An overview of utilization of slag and sludge from steel industries

Resources, Conservation and Recycling

Volumn 50, Issue 1, 2007, Pages 40-57

  Das, B ^a   Prakash, S ^a   Reddy, P S R ^a   Misra, V N ^a  

^a CSIR INSTITUTE OF MINERALS AND MATERIALS TECHNOLOGY   (India)

Author keywords

BF dust; BF sludge; LD slag; LD sludge; Steel plant; Utilization

Indexed keywords

BLAST FURNACES; IRON AND STEEL PLANTS; SLAGS; SOLID WASTES; WASTE MANAGEMENT;

BLAST FURNACE SLUDGE; INDUSTRIAL INSTALLATIONS;

WASTE UTILIZATION;

BLAST FURNACES; IRON AND STEEL PLANTS; SLAGS; SOLID WASTES; WASTE MANAGEMENT; WASTE UTILIZATION;

COMMINUTION; INDUSTRIAL WASTE; IRON AND STEEL INDUSTRY; RECYCLING; SLAG; SLUDGE; WASTE MANAGEMENT;

ARTICLE; CYCLONE SEPARATOR; IRON AND STEEL INDUSTRY; PHYSICAL CHEMISTRY; QUANTITATIVE ANALYSIS; SEPARATION TECHNIQUE; SLAG; SLUDGE; SLUDGE DISPOSAL; SOLID;

EID: 33847250519     PISSN: 09213449     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.resconrec.2006.05.008     Document Type: Article

References (35)

