Publicado

2021-05-22

Modelamiento y simulación de un sistema termoeléctrico de recuperación de calor residual - TWRHS

Modelling and simulation of a thermoelectric waste heat recovery system – TWRHS

DOI:

https://doi.org/10.15446/dyna.v88n217.94431

Palabras clave:

termoelectricidad;, calor residual;, modelamiento;, simulación;, elementos finitos (es)
thermoelectricity;, residual heat;, modeling;, simulation;, finite elements; (en)

Autores/as

El efecto termoeléctrico permite la conversión directa de energía térmica en energía eléctrica sin necesidad de piezas móviles y sus aplicaciones son infinitas Los vehículos de combustión generan pérdidas de energía de hasta un 62% y se estima que la eficiencia con generadores termoeléctricos puede incrementarse hasta un 8%. En este trabajo se propone un sistema de aprovechamiento del calor de los gases de escape por efecto termoeléctrico. Se desarrolló un modelo computacional utilizando el método de elementos finitos. A partir de las simulaciones, se puede realizar un análisis de las variables eléctricas en función de la temperatura. Existe una buena correlación entre el modelo y los datos obtenidos. Sobre la base del sistema modelado, fue posible evaluar un sistema de generación de hasta 120W con una eficiencia del 5,8%, lo que representa un aumento de hasta el 3% en la eficiencia global.

The thermoelectric effect allows the direct conversion of thermal energy into electrical energy without the need for moving parts and its applications are endless, with only the availability of a temperature gradient. Combustion vehicles generate energy losses of up to 62% and it is estimated that efficiency with thermoelectric generators can be increased by up to 8%. In this work we propose a system of waste heat from exhaust gases from the thermoelectric effect. A computational model was developed using the finite element method. Based on the simulations, a set of curves of electrical variables can be made as a function of temperature. There is a good correlation between the model and datasheet data. Based on the modeled system, it was possible to evaluate a generation system with the generation of up to 120W with 5.8% efficiency, representing an increase of up to 3% in overall efficiency.

Referencias

Snyder G.J., Harvesting Heat. 1st ed., vol. 1, S.I.D.J. Priya, Ed., Springer, New York, USA, 2009.

Snyder, G.J., Thermoelectric energy harvesting. Energy Harvesting Technologies. Springer, Boston, MA, USA, [online]. 2009, pp. 325-336. Available at: http://129.105.1.31/publications/pdf/TEEnergyHarvestingBookChapter.pdf

Bass, J.C., Thermoelectric generator for diesel trucks. In: Proc. 10th Int. Conf. on Thermoelectrics, 1991. [online]. 1991. Available at: https://ci.nii.ac.jp/naid/10015722008/

Orr, B., Akbarzadeh, A., Mochizuki, M. and Singh, R., A review of car waste heat recovery systems utilising thermoelectric generators and heat pipes. Applied Thermal Engineering 101, pp. 490-495, 2016. DOI: 10.1016/j.applthermaleng.2015.10.081

Kramer, L.R., Maran, A.L.O., de Souza, S.S. and Ando Junior, O.H., Analytical and numerical study for the determination of a thermoelectric generator’s internal resistance. Energies, 12(16), art. 3053, 2019. DOI: 10.3390/en12163053.

Ando Junior, O.H., Calderon, N.H. and De Souza, S.S., Characterization of a thermoelectric generator (TEG) system for waste heat recovery. Energies, 11(6), art. 1555, 2018. DOI: 10.3390/en11061555.

Izidoro, C.L., Junior, O.A., Carmo, J.P. and Schaeffer, L., Characterization of thermoelectric generator for energy harvesting. Measurement, 106, pp. 283-290, 2017. DOI: 10.1016/j.measurement.2016.01.010.

Ando Jr, O.H., Izidoro, C.L., Gomes, J.M., Correia, J.H., Carmo, J.P. and Schaeffer, L., Acquisition and monitoring system for TEG characterization. International Journal of Distributed Sensor Networks 11(3), art. 531516, 2015. DOI: 10.1155/2015/531516.

Carmo, J.P., Antunes, J., Silva, M.F., Ribeiro, J.F., Goncalves, L.M. and Correia, J.H., Characterization of thermoelectric generators by measuring the load-dependence behavior. Measurement, 44(10), pp. 2194-2199, 2011. DOI: 10.1016/j.measurement.2011.07.015.

Junior, O.A., Maran, A.L.O. and Henao, N.C., A review of the development and applications of thermoelectric microgenerators for energy harvesting. Renewable and Sustainable Energy Reviews, 91, pp. 376-393, 2018. DOI: 10.1016/j.rser.2018.03.052.

