Modeling and Control Maximum Power Point Tracking of an Autonomous Photovoltaic System Using Artificial Intelligence

Despite investigative efforts seen in the literature, the maximum power point tracking remains again a crucial problem in photovoltaic system (PV) connected to the power grid. In this paper, a new maximum power point tracking technique which is our contribution to the resolution of this problem is t...

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Veröffentlicht in:Dian li yu neng yuan 2021, Vol.13 (12), p.428-447
Hauptverfasser: Fousseyni Toure, Amadou, Tchoffa, David, El Mhamedi, Abderrahman, Diourte, Badie, Lamolle, Myriam
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container_end_page 447
container_issue 12
container_start_page 428
container_title Dian li yu neng yuan
container_volume 13
creator Fousseyni Toure, Amadou
Tchoffa, David
El Mhamedi, Abderrahman
Diourte, Badie
Lamolle, Myriam
description Despite investigative efforts seen in the literature, the maximum power point tracking remains again a crucial problem in photovoltaic system (PV) connected to the power grid. In this paper, a new maximum power point tracking technique which is our contribution to the resolution of this problem is treated. We proposed a hybrid controller of maximum power point tracking based on artificial neural networks. This hybrid controller is composed of two neural networks. The first network has two inputs and two outputs: the inputs are solar irradiation and ambient temperature and the outputs are the reference output voltage and current corresponding at the maximum power point. The second network has two inputs and one output: the inputs use the outputs of the first network and the output will be the periodic cycle which controls the DC/DC converter. The training step of neural networks requires two modes: the offline mode and the online mode. The data necessary for the training are collected from a very large number of real-time measurements of the PV module. The performance of the proposed method is analyzed under different operating conditions using the Matlab/Simulink simulation tool. A comparative study between the proposed method and the perturbation and observation approach was presented.
doi_str_mv 10.4236/epe.2021.1312030
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subjects Artificial Intelligence
Automatic Control Engineering
Computer Science
Electric power
Engineering Sciences
title Modeling and Control Maximum Power Point Tracking of an Autonomous Photovoltaic System Using Artificial Intelligence
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