. Shastri
标识
DOI:10.1109/jstqe.2022.3196884
摘要
The resurgence of artificial intelligence enabled by deep learning and high performance computing has seen a dramatic increase of demand in the accuracy of deep learning model which has come at the cost of computational complexity. The fundamental operations in deep learning models are matrix multiplications, and large scale matrix operations and data-centric tasks have experienced bottlenecks from current digital electronic hardware in terms of performance and scalability. Recent research on photonic processors have found solutions to enable applications in machine learning, neuromorphic computing and high performance computing using basic photonic processing elements on integrated silicon photonic platform. However, efficient and scalable photonic computing requires an information encoding/decoding scheme. Here, we propose a multi-level encoding and decoding scheme, and experimentally demonstrate it with a wavelength-multiplexed silicon photonic processor. We also discuss the scalability of our proposed scheme by introducing a photonic general matrix multiply compiler, and consider the effects of speed, bit precision, and noise. Our proposed scheme could be adapted to a variety of photonic information processing architectures for photonic neural networks, photonics tensor cores, and programmable photonic.
科研通智能强力驱动
Strongly Powered by AbleSci AI