Maran, A.L.O., Henao, N.C., Silva, E.A., Schaeffer, L. and Junior, O.H.A., Use of the seebeck effect for energy harvesting. IEEE Latin America Transactions, 14(9), pp. 4106-4114, 2016. DOI: 10.1109/TLA.2016.7785940.

Watanabe, S., Wrist watch having thermoelectric generator. US Patente US6304520B1, 22 10 1998.

Bastos, S.A.M., Pulseira para geração de energia. Diss. Dissertação MSc. Universidade Do Minho. Braga, Brasil, [online]. 2010. Available at: http://intranet.dei.uminho.pt/gdmi/galeria/temas/pdf/48293.pdf

Kiflemariam, R., Almas, M. and Lin, C., Modeling Integrated thermoelectric generator-photovoltaic thermal (TEG-PVT) system. In: Proc. 2014 COMSOL Conf. [online]. 2014. Available at: https://www.comsol.dk/paper/download/194271/kiflemariam_paper.pdf

Xi, H., Luo, L. and Fraisse, G., Development and applications of solar-based thermoelectric technologies. Renewable and Sustainable Energy Reviews 11(5), pp. 923-936, 2007. DOI: 10.1016/j.rser.2005.06.008.

Bitschi, A., Modelling of thermoelectric devices for electric power generation. Diss. ETH Zurich, 2009. DOI: 10.3929/ethz-a-005936533.

Kajikawa, T., Overview of thermoelectric power generation technologies in Japan. Thermoelectrics Application Meeting of the US Office of Energy Efficiency and Renewable Energy. 26, 2011.

Kajikawa, T., Status and future prospects on the development of thermoelectric power generation systems utilizing combustion heat from municipal solid waste. XVI ICT'97. Proceedings ICT'97. 16th International Conference on Thermoelectrics (Cat. No. 97TH8291). IEEE, 1997. DOI: 10.1109/ICT.1997.666971.

Riffat, S.B. and Ma, X., Thermoelectrics: a review of present and potential applications. Applied thermal engineering 23(8), pp. 913-935, 2003. DOI: 10.1016/S1359-4311(03)00012-7.

Rowe, D.M., ed., CRC handbook of thermoelectrics. CRC press, 2018.

Neild, A.B., Portable thermoelectric generators. No. 630019. SAE Technical Paper, [online]. 1963. Available at: https://www.sae.org/publications/technical-papers/content/630019/

Birkholt, U., Conversion of waste exhaust heat in automobiles using FeSi_2 Thermoelements. In: Proc. 7th Int. conf. Thermoelectric Energy Conv., 1988. [online]. 1988. Available at: https://ci.nii.ac.jp/naid/10015722006/

Sousa, R.M.A., Gerador termoelétrico para escape do automóvel com controle de temperatura. Diss. Dissertação (Mestrado)-Universidade Do Minho, Braga, Brasil, 2011, 218 P. [24]

Medina-Casas, M.P. et al., Selección de campos para la implementación de solar EOR como proceso térmico de recobro mejorado en Colombia. Fuentes, el reventón energético 17(2), pp. 27-37, 2019. DOI: 10.18273/revfue.v17n2-2019004.

Wassermann, K. et al., Módulo termoelétrico, uso de um módulo termolétrico, e, sistema de escapamento. Brazil Patente BR 11 2013 007718 2 A2, 10/10/2017.

Pelsemaeker, G. et al., Dispositivo termoelétrico, destinado especialmente a geração de uma corrente elétrica em um veículo automotivo. Brazil Patente BR1120150328555A2, 25/07/2017.

Nayan, E. and Sui, L., Thermoelectric generator insert for engine waste heat recovery. U.S. Patent No. 9,574,517. 21 Feb. 2017.

Favarel, C., Bédécarrats, J.P., Kousksou, T. and Champier, D., Experimental analysis with numerical comparison for different thermoelectric generators configurations. Energy Conversion and Management, 107, pp. 114-122, 2016. DOI: 10.1016/j.enconman.2015.06.040

Dhoopagunta, S., Analytical modeling and numerical simulation of a thermoelectric generator including contact resistances. MSc. Theses, Western Michigan University, USA, 2016, 88 P.

Jaegle, M., Multiphysics simulation of thermoelectric systems-modeling of Peltier-cooling and thermoelectric generation. COMSOL Conference 2008 Hannover. [online]. 6, 2008. Available at: https://www.comsol.fi/paper/download/37149/Jaegle.pdf

Bass, J.C., Thermoelectric generator for motor vehicle. U.S. Patent No. 5,625,245. 29 Apr. 1997.

Seon, A.H. et al., Thermoelectric generator for vehicle. US Patente US8839614B2, 25 Nov. 2012.

Thermomamic, Specification of Thermoelectric Module TEHP1-1263-1.5, [online]. Available at: www.thermonamic.com.

