Optimization of the efficiency of permeable thermoelectric elements for air conditioner applicatons
DOI:
https://doi.org/10.15330/pcss.22.2.269-277Keywords:
thermoelectricity, thermoelements, bismuth telluride, coefficient of performance, air conditionerAbstract
The optimization of permeable thermoelement for thermoelectric air conditioner unit based is presented. In the thermoelectric air conditioner unit the air flow is cooled due to a combined action of thermoelectric effects and the Joule-Thomson effect. Methods for calculation of temperature distribution, determination of power conversion energy characteristics and thermoelement design in maximum COP mode are discussed. Results of computer studies for the case of thermoelement legs based on Bi2Te3 material have shown the possibility of COP increase by a factor of 1.6-1.7 as compared to conventional thermoelectric systems.
References
A.F. Ioffe, Semiconductors in modern physics (Мoscow, 1954).
L.I. Anatychuk, L.N. Vikhor, Computer design of thermoelectric functionally graded materials, Proceedings of the Fourth International Symposium on FGM (Tsukuba, Japan, 1996).
L.I. Anatychuk, L.N. Vikhor, R.G. Cherkez, J. of Thermoelectricity 43 (1997).
D. Astrain, J. G. Vián, M. Domínguez, Applied Thermal Engineering 23(17), 2183 (2003).
L.E. Bell, Cooling, Science Magazine 321, 1457 (2018).
L.E. Bell, Use of Thermal Isolation to Improve Thermoelectric System Operating Efficiency, Proceedings of the 21st International Conference on Thermoelectrics (Long Beach, CA, 2002).
L.E. Bell, Increased Thermoelectric System Thermodynamic Efficiency by Use of Convective Heat Transport, Proceedings of the 21st International Conference on Thermoelectrics (Long Beach, CA, 2002).
G.K. Kotyrlo, Yu.N. Lobunets, Calculation and design of thermoelectric generators and heat pumps (Naukova Dumka, Kyiv, 1980).
USSR Certificate of Authorship 144883, Method for improving efficiency of thermoelectric generator (cooler), I.V. Zorin, 24.06.1961.
USSR Certificate of Authorship 162578, Method for improving efficiency of thermoelectric generator, I.V. Zorin, 02.06.1962.
Pat. UA 21944, Thermoelement, L.I. Anatychuk and R.G.Cherkez, 20.09.2006.
Pat UA 85268, Thermoelectric air conditioner, R.G. Cherkez, 12.01.2009.
Web-source: http://biosystems.okstate.edu/Darcy/DarcyWeisbach/Darcy-WeisbachHistory.htm.
L.I. Anatychuk, Thermoelectricity, V.1. Physics of Thermoelectricity (Kyiv, Chernivtsi: Institute of Thermoelectricity, 1998).
M.P. Malkov, Reference book on physical foundations of cryogenics (Energiya, Moscow, 1985).
А.М. Arkharov, I.V. Marfenina, E.I. Mikulin, Theory and calculation of cryogenic systems (Mashinostroyeniye, Moscow, 1978).
L.S. Pontryagin, V.G. Boltyansky, R.V. Gamkrelidze, Е.F. Mischenko, Mathematical theory of optimal processes (Мoscow, 1976).
L.I. Anatychuk, V.A. Semenyuk, Optimal control over properties of thermoelectric materials and devices (Chernivtsi, Prut, 1992).
Web-source: https://tetech.com/wp-content/uploads/2014/08/performance-chart-instructions.pdf.
S.Fillin, Termoelectryczne urzadzenia chlodnicze. IPPU MASTA (Gdansc 2002).
L.P. Bulat, Development of the research project on environmental cooling systems basent on the Peltier effect. Programs and abstracts of the 17 ICT (Nagoya, Japan) P. 87.
Y. Nakahara, A. Tsustsumi, K. Yoshida, A novel thermally-driven thermoelectric heat pump: Proc. of the XIY ICT – St. (Petersburg, Russia, 1995).
L.I. Anatychuk, V.V. Razinkov, Vays of efficiency and reability of thermoelectric modules increased realized in Altec’s modules: Proc. of the XYII ICT.