Fundamentals of exergy analysis, entropy generation minimization, and the generation of flow architecture
This paper outlines the fundamentals of the methods of exergy analysis and entropy generation minimization (or thermodynamic optimization—the minimization of exergy destruction). The paper begins with a review of the concept of irreversibility, entropy generation, or exergy destruction. Examples ill...
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| Published in | International journal of energy research Vol. 26; no. 7 |
|---|---|
| Main Author | |
| Format | Journal Article |
| Language | English |
| Published |
Chichester, UK
John Wiley & Sons, Ltd
10.06.2002
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| Subjects | |
| Online Access | Get full text |
| ISSN | 0363-907X 1099-114X |
| DOI | 10.1002/er.804 |
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| Abstract | This paper outlines the fundamentals of the methods of exergy analysis and entropy generation minimization (or thermodynamic optimization—the minimization of exergy destruction). The paper begins with a review of the concept of irreversibility, entropy generation, or exergy destruction. Examples illustrate the accounting for exergy flows and accumulation in closed systems, open systems, heat transfer processes, and power and refrigeration plants. The proportionality between exergy destruction and entropy generation sends the designer in search of improved thermodynamic performance subject to finite‐size constraints and specified environmental conditions. Examples are drawn from energy storage systems for sensible heat and latent heat, solar energy, and the generation of maximum power in a power plant model with finite heat transfer surface inventory. It is shown that the physical structure (geometric configuration, topology) of the system springs out of the process of global thermodynamic optimization subject to global constraints. This principle generates structure not only in engineering but also in physics and biology (constructal theory). Copyright © 2002 John Wiley & Sons, Ltd. |
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| AbstractList | The concepts of irreversibility and of entropy generation (or exergy destruction) are reviewed. Examples illustrate the accounting for exergy flows and accumulation in closed systems, open systems, heat transfer processes, and power and refrigeration plants. The proportionality between exergy destruction and entropy generation sends the designer in search of improved thermodynamic performance subject to finite-size constraints and specified environmental conditions. Examples are drawn from energy storage systems for sensible heat and latent heat, solar energy, and the generation of maximum power in a power plant model with finite heat transfer surface inventory. It is shown that the physical structure (geometric configuration, topology) of the system springs out of the process of global thermodynamic optimization subject to global constraints. This principle generates structure not only in engineering but also in physics and biology (constructal theory). (Original abstract - amended) The concepts of irreversibility and of entropy generation (or exergy destruction) are reviewed. Examples illustrate the accounting for exergy flows and accumulation in closed systems, open systems, heat transfer processes, and power and refrigeration plants. The proportionality between exergy destruction and entropy generation sends the designer in search of improved thermodynamic performance subject to finite-size constraints and specified environmental conditions. Examples are drawn from energy storage systems for sensible heat and latent heat, solar energy, and the generation of maximum power in a power plant model with finite heat transfer surface inventory. It is shown that the physical structure (geometric configuration, topology) of the system springs out of the process of global thermodynamic optimization subject to global constraints. This principle generates structure not only in engineering but also in physics and biology (constructal theory). This paper outlines the fundamentals of the methods of exergy analysis and entropy generation minimization (or