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Partial shading conditions decrease the photovoltaic string’s output power because of the bypass diodes operation. Also, the extraction of maximum available power from photovoltaic systems has become important and challenging. To overcome partial shading conditions and improve power prediction, intelligent maximum power point tracking techniques can be used. These methods must track the maximum power point voltage under different environmental situations to maximise the photovoltaic systems’ efficiency. In this paper, a model-based maximum power point tracking algorithm is accomplished through a multi-input interleaved boost DC–DC converter, to increase photovoltaic systems’ output power and efficiency. To show the better performance of the proposed method, a comparison with P&amp;O and incremental conductance techniques is presented. The simulation results illustrate a remarkable increment in the derived power from the photovoltaic string by interfaced the maximum power point tracking algorithm with the interleaved converter compared to the traditional single-converter structure.

Increase of the photovoltaic resources power using multi-input DC–DC converter and model-based MPPT algorithm