Parametric simulation of combined cycle power pant: A case study

International Journal of Thermodynamics

Volumn 14, Issue 1, 2011, Pages 29-36

  Srinivas, T ^a,b   Reddy, B V ^b   Gupta, A V S S K S ^c  

^a VIT UNIVERSITY   (India)

^b UNIVERSITY OF ONTARIO INSTITUTE OF TECHNOLOGY   (Canada)

^c JNTUH COLLEGE OF ENGINEERING   (India)

Author keywords

Combined cycle; Pinch point; Thermodynamic analysis; Triple pressure

Indexed keywords

COMBINED CYCLE; COMBINED CYCLE PLANT; COMPRESSOR PRESSURE RATIO; FLUE GAS TEMPERATURES; HEAT RECOVERY STEAM GENERATORS; HIGH PRESSURE; INTERMEDIATE PRESSURES; LOW PRESSURES; PARAMETRIC SIMULATIONS; PARAMETRIC STUDY; PINCH POINT; TEMPERATURE DIFFERENCES; TERMINAL TEMPERATURE DIFFERENCE; THERMODYNAMIC ANALYSIS; THERMODYNAMIC EVALUATION; THERMODYNAMIC MODEL; TRIPLE PRESSURE;

COMBINED CYCLE POWER PLANTS; FLUE GASES; STEAM POWER PLANTS; THERMOANALYSIS; THERMODYNAMICS; WASTE HEAT;

TEMPERATURE;

EID: 79952127812     PISSN: 13019724     EISSN: None     Source Type: Journal    
DOI: None     Document Type: Article

References (15)

1. Bassily, A. M. (2005). Modeling, numerical optimization, and irreversibility reduction of a dual-pressure reheat combined-cycle. Applied Energy, 81(2), 127-151.
2. Bassily, A. M. (2007). Modeling, numerical optimization, and irreversibility reduction of a triple-pressure reheat combined cycle. Energy, 32(5), 778-794. (Pubitemid 46127615)
3. Bejan, A., 1982. Entropy Generation through Heat and Fluid Flow, Wiley, New York.
4. Casarosa, C., Donatini, F., Franco, A., (2004). Thermo economic optimization of heat recovery steam generators operating parameters for combined plants. Energy, 29(3), 389-414. (Pubitemid 38162720)
5. De, S., Biswal, S. K., (2004). Performance improvement of a coal gasification and combined cogeneration plant by multi-pressure steam generation. Applied Thermal Engineering, 24(2-3), 449-456.
6. Franco, A., Casarosa, C., (2002). On some perspectives for increasing the efficiency of combined cycle power plants. Applied Thermal Engineering, 22(13), 1501-1518. (Pubitemid 34946650)
7. Franco, A., & Russo, A., (2002). Combined cycle plant efficiency increase based on the optimization of the heat recovery steam generator operating parameters. International Journal of Thermal Sciences, 41(9), 843-859.
8. Kotas, T.J. (1985). The Exergy Method of Thermal Plant Analysis, Butterworths, London.
9. Marston, C. H., Hyre, M. (1995), Gas turbine bottoming cycles: triple-pressure steam versus Kalina. ASME Journal of Engineering for Gas Turbines and Power. 117(1), 10-15.
10. Ramaprabhu, V., Roy, R. P., (2004). A computational model of a combined cycle power generation unit. ASME Journal of Energy Resources Technology, 126(3). 231-240. (Pubitemid 40119864)
11. Ragland, A., Stenzel, V. W., (2000). Combined Cycle Heat Recovery Optimization - EPRI solutions. Proceedings of 2000 International Joint Power Generation Conference, Florida, July 23-26.
12. Saravanamuttoo, H. I. H., Rogers, G. F. C., Cohen, H., (2003). Gas turbine theory, Pearson Education, 5nd Edn.
13. Srinivas, T., Gupta, A. V. S. S. K. S., Reddy, B. V. (2007). Generalized Thermodynamic Analysis of Steam Power Cycle with 'n' number of Feed Water Heaters. Int. J. of Thermodynamics, 10(4), 177-185. (Pubitemid 351181203)
14. Ongiro, A., Ugursal, V. I., Taweel, A. M., Walker, J. D., (1997). Modeling of heat recovery steam generator performance. Applied Thermal Engineering, 17(5), 427-446. (Pubitemid 127408470)
15. Xiang, W., Chen, Y. (2007). Performance improvement of combined cycle power plant based on the optimization of the bottom cycle and heat recuperation. Journal of Thermal Science, 16(1), 84-89. (Pubitemid 47591509)