Artificial Neural Network (ANN) Trained by a Novel Arithmetic Optimization Algorithm (AOA) for Short Term Forecasting of Wind Power

Stochastic nature of wind power with a high amount of non-linearity makes it very difficult to predict wind power production in real time which has a high impact in the renewable energy industry. The uncertainty of wind power makes it challenging to integrate it with the power grid. As a solution, a...

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Bibliographic Details
Published inIntelligent Technologies and Applications Vol. 1616; pp. 197 - 209
Main Authors Zafar, Muhammad Hamza, Khan, Noman Mujeeb, Moosavi, Syed Kumayl Raza, Mansoor, Majad, Mirza, Adeel Feroz, Akhtar, Naureen
Format Book Chapter
LanguageEnglish
Published Switzerland Springer International Publishing AG 2022
Springer International Publishing
SeriesCommunications in Computer and Information Science
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Online AccessGet full text
ISBN9783031105241
3031105249
ISSN1865-0929
1865-0937
DOI10.1007/978-3-031-10525-8_16

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Summary:Stochastic nature of wind power with a high amount of non-linearity makes it very difficult to predict wind power production in real time which has a high impact in the renewable energy industry. The uncertainty of wind power makes it challenging to integrate it with the power grid. As a solution, an early short term forecasting of the wind flow significantly improves the wind power generation. For this purpose, a novel arithmetic optimization algorithm is used to train an artificial neural network for short term wind power prediction. Effective exploration and exploitation behavior of the algorithm due to embedded arithmetic operators for updating the weights and biases train the neural network. To validate the performance of the proposed technique, well-known techniques are compared using a case study on wind power in Turkey for the winter and summer season as a benchmark. The proposed method has shown better prediction performance as compared to the existing techniques. AOANN achieves up to 94.87% and 97.18% less training error and up to 96.42% and 83.64% less testing error in winter and summer seasons respectively.
ISBN:9783031105241
3031105249
ISSN:1865-0929
1865-0937
DOI:10.1007/978-3-031-10525-8_16