1. Chen H.K., Lin C.I., and Liu S.H. Carbothermic reduction of sludges of blast furnace and basic oxygen furnace. Scand J Metallurgy 21 5 (1992) 218-222
2. Cho T.R., Song C.B., and Goto S.K. Recovery of zinc from blast furnace dust sludge, Nonmunjip-Ch'ungnam Taehakkyo. Sanop Kisul Yon'guso 12 2 (1997) 29-34
3. Das B., Prakash S., Biswal S.K., Reddy P.S.R., Mohapatra B.K., and Tripathy H.K. Utilization of solid waste materials generated at steel plants by physical beneficiation technique: report submitted to Ministry of Steel (2002), Govt. of India Regional Research Laboratory (CSIR), Bhubaneswar, India
4. Das B., Prakash S., Reddy P.S.R., Biswal S.K., Mohapatra B.K., and Misra V.N. Effective utilization of blast furnace flue dust of integrated steel plants. Eur J Miner Process Environ Protect 2 2 (2002) 61-67
5. Dimitrova S.V., and Mehandgie D.R. Lead removal from aqueous solutions by granulated blast-furnace slag. Construct Build Mater 1 3 (1996) 191-193
6. Ellis J.D. Agglomeration or injection-two cycling alternatives. Learn strategies for coping with steel mill wastes and profitting from by-products. Gorham/Intertech Consulting, Pittsburg, USA, 17-19 May (1999) 5
7. Eriksson J., Ping Ma, Bjorkman B.O., and Zander B.O. REWAS utilisation of oily mill scale sludge as scrap resource. In: Gaballah I., and Hager J. (Eds). Solozabal, R. global symposium recycle., waste treatment clean technology: proceeding, vol. 2. Minerals, Metals & Materials Society, Warrendale (1999) 1423-1430
8. Fosnacht D.R. Characterization and utilization of iron-bearing steel plant waste materials. Physical chemistry of extractive metallurgy conference. New York, USA, 24-28 February 1985, The Metallurgical Society/AIME Pennsylvania 15086 (1985) 479-492
9. Francis A.A. Conversion of blast furnace slag into new glass-ceramic material. J. Eur. Ceram. Soc. 9 4 (2004) 2819-2824
10. Fregeau-Wu E., Pignolet-Brandom S., and Iwasaki I. Liberation analysis of slow cooled steel making slags: implications for phosphorus removal. Proceedings of the 1st international conference on processing materials for properties, sponsored by TMS; MMIJ Punl by Minerals, Metals & Materials Society (TMS) (1993) 153-156
11. Goldring D.C., and Juckes L.M. Petrology and stability of LD slag. Iron Mak Steel Mak 24 6 (1997) 447-456
12. Gudenau H.W., Denecke H., and Wippermann S. Iron ore and iron containing dust injection into the blast furnace. 2nd international congress on the science and technology of iron making and 57th iron making conference. Toronto, Canada, March (1998) 22-25
13. Harris M.M. The use of steel-mill waste solids in iron and steel making. Recycling in the steel industry conference: 1st process technology conference, vol. 1. Washington, DC, USA, March (1980) 62-71
14. Kolb H., and Leipold W. Slag for the building industry. Radex Rundschau 1-2 (1993) 261-269
15. Kostura B., Kulveitová H., and Juraj L. Blast furnace slags as sorbents of phosphate from water solutions. Water Res 39 9 (2005) 1795-1802
16. Landow M.P., Martinez M., and Barnett T. The recycling of waste oxides at Great Lakes division National Steel Corporation. Iron making conference proceedings, vol. 56. Chicago, IL, USA, April (1997) 13-16
17. Lopez-Delgado A., Perez C., and Lopez F.A. Heavy metals adsorption on blast furnace sludges. Conference: 8th, national congress on the science and technology of metallurgy. Revista De Metalurgia 34: (Suppl.), May (1998) 164-168
18. Lopez Gomez F.A., Aldecoa R., Fernandez Prieto M.A., Rodrigues, and Julia M. Preparation of NPK fertilizers from ferrous-metallurgy. Simoes C Eur Commun [Rep] 18616 (1999) 1-57
19. 2+ on blast furnace sludge. Chem Technol Biotechnol 62 2 (1995) 200-206
20. Maslehuddin M., Alfarabi A.M., Sharif M., Shameen M., Ibrahim M., and Barry M.S. Comparison of properties of steel slag and crushed limestone aggregate concretes. Construct Build Mater 17 2 (2003) 105-112
21. Ozeki S. Properties and usage of steel plant slag. Encosteel: steel for sustainable development. International Iron and Steel. Stockholm, Sweden; 16-17 June 1997.
22. Park H.S., Ban B.C., and Cho K.S. Smelting reduction for vanadium-recovery from LD-slag (I). J Korean Inst Met Mater 32 8 (1994) 982-988
23. Pradhan N., Das B., Acharya S., Kar R.N., Sukla L.B., and Misra V.N. Removal of phosphorus from LD slag using a heterotrophic bacterium. Miner Metallurgical Process 21 3 (2005) 149-152
24. Piecuch T., and Dabrowska L. Techno-economic prospects of utilizing wet-cleaned blast-furnace dust. Hutnik (Katowice) 50 5 (1983) 174-176
25. Rehmat A., and Mensinger M.C. Recovery of direct reduced iron from blast furnace dust. Second international symposium on extraction and processing for the treatment and minimization of wastes. Scottsdale, Arizona, USA, October (1996) 27-30
26. Sarma B., Downing K.B., and Aukrust E. Recovery of iron, carbon and zinc from steel plant waste oxides using the AISI-DOE post combustion smelting technology. Steelmak Conf Proc 79 (1996) 667-684
27. Serbent H., Maczek H., and Rellermeyer H. Large-scale test for the treatment of BF sludge and B.O.F. dust according to Waelz process (retroactive coverage). Iron making proceedings, vol. 34. Toronto, Canada, Iron and Steel Society AIME, 345 E. 47th St., New York, NY 10017, 13-16 April (1975) 194-205
28. Seggiani M., and Sandra V. Recovery of silica gel from blast furnace slag. Ceram Int 28 4 (2002) 393-400
29. Sharma K.K., Swaroop S., and Thakur D.S. Recycling of LD slag through sinter route on direct charging in blast furnace at Bhilai Steel Plant. Proceedings of national seminar on pollution control in steel industries. Ranchi, India, 4-5 August (1993) 72-79
30. Shevko V.M., Tomilin I.A., Nikanorov A.D., Pominov V.D., and Kabylbekova B.N. Pilot plant testing of oxidizing chlorination roasting of blast-furnace and steel making sludges. Kompleksn Ispol'z Miner Syr'ya 5 (1993) 93
31. Thomas G.H. Investigations on LD slag with particular reference to its use for road construction (pamphlet) vol. 1003 (1983), Commission of the European Communities, Boite Postale, Luxembourg p. 75
32. Uno S., Umetsu Y., Ohmizu M., and Munakata S. Dezincing equipment and operation based on wet classification of wet-cleaned BF dust. Nippon Steel Tech Rep 13 (1979) 80-85
33. Van Herck P., Vandecasteele C., Swennen R., and Mortier R. Zinc and lead removal from blast furnace sludge with a hydrometallurgical process. Environ Sci Technol 34 17 (2000) 3802-3808
34. Weiss FJ, Goksel MA, Coburn JL, Metius, GE. The recycling of steel plant waste oxides using the PTC (Pellet Technology Corporation) cold bond carbon bearing pellet technology. Disposal, recycling and recovery of electric furnace exhaust dust. Iron and Steel Society, AIME, 410, Commonwealth Drive, Warrendale, Pennsylvania 15086, USA; 1987. p. 115-20.
35. Zeydabadi B.A., Mowla D., Shariat M.H., and Fathi Kalajahi J. Zinc recovery from blast furnace flue dust. Hydrometallurgy 47 1 (1997) 113-125