Compromise optimization between heating load and entropy production rate for endoreversible absorption heat pumps

International Journal of Ambient Energy

Volumn 26, Issue 2, 2005, Pages 106-112

  Qin, X ^a   Chen, L ^a   Sun, F ^a   Wu, C ^b  

^a NAVAL UNIVERSITY OF ENGINEERING   (China)

^b UNITED STATES NAVAL ACADEMY   (United States)

Author keywords

[No Author keywords available]

Indexed keywords

FINITE-TIME THERMODYNAMICS; HEAT RESERVOIRS; HEAT TRANSFER LAW; HEATING LOADS;

ABSORPTION; ECOLOGY; ENTROPY; HEAT ENGINES; HEAT RESISTANCE; HEAT TRANSFER; OPTIMIZATION; SOLAR ENERGY; THERMODYNAMICS;

HEAT PUMP SYSTEMS;

EID: 17444421577     PISSN: 01430750     EISSN: 21628246     Source Type: Journal    
DOI: 10.1080/01430750.2005.9674978     Document Type: Article

References (26)

1. Ziegler, F., 2002. “State of the art in sorption heat pumping and cooling technologies”. International Journal of Refrigeration, 25 (No. 4):450–459.
2. Bejan, A., 1996. “Entropy generation minimisation:The new thermodynamics of finite-size device and finite-time processes”. Journal of Applied Physics, 79 (No. 3):1191–1218.
3. Chen, L., Wu, C., and Sun, F., 1999. “Finite time thermodynamic optimization or entropy generation minimization of energy systems”. Journal of Non-Equilibrium Thermodynamics, 24 (No. 4):327–359.
4. Berry, R. S., Kazakov, V. A., Sieniutycz, S., Szwast, Z., and Tsirlin, A. M., 1999. Thermodynamic Optimization of Finite Time Processes Chichester:Wiley.
5. Chen, L., and Sun, F., 2003. Advances in Finite Time Thermodynamics:Analysis and Optimization.Nova Science Publishers New York
6. Gordon, J. M., and Ng, K. C., 2000. Cool Thermodynamics Cambridge:Cambridge International Science Publishers.
7. Chen, J., and Yan, Z., 1989. “Equivalent combined systems of three-heat-reservoir heat pumps”. Journal of Chemical Physics, 90 (No. 9):4951–4955.
8. Chen, J., and Yan, Z., 1989. “Unified description of endoreversible cycles”. Physics Review A, 39 (No. 8):4140–4147.
9. Chen, J., 1997. “Optimal performance analysis of irreversible cycles used as heat pumps and refrigerators”. Journal of Physics D:Applied Physics, 30 (No. 4):582–587.
10. Herold, K. E., 1999. “Performance predictions of absorption cycles using an endoreversible model”. ”. In International Sorption Heat Pump Conference 1–6. Munich
11. Göktun, S., 1996. “The effect of irreversibilities on the performance of a three-heat-source heat pump”. Journal of Physics D:Applied Physics, 29 (No. 20):2823–2825.
12. Chen, L., Wu, C., and Sun, F., 1997. “Optimal coefficient of performance and heating load relationship of a three-heat-reservoir endoreversible heat pump”. Energy Conversion and Management, 38 (No. 8):727–733.
13. Chen, L., Bi, Y., Wu, C., and Sun, F., 2001. “Unified description of endoreversible cycles for linear phenomenological heat-transfer law”. International Journal of Energy, Environment and Economics, 11 (No. 3):209–222.
14. Chen, L., Wu, C., Sun, F., and Cao, S., 1999. “Maximum profit performance of a three-heat-reservoir heat pump”. International Journal of Energy Research, 23 (No. 9):773–777.
15. Su, G., and Yan, Z., 1999. “Optimal ecological performances of a three-heat-source heat pump for linear phenomenological heat transfer law”. Acta Energine Solaris Sinica, 11 (No. 3):319–323. (in Chinese)
16. Chen, J., 1999. “The general performance characteristics of an irreversible absorption heat pump operating between four temperature levels”. Journal of Physics D:Applied Physics, 32 (No. 12):1428–1433.
17. Qin, X., Chen, L., Sun, F., and Wu, C., 2003. “The optimal performance of a four-heat-reservoir absorption heat pump with multi-irreversibilities”. In Advances in Finite Time Thermodynamics:Analysis and Optimization Edited by:Chen, L., and Sun, F., New York:Nova Science Publishers.
18. Angulo-Brown, F., 1991. “Ecological optimization criterion for finite-time heat engines”. Journal of Applied Physics, 69 (No. 9):7465–7469.
19. Yan, Z., 1993. “Comment on ‘ecological optimization criterion for finite-time heat engines’”. Journal of Applied Physics, 73 (No. 7):3583
20. Chen, L., Sun, F., and Chen, W., 1992. “Ecological optimization criteria for a Carnot refrigerator”. Nature Journal, 15 (No. 8):633 (in Chinese)
21. Sun, F., Chen, L., and Chen, W., 1993. “An ecological optimization performance for endoreversible heat pumps”. Journal of the Naval Academy of Engineering, 4:22–26. (in Chinese)
22. Chen, L., Sun, F., and Chen, W., 1993. “The ecological optimal performance for a three-heat-reservoir refrigerator”. Cryogenics, 3:38–40. (in Chinese)
23. Yan, Z., and Lin, G., 2000. “Ecological optimization criterion for an irreversible three-heat-source refrigerator”. Applied Energy, 66 (No. 4):213–224.
24. Chen, T., and Yan, Z., 1998. “An ecological optimization criterion for a class of irreversible absorption heat transformers”. Journal of Physics D:Applied Physics, 31 (No. 9):1078–1082.
25. Bejan, A., and Vargas, J. V. C., 1995. “Optimal allocation of a heat exchanger inventory in heat driven refrigerators”. International Journal of Heat Mass Transfer, 38 (No. 16):2997–3004.
26. Sokolov, M., Vargas, J. V. C., and Bejan, A., 1996. “Thermodynamic optimization of solar-driven refrigerators”. Transactions of ASME Journal of Solar Energy Engineering, 118 (No. 2):130–135.