Production of lightweight aggregates from mining and industrial wastes

Journal of Environmental Management

Volumn 90, Issue 8, 2009, Pages 2801-2812

  Gonzalez Corrochano B ^a   Alonso Azcarate J ^a   Rodas, M ^b  

^a UNIVERSITY OF CASTILLA LA MANCHA   (Spain)

^b UNIVERSIDAD COMPLUTENSE DE MADRID   (Spain)

Author keywords

Bloating; Lightweight aggregate; Sewage sludge; Washing aggregate sludge

Indexed keywords

COMPRESSIVE STRENGTH; INDUSTRIAL WASTES; SEWAGE SLUDGE; WASHING; WASTEWATER TREATMENT; WATER ABSORPTION;

BLOATING; DWELL TIME; GRAVEL-PIT; HEATING TEMPERATURES; LIGHTWEIGHT AGGREGATES; LOSS-ON-IGNITION; PARTICLE DENSITIES; RAW MATERIAL CHARACTERISTICS; WASHING AGGREGATE SLUDGE; WASTE WATER TREATMENT PLANTS;

AGGREGATES;

AGGREGATE; INDUSTRIAL WASTE; MINE WASTE; SLUDGE; WASTE MANAGEMENT;

ARTICLE; BUILDING MATERIAL; BULK DENSITY; CLAY; COMPRESSIVE STRENGTH; CONTROLLED STUDY; HEATING; HIGH TEMPERATURE; HORTICULTURE; INDUSTRIAL WASTE; LIGHTWEIGHT AGGREGATE; MATERIALS; MATERIALS TESTING; MINERALOGY; MINING; PHYSICAL CHEMISTRY; SEDIMENT; SLUDGE TREATMENT; WASTE WATER RECYCLING; WASTE WATER TREATMENT PLANT; WATER ABSORPTION;

EID: 67349235548     PISSN: 03014797     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.jenvman.2009.03.009     Document Type: Article

References (48)

