Comparison of CO2 capture economics for iron and steel mills

International Journal of Greenhouse Gas Control

Volumn 19, Issue , 2013, Pages 145-159

  Ho, Minh T ^a,b   Bustamante, Andrea ^a   Wiley, Dianne E ^a,b  

^a UNIVERSITY OF NEW SOUTH WALES   (Australia)

^b University of Melbourne   (Australia)

Author keywords

CCS; Corex; Economics; Hismelt; Iron and steel

Indexed keywords

BLAST FURNACES; CARBON DIOXIDE; COST ESTIMATING; COST REDUCTION; ECONOMICS; ELECTRIC FURNACES; IRON AND STEEL INDUSTRY; SOLVENTS; STEELMAKING; STEELMAKING FURNACES;

COREX; HISMELT; IRON AND STEEL; MANUFACTURING INDUSTRIES; SOLVENT ABSORPTION; STEEL PRODUCTION; TOP GAS RECYCLING; VACUUM PRESSURE SWING ADSORPTION TECHNOLOGY;

COST BENEFIT ANALYSIS;

ABSORPTION; CARBON DIOXIDE; CARBON EMISSION; CARBON SEQUESTRATION; COMBUSTION; IRON; MILL; STEEL; VENTING;

EID: 84884539894     PISSN: 17505836     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.ijggc.2013.08.003     Document Type: Article

References (48)

