Assessment of the thermal performance and energy conservation opportunities of a cement industry in Indonesia

Applied Thermal Engineering

Volumn 25, Issue 17-18, 2005, Pages 2950-2965

  Rasul, M G ^a   Widianto, W ^b   Mohanty, B ^b  

^a CENTRAL QUEENSLAND UNIVERSITY   (Australia)

^b ASIAN INSTITUTE OF TECHNOLOGY   (Thailand)

Author keywords

Burning and second law efficiencies; Cooler and recovery efficiencies; Energy conservation opportunities; Kiln and cooler systems; Thermal performance

Indexed keywords

COMBUSTION; COOLING; DIESEL FUELS; HEAT CONVECTION; MATHEMATICAL MODELS; PORTLAND CEMENT; RADIATION EFFECTS; WASTE HEAT;

BURNING AND SECOND LAW EFFICIENCY; COOLER AND RECOVERY EFFICIENCIES; ENERGY CONSERVATION OPPORTUNITIES; KIM AND COOLER SYSTEMS; THERMAL PERFORMANCE;

CEMENT INDUSTRY;

EID: 23844531207     PISSN: 13594311     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.applthermaleng.2005.03.003     Document Type: Article

References (22)

1. 2 emissions from the world cement industry, European Commission Joint Research Centre, Report EUR 20769 EN, June 2003.
2. International Energy Agency, The reduction of greenhouse gas emission from the cement industry, IEA Greenhouse Gas R&D Programme, 1999.
3. E. Worell, N. Martin, and L. Pryce Potentials for energy efficiency improvements in the US cement industry Energy 25 2000 1189 1214
4. F. Liu, M. Ross, and S. Wang Energy efficiency of China's cement industry Energy 20 7 1995 669 689
5. L. Ben-dor, Thermal methods, Advances in cement technology by SN Ghosh, Department of Inorganic and Analytical Chemistry, The Hebrew University of Jerusalem, Israel, 1981.
6. K. Yoshida, Thermodynamic analysis of energy flows and its applications to cement industry, Energy Conservation of Cement Industries, University of Tokyo, Japan, 1982.
7. O. Labahn Cement Engineers Handbook fourth ed. 1983 Bauveriag GMNH
8. D.W. Haspel High Level Kiln Control, Process Technology of Cement Manufacturing 1985 VDZ Greenhithe
9. Japan Iron and Steel Federation, 2003. Available from: < http://www.jisf.or.jp/energy>.
10. EETD, Energy Efficiency Technical Department Newsletter, Summer 1999.
11. A. Shirazi, Potential for implementation of energy saving measures in selected cement factories in Iran, M.Sc. Thesis, University of Flenburg, Germany, March 2002.
12. Cement industry handy manual prepared by UNIDO (United Nations Industrial Development Organization) 1994. Available from: < http://www.unido.org/ userfiles/puffk/cement>.
13. C.A. Hendriks, E. Worell, D. Jager, K. Blok, P. Reimer, Emission reduction of greenhouse gases from the cement industry, Greenhouse Gas Control Technologies Conference Paper 2000. Available from: < http://www.ieagreen. org>.
14. W. Widianto, Thermal performance modelling of cement industries: a case study in Indonesia, AIT Thesis No. ET-89-16, Bangkok, Thailand, 1989.
15. Chemistry of cement. Available from: < http://www.abdn.ac.uk/ chemistry/research/dem/cemhon.doc>.
16. Japanese standard JIS R0303, Heat Balancing Method for Cement Industry, 1979.
17. B. Mohanty, J.C. Mora, An overview of rational use of energy in industry, in: Proceedings 6th Asian School on Energy, Asian Institute of Technology, Bangkok, Thailand, 1988.
18. A.B. Herrera, Techno-economic evaluation of co-generation potential in two manufacturing plants in Philippines, Masters Thesis, Energy Technology Division, Asian Institute of Technology, Bangkok, Thailand, 1989.
19. Powergen, A power generation company throughout the world, "Plant start-up and engineering support to the power industry, 2003. Available from: < http://www.pwrgen.com/pwrgen.html>.
20. SEDA, Sustainable energy development authority, New South Wales, Australia, "Renewable energy and co-generation, 2003. Available from: < http://www.seda.nsw.gov.au/ren_cogeneration_body.asp>.
21. T.D. Baker Co-generation for resort hotel ASHRAE Transaction (Part B1) 92 1986 318 329
22. D.C. Pedreyra A micro-computer version of a large mainframe program for use in co-generation analysis ASHRAE Transaction 94 1988 1617 1625