1. Baykal G., and Doven A.G. Utilization of fly ash by pelletization process: theory, application areas and research results. Resources Conservation and Recycling 30 1 (2000) 59-77
2. Benbow J. Mineral in fire protection construction support market. Industrial Minerals (September 1987) 61-73
3. Benbow J.J., Oxley E.W., and Bridgwater J. The extrusion mechanics of pastes - the influence of pastes formulation on extrusion parameters. Chemical Engineering Science 42 (1987) 2151-2162
4. Bethanis S., Cheeseman C.R., and Sollars C. Properties and microstructure of sintered incinerator bottom ash. Ceramics International 28 8 (2002) 881-886
5. Bethanis S., Cheeseman C.R., and Sollars C.J. Effect of sintering temperature on the properties and leaching of incinerator bottom ash. Waste Management and Research 22 4 (2004) 255-264
6. Blanco, I., 2004. Caracterización de los residuos y estériles generados en las graveras del río Jarama y sus aplicaciones en la industria cerámica. PhD thesis, Universidad Complutense, Madrid, 563 pp.
7. Casagrande A. Research in Atterberg limits of soil. Public Roads 13 (1932)
8. Casagrande A. Classification and identification of soils. Transactions of the American Society of Civil Engineers 113 2351 (1948) 901-903
9. Chang F.C., Lo S.L., Lee M.Y., Ko C.H., Lin J.D., Huang S.C., and Wang C.F. Leachability of metals from sludge-based artificial lightweight aggregate. Journal of Hazardous Materials 146 1-2 (2007) 98-105
10. Cheeseman C.R., and Virdi G.S. Properties and microstructure of lightweight aggregate produced from sintered sewage sludge ash. Resources, Conservation and Recycling 45 1 (2005) 18-30
11. Chopra S.K., Lal K., and Ramaahandran V.S. Gas-producing agents in production of lightweight aggregates. Journal of the Applied Chemistry of the Ussr 14 5 (1964) 181
12. Conley J.E., Wilson H., and Kleinfelter T.A. Production of Lightweight Concrete Aggregates from Clays, Shales, Slates and Other Materials. Report of Investigation, 4401 (1948), US Bureau of Mines 121 pp.
13. Dahab, A.S., 1980. Les argiles expansibles: caractérisation minéralogique et chimique. Expansion statique: application à la culture sans sol. PhD thesis, Laboratoire Paléogéographie-Substances utiles, ENSG, Nancy, 150 pp.
14. Decleer J., and Viaene W. Rupelian boom clay as raw material for expanded clay manufacturing. Applied Clay Science 8 (1993) 111-128
15. De' Gennaro R., Cappelletti P., Cerri G., De' Gennaro M., Dondi M., and Langella A. Zeolitic tuffs as raw materials for lightweight aggregates. Applied Clay Science 25 1-2 (2004) 71-81
16. De' Gennaro R., Cappelletti P., Cerri G., De' Gennaro M., Dondi M., and Langella A. Neapolitan Yellow Tuff as raw material for lightweight aggregates in lightweight structural concrete production. Applied Clay Science 28 1-4 (2005) 309-319
17. De' Gennaro R., Cappelletti P., Cerri G., De' Gennaro M., Dondi M., Graziano S.F., and Langella A. Campanian Ignimbrite as raw material for lightweight aggregates. Applied Clay Science 37 1-2 (2007) 115-126
18. Ducman V., Mladenovic A., and Suput J.S. Lightweight aggregate based on waste glass and its alkali-silica reactivity. Cement and Concrete Research 32 2 (2002) 223-226
19. Fakhfakh E., Hajjaji W., Medhioub M., Rocha F., López-Galindo A., Setti M., Kooli F., Zargouni F., and Jamoussi F. Effects of sand addition on production of lightweight aggregates from Tunisian smectite-rich clayey rocks. Applied Clay Science 35 (2007) 228-237
20. Gao X., Wang W., Ye T., Wang F., and Lan Y. Utilization of washed MSWI fly ash as partial cement substitute with the addition of dithiocarbamic chelate. Journal of Environmental Management 88 (2008) 293-299
21. García G. Aragonitos de Pantoja (Toledo). Bocamina 13 (2004) 10-27
22. Huang S.C., Chang F.C., Lo S.L., Lee M.Y., Wang C.F., and Lin J.D. Production of lightweight aggregates from mining residues, heavy metal sludge, and incinerator fly ash. Journal of Hazardous Materials 144 1-2 (2007) 52-58
23. Hung M.F., and Hwang C.L. Study of fine sediments for making lightweight aggregate. Waste Management and Research 25 (2007) 449-456
24. Ingamells C.O. Lithium metaborate flux in silicate analysis. Analytica Chimica Acta 52 (1970) 323-334
25. Jackson M.L. Soil Chemical Analysis - Advanced Course. second ed. (1969), University of Wisconsin, Madison, WI Published by the author
26. Kim Y., Kim J.H., Lee K.G., and Kang S.G. Recycling of dust wastes as lightweight aggregates. Journal of Ceramic Processing Research 6 2 (2005) 91-94
27. Kung L.S., and Liu C.P. Lightweight Aggregate Concrete (1996), China Railroad Publisher, Beijing, China
28. Li Y., Wu D., Zhang J., Chang L., Fang Z., and Shi Y. Measurement and statistics of single pellet mechanical strength of differently shaped catalysts. Powder Technology 113 (2000) 176-184
29. Lin K.L. Mineralogy and microstructures of sintered sewage sludge ash as lightweight aggregates. Journal of Industrial and Engineering Chemistry 12 3 (2006) 425-429
30. 2 and different ash particle sizes on sludge ash-cement mortar. Journal of Environmental Management 88 (2008) 708-714
31. Mangialardi T. Sintering of MSW fly ash for reuse as a concrete aggregate. Journal of Hazardous Materials 83 1-3 (2001) 225-239
32. Mun K.J. Development and tests of lightweight aggregate using sewage sludge for nonstructural concrete. Construction and Building Materials 21 7 (2007) 1583-1588
33. Optiroc Áridos Ligeros, S.A., 2000. La Arcilla Expandida. In: Arlita Arcilla Expandida, Manual General, Cap, 1, pp. 5-29.
34. Ribeiro M.J., Ferreira J.M., and Labrincha J.A. Plastic behaviour of different ceramic pastes processed by extrusion. Ceramics International 31 (2005) 515-519
35. Riley C.M. Relation of chemical properties to the bloating of clays. Journal of the American Ceramic Society 34 (1951) 121-128
36. Salihoglu G., Pinarli V., Salihoglu N.K., and Karaca G. Properties of steel foundry electric arc furnace dust solidified/stabilized with Portland cement. Journal of Environmental Management 85 (2007) 190-197
37. Sanchez F., White M.K.L., and Hoang A. Leaching from granular cement-based materials during infiltration/wetting coupled with freezing and thawing. Journal of Environmental Management 90 (2009) 983-993
38. Tay J.H., Hong S.Y., and Show K.Y. Reuse of industrial sludge as pelletized aggregate for concrete. Journal of Environmental Engineering-ASCE 126 3 (2000) 279-287
39. UNE-103-104, 1993. Test for plastic limit of a soil.
40. UNE-103-103, 1994. Determination of the liquid limit of a soil by the Casagrande apparatus method.
41. UNE-EN-1097-3, 1999. Test for mechanical and physical properties of aggregates - determination of loose bulk density and voids.
42. UNE-EN-1097-6, 2000. Test for mechanical and physical properties of aggregates - determination of particle density and water absorption.
43. UNE-EN-13055-1, 2003. Lightweight aggregates - lightweight aggregates for concrete, mortar and grout.
44. Utley R.W., Lovell H.L., and Spicer T.S. The preparation of coal refuse for the manufacture of lightweight aggregate. Transactions of the Society of Mining Engineers of AIME 234 4 (1965) 346-352
45. Videla C., and Martinez P. Physical, mechanical and microscopic characterization of cold bonded fly ash lightweight aggregates. Materiales de Construcción 52 268 (2002) 5-18
46. Yashima S., Kanda Y., and Sano S. Relationship between particle size and fracture energy or impact velocity required to fracture as estimated from single particle crushing. Powder Technology 51 (1987) 277-282
47. Yasuda Y. Sewage-sludge utilization in Tokyo. Water Science and Technology 23 10-12 (1991) 1743-1752
48. Zheng G., and Kozinski J.A. Thermal events during the combustion of biomass residue. Fuel 79 (2000) 181-192