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HYBRID TEG SYSTEM FOR INDUSTRIAL AND AIR CONDITIONING APPLICATIONS

Carlos Armenta-Déu

Abstract


A new system to generate electric energy using thermoelectric generators (TEG’s) based on Peltier cells has been conceived, designed and built. The system consists of a Peltier cell assembly installed in a replica of an air conditioning circuit to benefit from hot and cold air flow to generate the appropriate temperature gradient. The new system has been characterized using a group of Peltier cells mounted on a dual thermostatic chamber where cold air from air conditioning equip and hot air coming from an industrial heater are flowing through independent half-chambers. The two half-chambers are separated by an insulation wall where Peltier cells have been inserted. Temperature difference between hot and cold air flow is used by the Peltier cells to generate a voltage and current using the Seebeck effect. Peltier cells are connected in series and parallel to increase voltage and current to obtain appropriate values compatibles with external applications. Experimental tests have been developed to characterize the new design obtaining electric current and voltage, thus power, from the Peltier cell assembly. The amount of power is proportional to the temperature difference between hot and cold side of the chamber through an exponential evolution with maximum performance for specific temperature difference. Power density of the TEG has been found of 2.5x104 W/m2 for a temperature difference of 160º C. TEG assembly generates a current of 8 A and 5 VDC voltage at the peak power point. The system has been tested at temperature differences compatible with those created in air conditioning ducts to recreate a real situation. Power generation for set up conditions of 50º C at the hot side and 5º C at the cold one, like in conventional air conditioning ducts, has been found of very low value because of the low temperature difference. However, when using industrial conditions with hot temperature in the range 100º C to 130º C and cold temperature between -30º C and 0º C, the power generation has increased significantly, showing the critical influence of the temperature difference. The simulation analysis indicates that the new design is capable of generating enough power to cover energy demand in residential buildings.


Keywords


Thermoelectric generation. Peltier cells. Hybrid system. Air conditioning. Thermal gradient.

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References


Huang, K., Yan, Y., Li, B., Li, Y., Li, K., & Li, J. (2018). A novel design of thermoelectric generator for automotive waste heat recovery. Automotive Innovation, 1(1), 54-61.

Niu, Z., Diao, H., Yu, S., Jiao, K., Du, Q., & Shu, G. (2014). Investigation and design optimization of exhaust-based thermoelectric generator system for internal combustion engine. Energy Conversion and Management, 85, 85-101.

Aljaghtham, M., & Celik, E. (2020). Design optimization of oil pan thermoelectric generator to recover waste heat from internal combustion engines. Energy, 200, 117547.

Forero, J. D. (2019). Analysis of the use of renewable energies in Colombia and the potential application of thermoelectric devices for energy recovery. 670216917.

Özdemir, A. E., Köysal, Y., Özbaş, E., & Atalay, T. (2015). The experimental design of solar heating thermoelectric generator with wind cooling chimney. Energy Conversion and Management, 98, 127-133.

Lekbir, A., Meddad, M., Benhadouga, S., & Khenfer, R. (2019). Higher-efficiency for combined photovoltaic-thermoelectric solar power generation. International Journal of Green Energy, 16(5), 371-377.

Lin, L., Zhang, Y. F., Liu, H. B., Meng, J. H., Chen, W. H., & Wang, X. D. (2019). A new configuration design of thermoelectric cooler driven by thermoelectric generator. Applied Thermal Engineering, 160, 114087.

Pourkiaei, S. M., Ahmadi, M. H., Sadeghzadeh, M., Moosavi, S., Pourfayaz, F., Chen, L., ... & Kumar, R. (2019). Thermoelectric cooler and thermoelectric generator devices: A review of present and potential applications, modeling and materials. Energy, 186, 115849.

Hadjiat, M. M., Mraoui, A., Ouali, S., Kuzgunkaya, E. H., Salhi, K., Ouali, A. A., ... & Imessad, K. (2021). Assessment of geothermal energy use with thermoelectric generator for hydrogen production. International Journal of Hydrogen Energy, 46(75), 37545-37555.

