Mostrar el registro sencillo del ítem
Estudio de pérdidas de energía en turbina de gas híbrida solar en Colombia
| dc.contributor.author | Moreno Gamboa, Faustino | |
| dc.contributor.author | Guerrero Gómez, Gustavo | |
| dc.contributor.author | Caicedo Rolon, Alvaro Jr | |
| dc.coverage.spatial | Colombia | en_US |
| dc.date.accessioned | 2025-10-21T13:42:12Z | |
| dc.date.available | 2025-10-21T13:42:12Z | |
| dc.date.issued | 2023-09-29 | |
| dc.identifier.issn | 2461-4254 | en_US |
| dc.identifier.uri | https://repositorioinstitucional.ufpso.edu.co/xmlui/handle/20.500.14167/5830 | |
| dc.description.abstract | Debido a la disminución de las reservas de petróleo, el compromiso internacional para la reducción de emisiones contaminantes y la protección del medio ambiente, las fuentes de energía renovables se estudian intensamente, incluyendo las aplicaciones de la energía solar. Sin embargo, la energía solar no es constante y una posible alternativa son las plantas de energía solar termosolar híbrida. Una turbina solar de gas híbrida consta de tres subsistemas: un concentrador solar con campo de helióstatos y receptor de torre central, una cámara de combustión y una turbina de gas regenerativa. Un análisis termodinámico previo permitió mostrar un estudio energético y exergético de la planta, a partir de un modelo termodinámico del sistema que cuenta con un método de estimación del recurso solar. Sin embargo, este análisis no permitió evaluar las pérdidas de energía en los componentes del sistema, a pesar de que el modelo original consideraba las irreversibilidades típicas de estos ciclos. Este trabajo tuvo como objetivo desarrollar un modelo termodinámico que estima las pérdidas de energía en los subsistemas y los componentes de la turbina solar de gas híbrida a partir de unos pocos parámetros. El modelo estimó las pérdidas de energía para una planta solar termosolar híbrida de ciclo Brayton durante el día 20 de julio en Barranquilla, Colombia. Se utilizó un compilador Dymola en lenguaje Modelica para evaluar el modelo, lo que facilita la estimación de los resultados en diferentes momentos del día. En este caso, los cálculos se realizaron cada hora a lo largo del día. Los resultados mostraron pérdidas de energía del 16 % en el concentrador solar cuando el recurso solar alcanzó su máximo al mediodía y cercanas al 1 % en la cámara de combustión. Por lo tanto, el sistema híbrido solar de ciclo Brayton es técnicamente viable y reduce el consumo de combustible. Por consiguiente, es importante continuar desarrollando sistemas de concentración y reducir sus pérdidas de energía. | en_US |
| dc.language.iso | eng | en_US |
| dc.relation | https://www.journal.eu-jr.eu/engineering/article/view/3108 | en_US |
| dc.title | Estudio de pérdidas de energía en turbina de gas híbrida solar en Colombia | en_US |
| dc.title.translated | Energy losses study in solar hybrid gas turbine in Colombia | en_US |
| dc.contributor.cvlac | Faustino Moreno Gamboa [0001412451] | en_US |
| dc.contributor.cvlac | Gustavo Guerrero Gómez [0001413037] | en_US |
| dc.contributor.cvlac | Alvaro Jr Caicedo Rolon [0001399791] | en_US |
| dc.contributor.googlescholar | Gustavo Guerrero Gómez [La8nZsAAAAAJ] | en_US |
| dc.contributor.googlescholar | Alvaro Jr Caicedo Rolon [CPFa7UsAAAAJ] | en_US |
| dc.contributor.orcid | Faustino Moreno Gamboa [0000-0002-3586-4306] | en_US |
| dc.contributor.orcid | Gustavo Guerrero Gómez [0000-0002-4316-7113] | en_US |
| dc.contributor.orcid | Alvaro Jr Caicedo Rolon [0000-0002-3651-3364] | en_US |
