Abstract
Greenhouse gases (GHG) emissions from fossil fuel combustion in industrial processes contribute significantly to global warming. A reduction in GHG emissions can only be achieved by a conversion to renewable energy sources and a simultaneous increase in energy efficiency; therefore, the application of renewable energies for evaluating the site utility systems and environmental aspects should be considered. Site utility systems involve complex interactions. For improving the systems, a structured approach is needed. Steam generators are important components of site utility systems that affect the thermal performance of chemical and petrochemical industry processes.
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References
Demirbas, A (2000) Biomass resources for energy and chemical industry. Energy Edu Sci Technol 5:21–45.
El-Sayed, MA H (2005) Solar supported steam production for power generation in Egypt. Energy Policy 33:1251–1259.
Gera, D, Mathur, MP, Freeman, MC, Robinson, A (2002) Effect of large aspect ratio of biomass particles on carbon burnout in a utility boiler. Energy Fuels 16:1523–1532.
Harrell, G (2001) Steam Survey Guidebook. U.S. Department of Energy (DOE).
Kelly, B, Herrmann, U, Hale, MJ. (2001). Optimization studies for integrated solar combined cycle systems. Solar Energy: The Power to Choose, ASME Forum. Washington, DC.
Khodaie, H, Nasr, MRJ (2008) Optimization of Steam Network In Tehran Oil Refinery. International Conference of IETC, Texas Engineering Experiment Station. Texas A&M University.
MATLAB software, version 7.3.
Mavromatic, SP, Kokossis, AC (1998) Conceptual optimization of utility networks for operational variations.1.Targets and level optimization. Chemical Engineering Science 53:1585–1608.
Mohan, T (2005) An Integrated Approach for Techno-Economic and Environmental Analysis of Energy from Biomass and Fossil Fuels. MSc. Dissertation. Texas A&M University
Polley, GT, Panjeshahi, MH (1991) Interfacing heat exchanger network synthesis and detailed heat exchanger design. Trans I Chem E. 69:445–457.
Schnitzer, H, Brunner, C, Gwehenberger, G (2007) Minimizing greenhouse gas emissions through the application of solar thermal energy in industrial processes. Journal of Cleaner Production 15:1271–1286.
Shang, Z, Kokossis, A (2004) A transshipment model for the optimization of steam levels of total site utility system for multi-period operation. Computers and Chemical Engineering 28:1673–1688.
Smith, R (2005) Chemical Process Design and Integration. West Sussex: John Wiley & sons Ltd.
STAR Software, Department of Process Integration, UMIST, Manchester (2005). This product licensed to K.N. Toosi University of Technology, Energy system Laboratory, Department of Mechanical Engineering, Tehran, Iran.
Urban, L, Masa, V, Pavlas, M, Stehlik, P (2007) Novel type of technology for biomass utilization. Chemical Engineering Transactions 12:465–470.
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Panjeshahi, M.H., Ahmadi, L., Perry, S. (2010). Steam Network Optimization by Utilizing Biomass and Solar Energy Sources in an Oil Refinery. In: Dincer, I., Hepbasli, A., Midilli, A., Karakoc, T. (eds) Global Warming. Green Energy and Technology. Springer, Boston, MA. https://doi.org/10.1007/978-1-4419-1017-2_29
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DOI: https://doi.org/10.1007/978-1-4419-1017-2_29
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