Rowe, D.M., Thermoelectric power generation. In: Proceedings of the Institution of Electrical Engineers. 125(11R), IET Digital Library, [online]. 1978. Available at: https://10.1049/piee.1978.0247

Grujicic, M., Zhao, C.L. and Dusel, E.C., The effect of thermal contact resistance on heat management in the electronic packaging. Applied Surface Science 246(1-3), pp. 290-302, 2005. DOI: 10.1016/j.apsusc.2004.11.030

Bjørk, R., Christensen, D.V., Eriksen, D. and Pryds, N., Analysis of the internal heat losses in a thermoelectric generator. International Journal of Thermal Sciences 85, pp. 12-20, 2014. DOI: 10.1016/j.ijthermalsci.2014.06.003

Eder, A., Liebi, J. and Ja¨nsch, D., in Thermoelektrik Eine Chance fu¨r die Automobilindustrie (Renningen, Germany:expert verlag, 2009), pp. 45-56, 2009.

Chen, W.H., Wu, P.H., Wang, X.D. and Lin, Y.L., Power output and efficiency of a thermoelectric generator under temperature control. Energy Conversion and Management 127, pp. 404-415, 2016. DOI: 10.1016/j.enconman.2016.09.039

Tang, Z.B., Deng, Y.D., Su, C.Q., Shuai, W.W. and Xie, C.J., A research on thermoelectric generator's electrical performance under temperature mismatch conditions for automotive waste heat recovery system. Case Studies in Thermal Engineering, 5, pp. 143-150, 2015. DOI: 10.1016/j.csite.2015.03.006

Miller, B.T., Hug, L. and Helbling, T., Potential of thermoelectrics for waste heat recovery. Federal Department of the Environment, Traffic, Energy and Communications DETEC Swiss Federal Office of Energy, 2016, 41 P.

Lima, A., Geração térmica, poder calorífico, [Online]. 2018. [date of reference March 25th of 2021]. Available at: http://www.antoniolima.web.br.com/arquivos/podercalorifico.htm.

Martínez, M.I.S., Navarro, S.F.M. y Jiménez, H.J.M., Estimación del equilibrio líquido-vapor del sistema binario acetona-cloroformo mediante el modelo termodinámico de Van Laar y Peng Robinson. Revista ION, 33(2), 49-60, 2020. DOI: 10.18273/revion.v33n2-2020004

Guerrero-Martin, C.A., Guerrero-Martin, L.E .and Szklo, A., Mitigation options to control greenhouse gas emissions in a colombian oil field. In: SPE International Conference and Exhibition on Health, Safety, Environment, and Sustainability. Society of Petroleum Engineers, 2020. DOI: 10.2118/199499-MS

Cómo citar

IEEE

[1]
A. L. . Oliveira Marana, C. A. Guerrero Martin, E. Montes-Páez, y O. H. . Ando Junior, «Modelamiento y simulación de un sistema termoeléctrico de recuperación de calor residual - TWRHS», DYNA, vol. 88, n.º 217, pp. 265–272, may 2021.

ACM

[1]
Oliveira Marana, A.L. , Guerrero Martin, C.A., Montes-Páez, E. y Ando Junior, O.H. 2021. Modelamiento y simulación de un sistema termoeléctrico de recuperación de calor residual - TWRHS. DYNA. 88, 217 (may 2021), 265–272. DOI:https://doi.org/10.15446/dyna.v88n217.94431.

ACS

(1)
Oliveira Marana, A. L. .; Guerrero Martin, C. A.; Montes-Páez, E.; Ando Junior, O. H. . Modelamiento y simulación de un sistema termoeléctrico de recuperación de calor residual - TWRHS. DYNA 2021, 88, 265-272.

APA

Oliveira Marana, A. L. ., Guerrero Martin, C. A., Montes-Páez, E. & Ando Junior, O. H. . (2021). Modelamiento y simulación de un sistema termoeléctrico de recuperación de calor residual - TWRHS. DYNA, 88(217), 265–272. https://doi.org/10.15446/dyna.v88n217.94431

ABNT

OLIVEIRA MARANA, A. L. .; GUERRERO MARTIN, C. A.; MONTES-PÁEZ, E.; ANDO JUNIOR, O. H. . Modelamiento y simulación de un sistema termoeléctrico de recuperación de calor residual - TWRHS. DYNA, [S. l.], v. 88, n. 217, p. 265–272, 2021. DOI: 10.15446/dyna.v88n217.94431. Disponível em: https://revistas.unal.edu.co/index.php/dyna/article/view/94431. Acesso em: 13 mar. 2026.