| dc.contributor.researchgate | Faustino Moreno Gamboa [Faustino-Moreno] | en_US |
| dc.contributor.researchgate | Alvaro Jr Caicedo Rolon [Alvaro-Caicedo-Rolon] | en_US |
| dc.contributor.scopus | Faustino Moreno Gamboa [57218627086] | en_US |
| dc.contributor.scopus | Gustavo Guerrero Gómez [57205119123] | en_US |
| dc.contributor.scopus | Alvaro Jr Caicedo Rolon [57212574941] | en_US |
| dc.description.abstractenglish | Due to decrease of oil reserves, the international commitment for the reduction of pollutant emissions and environmental protection, renewable energy sources are intensively studied, including solar energy applications. However, solar energy is not constant and one possible alternative are solar hybrid thermosolar power plants. A hybrid solar gas turbine has three subsystems: a solar concentrator with heliostat field and central tower receiver, a combustion chamber, and a regenerative gas turbine. A previous thermodynamic analysis allowed shows an energy and exergy study of the plant, from a thermodynamic model of the system that has a method of solar resource estimation. However, this analysis did not allow evaluation of the energy losses in the system compo-nents, although the original model considered the typical irreversibilities of these cycles. This work aimed to develop a thermody-namic model that estimates the energy losses in the subsystems and the solar hybrid gas turbine components from a few parameters. The model estimated the energy losses for a Brayton cycle hybrid solar thermal plant throughout the day July 20 in Barranquilla, Colombia. A Dymola compiler in Modelica language was used to evaluate the model, which facilitates the estimation of the results at different times of the day. In this case, the computations were performed hourly throughout the day. In the results, energy losses were 16 % in the solar concentrator when the solar resource was the maximum at noon and close to 1 % in the combustion chamber. Therefore, the hybrid solar Brayton cycle system is technically feasible and reduces fuel consumption. Consequently, it is important to continue developing concentration systems and reduce their energy losses. | en_US |
| dc.subject.proposal | Turbina de gas | en_US |
| dc.subject.proposal | Pérdidas de energía | en_US |
| dc.subject.proposal | Concentrador solar | en_US |
| dc.subject.proposal | Campo de helióstatos | en_US |
| dc.subject.proposal | Torre central | en_US |
| dc.subject.proposal | Flujos de energía | en_US |
| dc.subject.proposal | Radiación solar | en_US |
| dc.subject.proposal | Eficiencia | en_US |
| dc.subject.proposal | Cámara de combustión | en_US |
| dc.subject.proposal | Central eléctrica | en_US |
| dc.subject.keywords | gas turbine | en_US |
| dc.subject.keywords | energy losses | en_US |
| dc.subject.keywords | solar concentrator | en_US |
| dc.subject.keywords | heliostat field | en_US |
| dc.subject.keywords | central tower | en_US |
| dc.subject.keywords | energy flows | en_US |
| dc.subject.keywords | solar radiation | en_US |
| dc.subject.keywords | efficiency | en_US |
| dc.subject.keywords | combustion chamber | en_US |
| dc.subject.keywords | power plant | en_US |
| dc.publisher.faculty | Facultad ingenierías | en_US |
| dc.type.redcol | http://purl.org/redcol/resource_type/ART | en_US |
| dc.relation.references | Renewables 2021, Global Status Report (2021). REN 21. Available at: https://www.ren21.net/wp-content/uploads/2019/05/GSR2021_Full_Report.pdf | en_US |
