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This paper discusses a methodology, specifically for solar power potential areas, to effectively design and develop solar photovoltaic power plants integrated with battery banks connected to the utility grid as an additional backup to maintain power stability and reliability. To prove the effectiveness of this method regarding its use for the design and development of the proposed system, Kinshasa city in Democratic Republic of the Congo with a huge (5425 MWh) energy deficit has been considered as a case study. In fact, the method employed in this study has considered weather data, site selection, hourly load power and energy demand analysis, specifications of PV technologies and other components of the system. Economic analysis has also been carried out for the proposed system viability assessment. With a competitive LCOE, SPP < 10 years, NPV˃0, SIR˃1, and ROI ˃10 %, and a yearly PV energy output greater than the city's energy deficit, the system proposed has been found to be feasible and viable. In a search for better performance, higher efficiency and better economic values, the proposed method is highly recommended and can be regarded as one of the most effective and the easiest for sizing large-scale PV systems. • Grid-connected solar PV plants with storage batteries running as a base unit can much help maintain power supply continuity. • An effective design method is of great interest for the sizing of large-scale grid-connected PV systems. • Using PV systems for utility applications can now be regarded as a cheaper and fast option to address electricity challenges in most African countries, in particular DRC. [ABSTRACT FROM AUTHOR]

Floating photovoltaic systems (FPV) can be a more sustainable alternative for the energy transition than ground-mounted photovoltaic systems, as they avoid occupying useable land and the power generation is more distributed. This paper presents the first study that calculates the FPV technical potential at the province/municipality level, focusing on water irrigation ponds, which it is a novelty in the literature that usually focuses on large water infrastructures in a national approach. In the province of Jaén (Spain), more than 3000 ponds dedicated to agricultural irrigation have been identified and their surface area and location was obtained. The results, calculated for each pond, reveal that, in a conservative scenario, in which only 25% of their surface area is covered, a minimum of 490 MWp can be installed, which can provide 251% of the province agricultural electricity consumption and 27% of the total electricity needs. This analysis has also been performed at the municipal level, where all possible FPV plants have been aggregated and compared with consumption that would be covered at this scale. Furthermore, this technology brings additional benefits, as it avoids the occupation of 12 km2 of useable land, 8.8·106 m3/year of water evaporated, while creating more than 7000 jobs. • A Technical floating PV potential assessment on water irrigation ponds is done • A Technical floating PV potential assessment at a municipal level is done • A calculation of Multi-benefits of floating PV installation is done • An energy consumption coverage assessment at municipal level with floating PV is done [ABSTRACT FROM AUTHOR]