A Stacking-Based Method for Path Loss Prediction in Evaporation Ducts

Evaporation duct is a common atmospheric phenomenon in marine environments, which significantly affects signal transmission. Accurately predicting path loss (PL) in evaporation ducts is crucial for the design of maritime communication systems. This paper presents an ensemble method based on stacked generalization (stacking) to predict PL in evaporation ducts. Specifically, the stacking model employs a deep neural network (DNN) as the base learner in the first layer and a random forest as the meta learner in the second layer, using meteorological and antenna parameters as inputs to predict PL values. Compared to the state-of-the-art DNN model, the mean absolute error and mean square error values of the stacking model decrease by 41.57% and 20.81%, respectively. Meanwhile, the proportion of stacking model predictions with relative errors below 1% reaches 92.02%. Simulation results demonstrate that the stacking-based ensemble method outperforms single models and shows good potential for future investigations into evaporation ducts.

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Publication Details

Published
2024-11-18
DOI
https://doi.org/10.1109/fcn64323.2024.10985039
Primary Topic
Power Line Communications and Noise
Type
article
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article

A Stacking-Based Method for Path Loss Prediction in Evaporation Ducts

Hu Miao, Ting Zhou, Honglin Hu, Tianheng Xu et al.
Power Line Communications and Noise
article

A Stacking-Based Method for Path Loss Prediction in Evaporation Ducts

Hu Miao, Ting Zhou, Honglin Hu, Tianheng Xu, Hanzhong Zhang
article en

Abstract

Evaporation duct is a common atmospheric phenomenon in marine environments, which significantly affects signal transmission. Accurately predicting path loss (PL) in evaporation ducts is crucial for the design of maritime communication systems. This paper presents an ensemble method based on stacked generalization (stacking) to predict PL in evaporation ducts. Specifically, the stacking model employs a deep neural network (DNN) as the base learner in the first layer and a random forest as the meta learner in the second layer, using meteorological and antenna parameters as inputs to predict PL values. Compared to the state-of-the-art DNN model, the mean absolute error and mean square error values of the stacking model decrease by 41.57% and 20.81%, respectively. Meanwhile, the proportion of stacking model predictions with relative errors below 1% reaches 92.02%. Simulation results demonstrate that the stacking-based ensemble method outperforms single models and shows good potential for future investigations into evaporation ducts.

Shanghai University (CN), Chinese Academy of Sciences (CN), Shanghai Advanced Research Institute (CN)
Openalex Percentile: Top 72%
Power Line Communications and Noise
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