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The growing demand for electricity produced from renewable sources and the development of new technologies for the combustion of biomass, arose a growing interest on the possible coupling of thermoelectric modules with stove-fireplaces. The current thermoelectric generators have a solid structure, do not produce noise, do not require maintenance and can be used for the recovery of waste heat or excess, at the same time they hold a very low conversion efficiency and they need an adequate cooling system. Nevertheless, they still hold a cost, which is still too high to make them attractive. Nonetheless, if the modules are applied to a heat source which otherwise would be wasted, the attractiveness of the solution certainly rises. In this study, a thermodynamic analysis of a stove-fireplace is presented, considering both combustion process and the flame – walls heat transfer of the. A design solution for a concentrator device to funnel the wasted heat from the fireplace to the thermo-electric modules is also presented.
Czasopismo
Rocznik
Tom
Strony
218--235
Opis fizyczny
Bibliogr. 28 poz., rys., tab., wykr.
Twórcy
autor
- OffgridBox®, Somerville, USA
autor
- OffgridBox®, Somerville, USA
autor
- University of Florence, Firenze, Italy
autor
- University of Florence, Firenze, Italy
autor
- University of Florence, Firenze, Italy
Bibliografia
- 1. Lund, H, Ostergaard, PA, Connolly, P and Van Mathiesen, B 2017. Smart Energy and Smart Energy Systems. Energy.
- 2. Ackermann, T, Andersson, G and Soder, L 2001. Distributed generation: a definition. Electric Power Systems Research, 57, 195-204.
- 3. SolarPower Europe Global Market Outlook for Solar Power, 2018-20; available at: http://www.solarpowereurope.org/global-market-outlook-2018-2022/ (accessed Febr. 24th, 2019).
- 4. Terna, Bilancio Nazionale Energia Elettrica, 2017; available at: http://www.terna.it/itit/sistemaelettrico/statisticheeprevisioni/bilancienergiaelettrica/bilancinazion ali.aspx (accessed Febr. 24th, 2019).
- 5. https://www.offgridbox.com/company (visited February 24th, 2019).
- 6. He, W, Zhang, G, Zhang, X, Ji, J, Li, G and Zhao, X 2015. Recent development and application of thermoelectric generator and cooler. Applied Energy, 143, 1-25.
- 7. Champier, D, Bedecarrats, JP, Rivaletto, M and Strub, F 2010. Thermoelectric power generation from biomass cook stoves. Energy 35, 935–942.
- 8. Champier, D, Bedecarrats, JP, Kousksou, T, Rivaletto, M, Strub, F and Pignolet, F 2011. Study of a TE (thermoelectric) generator incorporated in a multifunction wood stove. Energy 36, 1518-1526.
- 9. Zheng, XF. Yan, YY and Simpson, K 2013. Potential candidate for the sustainable and reliable domestic energy generation - Thermoelectric cogeneration system. Applied Thermal Engineering 53, 305-311.
- 10. Zheng, XF, Liu, CX, Boukhanouf, R, Yan, YY and Li, WZ 2014. Experimental study of a domestic thermoelectric cogeneration system. Applied Thermal Engineering 62, 69-79.
- 11. Barma, MC, Riaz, M, Saidur, R and Long, BD 2015. Estimation of thermoelectric power generation by recovering waste heat from Biomass fired thermal oil heater. Energy Conversion and Management 98, 303–313.
- 12. Montecucco, A and Knox, AR 2014. Accurate simulation of thermoelectric power generating systems. Applied Energy 118, 166–172.
- 13. Montecucco, A, Siviter, J and Knox, AR 2015. Constant heat characterisation and geometrical optimisation of thermoelectric generators. Applied Energy 149, 248–258.
- 14. Bianchini, A, Pellegrini, M and Saccani, C 2014. Thermoelectric cells cogeneration from biomass power plant. Energy Procedia 45, 268–277.
- 15. Nuwayhid, RY, Rowe, DM and Min, G 2003. Low cost stove-top thermoelectric generator for regions with unreliable electricity supply. Renewable Energy 28 (2003) 205–222.
- 16. Nuwayhid, RY, Shihadeh, A and Ghaddar, N 2005. Development and testing of a domestic woodstove thermoelectric generator with natural convection cooling. Energy Conversion and Management 46, 1631–1643.
- 17. Lertsatitthanakorn, C 2007. Electrical performance analysis and economic evaluation of combined biomass cook stove thermoelectric (BITE) generator. Bioresource Technology 98, 1670–1674.
- 18. Rinalde, GF, Juanico, LE, Taglialavore, E, Gortari, S and Molina, MG 2010. Development of thermoelectric generators for electrification of isolated rural homes. International Journal of Hydrogen Energy, 3, 5, 5818-5822.
- 19. Faraji, AY, Goldsmid, HJ, Dixon, C and Akbarzadeh, A 2015. Exploring the prospects of thermoelectric power generation in conjunction with a water heating system. Energy, 90(2):1569–74.
- 20. Du, Q, Diao, H, Niu, Z, Zhang, G, Shu, G and Jiao, K 2015. Effect of cooling design on the characteristics and performance of thermoelectric generator used for internal combustion engine. Energy Convers Manage 101:9–18.
- 21. Liu, Ch, Chen, P and Li, K 2014. A 500W low-temperature thermoelectric generator: design and experimental study. Int J Hydrogen Energy, 39(28):15497–505.
- 22. Sornek, K, Filipowicz, M and Rzepka, K. 2016. The development of a thermoelectric power generator dedicated to stove-fireplaces with heat accumulation systems. Energy Conversion and Management, 125, 185-193.
- 23. Ding, LC, Meyerheinrich, N, Tan, L, Rahaoui, K, Jain, R and Akbarzadeh, A. 2017. Thermoelectric power generation from waste heat of natural gas water heater. Energy Procedia, 110.
- 24. Obernberger, I, Weiss, G and Kossl, M 2018. Development of a new micro CHP pellet stove technology. Biomass and Bioenergy, 116, 198-204.
- 25. Bueters, KA, Cogoli, JG and Habelt, WW 1975. Performance prediction of tangentially fired utility furnaces by computer model. International Symposium on Combustion, Volume 15, Issue 1, Pages 1245-1260.
- 26. https://www.crystran.co.uk/optical-materials/silica-glass-sio2.
- 27. Wedding, B 1975. Measurements of High-Temperature Absorption Coefficients for Glass. Journal of the American Ceramic Society, 58 (3/4), 102-105.
- 28. http://hi-z.com/product/hz-20-thermoelectric-module-80-power/ (accessed November 30th, 2019).
Typ dokumentu
Bibliografia
Identyfikator YADDA
bwmeta1.element.baztech-234281d1-6d46-42ca-b234-d11040106dfd