thermodynamic optimization—the minimization of exergy destruction). The paper begins with a review of the concept of irreversibility, entropy generation, or exergy destruction. Examples illustrate the accounting for exergy flows and accumulation in closed systems, open systems, heat transfer processes, and power and refrigeration plants. The proportionality between exergy destruction and entropy generation sends the designer in search of improved thermodynamic performance subject to finite‐size constraints and specified environmental conditions. Examples are drawn from energy storage systems for sensible heat and latent heat, solar energy, and the generation of maximum power in a power plant model with finite heat transfer surface inventory. It is shown that the physical structure (geometric configuration, topology) of the system springs out of the process of global thermodynamic optimization subject to global constraints. This principle generates structure not only in engineering but also in physics and biology (constructal theory). Copyright © 2002 John Wiley & Sons, Ltd. |
| Author | Bejan, Adrian |
| Author_xml | – sequence: 1 givenname: Adrian surname: Bejan fullname: Bejan, Adrian organization: Department of Mechanical Engineering and Materials Science, Duke University, Durham, NC 27708-0300, U.S.A |
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| Cites_doi | 10.1063/1.362674 10.1115/1.2905925 10.1016/0360-5442(94)90115-5 10.1007/978-94-011-4593-0 10.1007/978-94-011-4685-2 10.1007/978-94-011-4685-2_8 |
| ContentType | Journal Article |
| Copyright | Copyright © 2002 John Wiley & Sons, Ltd. |
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| References | Olsommer B, Favrat D, Von Spakovsky MR. 1999b. An approach for the time-dependent thermoeconomic modeling and optimization of energy system synthesis, design and operation (Part II: Reliability and availability). International Journal of Applied Thermodynamics 2(4):177-186. Stecco SS, Moran MJ. (eds). 1990. A Future for Energy. Pergamon: Oxford, UK. Bejan A. 1988. Advanced Engineering Thermodynamics. Wiley: New York. De Vos A. 1992. Endoreversible Thermodynamics of Solar Energy Conversion. Oxford University Press: Oxford, UK. Benelmir R, Feidt M. 1997. Thermoeconomics and finite size thermodynamics for the optimization of a heat pump, International Journal of Energy Environment Economics 5:129-133. Moran MJ. 1989. Availability Analysis: A Guide to Efficient Energy Use (2nd edn). ASME Press: New York. Bejan A. 1996b. Entropy generation minimization: the new thermodynamics of finite-size devices and finite-time processes. Journal of Applied Physics 79:1191-1218. Benelmir R, Evans RB, Von Spakovsky MR. 1992. High degree decentralization for the optimum thermoeconomic design of a combined cycle. International Journal of Energy Environment Economics 2:155-164. Bejan A, Mamut E. (eds). 1999. Thermodynamic Optimization of Complex Energy Systems. Kluwer Academic Publishers: Dordrecht, The Netherlands. Olsommer B, Favrat D, Von Spakovsky MR. 1999a. An approach for the time-dependent thermoeconomic modeling and optimization of energy system synthesis, design and operation (Part I: Methodology and results). International Journal of Applied Thermodynamics 2(3):97-114. Bejan A. 1982. Entropy Generation through Heat and Fluid Flow. Wiley: New York. Lim JS, Bejan A, Kim JH. 1992. Thermodynamic optimization of phase-change energy storage using two or more materials. Journal Energy Resources Technology 114:84-90. Benelmir R, Lallemand M, Lallemand A, Von Spakovsky MR. 1997. Exergetic and economic optimization of a heat pump cycle. International Journal of Energy Environment Economics 5:135-149. Haywood RW. 1980. Equilibrium Thermodynamics. Wiley: New York. Ahern, JE. 1980. The Exergy Method of Energy Systems Analysis. Wiley: New York. Valero A, Tsatsaronis G. (eds). 1992. ECOS'92, Proceedings of the International Symposium on Efficiency, Costs, Optimization and Simulation of Energy Systems, Zaragoza, Spain. ASME Press: New York. Bejan A. 2000. Shape and Structure, from Engineering to Nature. Cambridge University Press: Cambridge, UK. Bejan A, Vadasz P, Kröger DG. (eds). 