| dc.relation.references | Acolgen, la buena energía. Available at: https://acolgen.org.co/ | en_US |
| dc.relation.references | Dimri, N., Tiwari, A., Tiwari, G. N. (2018). Effect of thermoelectric cooler (TEC) integrated at the base of opaque pho-tovoltaic (PV) module to enhance an overall electrical efficiency. Solar Energy, 166, 159–170. doi: https://doi.org/10.1016/j.solener.2018.03.030 | en_US |
| dc.relation.references | Goswami, D. Y. (2022). Principles of Solar Engineering. doi: https://doi.org/10.1201/9781003244387 | en_US |
| dc.relation.references | Nakatani, H., Osada, T. et al. (2012). Development of a Concentrated Solar Power Generation System with a Hot-Air Tur-bine. Mitsubishi Heavy Industries Technical Review, 49 (1). Available at: https://www.mhi.co.jp/technology/review/pdf/e 491/e 4910 01.pdf | en_US |
| dc.relation.references | Behar, O. (2018). Solar thermal power plants – A review of configurations and performance comparison. Renewable and Sus-tainable Energy Reviews, 92, 608–627. doi: https://doi.org/10.1016/j.rser.2018.04.102 | en_US |
| dc.relation.references | Jamel, M. S., Abd Rahman, A., Shamsuddin, A. H. (2013). Advances in the integration of solar thermal energy with conven-tional and non-conventional power plants. Renewable and Sustainable Energy Reviews, 20, 71–81. doi: https://doi.org/10.1016/j.rser.2012.10.027 | en_US |
| dc.relation.references | Horlock, J. H. (2003). Advanced Gas Turbine Cycles. Pergamon. doi: https://doi.org/10.1016/B978-0-08-044273-0.X5000-7 | en_US |
| dc.relation.references | Santos, M. J., Merchán, R. P., Medina, A., Calvo Hernández, A. (2016). Seasonal thermodynamic prediction of the performance of a hybrid solar gas-turbine power plant. Energy Conversion and Management, 115, 89–102. doi: https://doi.org/10.1016/j.encon man.2016.02.019 | en_US |
| dc.relation.references | Doron, P. (2020). A high temperature receiver for a solarized micro-gas-turbine. AIP Conference Proceedings. doi: https://doi.org/10.1063/5.0028527 | en_US |
| dc.relation.references | Dunham, M. T., Iverson, B. D. (2014). High-efficiency thermodynamic power cycles for concentrated solar power systems. Renewable and Sustainable Energy Reviews, 30, 758–770. doi: https://doi.org/10.1016/j.rser.2013.11.010 | en_US |
| dc.relation.references | Quero, M., Korzynietz, R., Ebert, M., Jiménez, A. A., del Río, A., Brioso, J. A. (2014). Solugas – Operation Experience of the First Solar Hybrid Gas Turbine System at MW Scale. Energy Procedia, 49, 1820–1830. doi: https://doi.org/10.1016/j.eg y pro.2014.03.193 | en_US |
| dc.relation.references | Olivenza-León, D., Medina, A., Calvo Hernández, A. (2015). Thermodynamic modeling of a hybrid solar gas-turbine power plant. Energy Conversion and Management, 93, 435–447. doi: https://doi.org/10.1016/j.enconman.2015.01.027 | en_US |
| dc.relation.references | Martín Sánchez, M. (2018). Evaluación técnico económica de centrales solares de torre con receptores de aire presurizado integrados en turbinas de gas. University of Sevilla. Available at: https://idus.us.es/handle/11441/72405 | en_US |
| dc.relation.references | Liu, Y., Wang, Y., Huang, D. (2019). Supercritical CO2 Brayton cycle: A state-of-the-art review. Energy, 189, 115900. doi: https://doi.org /10.1016/j.energ y.2019.115900 | en_US |
| dc.relation.references | Lei, X., Peng, R., Guo, Z., Li, H., Ali, K., Zhou, X. (2020). Experimental comparison of the heat transfer of carbon dioxide under subcritical and supercritical pressures. International Journal of Heat and Mass Transfer, 152, 119562. doi: https://doi.org /10.1016/j.ijheat masst ransfer.2020.119562 | en_US |
