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This chapter presents the practical validation of four developed MPPT approaches using the dSPACE DS1104 controller board integrated into a complete standalone PV system. Each MPPT method was successfully implemented and tested on an experimental setup. The results demonstrate that these novel approaches provide superior tracking performance compared to traditional MPPT techniques, even under normal and extreme climatic conditions. The new methods exhibited faster tracking times, high convergence speeds, negligible oscillations around the maximum power point (MPP), and reduced power losses, leading to higher tracking efficiencies. Additionally, the experimental results align with those obtained from simulations, confirming the feasibility and simplicity of implementing these MPPT approaches in real-world PV systems.

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Experimental Validation

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  • 发表日期：

    2025年

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  • Abdelkhalek Chellakhi,
  • Said El Beid

摘要

This chapter presents the practical validation of four developed MPPT approaches using the dSPACE DS1104 controller board integrated into a complete standalone PV system. Each MPPT method was successfully implemented and tested on an experimental setup. The results demonstrate that these novel approaches provide superior tracking performance compared to traditional MPPT techniques, even under normal and extreme climatic conditions. The new methods exhibited faster tracking times, high convergence speeds, negligible oscillations around the maximum power point (MPP), and reduced power losses, leading to higher tracking efficiencies. Additionally, the experimental results align with those obtained from simulations, confirming the feasibility and simplicity of implementing these MPPT approaches in real-world PV systems.