A multi-criteria decision making procedure for the analysis of an energy system
Abstract
In the course of improving and/or designing an energy system, either purely economic criteria, although the overriding criteria, or purely energy-based criteria, although the emphasized criteria, can not separately handle real-world situations in a satisfactory manner. The economic effectiveness and the energy efficiency must be considered simultaneously to demonstrate the conflicting and non-commensurable characteristics of these multiple criteria.
An iterative and interactive approach to formulating and solving non-linear multi-criteria decision making problems for the analysis of an energy system is proposed. It allows the decision maker (DM) to learn from the available information and dynamically change his mind. Criterion functions can be treated as objective functions, as constraints or as something in between by the DM. After a series of iterations and interactive procedures, a preferred solution can be made among the non-inferior sets considering thermodynamic criteria and economic criteria simultaneously. A simple example for design of a heat exchanger is used to illustrate the procedure.
Keywords
energy system thermodynamic criteria economic criteria interaction decision-makerReferences
- [1]Flower, J., R., “Editorial Special Topic Issue-Process Synthesis and Energy Conservation”, Trans. IChemE.,Chem. Eng. Res. Des. 68, No A, (1990).Google Scholar
- [2]Nishida, N., Stephanopoulos, G. and Westerberg, A.W., “A Review of Process Synthesis,”AIChE Journal,27, pp.321–351, (1981).CrossRefGoogle Scholar
- [3]Stephanopoulos, G. and Townsend, D.W., “Synthesis in Process Development,”Chem. Eng. Res. Des.,64, No.3, pp.160–174, (1986).Google Scholar
- [4]Papoulias, S.A. and Grossmann, I.E., “A Structural Optimization Approach in Process Synthesis-I Utility Systems,”Computers and Chemical Engineering,7, No.6, pp.695–706, (1983).CrossRefGoogle Scholar
- [5]Goel, P.K., “An Expert System Approach to CAD and Analysis of Alternate Chemical Process Network,” «AI in Industry: Expert Systems in Engineering», IFS Publication, Springer-Verlag, pp.113–128, (1988).Google Scholar
- [6]Biegler, L.T., “Chemical Process Simulation,”CEP,85, No.10, pp.50–61, (1989).Google Scholar
- [7]El-Sayed, Y.M. and Gaggioli, R.A., “A Critical Review of Second Law Costing Methods-I: Background and Algebraic Procedures,”Journal of Energy Resources Technology,111, No.1, pp.1–7, (1989).Google Scholar
- [8]Gaggioli, R.A. and El-Sayed, Y.M., “A Critical Review of Second Law Costing Methods-I: Calculus Procedures,”Journal of Energy Resources Technology,111, No.1, pp.8–15, (1989).CrossRefGoogle Scholar
- [9]Moran, M.J., “Second Law Analysis: What is the State of the Art,” «FLOWERS’90, A Future for Energy», eds., Stecco, S.S. and Moran, M.J., Pergamon Press, (1990).Google Scholar
- [10]Gaggioli, R.A. and Wepfer, W., “Exergy Economics,”Energy, 5, No.8–9, (1980).Google Scholar
- [11]Evans, R.B., “Thermoeconomic Isolation and Essergy Analysis,”Energy 5, No.8–9, (1980).Google Scholar
- [12]El-Sayed, Y. and Tribus, M., “Strategic Use of Thermoeconomics for System Improvements,” ACS 235, (1983).Google Scholar
- [13]Tsatsaronis, G., and Winhold, M., “Exergoeconomic Analysis and Evaluation of Energy-Conversion Plants, I: A New General Methodology,”Energy, 10, No.1, (1985).Google Scholar
- [14]Valero, A., Lozano, M.A. and Munoz, M., “A General Theory of Exergy Saving, Parts I, II and III,” ASME, AES-Vol 2–3, (1986).Google Scholar
- [15]El-Sayed, Y.M. and Gaggioli, R.A., “The Integration of Synthesis and Optimization for Conceptual Designs of Energy System,”Journal of Energy Resources Technology,110, No.2, pp.109–113, (1988).Google Scholar
- [16]Frangopoulos, C.A. and Evans, R.B., “Thermoeconomic Isolation,” Second Law Analysis of Thermal Design, HTD,33, ASME, (1984).Google Scholar
- [17]Von Spakovsky, M.R. and Evans, R.B., “The Optimal Design and Performance of Thermal Systems and Their Components,” ASME AES-Vol. 3–1, (1987).Google Scholar
- [18]Fan, L.T. and Shieh, J.H, “Thermodynamically Based Analysis and Synthesis of Chemical Process Systems,”Energy, pp.955–966, (1980).Google Scholar
- [19]Fan, L.T. and Shieh, J.H., “Multiobjective Optimal Synthesis”, ACS 235, p.307, (1983).Google Scholar
- [20]Nishitani, H. and Kunugita E., “Multiobjective Analysis for Energy and Resource Conservation in an Evaporation System”, ACS 235, p.333, (1983).Google Scholar
- [21]Hesselmann, K., “Heat Exchanger Networks - An Exergoeconomical Evaluation,” ASME, AES-Vol. 2–3, p.23, (1986).Google Scholar
- [22]Knoche, K.F. and Hesselmann, K., “Exergoeconomical Analysis of Chemical Processes-Evaluation of an Air Separation Plant,” ASME, AES-Vol. 2–3, p.35, (1986).Google Scholar
- [23]Zhu Mingshan, Wang Buxuan and Xiao Yunhan, “A General Methodology for Thermoeconomic Synthesis of Energy Systems,” ATHENS’91, (1991).Google Scholar
- [24]Zhu Mingshan, Wang Buxuan and Xiao Yunhan, “Thermoeconomic Synthesis of Plant Utility Systems,” ATHENS’91, (1991).Google Scholar
- [25]Zhu Mingshan, Wang Buxuan and Xiao Yunhan, “A Dynamic Interactive Desision Analysis Support System for Improving Energy Systems,” EOS’92, (1992).Google Scholar
- [26]Zhu Mingshan, Wang Buxuan and Xiao Yunhan, “An Advanced Study on Analysis and Optimization of a Heat Exchanger,” «Heat Transfer Science and Technology 1988», Bu-Xuan Wang ed., Hemisphere Publishing Corporation, (1989).Google Scholar
- [27]Szargut, J., D.R. Morris and F. Steward, «Exergy Analysis of Thermal, Chemical & Metallurgical Processes»,” Hemisphere, Washington, D.C., (1988).Google Scholar
- [28]Zhu Mingshan, Wang Buxuan, Xiao Yunhan and Deng Xiaoxue, “The Typical Patterns for Modelling the Structure of an Energy System,” «Thermodynamic Analysis and Improvement of Energy Systems», Edited by Cai Ruixian and M.J. Moran, International Academic Publishers, Beijing (1989).Google Scholar