A benchmarking of machine learning techniques for solar radiation forecasting in an insular context

•A benchmarking of supervised machine learning methods is proposed.•For hour ahead solar forecasting, the methods slightly improve the simple models.•The performance of the methods is better in case of unstable sky conditions.•The methods start to outperform simple models for horizons greater than 1...

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Veröffentlicht in:Solar energy 2015-02, Vol.112, p.446-457
Hauptverfasser: Lauret, Philippe, Voyant, Cyril, Soubdhan, Ted, David, Mathieu, Poggi, Philippe
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container_end_page 457
container_issue
container_start_page 446
container_title Solar energy
container_volume 112
creator Lauret, Philippe
Voyant, Cyril
Soubdhan, Ted
David, Mathieu
Poggi, Philippe
description •A benchmarking of supervised machine learning methods is proposed.•For hour ahead solar forecasting, the methods slightly improve the simple models.•The performance of the methods is better in case of unstable sky conditions.•The methods start to outperform simple models for horizons greater than 1h. In this paper, we propose a benchmarking of supervised machine learning techniques (neural networks, Gaussian processes and support vector machines) in order to forecast the Global Horizontal solar Irradiance (GHI). We also include in this benchmark a simple linear autoregressive (AR) model as well as two naive models based on persistence of the GHI and persistence of the clear sky index (denoted herein scaled persistence model). The models are calibrated and validated with data from three French islands: Corsica (41.91°N; 8.73°E), Guadeloupe (16.26°N; 61.51°W) and Reunion (21.34°S; 55.49°E). The main findings of this work are, that for hour ahead solar forecasting, the machine learning techniques slightly improve the performances exhibited by the linear AR and the scaled persistence model. However, the improvement appears to be more pronounced in case of unstable sky conditions. These nonlinear techniques start to outperform their simple counterparts for forecasting horizons greater than 1h.
doi_str_mv 10.1016/j.solener.2014.12.014
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subjects Artificial intelligence
Benchmarks
Forecasting
Intraday solar forecasting
Machine learning techniques
Neural networks
Normal distribution
Sciences of the Universe
Solar radiation
Statistical models
Ultraviolet radiation
title A benchmarking of machine learning techniques for solar radiation forecasting in an insular context
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