用于高性能编码神经网络的高效可扩展硬件架构

Hugues Wouafo, C. Chavet, P. Coussy, R. Danilo
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引用次数: 1

摘要

人们提出了不同的神经网络模型来设计高效的联想记忆,如Hopfield网络、玻尔兹曼机或Cogent虚构。与经典模型相比,编码神经网络(ENN)是最近才被引入的一种形式,具有更高的效率。该模型通过不同的贡献得到改进,如基于克隆的新神经网络(CbNNs)或稀疏新神经网络(S-ENNs),它们增强了原始新神经网络的容量或检索性能。然而,只有很少的作品探讨了嵌入式应用程序的硬件实现。本文介绍了一种基于克隆的稀疏神经网络模型(SC-ENN),该模型将现有方法的改进功能集中在一个形式模型中。此外,我们提出了一个专用的可扩展硬件架构来实现SC-ENN。这项工作在不影响记忆和检索性能的情况下显著降低了复杂性和面积。通过只处理模型提供的最相关的信息,我们提出的方法与最先进的解决方案相比要便宜得多。
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Efficient scalable hardware architecture for highly performant encoded neural networks
Different neural network models have been proposed to design efficient associative memories like Hopfield networks, Boltzmann machines or Cogent confabulation. Compared to the classical models, Encoded Neural Network (ENN) is a recently introduced formalism with a proven higher efficiency. This model has been improved through different contributions like Clone-based ENN (CbNNs) or Sparse ENNs (S-ENNs) which enhance either the capacity of the original ENN or its retrieving performances. However, only very few works explored its hardware implementation for embedded applications. In this paper, we introduce a clone-based sparse neural network model (SC-ENN), that gathers the enhancements of the existing approaches in a single formal model. In addition, we present a dedicated scalable hardware architecture to implement SC-ENN. This work leads to significant complexity and area reduction without affecting neither memorizing nor retrieving performances. By only handling the most relevant information provided by the model, our proposed approach is far less expensive compared to state of the art solutions.
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