Abstract
Increasing energy costs have made it imperative to ensure that as little energy as possible is consumed by a chemical plant. Despite the recent fall in the cost of oil, it seems certain that the general trend in energy costs over the next few years will be steadily upward, and so design techniques which can produce energy-efficient plant are of paramount importance. Recent developments in process synthesis -defined by (1) as “the act of determining the optimal interconnection of processing units as well as the optimal type and design of the units within a process system” -have resulted in large cost savings, but have not considered the effects of fouling.
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References
Nisheda N, Stephanopulos G and Westerberg AW: A review of process synthesis. AIChE.J. 27 3 321. 1981.
Umeda T: Computer aided process synthesis. Comp.Chem.Eng. 7 4 279. 1983.
Linnhoff B, Townsend DW, Boland D, Hewitt GF, Thomas BEA,Guy AR, Marsland RH: Process Integration for the efficient use of energy. IChemE. 1982.
Masso AH and Rudd DH: The synthesis of system design, II: the heuristic structuring. AIChE.J. 1969.
Rathore RNS and Powers GJ: A forward branching scheme for the synthesis of energy recovery networks. Ind.Eng.Chem. Proc. Des. Dev. 14 175. 1975.
Fryer PJ: The fouling of heat exchanger networks, this conference, 1988.
Westerberg AW and Grossmann IE: Process synthesis techniques in the process industries and their impact on energy use. EPRI Report. 1985.
Ponton JW and Donaldson RAB: A fast method for the synthesis of optimal heat exchanger networks. Chem.Eng.Sci. 29, 2375. 1974.
Donaldson RAB, Paterson WR and Ponton JW: Design of complex heat recovery networks: synthesis, simulation and uncertainty. IChemE. Symp.Ser. No.40. 15–1. 1976.
Lee KF, Masso AH, and Rudd DF: Branch and bound synthesis of integrated process designs. Ind.Eng.Chem.Fund. 9 48. 1970.
Shah JV and Westerberg AW: Evolutionary synthesis of heat exchanger networks. AIChE Annual Meeting, Los Angeles. 1975.
Pho TK and Lapidus L: Topics on computer aided design. II. Synthesis of optimal heat exchanger networks by tree searhing algorithms. AIChE.J. 19 1182. 1973.
Nisheda N, Liu YA and Lapidus L: Studies in Chemical Process Design and Synthesis-III. A simple and practical approach to the optimal synthesis of heat exchanger networks. AIChE.J. 23 77. 1977.
Hohmann EC: Optimum networks for heat exchange. PhD Thesis, Univ. Southern California. 1971.
Linnhoff B and Flower JR: Synthesis of heat exchanger networks, Parts I and II, AIChE. J. 24 633–654. 1978.
Linnhoff B and Flower JR: Synthesis of heat exchanger networks, Parts I and II, AIChE. J. 24 633–654. 1978.
Linnhoff B and Hindmarsh E: The pinch design method for heat exchanger networks. Chem. Eng. Sci. 38 745. 1983.
Linnhoff B and Turner JA: Heat-recovery networks: insights yield big savings. Chem. Engng. 56. 1981.
Townsend DW and Linnhoff B: Surface area targets for heat exchanger networks. IChemE Annual Research Meeting 1984.
Ahmad S and Linnhoff B: Overall cost targets for heat exchanger networks. IChemE Annual Research Meeting 1984.
Fisher WR and Douglas JM: Analysis of process operability at the preliminary design stage. Comp.Chem.Eng. 9 499. 1985.
Marsell DF, Morari M and Rudd DF: Design of resilient processing plants-II. Design and control of energy management systems. Chem.Eng.Sci. 37 259. 1983.
Saboo AK: Synthesis and analysis of resilient heat exchanger networks. PhD Thesis, Univ. of Wisconsin, Madison. 1984.
Saboo AK, Morari M and Woodcock DC: Design of resilient process plants-VIII A resilience index for heat exchanger networks. Chem.Eng.Sci. 39 1553. 1985.
Morari M: Design of resilient process plants-Ill A general framework for the assessment of dynamic resilience. Chem.Eng. Sci. 38 1881. 1983.
Grossmann IE and Morari M: Operability, resiliency and flexibility-process design objectives for a changing world. Proc. Second Int. Conf. Foundations of Computer-aided Process Design, Snowmass, Colorado. 1983
Morari M and Skogestad S: Effect of model uncertainty on dynamic resilience. PSE-85, I.Chem.E.Symp.Ser. No 92. 493. 1985.
Saboo AK and Morari M: Design of Resilient processing plants-Ill. Some new results on heat exchanger network synthesis. Chem.Eng.Sci. 39. 579. 1984.
Townsend DW and Morari M: Resiliency of heat exchanger networks: an objective compatible with minimum cost. AIChE. Ann. Meeting, San Francisco. 1984.
Beautyman AC and Cornish ARH: The design of flexible heat exchanger networks. First UK Heat Transfer Conf., IChemE Symp. Ser. No 86, 547 1984.
