Study on a heat recovery system for the thermal power plant utilizing air cooling island

Energy

Volumn 74, Issue C, 2014, Pages 836-844

  Sun, Jian ^a   Fu, Lin ^a   Sun, Fangtian ^b   Zhang, Shigang ^a  

^a TSINGHUA UNIVERSITY   (China)

^b BEIJING UNIVERSITY OF CIVIL ENGINEERING AND ARCHITECTURE   (China)

Author keywords

CHP (combined heat and power); Double side phase change; Heat recovery; HRU (heat recovery unit)

Indexed keywords

COGENERATION PLANTS; COOLING SYSTEMS; COOLING WATER; ENERGY EFFICIENCY; EVAPORATORS; HEAT TRANSFER; HEAT TRANSFER COEFFICIENTS; STEAM; STEAM POWER PLANTS; THERMOELECTRIC POWER PLANTS; WASTE HEAT; WASTE HEAT UTILIZATION;

COMBINED HEAT AND POWER; HEAT RECOVERY SYSTEMS; HEAT RECOVERY UNIT; HEATING CAPACITY; LOW GRADE HEAT; PHASE CHANGE; SIMULATED RESULTS; THERMAL POWER PLANTS;

RECOVERY;

CHANDIPURA VIRUS;

EID: 84927690101     PISSN: 03605442     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.energy.2014.07.056     Document Type: Article

References (26)

1. Sun R., Liu G., Zheng L., Chou C.L. Characteristics of coal quality and their relationship with coal-forming environment: a case study from the Zhuji exploration area. Huainan coalfield, Anhui, China. Energy 2010, 35(1):423-435.
2. Kelly S., Pollitt M. An assessment of the present and future opportunities for combined heat and power with district heating (chp-dh) in the United Kingdom. Energy Policy 2010, 38(11):6936-6945.
3. Chen X., Wang L., Tong L.G., Sun S.F., Yue X.F., Yin S.W., Zheng L.F. Energy saving and emission reduction of China's urban district heating. Energy Policy 2013, 55:677-682.
4. Sun F., Fu L., Zhang S.G., Sun J. New waste heat district heating system with combined heat and power based on absorption heat exchange cycle in china. Appl Therm Eng 2012, 37(1):136-144.
5. Sun F.T., Fu L., Sun J., Zhang S.G. Anew waste heat district heating system with combined heat and power (CHP) based on ejector heat exchangers and absorption heat pumps. Energy 2014, 69(1):516-524.
6. Persson U., Werner S. Heat distribution and the future competitiveness of district heating. Appl Energy 2011, 88(3):568-576.
7. Building energy research center of Tsinghua University 2011 annual report of China building energy conservation 2011, China architecture and building press, Beijing, [in Chinese].
8. Ozgener L., Hepbasli A., Dincer I. Akey review on performance improvement aspects of geothermal district heating systems and applications. Renew Sustain Energy Rev 2007, 11(8):1675-1697.
9. Haiwen S., Lin D., Xiangli L., Yingxin Z. Quasi-dynamic energy-saving judgment of electric-driven seawater source heat pump district heating system over boiler house district heating system. Energy Build 2010, 42(12):2424-2430.
10. Holmgren K. Role of a district-heating network as a user of waste-heat supply from various sources the case of Gteborg. Appl Energy 2006, 83(12):1351-1367.
11. Gustafsson J., Delsing J., Deventer J.V. Improved district heating substation efficiency with a new control strategy. Appl Energy 2010, 87(6):1996-2004.
12. Kirby M.J., Blanco H.P. Adesign model for horizontal tube water/lithium bromide absorbers. ASME Heat Pump Refrig 1994, 32:1-10.
13. Andberg J.W., Vliet G.C. Asimplified model for absorption of vapors into liquid films flowing over cooled horizontal tubes. ASHRAE Trans 1987, 93(2):2454-2466.
14. Clift R., Grace J.R., Weber M.E. Bubbles, drops, and particles 1978, Academic Press, New York.
15. Holman J.P. Heat transfer 2005, McGraw-Hill Book Company, Australia. 9th.
16. Rohesnow W.M., Hartner J.P., Cho Y.I. Handbook of heat transfer 1998, McGraw-Hill Book Company, Australia.
17. Zheng Y.Q., Wu J.F., Geng H.B. Double effect lithium bromide absorption chiller and applications 1990, Machinery Industry Press, Beijing, [in Chinese].
18. 2O solution from 273 to 500 K over full composition range. Int J Refrig 2006, 29(4):566-578.
19. Mcneely L.A. Thermodynamic properties of aqueous solutions of lithium bromide. ASHRAE Trans 1979, 85:413-434.
20. Minkowycz W.J., Sparrow E.M. Condensation heat transfer in the presence of non-condensable, interfacial resistance, superheating, variable properties, and diffusion. Int J Heat Mass Transf 1996, 9(10):1125-1144.
21. Carazas F.J.G., Salazar C.H., Souza G.F.M. Availability analysis of heat recovery steam generators used in thermal power plants. Energy 2011, 36(6):3855-3870.
22. Liao C.H., Ertesvag I.S., Zhao J.N. Energetic and exergetic efficiencies of coal-fired CHP (combined heat and power) plants used in district heating systems of China. Energy 2013, 57(1):671-681.
23. Sun J., Fu L., Zhang S.G. Areview of working fluids of absorption cycles. Renew Sustain Energy Rev 2012, 16(4):1899-1906.
24. Henrik L., Sven W., Robin W., Svend S., Jan E.T., Frede H., Brian V.M. 4th Generation District Heating (4GDH): Integrating smart thermal grids into future sustainable energy systems. Energy 2014, 68(15):1-11.
25. Killion J.D., Garimella S. Acritical review of models of coupled heat and mass transfer in falling-film absorption. Int J Refrig 2001, 24(8):755-797.
26. Morandin M., Hackl R., Harvey S. Economic feasibility of district heating delivery from industrial excess heat: a case study of a Swedish petrochemical cluster. Energy 2014, 65(1):209-220.