On the use of heat pumps in total site heat integration

Computers and Chemical Engineering

Volumn 27, Issue 11, 2003, Pages 1707-1719

  Bagajewicz, Miguel J ^a   Barbaro, Andrés F ^a  

^a UNIVERSITY OF OKLAHOMA   (United States)

Author keywords

Energy savings; Heat pumps; Process design; Targeting; Total site heat integration

Indexed keywords

COST BENEFIT ANALYSIS; HEAT TRANSFER; INTEGRATION;

HEAT INTEGRATION;

HEAT PUMP SYSTEMS;

CONTROL SYSTEM; ENERGY EFFICIENCY; HEAT PUMP; MATHEMATICAL ANALYSIS; MODEL;

ARTICLE; CHEMICAL ENGINEERING; ENERGY CONSERVATION; FLOW RATE; HEAT TRANSFER; MATHEMATICAL MODEL; NONLINEAR SYSTEM;

EID: 0142011698     PISSN: 00981354     EISSN: None     Source Type: Journal    
DOI: 10.1016/S0098-1354(03)00149-2     Document Type: Article

References (12)

1. Ahmad, S., & Hui, C. W. (1991). Heat recovery between areas of integrity. Computers and Chemical Engineering 15, 809.
2. Bagajewicz, M. J., & Rodera, H. (2000). Energy savings in the total site. Heat integration across many plants. Computers and Chemical Engineering 24, 1237.
3. Bagajewicz, M. & Rodera, H. (2002). Multiple plant heat integration in the Total Site. American Institute of Chemical Engineering Journal, 48 (10) 2255-2270.
4. Colmenares, T. R., & Seider, W. D. (1987). Heat and power integration of chemical processes. American Institute of Chemical Engineering Journal 33, 898.
5. Dhole, V. R., & Linnhoff, B. (1992). Total site targets for fuel, co-generation, emissions, and cooling. Computers and Chemical Engineering 17, S101.
6. Holiastos, K., & Manousiouthakis, V. (1999). Minimum hot-cold and electric utility cost for a finite-capacity reservoir system. Computers and Chemical Engineering 23, 1263.
7. Morton, R.J., Linnhoff, B. (1984). Individual process improvements in the context of side-wide interactions. Institute of Chemical Engineering, Annual research meeting. Bath, UK.
8. Rodera, H., & Bagajewicz, M. J. (1999). Targeting procedures for energy savings by heat integration across plants. American Institute of Chemical Engineering Journal 45, 1721.
9. Shelton, M. R., & Grossmann, I. E. (1986). Optimal synthesis of integrated refrigeration systems Parts I&II. Computers and Chemical Engineering Journal 10, 445.
10. Swaney, R. E. (1989). Thermal integration of processes with heat engines and heat pumps. American Institute of Chemical Engineering Journal 35, 1003.
11. Townsend, D., & Linnhoff, B. (1983). Heat and power networks in process design. Parts I&II. American Institute of Chemical Engineering Journal 29, 742.
12. Vaidyaraman, S., & Maranas, C.D., (1998). Optimal synthesis of refrigeration cycles and selection of refrigerants. AIChE national meeting, Miami, FL, USA.