Westerberg AW and Chen Bingzhen: Structural flexibility of heat exchanger distillation columns. PSE-85, I.Chem.E.Symp.Ser. No 92. 607. 1985.
Swaney RE and Grossmann IE: An index for operational flexibility in chemical process design. AIChE J. 31 621. 1985.
Floudas CA, Ciric AR and Grossmann IE: Automatic Synthesis of optimum heat exchanger configurations. AIChE.J. 32 276. 1986.
Kotjabasaskis E and Linnhoff B: Sensitivity tables for the design of flexible processes (1) — How much contingency in heat exchanger networks is cost-effective? Chem.Eng.Res.Des, 64 197. 1986.
Kotjabasaskis E and Linnhoff B: Process design for flexibility: an optimal overdesign strategy for fouling and multiple base cases. Process Optimisation Conf., Nottingham. 1987.
Merry H and Polley GT: Obtaining valid data on fouling resistance. In “Fouling of Heat Transfer Equipment”, ed E.F.C. Somerscales and J.G. Knudsen, McGraw Hill. 83. 1981.
Somerscales EFC: The fouling of heat transfer equipment. In “Fouling of Heat Transfer Equipment”, ed E.F.C. Somerscales and J.G. Knudsen, McGraw Hill. 1. 1981.
Epstein N: Fouling in heat exchangers. Proceedings of the 6th Int. Heat Transfer Conf., Vol 6. 1978.
Epstein N: Fouling: technical aspects (afterword to fouling in heat exchangers). In “Fouling of Heat Transfer Equipment”, ed E.F.C. Somerscales and J.G. Knudsen, McGraw Hill. 31. 1981.
Knudsen JG: Fouling of heat exchangers: are we solving the problem? Kern Award Lecture, 21st Nat.Heat.Transf.Conf. Seattle. 1983.
Sha WT: Numerical modelling of heat exchangers. In “Handbook of heat and mass transfer — Vol 1” ed NP Cheremisinoff, Gulf. 815 1986.
deBruijn H and Zijl W: Numerical simulation of shell-side flow and temperature distribution in heat exchangers. In “Handbook of heat and mass transfer — Vol 1” ed NP Cheremisinoff, Gulf. 853 1986.
Clampett JB: Relative effect of deposited scale on transfer of heat to salt water. J.Inst.Eng.Aust. 123. 1965.
Hoffman EJ: Fouling rates from the theory of simultaneous heat and mass transfer. AIChE Ann. Meeting, Washington. 1969.
Hausler RH and Thalmeyer CE: Fouling and corrosion in feed effluent exchangers: discussion of a new test method. API refining meeting, Chicago. 1975.
Chiapatta LM and Szetela EJ: A heat exchanger computational procedure for temperature-dependent fouling. Chem.Eng.Comm. 16 189. 1982.
Sundarem SM and Froment GF: Kinetics of coke deposition in the thermal cracking of propane. Chem.Eng.Sci. 34 635. 1979.
Fryer PJ and Slater NKH: A direct simulation procedure for chemical reaction fouling in heat exchangers. Chem.Eng.J. 97 1985.
Fryer PJ and Slater NKH: The simulation of heat exchanger control with tube-side chemical reaction fouling. Chem.Eng.Sci., 41 2363. 1986.
Pritchard AM: The economics of fouling, this conference. 1988.
Duran MA and Grossmann IE: A mixed-integer nonlinear programming algorithm for process synthesis. AIChE Ann. Meeting, San Francisco. 1984.
Duran MA and Grossmann IE: Simultaneous optimisation and heat integration of chemical processes. AIChE.J. 32 1 123. 1986.
Saboo AK, Morari M, and Colberg RD: RESHEX — An Interactive software package for the synthesis and analysis of resilient heat exchanger networks. Parts I and II. Comp.Chem.Eng. 10 577–599. 1986.
Saboo AK, Morari M, and Colberg RD: RESHEX — An Interactive software package for the synthesis and analysis of resilient heat exchanger networks. Parts I and II. Comp.Chem.Eng. 10 577–599. 1986.
Parker D and Smith GJ: MIDAS — A software package for heat exchanger network targeting, design and analysis. Submitted to Chem.Eng. 1987.
Papoulis SA and Grossmann IE: A structural optimisation approach in process synthesis. Parts I–III. Comp.Chem.Eng. 7 695–734. 1983.
Papoulis SA and Grossmann IE: A structural optimisation approach in process synthesis. Parts I–III. Comp.Chem.Eng. 7 695–734. 1983.
Papoulis SA and Grossmann IE: A structural optimisation approach in process synthesis. Parts I–III. Comp.Chem.Eng. 7 695–734. 1983.
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© 1988 Kluwer Academic Publishers
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Fryer, P. (1988). Basic Concepts in Heat Exchanger Network Modelling. In: Melo, L.F., Bott, T.R., Bernardo, C.A. (eds) Fouling Science and Technology. NATO ASI Series, vol 145. Springer, Dordrecht. https://doi.org/10.1007/978-94-009-2813-8_33
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DOI: https://doi.org/10.1007/978-94-009-2813-8_33
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