Efficiency optimization of a closed indirectly fired gas turbine cycle working under two variable-temperature heat reservoirs

Journal title

Archives of Thermodynamics




No 2 August



Indirectly fired gas turbine ; Bioenergy technology ; High temperature heat exchanger ; Finite time thermodynamics ; Cycle performance

Divisions of PAS

Nauki Techniczne




The Committee of Thermodynamics and Combustion of the Polish Academy of Sciences and The Institute of Fluid-Flow Machinery Polish Academy of Sciences




Artykuły / Articles


DOI: 10.2478/v10173-011-0006-4


Novikov I. (1957), The efficiency of atomic power stations, Journal of Nuclear Energy, 2, 7, 125. ; Chambadal P. (1957), Nuclear Power. ; Curzon F. (1975), Efficiency of a Carnot engine at maximum power output, American Journal of Physics, 43, 1, 22, ; Bejan A. (1996), Entropy Generation Minimization. ; Chen L. (2004), Advances in Finite-time Thermodynamics. ; Martinot E. (2007), Renewable energy futures: Targets, scenarios, and pathways, Annual Review of Environment and Resources, 32, 1, 205, ; Athena P. (2008), Project ARBRE: Lessons for bio-energy developers and policy-makers, Energy Policy, 36, 6, 2044, ; Salamon P. (2001), What conditions make minimum entropy production equivalent to maximum power production?, Journal of Nonequilibrium Thermodynamics, 26, 1, 73, ; Klara J.M., Izsak M.S., Wherley M.R.: <i>Advanced power generation: The potential of indirectly-fired combined cycle.</i> ASME Paper 95-GT-261 (1995). ; Nelson J. (1993), High pressure ceramic air heater for indirectly-fired gas turbine applications, null. ; Solomon P. (1996), A coal-fired heat exchanger for an externally fired gas turbine, Journal of Engineering for Gas Turbines and Power, 118, 1, 23, ; DiCarlo J. (2006), Ceramic composite development for gas turbine engine hot section components, null. ; Schulte-Fischedick J. (2007), An innovative ceramic high temperature plate-fin heat exchanger for EFCC processes, Applied Thermal Engineering, 27, 8-9, 1285, ; Aquaro D. (2003), Feasibility analysis of a high temperature heat exchanger for combined cycles, International Journal of Heat and Technology, 21, 2, 167. ; Yan J. (2000), Status and perspective of externally fired gas turbines, Journal of Propulsion and Power, 16, 4, 572, ; Bram S. (2005), Status of external firing of biomass in gas turbines, Journal of Power and Energy, 219, 2, 137, ; Martin K. (2007), The externally-fired gas-turbine (EFGT-Cycle) for decentralized use of biomass, Applied Energy, 84, 7-8, 795, ; Daniele C. (2006), Performance evaluation of small size externally fired gas turbine(EFGT) power plants integrated with direct biomass dryers, Energy, 31, 10-11, 1459, ; LaHaye P.G., M.R. Bary: <i>Externally fired combustion cycle (EFCC): A DOE clean coal V project: Effective means of rejuvenation for older coal-fired stations</i>. ASME Paper 94-GT-483 (1994). ; Consonni S., Macchi E., Farina F.: <i>Externally fired combined cycles (EFCC). Part A: thermodynamics and technological issues</i>. ASME Paper 96-GT-92 (1996). ; Consonni S., Macchi E.: <i>Externally fired combined cycles (EFCC). Part B: alternative configurations and cost projections</i>. ASME Paper 96-GT-93 (1996). ; Eidensten L. (1996), Biomass externally fired gas turbine cogeneration, Journal of Engineering for Gas Turbines and Power, 118, 3, 604, ; Ferreira S. (2001), Comparison of externally fired and internal combustion gas turbines using biomass fuel, Journal of Energy Resources, 123, 4, 291, ; Koetzier H., Knoef H.: <i>Technical and economic feasibility of an indirectly fired gas turbine for rural electricity production from biomass</i>. Report No. 9712, EWAB Project, 1997. ; Evans R. (1996), Optimization of a wood-waste-fuelled, indirectly fired gas turbine cogeneration plant, Bioresource Technology, 57, 2, 117, ; Bejan A. (1996), Thermal Design & Optimization. ; Ferreira S. (2001), Comparison of externally fired and internal combustion gas turbines using biomass fuel, ASME Journal of Energy Resources Technology, 123, 4, 291. ; Chen L. (1997), Theoretical analysis of the performance of a regenerated closed Brayton cycle with internal irreversibilities, Energy Conversion and Management, 18, 9, 871, ; Chen L. (1996), FTT performance of a closed regenerated Brayton cycle coupled to variable temperature heat reservoirs, null. ; Chen L. (1999), Performance analysis for a real closed regenerated Brayton cycle via methods of finite time thermodynamics, International Journal of Ambient Energy, 20, 2, 95, ; Roco J. (1997), Optimum performance of a regenerative Brayton thermal cycle, Journal of Applied Physics, 82, 6, 2735, ; Chen L. (2007), Power optimization of a regenerated closed variabletemperature heat reservoir Brayton cycle, International Journal of Sustainable Energy, 26, 1, 1, ; Chen L. (2004), Closed intercooled regenerator Brayton cycle with constant-temperature heat reservoirs, Applied Energy, 77, 4, 429, ; Chen L. (2003), Performance analysis for an irreversible closed variable-temperature heat reservoir intercooled regenerated Brayton cycle, Energy Conversion and Management, 44, 17, 2713, ; Chen L. (2008), Power density analysis and optimization of an irreversible closed intercooled regenerated Brayton cycle, Mathematical and Computer Modelling, 48, 3-4, 527, ; Wang W. (2006), Optimal heat conductance distribution and optimal intercooling pressure ratio for power optimisation of irreversible closed intercooled regenerated Brayton cycle, Journal of the Energy Institute, 79, 2, 116, ; Wang W. (2005), Power optimization of an irreversible closed intercooled regenerated Brayton cycle coupled to variable-temperature heat reservoirs, Applied Thermal Engineering, 25, 8-9, 1097, ; Wang W. (2003), Performance analysis for an irreversible variable temperature heat reservoir closed intercooled regenerated Brayton cycle, Energy Conversion and Management, 44, 17, 2713.

Editorial Board

International Advisory Board

J. Bataille, Ecole Central de Lyon, Ecully, France
A. Bejan, Duke University,  Durham, USA
W. Blasiak, Royal Institute of Technology,  Stockholm, Sweden
G. P. Celata, ENEA,  Rome, Italy
M. W. Collins, South Bank University,  London, UK
J. M. Delhaye, CEA, Grenoble, France
M. Giot, Université Catholique de Louvain, Belgium
D. Jackson, University of Manchester, UK
S. Michaelides, University of North Texas, Denton, USA
M. Moran, Ohio State University,  Columbus, USA
W. Muschik, Technische Universität, Berlin, Germany
I. Müller, Technische Universität, Berlin, Germany
V. E. Nakoryakov, Institute of Thermophysics, Novosibirsk, Russia
M. Podowski, Rensselaer Polytechnic Institute, Troy, USA
M.R. von Spakovsky, Virginia Polytechnic Institute and State University, Blacksburg, USA

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