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Aim | Technique | Merits/outcomes | Demerits | Dataset |
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Hybrid wind speed prediction [13] | Empirical wavelet transformation (EWT), long short-term memory neural network, and a deep learning algorithm. | The proposed model has the satisfactory multistep forecasting results. | The performance of the EWT for the wind speed multistep forecasting has not been studied | Four sets of original wind speed series including 700 samples. |
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Wind speed forecasting [14] | Unscented Kalman filter (UKF) is integrated with support vector regression (SVR) model | The proposed method has better performance in both one-step-ahead and multistep-ahead predictions than ANNs, SVR, autoregressive, and autoregressive integrated with Kalman filter models | Needs to develop the predictive model-based control and optimization strategies for wind farm operation. | Center for Energy Efficiency and Renewable Energy at University of Massachusetts |
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Wind speed forecasting [15] | Long short-term memory neural networks, support vector regression machine, and extremal optimization algorithm. | The proposed model can achieve a better forecasting performance than ARIMA, SVR, ANN, KNN, and GBRT models. | Needs to consider more interrelated features like weather conditions, human factors, and power system status. | A wind farm in Inner Mongolia, China |
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A hybrid short-term wind speed forecasting [16] | Wavelet transform (WT), genetic algorithm (GA), and support vector machines (SVMs) | The proposed method is more efficient than a persistent model and a SVM-GA model without WT | Needs to augment external information such as the air pressure, precipitation, and air humidity besides the temperature. | The wind speed data every 0.5 h in a wind farm of North China in September 2012 |
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Short-term wind speed prediction [18]. | Support vector regression (SVR) and artificial neural network (ANN) with backpropagation | The proposed SVR and ANN models are able to predict wind speed with more than 99% accuracy. | Computationally expensive | Historical dataset (2008–2014) of wind speed of Chittagong costal area from Bangladesh Meteorological Division (BMD) |
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Hybrid wind speed forecasting [19] | Variational mode decomposition (VMD), the partial autocorrelation function (PACF), and weighted regularized extreme learning machine (WRELM) | (i) The VMD reduces the influences of randomness and volatility of wind speed. (ii) PACF reduces the feature dimension and complexity of the model. (iii) ELM improves the prediction accuracy. | The forecasting accuracy of two-step-ahead and three-step-ahead predictions declined to different degrees. | USA National Renewable Energy Laboratory (NREL) in 2004. |
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Short-term wind speed forecasting [20]. | Wavelet analysis and AdaBoosting neural network. | (i) Benefits the analysis of the wind speed’s randomness and optimal neural network’s structure. (ii) It can be used to promote the model’s configuration and show the confidence in high-accuracy forecasting. | Needs to consider the dynamical model with ability of error correction and adaptive adjustment. | USA National Renewable Energy Laboratory (NREL) in 2004. |
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Short-term wind speed forecasting [21]. | Support vector machine (SVM) with particle swarm optimization (PSO) | The proposed model has the best forecasting accuracy compared to classical SVM and backpropagation neural network models. | Needs to consider additional information for efficient forecasting such as season and weather variables. | Wind farm data in China in 2011. |
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Wind speed predictions [22]. | Recurrent neural network (RNN) with long short-term memory (LSTM). | The model provides 92.7% accuracy for training data and 91.6% for new data. | High rate epochs increased the process time and eventually provided low accuracy performance. | Nganjuk Meteorology and Geophysics Agency (BMKG), East Java (2008–2017). |
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Forecasting multistep-ahead wind speed [23] | NARNET model to forecast hourly wind speed using an artificial neural network (ANN). | The model is cost effective and can work with minimum availability of statistical data | (i) Faulty measurements of inputs are likely to affect the model parameters. (ii) Removing rapid changes using a low-pass filter might result in neglecting important information. | Meteorological data from the National Oceanic and Atmospheric Administration (NOAA) located in Dodge City, Kansas (January 2010 -December 2010). |
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Short-term wind speed prediction [24] | Backpropagation (BP) neural network based on improved artificial bee colony algorithm (ABC-BP). | The model has high precision and fast convergence rate compared with traditional and genetic BP neural networks. | Sensitive for noisy data. Therefore, data should be filtered, which may affect the nature of data. | Wind farm in Tianjin, China (December 2013–January 2014). |
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Short-term wind speed forecasting [25] 2019 | Fuzzy C-means clustering (FCM) and improved mind evolutionary algorithm-BP (IMEA-BP). | The proposed model is suitable for one-step forecasting and enhances the accuracy of multistep forecasting. | The accuracy of multistep forecasting needs to be further improved. | Wind farm in China |
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Predicting wind speed [26]. | Artificial neural network and decision tree algorithms | The platform has the ability of mass storage of meteorological data, and efficient query and analysis of weather forecasting. | Needs improvement in order to forecast more realistic weather parameters. | Meteorological data provided by the Dalian Meteorological Bureau (2011–2015) |
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Our scheme | Employing multi-lags-one-step (MLOS) ahead forecasting technique with artificial learning-based algorithms | The provided results suggest that the ConvLSTM model has the best performance as compared to ANN, CNN, LSTM, and SVM models. | Increasing the number of hidden layers may increase the computational time exponentially. | National Wind Institution, West Texas Mesonet (2012–2015) |
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