1999. Energy and the Environment. Kluwer Academic Publishers: Dordrecht, The Netherlands. Brodyanskii VM. 1973. Exergy Method of Thermodynamic Analysis. Energiia: Moskow. Stecco SS, Moran MJ. (eds). 1992. Energy for the Transition Age. Nova Science: New York. Sciubba E, Melli R. 1998. Artificial Intelligence in Thermal Systems Design: Concepts and Applications. Nova Science: New York. Von Spakovsky MR. 1994. Application of engineering functional analysis to the analysis and optimization of the CGAM Problem. Energy-The International Journal 19 (special issue):343-364. Benelmir R, Evans RB, Von Spakovsky MR. 1991. Thermoeconomic analysis and design of a cogeneration system. International Journal of Energy Environment Economics. 1:71-80. Sieniutycz S, Salamon P. (eds). 1990. Finite-Time Thermodynamics and Thermoeconomics. Taylor and Francis: New York. Bejan A, Tsatsaronis G, Moran M. 1996. Thermal Design and Optimization. Wiley: New York. Radcenco V. 1994. Generalized Thermodynamics. Editura Technica: Bucharest. Moran MJ, Shapiro HN. 1995. Fundamentals of Engineering Thermodynamics (3rd edn). Wiley: New York. Nerescu I, Radcenco V. 1970. Exergy Analysis of Thermal Processes. Editura Tehnica: Bucharest. Bejan A. 1997. Advanced Engineering Thermodynamics (2nd edn). Wiley: New York. Bejan A. 1996a. Entropy Generation Minimization. CRC Press: Boca Raton. Kotas TJ. 1995. The Exergy Method of Thermal Plant Analysis. Krieger: Melbourne, FL. Shiner JS. (ed). 1996. Entropy and Entropy Generation. Kluwer Academic Publishers: Dordrecht. 1996b; 79 1999b; 2 1991; 1 1998 1997 1996 1973 1995 1994 1999a 1992 1970 1999b 1997; 5 1993; 1 1999 1999a; 2 1990 2000 1994; 19 1992; 114 1987 1996a 1982 1980 1992; 2 1969 1989 1988 Reistad (10.1002/er.804-BIB29) 1970 Benelmir (10.1002/er.804-BIB11) 1997; 5 Evans (10.1002/er.804-BIB17) 1969 Bejan (10.1002/er.804-BIB2) 1982 Sciubba (10.1002/er.804-BIB32) 1998 Benelmir (10.1002/er.804-BIB14) 1997; 5 Ahern (10.1002/er.804-BIB1) 1980 Smith (10.1002/er.804-BIB35) 2000 Shiner (10.1002/er.804-BIB33) 1996 Haywood (10.1002/er.804-BIB20) 1980 Valero (10.1002/er.804-BIB40) 1999 Benelmir (10.1002/er.804-BIB13) 1992; 2 Sieniutycz (10.1002/er.804-BIB34) 1990 Olsommer (10.1002/er.804-BIB27) 1999b; 2 Von Spakovsky (10.1002/er.804-BIB41) 1994; 19 Olsommer (10.1002/er.804-BIB26) 1999a; 2 Lim (10.1002/er.804-BIB22) 1992; 114 Nerescu (10.1002/er.804-BIB25) 1970 Bejan (10.1002/er.804-BIB4) 1996a Bejan (10.1002/er.804-BIB8) 1999 Tsatsaronis (10.1002/er.804-BIB38) 1999 Stecco (10.1002/er.804-BIB37) 1992 Bejan (10.1002/er.804-BIB10) 1999 Feidt (10.1002/er.804-BIB18) 1987 Moran (10.1002/er.804-BIB24) 1995 Feidt (10.1002/er.804-BIB19) 1998 Benelmir (10.1002/er.804-BIB12) 1991; 1 Bejan (10.1002/er.804-BIB3) 1988 Sciubba (10.1002/er.804-BIB30) 1999a Sciubba (10.1002/er.804-BIB31) 1999b Bejan (10.1002/er.804-BIB5) 1996b; 79 Bejan (10.1002/er.804-BIB7) 2000 Kotas (10.1002/er.804-BIB21) 1995 Radcenco (10.1002/er.804-BIB28) 1994 De Vos (10.1002/er.804-BIB16) 1992 Moran (10.1002/er.804-BIB23) 1989 Von Spakovsky (10.1002/er.804-BIB43) 1994; AES 33 Von Spakovsky (10.1002/er.804-BIB42) 1993; 1 Bejan (10.1002/er.804-BIB6) 1997 Stecco (10.1002/er.804-BIB36) 1990 Brodyanskii (10.1002/er.804-BIB15) 1973 Valero (10.1002/er.804-BIB39) 1992 Bejan (10.1002/er.804-BIB9) 1996 |
| References_xml | – reference: Bejan A. 1996a. Entropy Generation Minimization. CRC Press: Boca Raton. – reference: Bejan A, Vadasz P, Kröger DG. (eds). 1999. Energy and the Environment. Kluwer Academic Publishers: Dordrecht, The Netherlands. – reference: Shiner JS. (ed). 1996. Entropy and Entropy Generation. Kluwer Academic Publishers: Dordrecht. – reference: Lim JS, Bejan A, Kim JH. 1992. Thermodynamic optimization of phase-change energy storage using two or more materials. Journal Energy Resources Technology 114:84-90. – reference: De Vos A. 1992. Endoreversible Thermodynamics of Solar Energy Conversion. Oxford University Press: Oxford, UK. – reference: Moran MJ, Shapiro HN. 1995. Fundamentals of Engineering Thermodynamics (3rd edn). Wiley: New York. – reference: Nerescu I, Radcenco V. 1970. Exergy Analysis of Thermal Processes. Editura Tehnica: Bucharest. – reference: Benelmir R, Lallemand M, Lallemand A, Von Spakovsky MR. 1997. Exergetic and economic optimization of a heat pump cycle. International Journal of Energy Environment Economics 5:135-149. – reference: Radcenco V. 1994. Generalized Thermodynamics. Editura Technica: Bucharest. – reference: Von Spakovsky MR. 1994. Application of engineering functional analysis to the analysis and optimization of the CGAM Problem. Energy-The International Journal 19 (special issue):343-364. – reference: Bejan A. 1982. Entropy Generation through Heat and Fluid Flow. Wiley: New York. – reference: Moran MJ. 1989. Availability Analysis: A Guide to Efficient Energy Use (2nd edn). ASME Press: New York. – reference: Bejan A, Mamut E. (eds). 