Digital radio receiver based on neural network

A.D. Yukhmanov, A.V. Mishurov, A.I. Konovalenko, V. Evstratko
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Abstract

One of the areas of digital signal processing used in radio receivers and currently being investigated is the use of artificial neural networks. Signal reception is one of the most difficult theoretical and engineering problems in message transmission. The difficulty lies in the fact that messages need to be extracted from modulated signals, which are exposed to various distorting factors and interference in the radio channel. Therefore, it is desirable to have methods of reception that would be the best (optimal) in the given conditions. There are many different neural network topologies. Single–layer and multi-layer direct propagation are known – perceptrons, recurrent networks, self-organizing networks, as well as hybrid networks (radial-basis, hierarchical classifiers). Each of these types of topologies has its own advantages and disadvantages.The article analyzes current research and development in this area. The implementation of a radio receiver (demodulator) based on a multilayer perceptron is shown and the neural network is trained. Using National Instruments PXI equipment, a study was carried out, which showed that in comparison with an optimal receiver, the probability of a bit error in a receiver based on a neural network is higher, but insignificant. The operation of the receiver under the influence of harmonic interference showed that as the power of the interference increases, the probability of a BER error increases, and the closer the interference is to the carrier frequency, the higher the BER also becomes. Nevertheless, the neural network-based digital receiver under study remains operational at significant levels of interference that are close enough to the carrier frequency of the desired signal.
基于神经网络的数字无线电接收器
人工神经网络是无线电接收机数字信号处理的一个领域,目前正在对其进行研究。信号接收是信息传输中最困难的理论和工程问题之一。困难在于需要从调制信号中提取信息,而调制信号会受到无线电信道中各种扭曲因素和干扰的影响。因此,最好能有在给定条件下最佳(最优)的接收方法。有许多不同的神经网络拓扑结构。已知的有单层和多层直接传播--感知器、递归网络、自组织网络以及混合网络(径向基础、分层分类器)。这些类型的拓扑结构各有优缺点。文章分析了这一领域目前的研究和发展情况。文章展示了基于多层感知器的无线电接收器(解调器)的实现过程,并对神经网络进行了训练。利用美国国家仪器公司的 PXI 设备进行的研究表明,与最佳接收器相比,基于神经网络的接收器出现误码的概率较高,但并不明显。接收机在谐波干扰影响下的运行表明,随着干扰功率的增加,误码率错误的概率也会增加,而且干扰越接近载波频率,误码率也会越高。尽管如此,所研究的基于神经网络的数字接收器在干扰水平足够接近所需信号的载波频率时仍能正常工作。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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