A Combined Model for Water Quality Prediction Based on VMD-TCN-ARIMA Optimized by WSWOA

With environmental degradation and water scarcity becoming increasingly serious, it is urgent to carry out effective management of water resources. The key task of water environment monitoring is to conduct statistics and analysis of changes in water quality characteristics. Aiming to address the pr...

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Veröffentlicht in:Water (Basel) 2023-12, Vol.15 (24), p.4227
Hauptverfasser: Zuo, Hongyu, Gou, Xiantai, Wang, Xin, Zhang, Mengyin
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creator Zuo, Hongyu
Gou, Xiantai
Wang, Xin
Zhang, Mengyin
description With environmental degradation and water scarcity becoming increasingly serious, it is urgent to carry out effective management of water resources. The key task of water environment monitoring is to conduct statistics and analysis of changes in water quality characteristics. Aiming to address the problem of the strong fluctuation and strong temporal correlation of water quality characteristics prediction, a new framework for water quality prediction based on variational mode decomposition–temporal convolutional networks–autoregressive integrated moving average (VMD-TCN-ARIMA) optimized by weighted swarm the whale search algorithm (WSWOA) algorithm is proposed. First, the WSWOA was proposed by introducing the two-weighted-factor perturbation strategy and the particle swarm search method based on the whale optimization algorithm (WOA), which effectively improves the convergence speed and global search capabilities. Second, to adaptively decompose the original water quality sequences, the VMD algorithm optimized by WSWOA was utilized, which can extract features and reduce noise in the original sequence. Furthermore, the TCN-ARIMA combined model is proposed for time series analysis. The combined model is introduced to assign different algorithms to the decomposed components to reduce prediction error and modeling effort. In comparison to VMD-TCN model, the experimental results have shown that on the data of water quality characteristic dissolved oxygen (DO), the proposed model’s root mean square error (RMSE) and computational time is reduced by 41.05% and 26.06%, further improving the accuracy and efficiency of prediction.
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subjects Accuracy
Agricultural production
Algorithms
Aquatic resources
Chemical oxygen demand
China
Efficiency
Management
Mathematical optimization
Methods
Neural networks
Noise control
Optimization algorithms
System theory
Time series
Water
Water quality
title A Combined Model for Water Quality Prediction Based on VMD-TCN-ARIMA Optimized by WSWOA
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