arXiv:2409.08839eess.SPcs.LG2024-09被引 17

用深度学习解决无线信号干扰问题,效果比传统方法好上百倍。

RF Challenge: The Data-Driven Radio Frequency Signal Separation Challenge

  • 构建数据驱动模型,用UNet、WaveNet等网络处理信号分离。
  • 在8种混合信号下,新方法性能提升达两个数量级。
  • 适合通信系统优化与干扰抑制研究者参考。

本文针对射频(RF)信号中的干扰抑制问题,提出一种数据驱动的深度学习解决方案。主要贡献是发布「RF Challenge」公开数据集,涵盖多样化的射频信号,用于数据驱动分析。基于简化信号模型,设计一系列融合领域知识的深度学习架构,并结合传统基准方法(如匹配滤波、线性最小均方误差估计)建立基线性能指标。通过涉及八类不同信号混合的大量仿真验证,结果显示UNet、WaveNet等架构在部分场景下性能优于传统方法两个数量级。研究发现,同一架构可跨信号类型训练部署,具备可扩展性。该工作还包含在2024年IEEE ICASSP'24会议上举办的开放竞赛结果,进一步验证了深度学习在通信系统干扰抑制中的巨大潜力。

原文摘要 · Abstract (English)

We address the critical problem of interference rejection in radio-frequency (RF) signals using a data-driven approach that leverages deep-learning methods. A primary contribution of this paper is the introduction of the RF Challenge, which is a publicly available, diverse RF signal dataset for data-driven analyses of RF signal problems. Specifically, we adopt a simplified signal model for developing and analyzing interference rejection algorithms. For this signal model, we introduce a set of carefully chosen deep learning architectures, incorporating key domain-informed modifications alongside traditional benchmark solutions to establish baseline performance metrics for this intricate, ubiquitous problem. Through extensive simulations involving eight different signal mixture types, we demonstrate the superior performance (in some cases, by two orders of magnitude) of architectures such as UNet and WaveNet over traditional methods like matched filtering and linear minimum mean square error estimation. Our findings suggest that the data-driven approach can yield scalable solutions, in the sense that the same architectures may be similarly trained and deployed for different types of signals. Moreover, these findings further corroborate the promising potential of deep learning algorithms for enhancing communication systems, particularly via interference mitigation. This work also includes results from an open competition based on the RF Challenge, hosted at the 2024 IEEE International Conference on Acoustics, Speech, and Signal Processing (ICASSP'24).

射频信号深度学习干扰抑制数据集

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