1. AEMO, 2011. Victorian Declared Wholesale Gas Market-Gas Price and Demand Data.
2. Allinson, G., Ho, M., Neil, P., Wiley, D., 2006. The methodology used for estimating the costs of CCS. In: Eighth International Conference on Greenhouse Gas Technologies (GHGT-8) Norway, Tronheim.
3. Barati M. Energy intensity and greenhouse gases footprint of metallurgical processes: a continuous steelmaking case study. Energy 2010, 35:3731-3737.
4. Birat, J.P., Lorrain, J.P., 2008. The 'cost tool': operating and capital costs of existing and breakthrough routes in a future studies framework. In: Fourth ULCOS Seminar.
5. Birat, J.P., Maizières-lès-Metz, D., 2010. Steel Sectoral Report. Contribution to the UNIDO Roadmap on CCS. Fifth Draft. United Nations Industrial Development Organization, Amsterdam, The Netherlands.
6. Bisio G. A second-law analysis of the hot blast stove/gas turbine combination by applying the parameter usable exergy. Energy Conversion and Management 1998, 39(3-4):217-227.
7. Carbon Storage Taskforce, 2009. National Carbon Mapping and Infrastructure Plan-Australia: Concise Report. Department of Resources, Energy and Tourism, Canberra.
8. Chaplin, V., 2003. Sustaining Our Steel Resource. Retrieved 09/09/2009, from 〈〉. http://www.wasteandrecycle.com.au/media/proceedings05/pdf/ChaplinVupdate.pdf.
9. Danloy, G., Bethelemot, A., Grant, M., Borlee, J., Sert, D., van der Staal, H., Dimastromatteo, V., Hallin, M., Eklund, M., Edberg, N., Sundqvist, L., Lin, R., Korthas, B., Fuller, F., 2009. ULCOS-Pilot Testing of the Low-CO2 Blast Furnace Process at the Experimental BF in Luleå. La Revue de Métallurgie.
10. Danloy, G., van der Stel, J., Schole, P., 2008. Heat and mass balances in the ULCOS Blast Furnace. In: Fourth ULCO Seminar.
11. Dave, N.G., Duffy, G.J., Edwards, H., Lowe, A., 2000. Evaluation of the Options for Recovery and Disposal of CO2 from Australian Black Coal-fired Power Stations. ACARP Report C7051. Australia CSIRO Energy Technology.
12. DOE, 2007. Cost and Performance Baseline for Fossil Energy Plants. Volume 1: Bituminous Coal and Natural Gas to Electricity. DOE/NETL-2007/1281. US Department of Energy, Washington, USA.
13. DOE/NETL, 2007. Carbon Dioxide Capture from Existing Coal-fired Power Plants, National Energy Technology Laboratory.
14. Ertem M.E., Özdabak A. Energy balance application for Erdemir Coke Plant with thermal camera measurements. Applied Thermal Engineering 2005, 25(2-3):423-433.
15. Essar Steel, 2013. Hazira: Steel Complex. From 〈〉. http://www.essarsteel.com/section_level2.aspx%3Fcont_id=FENytf1sB94=%26path=Operations_%3E_India_%3E_Hazira%3A_Steel_comple.
16. Farla J.C. Carbon dioxide recovery from industrial processes. Fuel and Energy Abstracts 1996, 37(3):216.
17. 2 avoided. International Journal of Greenhouse Gas Control 2012, 8(0):150-168.
18. 2 removal in the iron and steel industry. Energy Conversion and Management 2003, 44(7):1027-1037.
19. Goodman, N., 2007. Operations at the Hismelt Kwinana PlantKwinana. HIsmelt Corporation Pty Ltd.
20. 2 capture from flue gases using pressure swing adsorption. Industrial and Engineering Chemistry Research 2008, 47(8):4883-4890.
21. 2 emissions sources in Australia. International Journal of Greenhouse Gas Control 2011, 5(1):49-60.
22. 2 emission between COREX and blast furnace iron-making system. Journal of Environmental Sciences 2009, 21(Supplement 1):S116-S120.
23. IEA-GHG, 2000. Greenhouse Gas Emissions from Major Industrial Sources-Iron and Steel Production. Report no. PH3/30. Cheltenham, UK, IEA Greenhouse Gas R&D Programme.
24. IEA-GHG, 2006. Estimating the Future Trends in the Cost of CO2 Capture Technologies. 2006/5. International Energy Agency Greenhouse Gas R&D Programme.
25. IEA-GHG, 2011. Retrofitting CO2 Capture to Existing Power Plants IEA Greenhouse Gas R&D Programme.
26. 2 Emissions 2007, IEA Publications, Paris, France.
27. IEA, 2012. CO2 Emissions from Fuel Combustion. Paris, France, IEA Publications.
28. Jianwei Y., Guolong S., Cunjiang K., Tianjun Y. Oxygen blast furnace and combined cycle (OBF-CC)-an efficient iron-making and power generation process. Energy 2001, 28(8):825-835.
29. 2 capture technologies for carbon-intensive industrial processes. Progress in Energy and Combustion Science 2011, 38(1):87-112.
30. 2 removal from metallurgical fuel gases. Energy 2006, 32(4):521-527.
31. 2 capture in the steelmaking industry. International Journal of Greenhouse Gas Control 2007, 1(3):309-317.
32. McClelland, J., Anderson, S., Metius, G., 2002. Future green steelmaking. In: SEAISI 2002 Conference. Tokyo, Japan.
33. McKinsey, 2009. Pathways to a Low-carbon Economy. Version 2 of the Global Greenhouse Gas Abatement Cost Curve.
34. Midrex, 2012. World DRI Statistics. From 〈〉. http://www.midrex.com/handler.cfm/cat_id/153/section/company.
35. 2 emission technologies for iron and steelmaking as well as titania slag production. Minerals Engineering 2007, 20(9):854-861.
36. Peters M.S., Timmerhaus K.D., West R.S. Plant Design and Economics for Chemical Engineers 2003, McGraw-Hill, New York.
37. Riley, M., 2002. Hot Oxygen Injection into the Blast Furnace. Report no. DE-FC07-97ID13554. US Department of Energy. Pittsburgh, PA.
38. Roarty, M., 2008. Australia's Natural Gas: Issues and Trends Canberra Department of Parliamentary Services.
39. Ross M. Industrial energy conservation and the steel industry of the United States. Energy 1987, 12(10-11):1135-1152.
40. Tonomura, S., 2012. Outline of course50. In: 11th International Conference of Greenhouse Gas Control Technologies (GHGT-11). Kyoto, Japan.
41. Torp, T.A., 2005. Drastic Reduction of CO2 Emissions from Steel Production with CO2 Capture and Storage (CCS)-ULCOS Project. ULCOS Consortium.
42. Tsupari, E., Kärki, J., Arasto, A., Pisilä, E., 2012. Post-combustion capture of CO2 at an integrated steel mill-Part II: Economic feasibility. International Journal of Greenhouse Gas Control(0).
43. ULCOS, 2008. ULCOS-Ultra Low CO2 Steelmaking. Retrieved 20/03/2009, from 〈〉. http://www.ulcos.org/.
44. 2 capture at iron and steel mills: an Australian perspective. Energy Procedia 2011, 4:2654-2661.
45. Wingrove, G., Keenan, B., Satchwell, D., Aswegan, C.V., 1999. Developments in ironmaking and oppurtunities of power generation. In: Gasification Technologies Conference. BOC Gases, Sanfrancisco, CA.
46. Worrell E., Price L., Martin N., Farla J., Schaeffer R. Energy intensity in the iron and steel industry: a comparison of physical and economic indicators. Energy Policy 1997, 25(7-9):727-744.
47. WSA, 2008. 2008 Sustainability Report. World Steel Association, Brussels.
48. Yusfin Y.S. Evaluation of different steelmaking methods on the basis of environmental and conservation concerns. Metallurgist 2001, 2001(34):364-371.