Chicago

Oliveira Marana, Anderson Luis, Camilo Andrés Guerrero Martin, Erik Montes-Páez, y Oswaldo Hideo Ando Junior. 2021. «Modelamiento y simulación de un sistema termoeléctrico de recuperación de calor residual - TWRHS». DYNA 88 (217):265-72. https://doi.org/10.15446/dyna.v88n217.94431.

Harvard

Oliveira Marana, A. L. ., Guerrero Martin, C. A., Montes-Páez, E. y Ando Junior, O. H. . (2021) «Modelamiento y simulación de un sistema termoeléctrico de recuperación de calor residual - TWRHS», DYNA, 88(217), pp. 265–272. doi: 10.15446/dyna.v88n217.94431.

MLA

Oliveira Marana, A. L. ., C. A. Guerrero Martin, E. Montes-Páez, y O. H. . Ando Junior. «Modelamiento y simulación de un sistema termoeléctrico de recuperación de calor residual - TWRHS». DYNA, vol. 88, n.º 217, mayo de 2021, pp. 265-72, doi:10.15446/dyna.v88n217.94431.

Turabian

Oliveira Marana, Anderson Luis, Camilo Andrés Guerrero Martin, Erik Montes-Páez, y Oswaldo Hideo Ando Junior. «Modelamiento y simulación de un sistema termoeléctrico de recuperación de calor residual - TWRHS». DYNA 88, no. 217 (mayo 10, 2021): 265–272. Accedido marzo 13, 2026. https://revistas.unal.edu.co/index.php/dyna/article/view/94431.

Vancouver

1.
Oliveira Marana AL, Guerrero Martin CA, Montes-Páez E, Ando Junior OH. Modelamiento y simulación de un sistema termoeléctrico de recuperación de calor residual - TWRHS. DYNA [Internet]. 10 de mayo de 2021 [citado 13 de marzo de 2026];88(217):265-72. Disponible en: https://revistas.unal.edu.co/index.php/dyna/article/view/94431

Descargar cita

CrossRef Cited-by

CrossRef citations6

1. Oswaldo Hideo Ando Junior, Eder Andrade da Silva, Emerson Rodrigues de Lira, Sergio Vladimir Barreiro Degiorgi, João Paulo Pereira do Carmo. (2024). Comparative Analysis and Integrated Methodology for the Electrical Design and Performance Evaluation of Thermoelectric Generators (TEGs) in Energy Harvesting Applications. Energies, 17(20), p.5176. https://doi.org/10.3390/en17205176.

2. Camilo Andrés Guerrero-Martin, Daniel Montes-Pinzon, Mariana Meneses Motta da Silva, Erik Montes-Paez, Laura Estefanía Guerrero-Martin, Raúl Salinas-Silva, Stefanny Camacho-Galindo, Elizabete Fernandes Lucas, Alexandre Szklo. (2023). Asphaltene Precipitation/Deposition Estimation and Inhibition through Nanotechnology: A Comprehensive Review. Energies, 16(13), p.4859. https://doi.org/10.3390/en16134859.

3. Yaser Ahmadi, Amirhossein Akbari, Mohsen Mansouri, Ali Hosin Alibak, Behzad Vaferi. (2024). Innovative xanthan gum-based nanocomposites for asphaltene precipitation prevention in shale and carbonate rocks. International Journal of Biological Macromolecules, 280, p.136331. https://doi.org/10.1016/j.ijbiomac.2024.136331.

4. Emerson Rodrigues de Lira, Eder Andrade da Silva, Sergio Vladimir Barreiro Degiorgi, João Paulo Pereira do Carmo, Oswaldo Hideo Ando Junior. (2025). Design and Performance Analysis of MPPT Algorithms Applied to Multistring Thermoelectric Generator Arrays Under Multiple Thermal Gradients. Energies, 18(24), p.6613. https://doi.org/10.3390/en18246613.

5. Juliana Martínez-Hernández, Nicolas Parra-Reyes, Laura E. Guerrero-Martin, Leidy Stefanny Camacho-Galindo, Raúl Salinas-Silva, William Alberto-Guerrero, Camilo Andrés Guerrero-Martin. (2022). A SWOT Analysis for Wind Energy Potential Assessment in Colombia. Revista Fuentes el Reventón Energético, 20(1) https://doi.org/10.18273/revfue.v20n1-2022005.

6. Mohammed Y. Jabbar, Saba Y. Ahmed, Salwan Obaid Waheed Khafaji. (2024). Enhancement of system conversion energy from I.C. engine exhaust using heat exchanger and thermoelectric generators. Journal of Thermal Analysis and Calorimetry, 149(10), p.4873. https://doi.org/10.1007/s10973-024-13037-3.

Dimensions

PlumX

Visitas a la página del resumen del artículo

774

Descargas

Los datos de descargas todavía no están disponibles.