流CNN的RFSoC调制分类:数据集生成和量化感知训练

IF 2.4 Q2 ENGINEERING, ELECTRICAL & ELECTRONIC
Andrew Maclellan;Louise H. Crockett;Robert W. Stewart
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引用次数: 0

摘要

本文介绍了一种新颖的基于fpga的卷积神经网络(CNN)架构,用于连续无线电数据处理,特别是针对实时运行的Zynq UltraScale+射频系统芯片(RFSoC)的调制分类。在AMD的RFSoC2x2开发板上进行评估,该设计集成了通用矩阵乘法(GEMM)优化和定点算法。我们还提出了一种为无线通信创建深度学习(DL)数据集的方法,将RFSoC纳入数据生成循环。此外,我们探索了量化感知训练,产生了三种具有不同定点权重精度的调制分类模型(16位,8位和4位)。我们通过开源PYNQ项目与实现的硬件进行接口,该项目将Python与可编程逻辑交互相结合,通过启用PYNQ的Jupyter应用程序实现实时调制预测。在抽取阶段之前,以128 MHz采样率运行的三种模型对准确性和资源消耗进行了评估。与8位和4位模型相比,16位模型以最小的额外资源使用实现了最高的精度,使其成为在接收器上部署调制分类器的最佳选择。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
RFSoC Modulation Classification With Streaming CNN: Data Set Generation & Quantized-Aware Training
This paper introduces a novel FPGA-based Convolutional Neural Network (CNN) architecture for continuous radio data processing, specifically targeting modulation classification on the Zynq UltraScale+ Radio Frequency System on Chip (RFSoC) operating in real-time. Evaluated on AMD’s RFSoC2x2 development board, the design integrates General Matrix Multiplication (GEMM) optimisations and fixed-point arithmetic. We also present a method for creating Deep Learning (DL) data sets for wireless communications, incorporating the RFSoC into the data generation loop. Furthermore, we explore quantised-aware training, producing three modulation classification models with different fixed-point weight precisions (16-bit, 8-bit, and 4-bit). We interface with the implemented hardware through the open-source PYNQ project, which combines Python with programmable logic interaction, enabling real-time modulation prediction via a PYNQ-enabled Jupyter app. The three models, operating at a 128 MHz sampling rate prior to the decimation stage, were evaluated for accuracy and resource consumption. The 16-bit model achieved the highest accuracy with minimal additional resource usage compared to the 8-bit and 4-bit models, making it the optimal choice for deploying a modulation classifier at the receiver.
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