4.5 Article

Efficient Output Photovoltaic Power Prediction Based on MPPT Fuzzy Logic Technique and Solar Spatio-Temporal Forecasting Approach in a Tropical Insular Region

期刊

ENERGIES
卷 15, 期 22, 页码 -

出版社

MDPI
DOI: 10.3390/en15228671

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boost converter; MPPT fuzzy; output PV power estimation; PV system; solar forecasting; STVAR model; tropical insular region

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This paper studies the performance of the fuzzy MPPT approach in photovoltaic energy, combined with short time scale irradiance forecasting for PV power estimation. A case study in a tropical insular region is conducted to validate the research. Solar forecasting with fuzzy MPPT allows for advance estimation of PV power, which is essential for optimal energy management in smart energy production systems.
Photovoltaic (PV) energy source generation is becoming more and more common with a higher penetration level in the smart grid because of PV energy's falling production costs. PV energy is intermittent and uncertain due to its dependence on irradiance. To overcome these drawbacks, and to guarantee better smart grid energy management, we need to deal with PV power prediction. The work presented in this paper concerns the study of the performance of the fuzzy MPPT approach to extract a maximum of power from solar panels, associated with PV power estimation based on short time scale irradiance forecasting. It is particularly applied to a case study of a tropical insular region, considering extreme climatic variability. To validate our study with real solar data, measured and predicted irradiance profiles are used to feed the PV system, based on solar forecasting in a tropical insular context. For that, a spatio-temporal autoregressive model (STVAR) is applied. The measurements are collected at three sites located on Guadeloupe island. The high variability of the tropical irradiance profile allows us to test the robustness and stability of the used MPPT algorithms. Solar forecasting associated with the fuzzy MPPT technique allows us to estimate in advance the produced PV power, which is essential for optimal energy management in the case of smart energy production systems. Simulation of the proposed solution is validated under Matlab/Simulink software. The results clearly demonstrate that the proposed solution provides good PV power prediction and better optimization performance: a fast, dynamic response and stable static power output, even when irradiation is rapidly changing.

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