Optimizing solar energy efficiency with an improved hill-climbing maximum power point tracking control approach: hardware implementation

Author:

El Alami Yassine1,Chetouani Elmostafa2,Mokhliss Hamza1,Ouerradi Fatima1,Aoutoul Mohssin3,Bounouar Said4,Bendaoud Rachid5,Faize Ahmed6,Rmaily Redouane1

Affiliation:

1. Laboratory of Electronics, Instrumentation and Energetic, Faculty of Sciences, Chouaïb Doukkali University , B.P 20, El Jadida , Morocco

2. Laboratory, Electronics, Instrumentation and Energy, Exploitation and Processing of Renewable Energy, Department of Physics, Faculty of Sciences, University of Chouaïb Doukkali , El Jadida , Morocco

3. STIC Lab., Department of Physics, Chouaïb Doukkali University , El Jadida , Morocco

4. Complex Cyber Physical Systems Laboratory, National Higher School of Arts and Crafts, Hassan II University , Casablanca , Morocco

5. Interdisciplinary Laboratory for Research in Science, Education, and Training, Higher School of Education and Training-Berrechid, Hassan First University , Berrechid , Morocco

6. Department of Physics, Polydisciplinary Faculty, University of Mohamed Premier , Nador , Morocco

Abstract

Abstract This article implements maximum power point tracking (MPPT) based on the improved hill-climbing algorithm for photovoltaic (PV) systems feeding resistive loads. A direct current-to-direct current boost converter is inserted between the PV system and the load to achieve matching. The converter is managed using MPPT based on the hill-climbing algorithm. The objective of this paper is to optimize the code program to achieve the best compromise between accuracy and rapidity by implementing this algorithm using a microcontroller. Two PV systems are tested under identical meteorological conditions. In the first, an improved hill-climbing MPPT controller is used whereas, in the second, the conventional version is employed. The experimental results obtained show a significant enhancement in terms of speed for the improved algorithm with a value of 0.4 s for the response time and 3% for the oscillation power; those values remain satisfactory in terms of precision of the algorithm compared with the conventional system studied and the compared algorithm from the literature.

Publisher

Oxford University Press (OUP)

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