Solar Irradiance Forecasting using Dynamic Mode Decomposition

Reliable solar irradiance prediction is necessary for an easier transition from dependence on fossil fuels to renewable energy sources. The features of solar irradiance, such as its non-linearity and high variability, make predicting it a challenging task. This challenge is traditionally addressed by using regression and other ensemble models that require significantly large historical data to adequately train and rely on domain-specific knowledge. In this study, a data-driven framework that employed dynamic mode decomposition for solar irradiance forecasting was proposed. The efficiency of the dynamic mode decomposition-based framework was verified by employing it for short-term forecasting using two distinct datasets from geographically diverse locations. The comparative advantage over traditional regression was confirmed using performance assessment measures, including mean absolute error, mean bias error, and root mean square error. The resulting forecasts significantly outperformed the benchmark models, demonstrating that the proposed model could effectively forecast short-term solar irradiance with improved accuracy.

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Publication Details

Journal
Engineering and Technology Horizons
Published
2025-03-27
DOI
https://doi.org/10.55003/eth.420102
Primary Topic
Fault Detection and Control Systems
Type
article
Field-Weighted Citation Impact
0.00
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article

Solar Irradiance Forecasting using Dynamic Mode Decomposition

Kehinde Olukunmi Alawode, Muyideen Olalekan Lawal, Olusegun Abel Odejobi
Engineering and Technology Horizons
Fault Detection and Control Systems
article

Solar Irradiance Forecasting using Dynamic Mode Decomposition

Kehinde Olukunmi Alawode, Muyideen Olalekan Lawal, Olusegun Abel Odejobi
article en

Abstract

Reliable solar irradiance prediction is necessary for an easier transition from dependence on fossil fuels to renewable energy sources. The features of solar irradiance, such as its non-linearity and high variability, make predicting it a challenging task. This challenge is traditionally addressed by using regression and other ensemble models that require significantly large historical data to adequately train and rely on domain-specific knowledge. In this study, a data-driven framework that employed dynamic mode decomposition for solar irradiance forecasting was proposed. The efficiency of the dynamic mode decomposition-based framework was verified by employing it for short-term forecasting using two distinct datasets from geographically diverse locations. The comparative advantage over traditional regression was confirmed using performance assessment measures, including mean absolute error, mean bias error, and root mean square error. The resulting forecasts significantly outperformed the benchmark models, demonstrating that the proposed model could effectively forecast short-term solar irradiance with improved accuracy.

Engineering and Technology HorizonsVol. 42(1)
Osun State University (NG)
Openalex Percentile: Top 94%
Fault Detection and Control Systems
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Solar Irradiance Forecasting using Dynamic Mode Decomposition — Kehinde Olukunmi Alawode, Muyideen Olalekan Lawal, et al. · Engineering and Technology Horizons (2025) | TGRS Research Map | TGRS