A new hybrid model based on secondary decomposition, reinforcement learning and SRU network for wind turbine gearbox oil temperature forecasting

被引:30
作者
Liu, Hui [1 ]
Yu, Chengqing [1 ]
Yu, Chengming [1 ]
机构
[1] Cent South Univ, Sch Traff & Transportat Engn, Inst Artificial Intelligence & Robot IAIR, Key Lab Traff Safety Track,Minist Educ, Changsha 410075, Hunan, Peoples R China
基金
中国国家自然科学基金;
关键词
Oil temperature forecasting; Simple Recurrent Unit; Reinforcement Learning; Secondary decomposition method; SINGULAR SPECTRUM ANALYSIS; NEURAL-NETWORK; FEATURE-SELECTION; SPEED; PREDICTION; ALGORITHMS; MULTISTEP; ENERGY; FAULT; REGRESSION;
D O I
10.1016/j.measurement.2021.109347
中图分类号
T [工业技术];
学科分类号
08 ;
摘要
Oil temperature forecasting technology can realize real-time detection of the gearbox status of wind turbines. To make the oil temperature forecasting more accurate, a new hybrid model is presented in this study. The main modeling process of the presented method consists of three main steps. In step I, the proposed secondary decomposition method is utilized to preprocess the raw oil temperature data. In step II, the feature selection algorithm based on reinforcement learning selects the features of each sub-series. In step III, the simple recurrent unit network establishes forecasting models for each sub-series after feature selection and obtains the final forecasting results. By analyzing the forecasting results of multiple experiments, it can be concluded that: (1) the presented hybrid model can obtain satisfying forecasting results. Its RMSE values are 0.1101 degrees C, 0.1683 degrees C, and 0.1784 degrees C in three cases. (2) The presented hybrid model can get higher forecasting accuracy than the seventeen alternative models and six existing models in all cases. It improves the performance of traditional neural networks by over 90 percent.
引用
收藏
页数:15
相关论文
共 65 条
[1]  
Al-Dabet Saja, 2019, P 2019 2 INT C NEW T, P1
[2]   Short-term electricity demand forecasting with MARS, SVR and ARIMA models using aggregated demand data in Queensland, Australia [J].
Al-Musaylh, Mohanad S. ;
Deo, Ravinesh C. ;
Adarnowski, Jan F. ;
Li, Yan .
ADVANCED ENGINEERING INFORMATICS, 2018, 35 :1-16
[3]   Data mining techniques for performance analysis of onshore wind farms [J].
Astolfi, Davide ;
Castellani, Francesco ;
Garinei, Alberto ;
Terzi, Ludovico .
APPLIED ENERGY, 2015, 148 :220-233
[4]   A hybrid model based on time series models and neural network for forecasting wind speed in the Brazilian northeast region [J].
Camelo, Henrique do Nascimento ;
Lucio, Paulo Sergio ;
Vercosa Leal Junior, Joao Bosco ;
Marques de Carvalho, Paulo Cesar .
SUSTAINABLE ENERGY TECHNOLOGIES AND ASSESSMENTS, 2018, 28 :65-72
[5]   PSO-based analysis of Echo State Network parameters for time series forecasting [J].
Chouikhi, Naima ;
Ammar, Boudour ;
Rokbani, Nizar ;
Alimi, Adel M. .
APPLIED SOFT COMPUTING, 2017, 55 :211-225
[6]   Speech enhancement based on simple recurrent unit network [J].
Cui, Xingyue ;
Chen, Zhe ;
Yin, Fuliang .
APPLIED ACOUSTICS, 2020, 157
[7]   Condition monitoring and fault detection in wind turbines based on cointegration analysis of SCADA data [J].
Dao, Phong B. ;
Staszewski, Wieslaw J. ;
Barszcz, Tomasz ;
Uhl, Tadeusz .
RENEWABLE ENERGY, 2018, 116 :107-122
[8]   An integrated approach for wind turbine gearbox fatigue life prediction considering instantaneously varying load conditions [J].
Ding, Fangfang ;
Tian, Zhigang ;
Zhao, Fuqiong ;
Xu, Hao .
RENEWABLE ENERGY, 2018, 129 :260-270
[9]   Intelligent fault diagnosis for rotating machinery using deep Q-network based health state classification: A deep reinforcement learning approach [J].
Ding, Yu ;
Ma, Liang ;
Ma, Jian ;
Suo, Mingliang ;
Tao, Laifa ;
Cheng, Yujie ;
Lu, Chen .
ADVANCED ENGINEERING INFORMATICS, 2019, 42
[10]   Variational Mode Decomposition [J].
Dragomiretskiy, Konstantin ;
Zosso, Dominique .
IEEE TRANSACTIONS ON SIGNAL PROCESSING, 2014, 62 (03) :531-544