| dc.relation.references | Guzman, L., Henao, A., Vasquez, R. (2014). Simulation and Optimization of a Parabolic Trough Solar Power Plant in the City of Barranquilla by Using System Advisor Model (SAM). Energy Procedia, 57, 497–506. doi: https://doi.org/10.1016/j.eg y pro.2014.10.203 | en_US |
| dc.relation.references | Gueymard, C. (2000). Prediction and Performance Assessment of Mean Hourly Global Radiation. Solar Energy, 68 (3), 285–303. doi: https://doi.org/10.1016/s0038-092x(99)00070-5 | en_US |
| dc.relation.references | Mejdoul, R., Taqi, M. (2012). The Mean Hourly Global Radiation Prediction Models Investigation in Two Different Climate Regions in Morocco. International Journal of Renewable Energy Research-IJRER, 2 (4). Available at: https://www.ijrer.org/ijrer/index.php/ijrer/article/view/316 | en_US |
| dc.relation.references | Yao, W., Li, Z., Xiu, T., Lu, Y., Li, X. (2015). New decomposition models to estimate hourly global solar radiation from the daily value. Solar Energy, 120, 87–99. doi: https://doi.org/10.1016/j.solener.2015.05.038 | en_US |
| dc.relation.references | Power Data Access Viewer. Available at: https://power.larc.nasa.gov/data-access-viewer/ | en_US |
| dc.relation.references | Moreno-Gamboa, F., Escudero-Atehortua, A., Nieto-Londoño, C. (2020). Performance evaluation of external fired hybrid solar gas-turbine power plant in Colombia using energy and exergy methods. Thermal Science and Engineering Progress, 20, 100679. doi: ht t ps://doi.org /10.1016/j.tsep.2020.100679 | en_US |
| dc.relation.references | Moreno-Gamboa, F., Escudero-Atehortua, A., Nieto-Londoño, C. (2022). Alternatives to Improve Performance and Opera-tion of a Hybrid Solar Thermal Power Plant Using Hybrid Closed Brayton Cycle. Sustainability, 14 (15), 9479. doi: https://doi.org/10.3390/su14159479 | en_US |
| dc.relation.references | Romero, M., Buck, R., Pacheco, J. E. (2002). An Update on Solar Central Receiver Systems, Projects, and Technologies. Jour-nal of Solar Energy Engineering, 124 (2), 98–108. doi: https://doi.org/10.1115/1.1467921 | en_US |
| dc.relation.references | Duffie, J. A., Beckman, W. A. (2013). Solar Engineering of Thermal Processes. John Wiley & Sons. doi: https://doi.org/10.10 0 2 /9 7811186716 03 | en_US |
| dc.relation.references | Ramírez-Cerpa, E., Acosta-Coll, M., Vélez-Zapata, J. (2017). Análisis de condiciones climatológicas de precipitaciones de corto plazo en zonas urbanas: caso de estudio Barranquilla, Colombia. Idesia (Arica), 35 (2). doi: https://doi.org/10.4067/s0718-34292017005000023 | en_US |
| dc.relation.references | Mercury 50. Available at: https://www.solarturbines.com/en_US/products/power-generation-packages/mercury-50.html | en_US |
| dc.relation.references | Merchán, R. P., Santos, M. J., Reyes-Ramírez, I., Medina, A., Calvo Hernández, A. (2017). Modeling hybrid solar gas-turbine power plants: Thermodynamic projection of annual performance and emissions. Energy Conversion and Management, 134, 314–326. doi: https://doi.org/10.1016/j.enconman.2016.12.044 | en_US |
| dc.relation.references | Romero, M., Steinfeld, A. (2012). Concentrating solar thermal power and thermochemical fuels. Energy & Environmental Science, 5 (11), 9234. doi: https://doi.org/10.1039/c2ee21275g | en_US |
| dc.identifier.DOI | https://doi.org/10.21303/2461-4262.2023.003108 | en_US |
Ficheros en el ítem
Este ítem aparece en la(s) siguiente(s) colección(ones)
-
Artículos [132]