Ahiska, R., & Mamur, H. (2013). Design and implementation of a new portable thermoelectric generator for low geothermal temperatures. IET Renewable Power Generation, 7(6), 700-706.

Ando Junior, O. H., Calderon, N. H., & De Souza, S. S. (2018). Characterization of a thermoelectric generator (TEG) system for waste heat recovery. Energies, 11(6), 1555.

Aranguren, P., Astrain, D., Rodríguez, A., & Martínez, A. (2015). Experimental investigation of the applicability of a thermoelectric generator to recover waste heat from a combustion chamber. Applied Energy, 152, 121-130.

Nader, W. B. (2020). Thermoelectric generator optimization for hybrid electric vehicles. Applied Thermal Engineering, 167, 114761.

Abbasi, V., & Tabar, V. S. (2020). Measurement and evaluation of produced energy by thermoelectric generator in vehicle. Measurement, 149, 107035.

Liu, Q., He, Z., Liu, Y., & He, Y. (2021). Thermodynamic and parametric analyses of a thermoelectric generator in a liquid air energy storage system. Energy Conversion and Management, 237, 114117.

Jaworski, M., Bednarczyk, M., & Czachor, M. (2016). Experimental investigation of thermoelectric generator (TEG) with PCM module. Applied Thermal Engineering, 96, 527-533.

Shi, Y., Wang, Y., Mei, D., Feng, B., & Chen, Z. (2017). Design and fabrication of wearable thermoelectric generator device for heat harvesting. IEEE Robotics and Automation Letters, 3(1), 373-378.

Liu, H., Wang, Y., Mei, D., Shi, Y., & Chen, Z. (2017). Design of a wearable thermoelectric generator for harvesting human body energy. In Wearable sensors and robots (pp. 55-66). Springer, Singapore.

Lay-Ekuakille, A., Vendramin, G., Trotta, A., & Mazzotta, G. (2009, May). Thermoelectric generator design based on power from body heat for biomedical autonomous devices. In 2009 IEEE international workshop on medical measurements and applications (pp. 1-4). IEEE.

Kumar, P. M., Jagadeesh Babu, V., Subramanian, A., Bandla, A., Thakor, N., Ramakrishna, S., & Wei, H. (2019). The design of a thermoelectric generator and its medical applications. Designs, 3(2), 22.

Korotkov, A. S., Loboda, V. V., Dzyubanenko, S. V., & Bakulin, E. M. (2019). Design of a thin-film thermoelectric generator for low-power applications. Russian Microelectronics, 48(5), 326-334.

Hájovský, R.& Richtár, L. (2016). Analysis of the appropriateness of the use of peltier cells as energy sources. Sensors, 16(6), 760.

Cortel, A. (2007). Thermoelectric generators. Physics education, 42(1), 88.

Bharath, Y. K., Shruthi, K. H., & Dhavala, R. K. (2021, February). Peltier Thermo-Electric Generator based Standalone Micro-Power Supply System. In 2021 7th International Conference on Electrical Energy Systems (ICEES) (pp. 263-267). IEEE.

Almeida, C. H. A., Souto, C. D. R., Veronese, J. P., & de Oliveira Custódio, J. C. (2015, May). Characterization of thermoelectric cell for electric power generation. In 2015 IEEE International Instrumentation and Measurement Technology Conference (I2MTC) Proceedings (pp. 1358-1362). IEEE.

Freire, L. O., Navarrete, L. M., Corrales, B. P., & Castillo, J. N. (2021). Efficiency in thermoelectric generators based on Peltier cells. Energy Reports, 7, 355-361.

Ding, L. C., Akbarzadeh, A., & Date, A. (2016). Performance and reliability of commercially available thermoelectric cells for power generation. Applied Thermal Engineering, 102, 548-556.

Riffat, S. B., & Ma, X. (2003). Thermoelectrics: a review of present and potential applications. Applied thermal engineering, 23(8), 913-935.

