基于LSTM自编码器的实时无线电调制分类

Ziqi Ke, H. Vikalo
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引用次数: 7

摘要

识别接收到的无线电信号的调制类型是许多应用中遇到的一个具有挑战性的问题,包括无线电干扰缓解和频谱分配。由于存在大量的调制方案和众多的干扰源,这个问题变得具有挑战性。现有的频谱监测方法很容易收集到大量的无线电信号。然而,现有的最先进的调制分类方法难以达到所需的精度水平,并且在低成本计算平台上实现的计算效率实际上是可行的。为此,我们提出了一个基于LSTM去噪自编码器的学习框架,旨在从噪声接收信号中提取鲁棒和稳定的特征,并检测底层调制方案。该方法使用紧凑的架构,可以在低成本的计算设备上实现,同时达到或超过最先进的分类精度。在实际合成和空中无线电数据上的实验结果表明,所提出的框架可靠有效地对无线电信号进行分类,并且通常显著优于最先进的方法。
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Real-Time Radio Modulation Classification With An LSTM Auto-Encoder
Identifying modulation type of a received radio signal is a challenging problem encountered in many applications including radio interference mitigation and spectrum allocation. This problem is rendered challenging by the existence of a large number of modulation schemes and numerous sources of interference. Existing methods for monitoring spectrum readily collect large amounts of radio signals. However, existing state-of-the-art approaches to modulation classification struggle to reach desired levels of accuracy with computational efficiency practically feasible for implementation on low-cost computational platforms. To this end, we propose a learning framework based on an LSTM denoising autoencoder designed to extract robust and stable features from the noisy received signals, and detect the underlying modulation scheme. The method uses a compact architecture that may be implemented on low-cost computational devices while achieving or exceeding state-of-the-art classification accuracy. Experimental results on realistic synthetic and over-the-air radio data show that the proposed framework reliably and efficiently classifies radio signals, and often significantly outperform state-of-the-art approaches.
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