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Optimal design of grid connected pvwind power generation for urban healthcare facility using homer environment

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dc.contributor.author Donkoh, C.P.K.
dc.date.accessioned 2024-03-26T10:58:36Z
dc.date.available 2024-03-26T10:58:36Z
dc.date.issued 2022
dc.identifier.uri http://41.74.91.244:8080/handle/123456789/2787
dc.description A Thesis submitted to the Department of ELECTRICALS AND ELECTRONICS TECHNOLOGY EDUCATION, UNIVERSITY OF EDUCTION Winneba, School of Graduate Studies, in Partial Fulfilment of the Requirements for the award of Master of Philosophy in Electrical and Electronics Engineering Technology en_US
dc.description.abstract Microgrid combines effective distributed generation schemes and interconnected loads in a specific location. In modern power distribution systems, microgrids can offer the opportunity to increase the amount of distribution generation and delivery of electricity when there are uncertainties with the national power grid. Hospitals are among the most energy intensive commercial buildings due to the significant air management requirements and high electrical load Equipment. Although hospitals have integrated additional on-site power generation to alleviate this situation, the problem of energy costs remains high. As a result, this study attempted to design optimal grid-connected solar PV, wind and battery storage system focusing on a typical urban healthcare facility in Ghana; Kasoa Polyclinic (KPC). To achieve the objectives of this study, the load profile data, methodological, economic data and components cost details are simulated using HOMER Grid software. HOMER Grid is the only demand rate reduction and optimization tool that considers generators as a peak shaving method. Study Results showed that the annual utility bill (base case) was US$213,439.90 with a Total Net Present Cost (TNPC) of US$7,004,608 and Levelised Cost of Energy (LCOE) at US$0.2414 with 558.8tons/year of carbon dioxide emissions. The optimization (winning case) results also showed that the grid-connected hybrid system (solar/wind with battery storage) was more reliable and cost effective among the five cases compared to the base system. Thus, the reduced TNPC of the system at US$3,098,562 and the LCOE of US$0.093/kWh. Savings over the life of the project was US$4,901,516 with reduced carbon emissions of 70.0 tons/year representing reduced emission cost of 2,100 Euros, translating to a monetary savings of 15,564 Euros (approximately US$18,454/year). Therefore, this optimized model can be adopted to address technical, budgetary and environmental pressures. en_US
dc.language.iso en en_US
dc.publisher University of Education Winneba en_US
dc.subject Optimal design en_US
dc.subject Wind power en_US
dc.title Optimal design of grid connected pvwind power generation for urban healthcare facility using homer environment en_US
dc.type Thesis en_US


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