Sharma, S., Dwivedi, V. K., & Pandit, S. N. (2014). A review of thermoelectric devices for cooling applications. International journal of green energy, 11(9), 899-909.

Mardini-Bovea, J., Torres-Díaz, G., Sabau, M., De-la-Hoz-Franco, E., Niño-Moreno, J., & Pacheco-Torres, P. J. (2019). A review to refrigeration with thermoelectric energy based on the Peltier effect. Dyna, 86(208), 9-18.

Jangonda, C., Patil, K., Kinikar, A., Bhokare, R., & Gavali, M. D. (2016). Review of various application of thermoelectric module. International journal of innovative research in science, engineering and technology, 5(3), 3393-3400.

Riffat, S. B., & Ma, X. (2003). Thermoelectrics: a review of present and potential applications. Applied thermal engineering, 23(8), 913-935.

Trancossi, M., Cannistraro, G., & Pascoa, J. (2020). Thermoelectric and solar heat pump use toward self sufficient buildings: The case of a container house. Thermal Science and Engineering Progress, 18, 100509.

Champier, D., Bedecarrats, J. P., Rivaletto, M., & Strub, F. (2010). Thermoelectric power generation from biomass cook stoves. Energy, 35(2), 935-942.

Xi, H., Luo, L., & Fraisse, G. (2007). Development and applications of solar-based thermoelectric technologies. Renewable and Sustainable Energy Reviews, 11(5), 923-936.

Attivissimo, F., Di Nisio, A., Lanzolla, A. M. L., & Paul, M. (2015). Feasibility of a photovoltaic–thermoelectric generator: performance analysis and simulation results. IEEE Transactions on Instrumentation and Measurement, 64(5), 1158-1169.

Zoui, M. A., Bentouba, S., Stocholm, J. G., & Bourouis, M. (2020). A review on thermoelectric generators: Progress and applications. Energies, 13(14), 3606.

Lindefelt, U. (1994). Heat generation in semiconductor devices. Journal of Applied Physics, 75(2), 942-957.

Ilahi, T., & Aslam, M. J. (2016). Energy Generation Using Reverse Peltier Effect By Fresnel Lens Concentration.

Harun, M. H., Annuar, K. A. M., Halim, M. F. M. A., Hasan, M. H. C., Aras, M. S. M., & Yaakub, M. F. (2016). Peltier and seebeck efficacy of hot and cold air system for portable O-REF (oven & refrigerator) application. Proceedings of Mechanical Engineering Research Day, 2016, 81-82.

Gunnarshaug, A. F., Vie, P. J., & Kjelstrup, S. (2021). Reversible heat effects in cells relevant for lithium-ion batteries. Journal of The Electrochemical Society, 168(5), 050522.

Vargas, J. C. C., Rodríguez, M. J. L. D., García, P. A. P., & Figueroa, M. M. A PELTIER CELLS RESEARCH-(FIRST PART).

Miller, M., Baltes, N. T., Rabenecker, P. M., Hagen, M. W., & Tübke, J. (2019). Comprehensive determination of heat generation and thermal modelling of a hybrid capacitor. Journal of Power Sources, 435, 226752.

Sonal Renge, Yashika Barhaiya, Shikhar Pant, Shubham Sharma (2017) International Journal of Engineering Research & Technology (IJERT) ISSN: 2278-0181 IJERTV6IS010308 Vol. 6 Issue 01, January-2017

Gomar. J., 2018 Profesional Review, Disponible en: https://www.profesionalreview.com/2018/10/16/que-celula-peltier/

C.Armenta-Déu (2022) Hybrid PV-TEG system to improve performance. Project GER-01-22-UCM. Final Report.

TEC1-12710 Thermoelectric Cooler Datasheet. HB Electronic Components. http://www.hebeiltd.com.cn [Accessed online: 21/11/2021]

Kumudu Gamage, Doctoral Thesis (2014) Middle East Technical University, Northern Cyprus Campus




DOI: https://doi.org/10.37591/jorachv.v9i1.1249

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