Performance comparison of three-bed adsorption cooling system with optimal cycle time setting

Heat Transfer Engineering

Volumn 34, Issue 11-12, 2013, Pages 938-947

  Rahman, Abul Fazal Mohammad Mizanur ^a   Miyazaki, Takahiko ^b   Ueda, Yuki ^a   Saha, Bidyut Baran ^b   Akisawa, Atsushi ^a  

^a TOKYO UNIVERSITY OF AGRICULTURE AND TECHNOLOGY   (Japan)

^b KYUSHU UNIVERSITY   (Japan)

Author keywords

[No Author keywords available]

Indexed keywords

ADSORPTION CHILLER; COMPARISON METHODS; HEAT SOURCE TEMPERATURES; OPTIMUM PERFORMANCE; PARTICLE SWARM OPTIMIZATION METHOD (PSO); PERFORMANCE COMPARISON; QUANTITATIVE VALUES; SPECIFIC COOLING POWER;

ADSORBENTS; COOLING SYSTEMS; PARTICLE SWARM OPTIMIZATION (PSO); SILICA GEL;

ADSORPTION;

EID: 84875387201     PISSN: 01457632     EISSN: 15210537     Source Type: Journal    
DOI: 10.1080/01457632.2012.753571     Document Type: Conference Paper

References (21)

1. Meunier, F. 1978. Utilisation des cycle a sorption pour la production de froid par le′nergie solaire. Cahiers de IAFEDES, 5: 57-67.
2. Douss, N., Meunier, F., and, Sun, L. M. 1988. Predictive Model and Experimental Results for a Two Adsorber Solid Adsorption Heat Pump. Industrial & Engineering Chemistry Research, 27: 310-316.
3. Saha, B. B., Boelman, E. C., and, Kashiwagi, T. 1995. Computer Simulation of a Silica Gel-Water Adsorption Refrigeration Cycle, the Influence of Operating Conditions on Cooling Output and COP. ASHRAE Transactions, 39 (2): 348-357.
4. Boelman, E. C., Saha, B. B., and, Kashiwagi, T. 1995. Experimental Investigation of a Silica Gel-Water Adsorption Refrigeration Cycle, the Influence of Operating Conditions on Cooling Output and COP. ASHRAE Transactions, 39 (2): 358-366.
5. Critoph, R. E., and, Zhong, Y. 2005. Review of Trends in Solid Sorption Refrigeration and Heat Pumping Technology. Proceedings of the IMechE, Part E: Journal of Process Mechanical Engineering, 219 (3): 285-300.
6. Szarzynski, S., Feng, Y., and, Pons, M. 1997. Study of Different Internal Vapor Transports for Adsorption Cycles With Heat Regeneration. International Journal of Refrigeration, 20 (6): 390-401.
7. Akahira, A., Alam, K. C. A., Hamamoto, Y., Akisawa, A., and, Kashiwagi, T. 2004. Mass Recovery Adsorption Refrigeration Cycle-Improving Cooling Capacity. International Journal of Refrigeration, 27: 225-234.
8. Akahira, A., Alam, K. C. A., Hamamoto, Y., Akisawa, A., and, Kashiwagi, T. 2005. Experimental Investigation of Mass Recovery Adsorption Refrigeration Cycle. International Journal of Refrigeration, 28: 565-572.
9. Saha, B. B., Boelman, E. C., and, Kashiwagi, T. 1995. Computational Analysis of an Advanced Adsorption-Refrigeration Cycle. Energy, 20 (10): 983-994.
10. Alam, K. C. A., Saha, B. B., Akisawa, A., and, Kashiwagi, T. 2004. Influence of Design and Operating Conditions on the System Performance of a Two-Stage Adsorption Chiller. Chemical Engineering Communications, 191: 981-997.
11. Chua, H. T., Ng, K. C., Malek, A., Kashiwagi, T., Akisawa, A., and, Saha, B. B. 2001. Multi-Bed Regenerative Adsorption Chiller-Improving the Utilization of Waste Heat and Reducing the Chilled Water Outlet Temperature Fluctuation. International Journal of Refrigeration, 24: 124-136.
12. Saha, B. B., Koyama, S., Lee, J. B., Kuwahara, K., Alam, K. C. A., Hamamoto, Y., Akisawa, A., and, Kashiwagi, T. 2003. Performance Evaluation of a Low-Temperature Waste Heat Driven Multi-Bed Adsorption Chiller. International Journal of Multiphase Flow, 29: 1249-1263.
13. Saha, B. B., El-Sharkawy, I. I., Koyama, S., Lee, J. B., and, Kuwahara, K. 2006. Waste Heat Driven Multi-Bed Adsorption Chiller: Heat Exchangers Overall Thermal Conductance on Chiller Performance. Heat Transfer Engineering, 27 (5): 80-87.
14. Khan, M. Z. I., Saha, B. B., Alam, K. C. A., Miyazaki, T., Akisawa, A., and, Kashiwagi, T. 2006. Multi-Bed Mass Recovery Adsorption Cycle-Improving Performance. Trans. JSRAE, 23 (4): 399-408.
15. Khan, M. Z. I., Saha, B. B., Alam, K. C. A., Akisawa, A., and, Kashiwagi, T. 2007. Study on Solar/Waste Heat Driven Multi-Bed Adsorption Chiller With Mass Recovery. Renewable Energy, 32 (365-381)
16. Uyun, A. S., Akisawa, A., Miyazaki, T., Ueda, Y., and, Kashiwagi, T. 2009. Numerical Analysis of an Advanced Three-Bed Mass Recovery Adsorption Refrigeration Cycle. Applied Thermal Engineering, 29: 2876-2884.
17. Uyun, A. S., Miyazaki, T., Ueda, Y., and, Akisawa, A. 2009. Experimental Investigation of a Three-Bed Adsorption Refrigeration Chiller Employing an Advanced Mass Recovery Cycle. Energies, 2: 531-544. doi: 10.3390/en20300531
18. Miyazaki, T., and, Akisawa, A. 2009. The Influence of Heat Exchanger Parameters on the Optimum Cycle Time of Adsorption Chillers. Applied Thermal Engineering, 29: 2708-2717.
19. Akahira, A. 2004. Research on the Advanced Adsorption Refrigeration Cycles with Vapor Recovery, Tokyo, Japan: Tokyo University of Agriculture and Technology. Ph.D. Thesis
20. Kennedy, J., and, Eberhart, R. 1995. Particle Swarm Optimization. Proc. IEEE Intl. Conf. Neural Networks, IV: 1942-1948.
21. Khan, M. Z. I. 2007. Study on Advanced Adsorption Cycle Employing Re-Heat and Mass Recovery Scheme, Tokyo, Japan: Tokyo University of Agriculture and Technology. Ph.D. thesis