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Solar Satellite: A Green Energy Infrastructure for Power Challenged Environments, a Case for Solar Cell I-V Behaviour

Past government efforts in addressing power challenges in Nigeria have yielded little results despite huge investments made in the energy sector. For meaningful economic growth, the importance of a sustainable power system cannot be overemphasized. However, with worlds advocacy on climate change and carbon footprint emissions reduction, renewable energy alternatives will offer a better solution. In this regard, this paper proposes a power model that will serve as a compliment to the current distribution grid network called Solar Satellite. This can be adapted for powering banks, government institutions, IT DataCenter, etc. We present an in-depth discussion on the design framework of a generic Solar Power System. In particular, a comprehensive outline of the design steps, considerations as well as the implementation strategies is presented. To further facilitate our work, we used Electronics Development Institute as our study testbed. In this regard, MATLAB Simulink tool was used to characterize the initial phase of the proposed system in the context of current-voltage sensor outputs. Also, we presented the optimal Solar Cell block's parameters as well as the I-V characteristics at 25 0 C. This work observes that a hybrid grid system will save downtime scenarios in case of drops in solar irradiation.