A novel optimization approach of improving energy recovery in retrofitting heat exchanger network with exchanger details

Energy

Volumn 57, Issue , 2013, Pages 188-200

  Pan, Ming ^a   Smith, Robin ^a   Bulatov, Igor ^a  

^a UNIVERSITY OF MANCHESTER   (United Kingdom)

Author keywords

Energy recovery; Exchanger details; Heat exchanger network (HEN); Heat transfer intensification; Retrofit

Indexed keywords

ELECTRIC NETWORK TOPOLOGY; HEAT TRANSFER; OPTIMIZATION; RECOVERY; RETROFITTING; TUBES (COMPONENTS); WASTE HEAT;

ENERGY RECOVERY; EXCHANGER DETAILS; HEAT EXCHANGER NETWORK; HEAT TRANSFER INTENSIFICATIONS; RETROFIT;

HEAT EXCHANGERS;

ENERGY EFFICIENCY; GEOMETRY; HEAT BALANCE; IMPLEMENTATION PROCESS; OPTIMIZATION; TOPOLOGY;

EID: 84879331546     PISSN: 03605442     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.energy.2012.10.056     Document Type: Article

References (19)

1. Pan M., Bulatov I., Smith R. Novel MILP-based optimization method for retrofitting heat exchanger networks. Computer Aided Chemical Engineering 2012, 30:567-571.
2. Pan M., Bulatov I., Smith R., Kim J.K. Novel MILP-based iterative method for the retrofit of heat exchanger networks with intensified heat transfer. Computer and Chemical Engineering 2012, 42:263-276.
3. Yee T.F., Grossmann I.E. Ascreening and optimization approach for the retrofit of heat exchanger networks. Industrial & Engineering Chemistry Research 1991, 30(1):146-162.
4. Ciric A.R., Floudas C.A. Amixed integer nonlinear programming model for retrofitting heat-exchanger networks. Industrial & Engineering Chemistry Research 1990, 29(2):239-251.
5. Sorsak A., Kravanja Z. MINLP retrofit of heat exchanger networks comprising different exchanger types. Computer and Chemical Engineering 2004, 28:235-251.
6. Barbaro A., Bagajewicz M. New rigorous one-step MILP formulation for heat exchanger network synthesis. Computer and Chemical Engineering 2005, 29(9):1945-1976.
7. Nguyen D.Q., Barbaro A., Vipanurat N., Bagajewicz M. All-at-once and step-wise detailed retrofit of heat exchanger networks using an MILP model. Industrial & Engineering Chemistry Research 2010, 49:6080-6103.
8. Athier G., Floquet P., Pibouleau L., Domenech S. Amixed method for retrofitting heat-exchanger networks. Computer and Chemical Engineering 1998, 22:S505-S511.
9. Bochenek R., Jezowski J.M. Genetic algorithms approach for retrofitting heat exchanger network with standard heat exchangers. Computer Aided Chemical Engineering 2006, 21:871-876.
10. Rezaei E., Shafiei S. Heat exchanger networks retrofit by coupling genetic algorithm with NLP and ILP methods. Computer and Chemical Engineering 2009, 33:1451-1459.
11. Soltani H., Shafiei S. Heat exchanger networks retrofit with considering pressure drop by coupling genetic algorithm with LP (linear programming) and ILP (integer linear programming) methods. Energy 2011, 36:2381-2391.
12. Wang Y., Pan M., Bulatov I., Smith R., Kim J.K. Application of intensified heat transfer for the retrofit of heat exchanger network. Apply Energy 2012, 89:45-59.
13. Pan M., Bulatov I., Smith R., Kim J.K. Improving energy recovery in heat exchanger network with intensified tube-side heat transfer. Chemical Engineering Transition 2011, 25:375-380.
14. Pan M., Bulatov I., Smith R., Kim J.K. Novel optimization method for retrofitting heat exchanger networks with intensified heat transfer. Computer Aided Chemical Engineering 2011, 29:1864-1868.
15. Pan M., Bulatov I., Smith R., Kim J.K. Optimisation for the retrofit of large scale heat exchanger networks with comprising different intensified heat transfer techniques. Applied Thermal Engineering 2012, 10.1016/j.applthermaleng.2012.04. 038.
16. Kralj A.K. Optimization of an industrial retrofitted heat exchanger network using a stage-wise model. Energy 2010, 35:4748-4753.
17. Panjeshahi M.H., Tahouni N. Pressure drop optimisation in debottlenecking of heat exchanger networks. Energy 2008, 33:942-951.
18. Raskovic P., Stoiljkovic S. Pinch design method in the case of a limited number of process streams. Energy 2009, 34:593-612.
19. Wang Y., Feng X., Cai Y., Zhu M., Chu K.H. Improving a process's efficiency by exploiting heat pockets in its heat exchange network. Energy 2009, 34:1925-1932.