%0 Journal Article %1 orlando_anaya_reyes_2024_10951837 %A Reyes, Orlando Anaya %A Hernández, Uriel Roberto Gutiérrez %A González, Ignacio Zúñiga %A Flores, Juan Manuel Belman %A Alejandro, David Aarón Rodríguez %D 2024 %J Global Journal of Engineering and Technology Advances %K Domestic hot-water %N 3 %P 090–101 %R 10.30574/gjeta.2024.18.3.0044 %T Energy analysis of a simple PV/T system for heating using a variable speed vapor compressor system %U https://gjeta.com/content/energy-analysis-simple-pvt-system-heating-using-variable-speed-vapor-compressor-system %V 18 %X The use of photovoltaic/thermal (PV/T) modules reduces the losses in the photovoltaic cells and, in addition, uses the waste heat in the panel. This paper presents the simulation results of a PV/T system for domestic hot water supply using a vapor compression system during the four seasons of the year in the conditions of Salamanca, Mexico. The results obtained from the simulation indicate that the cooling of the panel causes an increase of approximately 7% in PV efficiency. During the spring, when there is greater solar radiation and, therefore, greater electrical power generation, despite the average temperature of around 36 °C, the lowest efficiency is found. On the other hand, the highest efficiency is achieved in winter, reaching up to 22%. As for the performance coefficient, the highest value is observed during the spring, with a coefficient of performance (COP) of 6.63, while the lowest value is recorded in summer, with a COP of 5.11. It is concluded that this system can satisfy the domestic hot water demand for the conditions under study.

@article{orlando_anaya_reyes_2024_10951837, abstract = {The use of photovoltaic/thermal (PV/T) modules reduces the losses in the photovoltaic cells and, in addition, uses the waste heat in the panel. This paper presents the simulation results of a PV/T system for domestic hot water supply using a vapor compression system during the four seasons of the year in the conditions of Salamanca, Mexico. The results obtained from the simulation indicate that the cooling of the panel causes an increase of approximately 7% in PV efficiency. During the spring, when there is greater solar radiation and, therefore, greater electrical power generation, despite the average temperature of around 36 °C, the lowest efficiency is found. On the other hand, the highest efficiency is achieved in winter, reaching up to 22%. As for the performance coefficient, the highest value is observed during the spring, with a coefficient of performance (COP) of 6.63, while the lowest value is recorded in summer, with a COP of 5.11. It is concluded that this system can satisfy the domestic hot water demand for the conditions under study.}, added-at = {2024-04-10T13:05:10.000+0200}, author = {Reyes, Orlando Anaya and Hernández, Uriel Roberto Gutiérrez and González, Ignacio Zúñiga and Flores, Juan Manuel Belman and Alejandro, David Aarón Rodríguez}, biburl = {https://www.bibsonomy.org/bibtex/27b86f867f36395d0aab5810a9a88cada/gjetajournal}, doi = {10.30574/gjeta.2024.18.3.0044}, interhash = {eba6813f89ee5071e7f50f2a510f8080}, intrahash = {7b86f867f36395d0aab5810a9a88cada}, issn = {2582-5003}, journal = {{Global Journal of Engineering and Technology Advances}}, keywords = {Domestic hot-water}, month = apr, number = 3, pages = {090–101}, timestamp = {2024-04-10T13:05:10.000+0200}, title = {Energy analysis of a simple PV/T system for heating using a variable speed vapor compressor system}, url = {https://gjeta.com/content/energy-analysis-simple-pvt-system-heating-using-variable-speed-vapor-compressor-system}, volume = 18, year = 2024 }