1999. Thermodynamic Optimization of Complex Energy Systems. Kluwer Academic Publishers: Dordrecht, The Netherlands. – reference: Bejan A. 2000. Shape and Structure, from Engineering to Nature. Cambridge University Press: Cambridge, UK. – reference: Valero A, Tsatsaronis G. (eds). 1992. ECOS'92, Proceedings of the International Symposium on Efficiency, Costs, Optimization and Simulation of Energy Systems, Zaragoza, Spain. ASME Press: New York. – reference: Bejan A. 1997. Advanced Engineering Thermodynamics (2nd edn). Wiley: New York. – reference: Bejan A, Tsatsaronis G, Moran M. 1996. Thermal Design and Optimization. Wiley: New York. – reference: Ahern, JE. 1980. The Exergy Method of Energy Systems Analysis. Wiley: New York. – reference: Bejan A. 1996b. Entropy generation minimization: the new thermodynamics of finite-size devices and finite-time processes. Journal of Applied Physics 79:1191-1218. – reference: Kotas TJ. 1995. The Exergy Method of Thermal Plant Analysis. Krieger: Melbourne, FL. – reference: Bejan A. 1988. Advanced Engineering Thermodynamics. Wiley: New York. – reference: Benelmir R, Evans RB, Von Spakovsky MR. 1991. Thermoeconomic analysis and design of a cogeneration system. International Journal of Energy Environment Economics. 1:71-80. – reference: Stecco SS, Moran MJ. (eds). 1992. Energy for the Transition Age. Nova Science: New York. – reference: Stecco SS, Moran MJ. (eds). 1990. A Future for Energy. Pergamon: Oxford, UK. – reference: Benelmir R, Evans RB, Von Spakovsky MR. 1992. High degree decentralization for the optimum thermoeconomic design of a combined cycle. International Journal of Energy Environment Economics 2:155-164. – reference: Olsommer B, Favrat D, Von Spakovsky MR. 1999a. An approach for the time-dependent thermoeconomic modeling and optimization of energy system synthesis, design and operation (Part I: Methodology and results). International Journal of Applied Thermodynamics 2(3):97-114. – reference: Benelmir R, Feidt M. 1997. Thermoeconomics and finite size thermodynamics for the optimization of a heat pump, International Journal of Energy Environment Economics 5:129-133. – reference: Sciubba E, Melli R. 1998. Artificial Intelligence in Thermal Systems Design: Concepts and Applications. Nova Science: New York. – reference: Sieniutycz S, Salamon P. (eds). 1990. Finite-Time Thermodynamics and Thermoeconomics. Taylor and Francis: New York. – reference: Olsommer B, Favrat D, Von Spakovsky MR. 1999b. An approach for the time-dependent thermoeconomic modeling and optimization of energy system synthesis, design and operation (Part II: Reliability and availability). International Journal of Applied Thermodynamics 2(4):177-186. – reference: Haywood RW. 1980. Equilibrium Thermodynamics. Wiley: New York. – reference: Brodyanskii VM. 1973. Exergy Method of Thermodynamic Analysis. 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| Snippet | This paper outlines the fundamentals of the methods of exergy analysis and entropy generation minimization (or thermodynamic optimization—the minimization of... The concepts of irreversibility and of entropy generation (or exergy destruction) are reviewed. Examples illustrate the accounting for exergy flows and... |
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| SubjectTerms | constructal theory EGM entropy generation minimization exergy analysis self-optimization in nature self-organization in nature thermodynamic optimization topology optimization |
| Title | Fundamentals of exergy analysis, entropy generation minimization, and the generation of flow architecture |
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