基于改进深度剩余收缩网络和无线电信号的大雾天气监测方法

Qian Cheng, Zhongdong Wu, Jie Min
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引用次数: 0

摘要

大雾天气会对生产和生活造成严重影响。现有的监测技术存在成本高、维护困难、时空分辨率低等问题。本文根据雾天影响无线电信号的原理,提出了一种利用无线电信号监测雾天的方法。将无线通信与深度学习相结合,采用改进的深度残差收缩网络对不同环境下采集的无线电信号进行分类识别。首先采集四种不同环境的无线电信号,然后在深度残差收缩网络中加入宽卷积层,在宽卷积层之后引入CBAM注意机制,更准确地提取特征。将采集到的信号输入改进的深度残差收缩网络进行训练。最终的分类结果达到了92.29%,比传统的ResNet50算法提高了6.11%。结果表明,该方法具有提高雾天气监测精度的潜力。
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Foggy Weather Monitoring Method Based on Improved Deep Residual Shrinkage Network and Radio Signal
Foggy weather can have a serious impact on production and life. The existing monitoring technology has problems such as high cost, difficult maintenance and low spatial and temporal resolution. In this paper, we propose a method for foggy weather monitoring using radio signals based on the principle that foggy weather affects radio signals. Combining wireless communication with deep learning, an improved deep residual shrinkage network is used to classify and identify the radio signals collected in different environments. First, radio signals from four different environments are collected, then, a wide convolutional layer is added to the deep residual shrinkage network, and then a CBAM attention mechanism is introduced after the wide convolutional layer to extract features more accurately. The acquired signals are fed into the improved deep residual shrinkage network for training. The final classification result reached 92.29%, which is a 6.11% improvement compared to the conventional ResNet50 algorithm. The results show the high potential of the method to monitor foggy weather more accurately.
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