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publication name Thermodynamic analysis of a hybrid energy system using geothermal and solar energy sources with thermal storage in a residential building
Authors Shaimaa Seyam; Ibrahim Dincer; Martin Agelin‐Chaab Martin
year 2020
keywords efficiency; energy storage; exergy; geothermal energy; heat pump; photovoltaics; solar energy
journal Energy Storage
volume 2
issue 1
pages Not Available
publisher Not Available
Local/International International
Paper Link https://doi.org/10.1002/est2.103
Full paper download
Supplementary materials Not Available
Abstract

Residential buildings in Canada require remarkable heating loads in the winter. Many homeowners potentially consider more cost effective and environmentally-benign solutions, including solar energy systems, in order to replace fossil fuels. However, this might not be efficient because many cities are exposed to minimum solar radiation resulting in large surface area of solar panels. Therefore, a hybrid energy system is designed to combine five photovoltaic ther- mal solar panels, a 300-m geothermal loop, and 9463.53-kg water of phase change material thermal battery storage for a residential building of 325 m2 total floor space in the city of Oshawa, Canada. The building has maximum heating and cooling loads of 13.8 and 8.7 kW, respectively. A thermodynamic analysis is applied to the system in January and the whole year. It was found that the solar panels can supply thermal energy and electrical power of 8 and 50 W, respec- tively, in January, while the geothermaland thermalstorage energy canprovide 16.8 and 9 kW over the year, respectively. The hybrid system requires an addi- tional heating load of 1.85 kW from the furnace. The overall energetic and exe- rgetic coefficient of performance of the system are estimated to be 54.58% and 3.34% in the winter and 42.6% and 4.47% in the summer, respectively.

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