Performance analysis for a real closed regenerated Brayton cycle via methods of finite-time thermodynamics

REFERENCES

• Curzon , F. L. and Ahlborn , B. 1975 . “Efficiency of a Carnot engine at maximum power output” . American Journal of Physics , 43 ( No. 1 ) : 22 – 24 .
   Web of Science ®Google Scholar
• Sieniutycz , S. and Salamon , P. 1990 . (edited) “Advances in Thermodynamics”. Volume 4, Finite-Time Thermodynamics and thermo-economics. Taylor and Francis, New York
   Google Scholar
• Sieniutyez , S. and Shiner , J. S. 1994 . “Thermodynamics of irreversible processes and its relation to chemical engineering: Second law analysis and finite time thermodynamics” . Journal of Non-Equilibrium Thermodynamics , 19 ( No. 4 ) : 303 – 348 .
   Google Scholar
• Bejan , A. 1994 . “Power generation and refrigeration models with heat transfer irreversibilities” . Journal of Heat Transfer Society , 33 ( No. 128 ) January : 68 – 75 .
   Google Scholar
• Bejan , A. 1995 . “Entropy generation minimization, The method of thermodynamic optimization of finite-size systems and finite-time processes. Efficiency, Costs, Optimization, Simulation and Environmental Impact Energy Systems” . Proceedings of The International Conference, Istanbul, Turkey , 1 : 11 – 24 . July 11–14
   Google Scholar
• Wu , C. 1988 . “Power optimization of a finite-time Carnot heat engine” . The International Journal of Energy , 14 ( No. 14 ) : 349 – 354 .
   Google Scholar
• Wu , C. and Karpouzian , G. N. 1993 . “Finite-time thermodynamics and endoreversible heat engines” . International Journal of Mechanical Engineering Education , 21 ( No. 4 ) : 337 – 346 .
   Google Scholar
• Chen , L. , Sun , F. and Chen , W. 1992 . “New developments of finite-time thermodynamics” . Nature Journal , 15 ( No. 4 ) : 249 – 253 . (in Chinese)
   Google Scholar
• Chen , L. , Sun , F. and Chen , W. 1992 . “The present state and trend of finite-time thermodynamics for energy systems” . Advanced Mechanics , 22 ( No. 4 ) : 479 – 488 . (in Chinese)
   Google Scholar
• Leff , H. S. 1987 . “Thermal efficiency at maximum work output: New results for old heat engines” . American Journal of Physics , 55 ( No. 7 ) : 602 – 610 .
   Google Scholar
• Landsberg , P. T. and Leff , H. S. 1989 . “Thermodynamics cycles with nearly universal maximum work efficiency” . Journal of Physics A: General Mathematics , 22 ( No. 10 ) : 4019 – 4026 .
   Google Scholar
• Bejan , A. 1988 . “Theory of heat transfer-irreversible power plant” . International Journal of Heat Mass Transfer , 31 ( No. 6 ) : 1211 – 1219 .
   Google Scholar
• Wu , C. 1990 . “Specific power bound of a finite-time closed Brayton cycle” . International Journal of Ambient Energy , 11 ( No. 2 ) : 77 – 88 .
   Google Scholar
• Wu , C. 1990 . “Work and power optimization of a finite-time Brayton cycle” . International Journal of Ambient Energy , 11 ( No. 3 ) : 129 – 136 .
   Google Scholar
• Wu , C. 1991 . “Power optimization of an endoreversible Brayton gas turbine heat engine” . Energy Conversion Management , 31 ( No. 6 ) : 561 – 565 .
   Google Scholar
• Wu , C. 1992 . “Power optimization of a finite-time closed gas-turbine power plant” . International Journal of Energy Environment Economics , 2 ( No. 1 ) : 57 – 62 .
   Google Scholar
• Wu , C. and King , R. L. 1991 . “Performance of a nonisentropic Brayton cycle” . Transactions ASME, Journal of Engineering Gas Turbine Power , 113 ( No. 4 ) : 501 – 503 .
   Google Scholar
• Ibrahim , O. M. , Klein , S. A. and Mitchell , J. W. 1991 . “Optimum heat power cycle for specified boundary conditions” . Transactions ASME, Journal of Engineering Gas Turbine Power , 113 ( No. 4 ) : 514 – 521 .
   Google Scholar
• Diao , Z. “Maximum power point characteristics of a closed Brayton cycle” . ASME paper , -GT-80
   Google Scholar
• Chen , L. , Sun , F. and Chen , W. 1994 . “Finite-time thermodynamics analysis of a closed cycle gas turbine” . Gas Turbine Technology , 7 ( No. 2 ) : 34 – 39 . (in Chinese)
   Google Scholar
• Chen , L. , Sun , F. and Chen , W. 1993 . “Maximum power output from a closed gas turbine cycle” . Ship Engineering , : 40 – 41 . No. 4,. (in Chinese)
   Google Scholar
• Chen , L. , Sun , F. and Chen , W. 1994 . “The optimal power versus efficiency characteristics of irreversible closed gas turbine cycles” . Journal of Naval Academy Engineering , : 9 – 12 . No. 4,. (in Chinese)
   Google Scholar
• Chen , L. and Sun , F. 1994 . “Finite-time thermodynamic optimization for an irreversible closed Brayton cycle” . Power System Engineering , 10 ( No. 1 ) : 24 – 31 . (in Chinese)
   Google Scholar
• Chen , L. , Sun , F. and Chen , W. 1994 . “Thermodynamic optimization of closed gas turbine cycle powered by solar energy” . Acta Energine Solaris , 15 ( No. 3 ) : 274 – 278 .
   Google Scholar
• Chen , L. and Sun , F. 1995 . “Analytical formulas of an irreversible closed cycle, simple solar Brayton plant” . Acta Energine Solaris Sinica , 16 ( No. 3 ) : 297 – 298 .
   Google Scholar
• Chen , L. , Sun , F. and Chen , W. 1995 . “Thermodynamic optimization of closed-cycle Brayton plants for aerospace power system” . Journal of Propulsion Technology , 16 ( No. 2 ) : 46 – 49 . pp
   Google Scholar
• Chen , L. and Sun , F. 1995 . “New analysis of closed regenerated gas turbine cycles” . Acta Energine Solaris Sinica , 16 ( No. 4 ) : 447 – 448 .
   Google Scholar
• Chen , L. and Sun , F. 1995 . “Effect of regeneration on the performance of closed gas turbine cycles” . Ship Engineering , : 31 – 33 . No. 2,. (in Chinese)
   Google Scholar
• Chen , L. and Sun , F. 1995 . “New formulas for the performance analysis of a real irreversible closed regenerated Brayton cycle” . Proceedings of CSPE-JSME-ASME International Conference on Power Engineering, Shanhai, People's Republic of China, May 22–26 , 1 : 96 – 99 .
   Google Scholar
• Chen , L. , Sun , F. and Wu , C. “Effect of heat resistance on the performance of closed turbine regenerative cycles”. ” . In International Journal of Power Energy Systems (in the press)
   Google Scholar