Adsorption Cooling Technology for utilization of waste heat and solar energy

Pratap Ramesh Sonawane; Vijay S Kulkarni

Pratap Ramesh Sonawane Department of Mechanical Engineering, MCOERC Nashik, India.
Vijay S Kulkarni Department of Mechanical Engineering, MCOERC Nashik, India.

Abstract

Warmth driven cooling advancements like fume ingestion and adsorption frameworks are earth amicable. Utilization of warm pressure in these frameworks spares valuable and quick draining petroleum product assets. Sunlight based vitality and poor quality waste warmth can be adequately utilized in running these cooling frameworks. The current work centers around the improvement of a sun based controlled fume adsorption based cooling framework, which can possibly be a sans carbon option in contrast to fume pressure cooling cycles, particularly for meeting residential and office space prerequisites. Poor warmth and mass exchange properties of the adsorbents lead to greater sizes and more expense. Utilization of dainty beds alongside indispensably finned tubes has been embraced in this work to enlarge the warmth move through the bed. A temperature dissemination profile of the silica gel bed has been created through limited distinction strategy, to have an in - profundity investigation of the warmth move process during adsorption. A test unit of adsorption chiller has been produced for round the year parametric investigation with a warmth pipe based emptied tube sun oriented water radiator introduced on the rooftop.

How to cite this article:
Sonawane PR, Kulkarni VS. Adsorption Cooling Technology for Utilization of Waste Heat and Solar Energy. J Adv Res Instru Control Engg 2020; 7(1): 15-25.

References

zhar Bin Ismail, A. Lee, K. Thu, K. Choo Ng, W.Choon,”Presurised adsorption cooling cycle driven by solar/wate heat” Applied thermal engineering 67, pp 106 - 113, 2014.
[2] L. Gong, R. Wang, “Design and performance prediction of new generation adsorption chiller using composite adsorbent,” Energy conversion and management 52, pp 2345-2350, 2011.
[3] Kai Wnag, Edward Vineyard,”Adsorption refrigeration,” ASHRAE journal,pp 14-24, september 2011.
[4] H.Tiwari, Dr. G. Parishwad, “adsorption refrigeration system for cabin cooling of truck,” Interantional journal of emerging technology and advance engineering, vo 2 october 2012
[5] Wang,Dxia,j and Wu,”Design and performance prediction of anovel zeolite water adsorption air conditioner,” Energy conversion and mangement 47,590-610
[6] Saha B., Komaya, S., Kashiwagi, T., kisawa, A.A., Ng, K., and Chau, H., “Waste heat driven dual mode, multistage, multiplied regeneration absorption system,” International journal of refrigeration 749-757, 2003.
[7] Wu JIyangi,W.Ruzhu,X. Yuxiong, “Experimental research oninfluence of operating parameters on sytem performances for contineous heat regenaerative adsorption heat pump,” IV minsk international seminar, September 2000.
[8] Amir Sharafian, M. Bahhrami, “Assessment of adsorber bed design in waste heat driven adsorption cooling system for vehicle air conditioning and refrigeration,” Renewable and sustainable energy review, pp 440-451, 2014
[9] Y.Z. Lu, R.Z. Wang,et.al, “Practical experiments on an adsorption air conditioner powered by exhausted heat from a diesel locomotive,” Applied engineering 24.pp 1051-1059,2004.
[10] G. Storch, G. Reichenauer, S. F. Hauera, Hydro thermal stability of pelletized zeolite13X for energy storage applications, Adsorption 14 (2008) 275–281.
[11] Wang, L.W., (2009).A review on adsorption working pairs for refrigeration,Renewable and Sustainable Energy. Vol.13 (3) pp.518-534
[12] M. Pons, J. J. Guilleminot (1986) Design of an experimental solar-powered, solid-adsorption ice maker. J. Solar Energ. Trans. ASME. 108(4); 332-337.
[13] M. Li, R. Z. Wang, Y. X. Xu, J. Y. Wu, A. O. Dieng (2002)Experimental study on dynamic performance analysis of a flat-plate solar solid-adsorption refrigeration for ice maker. Renewable Energy. 27; 211-221.
[14] L. W. Wang, J. Y. Wu, R. Z. Wang, Y. X. Xu, S. G. Wang(2003) Experimental study of a solidified activated carbon-methanol adsorption ice maker. Appl. Thermal Engng. 23; 1453-1462
[15] S. G. Wang, R. Z. Wang (2005) Recent developments of refrigeration technology in fishing vessels. Renewable Energy. 30, 589–600
[16] D. I. Tchernev (1998) Solar energy application of natural zeolites, in natural zeolite: occurrence, properties and use. Oxford: Pergamon Press, 479-483
[17] R. E. Critoph (2002) Carbon-ammonia systems-devious experience, current projects and challenges for the future. Proc. of the Int. Sorption Heat Pump Conf. (ISHPC 2002). China.pp. 146-152.
[18] Ph. Grenier, J. J. Guilleminot, F. Meunier, M. Pons (1988) Solar powered solid adsorption cold store. J. Solar Energ. Trans. ASME. 110(3); 192-197.
[19] B. B. Saha, A. Akisawa, T. Kashiwagi (2001) Solar/waste heat driven two-stage adsorption chiller: the prototype. Renewable Energy. 23; 93–101.
[20] Z. Z. Xia, R. Z. Wang, J. Y. Wu, D. C. Wang (2003) New type of effective adsorption chiller adopt separate heat pipe (in Chinese). Chinese Patent 200410025398.0.
[21] Z. Tamainot-Telto, R. E. Critoph (2003) Advanced solid sorption air conditioning modules using monolithic carbon–ammonia pair. Appl. Thermal Engng. 23; 659-674.