Structural ceramics made with clay and steel dust pollutants

Applied Clay Science

Volumn 51, Issue 4, 2011, Pages 503-506

  Machado, A T ^a,b   Valenzuela Diaz, F R ^b   de Souza, C A C ^a   de Andrade Lima, L R P ^b  

^a FEDERAL UNIVERSITY OF BAHIA   (Brazil)

^b UNIVERSITY OF SÃO PAULO   (Brazil)

Author keywords

Ceramic; Clay; Electric arc furnace dust; Toxic elements stabilization

Indexed keywords

APPARENT DENSITY; BULK MATERIALS; CERAMIC; CERAMIC SAMPLES; ELECTRIC ARC FURNACE; ELECTRIC ARC FURNACE DUST; LINEAR SHRINKAGE; MECHANICAL STRENGTH; METAL CONTAMINATION; METAL LEACHING; METAL RECYCLING; MINERALOGICAL COMPOSITIONS; PROCESSING TEMPERATURE; STEEL DUST; STEELMAKING PROCESS; TOXIC ELEMENTS;

AIR POLLUTION; BENDING STRENGTH; CADMIUM; CHROMIUM; DUST CONTROL; ELECTRIC ARCS; ELECTRIC FURNACE PROCESS; ELECTRIC FURNACES; FURNACES; IRON; LEACHING; METAL REFINERIES; METALLURGICAL FURNACES; PROCESSING; STABILIZATION; STEELMAKING FURNACES; STRUCTURAL CERAMICS; TOXIC MATERIALS; WATER ABSORPTION;

CLAY;

CERAMICS; CLAY; DUST; MECHANICAL PROPERTY; STEEL; TEMPERATURE EFFECT;

EID: 79952008204     PISSN: 01691317     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.clay.2011.01.004     Document Type: Article

References (17)

1. Bergaya F., Theng B.K.G., Lagaly G. Handbook of Clay Science 2006, Elsevier Science.
2. Correia S.L., Hotza D., Segadães A.M. Simultaneous optimization of linear firing shrinkage and water absorption of triaxial ceramic bodies using experiments design. Ceramics International 2004, 30:917-922.
3. Domínguez E.A., Ullmann R. Ecological bricks' made with clays and steel dust pollutants. Applied Clay Science 1996, 11:237-249.
4. Dutra A.J.B., Paiva P.R.P., Tavares L.M. Alkaline leaching of zinc from electric arc furnace steel dust. Minerals Engineering 2006, 19:478-485.
5. Dutra R.P.S., Varela M.L., Nascimento R.M., Gomes U.U., Martinelli A.E., Paskocimas C.A. Comparative study of fast firing with traditional firing on the properties of ceramic clay raw materials. Cerâmica 2009, 55:100-105.
6. Hagni A.M., Hagni R.D., Demars C. Mineralogical characteristics of electric arc furnace dust, Journal of the Minerals. Metals and Materials Society (JOM) 1991, 43:28-30.
7. Machado, A.T., 2005. Estudo da Incorporação e Estabilização do Pó de Aciaria Elétrica em Matrizes de Cerâmica Vermelha, DSc Tese, São Paulo University. (In Portuguese).
8. Melo M.A.F., Neto S.G., Melo D.M.A., Carvalho L.P., Galdino J.N., Silva S.A.G. Color and mechanical properties of some clays found in Rio Grande do Norte State for whiteware. Cerâmica 2002, 48:183-186.
9. Mikhail S.A., Turcotte A.M., Aota J. Thermoanalytical study of EAF dust and its vitrification product. Thermochimica Acta 1996, 287:71-79.
10. Moravia W.G., Oliveira C.A.S., Gumieri A.G., Vasconcelos W.L. Microstructural evaluation of expanded clay to be used as lightweight aggregate in structural concrete. Cerâmica 2006, 52:193-199.
11. NBR Brazilian Standard 10004: solid waste-classification 1987, ABNT.
12. NBR Brazilian Standard 10005: leaching test-procedures 1987, ABNT.
13. NBR Brazilian Standard 10006: waste solubilization 1987, ABNT.
14. NBR Brazilian Standard 1527: ceramic components-test methods 2005, ABNT.
15. Nyirenda R.L. The processing of steelmaking flue-dust: a review. Minerals Engineering 1991, 4:1003-1025.
16. Pelino M., Karamanov A., Pisciella P., Crisucci S., Zonetti D. Vitrification of electric arc furnace dusts. Waste Management 2002, 22:945-949.
17. Sánchez-Muñoz L., Cava S.da.S., Paskocimas C.A., Cerisuelo E., Longo E., Carda J.B. Modelling of the vitrification process of ceramic bodies for whiteware. Cerâmica 2002, 48:217-222.