Energies · 2020 · 66 citations · 36 references
AgricultureEconomicsEnergy SystemsRenewable Energy IntegrationRenewable Energy SystemsEnergy System ModelingEnergy UseHybrid Renewable Energy SystemsRenewable EnergyRenewable Energy TechnologySustainable Energy SystemsBiogasDomestic Energy ConsumptionEnergy ConsumptionHybrid Energy SystemsHybrid Power SystemsSolar Photovoltaic EnergySolar-wind Hybrid SystemsTechnoeconomic Analysis
The United Kingdom has abundant renewable resources such as wind, solar, and biomass, yet its domestic sector consumes large amounts of electricity and natural gas. This paper explores the potential of a hybrid renewable energy system to supply power and heat for a household with an optimal configuration. Using a typical UK house as a case study, the authors collected and analyzed its energy consumption, designed a distributed HRES comprising wind turbine, solar PV, biogas genset, batteries, and a power converter, and performed a techno‑economic analysis with HOMER software. The optimal configuration—one 1‑kW wind turbine, one 1‑kW biogas genset, four batteries, and one 1‑kW power converter—provides sufficient power and heat, achieving the lowest net present cost of $14,507 and a levelized cost of energy of $0.588 kWh⁻¹, and offers insights for other European countries.
The United Kingdom has abundant renewable energy resources from wind, solar, biomass and others. Meanwhile, domestic sector consumes large amount of electricity and natural gas. This paper aims to explore the potentials of a hybrid renewable energy system (HRES) to supply power and heat for a household with the optimal configuration. A typical house in the United Kingdom is selected as a case study and its energy consumption is collected and analysed. Based on energy demands of the house, a distributed HRES including wind turbine, solar photovoltaic (PV) and biogas genset is designed and simulated to satisfy the power and heat demands. Hybrid Optimization Model for Electric Renewable (HOMER) Software is used to conduct this technoeconomic analysis. It is found that the HRES system with one 1-kW wind turbine, one 1-kW sized biogas genset, four battery units and one 1-kW sized power converter is the most feasible solution, which can supply enough power and heat to meet the household demands. In addition, the HRES system has the lowest net present cost (NPC) of $14,507 and the lowest levelized cost of energy (LCOE) of $0.588 kW−1·h−1. The case study is also quite insightful to other European countries.
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