Harnessing the sun: Framework for development and performance evaluation of AI-driven solar tracker for optimal energy harvesting

• Designed & tested open & closed loop solar trackers for year-long data collection. • Integrated findings into MOGA ANFIS system for solar tracking optimization. • AI-based tracker shows 57 % higher energy capture potential over fixed solar panels. • Achieved R 2 values of 0.989 and 0.998 for azimuth and altitude angle predictions. • Developed S.T.A.R. for systematic enhancement of solar tracking accuracy. This research explores advanced methodologies to enhance the performance and efficiency of solar tracking systems by developing the Solar Tracking and Analysis Research (S.T.A.R.) framework. The study begins with designing and implementing both open and closed loop solar tracking systems, collecting energy generation data over a year with daily measurements spanning ten hours. The second phase involves a comprehensive analysis of these systems under various weather conditions, identifying their strengths and weaknesses to identify potential improvements. The research identifies inefficiencies through rigorous design, testing, and analysis and proposes enhancements, driving optimization. These insights are integrated into a Multi-Objective Genetic Algorithm Adaptive Neuro-fuzzy Inference System (MOGA ANFIS), optimizing the solar tracking process using diverse solar tracking and environmental variables. The critical objective is optimizing the tilt and azimuth angles of solar panels to enhance energy generation potential. The study compares theoretical and experimental energy generation data from the AI-based solar tracker against conventional systems, thoroughly evaluating its effectiveness. Results demonstrate that the AI-based system, guided by MOGA ANFIS, consistently outperforms traditional systems across different weather conditions, with R 2 values of 0.989 for azimuth and 0.998 for altitude angle predictions, highlighting its superior adaptability and efficiency. Experimentally, the proposed system can generate 27 % and 20 % more energy than the open and closed loop systems, respectively, and has the potential to generate 57 % more energy than fixed panels. This research significantly contributes to the field of renewable energy, particularly in solar tracking technologies.

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Publication Details

Journal
Energy Conversion and Management X
Published
2025-03-28
DOI
https://doi.org/10.1016/j.ecmx.2025.100990
Citations
5
Primary Topic
Solar Radiation and Photovoltaics
Type
article
Field-Weighted Citation Impact
12.40
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article

Harnessing the sun: Framework for development and performance evaluation of AI-driven solar tracker for optimal energy harvesting

Jubayer Rahman Jamal, Abul Azad, Khaled Mohammad Shifullah Bhuiya, Sabbir Ahmed Udoy et al.
5 citations
Energy Conversion and Management X
Solar Radiation and Photovoltaics
12.40
article

Harnessing the sun: Framework for development and performance evaluation of AI-driven solar tracker for optimal energy harvesting

Jubayer Rahman Jamal, Abul Azad, Khaled Mohammad Shifullah Bhuiya, Sabbir Ahmed Udoy, Mehedi Hasan, Sumaiya Rashid Shoshi, Sadman Zilani, Abdullah Hawlather, Tabassum Roaidah Azad
article en
5 citations

Abstract

• Designed & tested open & closed loop solar trackers for year-long data collection. • Integrated findings into MOGA ANFIS system for solar tracking optimization. • AI-based tracker shows 57 % higher energy capture potential over fixed solar panels. • Achieved R 2 values of 0.989 and 0.998 for azimuth and altitude angle predictions. • Developed S.T.A.R. for systematic enhancement of solar tracking accuracy. This research explores advanced methodologies to enhance the performance and efficiency of solar tracking systems by developing the Solar Tracking and Analysis Research (S.T.A.R.) framework. The study begins with designing and implementing both open and closed loop solar tracking systems, collecting energy generation data over a year with daily measurements spanning ten hours. The second phase involves a comprehensive analysis of these systems under various weather conditions, identifying their strengths and weaknesses to identify potential improvements. The research identifies inefficiencies through rigorous design, testing, and analysis and proposes enhancements, driving optimization. These insights are integrated into a Multi-Objective Genetic Algorithm Adaptive Neuro-fuzzy Inference System (MOGA ANFIS), optimizing the solar tracking process using diverse solar tracking and environmental variables. The critical objective is optimizing the tilt and azimuth angles of solar panels to enhance energy generation potential. The study compares theoretical and experimental energy generation data from the AI-based solar tracker against conventional systems, thoroughly evaluating its effectiveness. Results demonstrate that the AI-based system, guided by MOGA ANFIS, consistently outperforms traditional systems across different weather conditions, with R 2 values of 0.989 for azimuth and 0.998 for altitude angle predictions, highlighting its superior adaptability and efficiency. Experimentally, the proposed system can generate 27 % and 20 % more energy than the open and closed loop systems, respectively, and has the potential to generate 57 % more energy than fixed panels. This research significantly contributes to the field of renewable energy, particularly in solar tracking technologies.

Energy Conversion and Management XVol. 26
Shahjalal University of Science and Technology (BD), Rajshahi University of Engineering and Technology (BD)
Affordable and clean energy
Openalex Percentile: Top 2%
Solar Radiation and Photovoltaics
12.40
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