This paper details the development of an innovative graphical interface for a photovoltaic (PV) system with integrated battery storage, which is seamlessly incorporated with the existing grid infrastructure at CDER specifically for lighting purposes. This hybrid system harnesses solar energy to charge batteries during periods of adequate sunlight and intelligently switches to grid power during times of low solar production, thereby preventing excessive discharge of the battery storage. The initial development steps included a thorough assessment of the sys-tem framework and careful selection of a suitable programming tool. This process involved applying a range of techniques, from employing basic graphical components to implementing advanced functionalities essential for real-time data ex-change and system integration. The resulting interface facilitates comprehensive monitoring and optimization of the energy management within the PV system, significantly enhancing both its operational efficiency and overall sustainability. This project not only promotes greater energy independence by reducing reliance on traditional power sources but also supports grid stability and contributes to advancements in renewable energy research. By showcasing the detailed interface design and implementation processes, the paper aims to inspire and guide further innovations and developments in the realm of sustainable energy solutions, paving the way for a more energy-efficient future.

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The Graphical Interface of the Behaviour of Autonomous PV System Backed up by the Grid

  • Ourzik Lounis,
  • Djohra Saheb-koussa,
  • Assia Koussa,
  • Ferroudja Megherbi-Bitam

摘要

This paper details the development of an innovative graphical interface for a photovoltaic (PV) system with integrated battery storage, which is seamlessly incorporated with the existing grid infrastructure at CDER specifically for lighting purposes. This hybrid system harnesses solar energy to charge batteries during periods of adequate sunlight and intelligently switches to grid power during times of low solar production, thereby preventing excessive discharge of the battery storage. The initial development steps included a thorough assessment of the sys-tem framework and careful selection of a suitable programming tool. This process involved applying a range of techniques, from employing basic graphical components to implementing advanced functionalities essential for real-time data ex-change and system integration. The resulting interface facilitates comprehensive monitoring and optimization of the energy management within the PV system, significantly enhancing both its operational efficiency and overall sustainability. This project not only promotes greater energy independence by reducing reliance on traditional power sources but also supports grid stability and contributes to advancements in renewable energy research. By showcasing the detailed interface design and implementation processes, the paper aims to inspire and guide further innovations and developments in the realm of sustainable energy solutions, paving the way for a more energy-efficient future.