Relationship between drying rates and mechanical properties in refractory concretes
DOI:
https://doi.org/10.29105/ingenierias26.95-806Keywords:
Refractory concrete, drying-curing process, mechanical strengthAbstract
The effect of drying rates on compressive strength was investigated in two aluminosilicate refractory concretes with different water content, which were cured at room temperature and dried at 3 heating rates (30, 40 and 50°C/h) up to 260ºC with different holding times. The results show that the lightweight refractory concrete developed better mechanical resistance with 48% of water content and heating rate of 40ºC/h, while for dense refractory concrete the best conditions were 12% of water content with heating rates of 30ºC/h, both during 2 hours of holding time.
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Lewis, G. Applications for Traditional Ceramic, Refractories, in Engineered Materials Handbook, 1991 pp. 895-918.
Peret, C., G. J., F. L. et al., Patent generation and the technological development of refractories and steelmaking, Refractories Applications and News 2007, 12.
Refractory Concrete: Abstract of State-of-the-Art Report, American Concrete Institute, 1994.
Lee, W., V. W., Zhang s. et al. Castable Refractory Concrete, Intern. Mat. Rev. 2001 46.
Shakhov, I. I. and Pozdnyakova N. K., Practice of application of refractory concrete in industrial furnaces. Refractories and Industrial Ceramics 2006, 47 335-336.
Denisov D. E., Zhidkov A. B., Garabadzhiu A. A., and Popova M. E., Refractories in heat units abrasion resistance of refractory concretes and linings, Refractories and Industrial Ceramics 2007, 48 81-85.
Perepelitsyn V. A., Uzberg L. V., Efimova G. V., Yakhontova O. N., Nazmutdinov V. Z., and Ipatov N. V., Study of refractory concrete before and after service in a cementation furnace. Refractories and Industrial Ceramics, 2010, 51 1-3.
Kashcheev I. D., Sychev S. N., Dunaeva M. N., Karpets L. A., Emel’yanov P. A., and Ryakhova O. S., A light refractory concrete for thermal insulation, Refractories and Industrial Ceramics 2008, 49 29 – 32.
Studart A. R., Pileggi R. G. and Pandolfelli V. C., High-Alumina Multifunctional Refractory Castables, Am. Ceram. Soc. Bull 2001, 80 34-40.
Wohrmeyer, C. Parr, P. Chassaing et al., Calcium aluminates cements for high-tech castables, Refractories Applications in Refractory Conference in International Ustron, 8 2001.
Parker K. M. and Sharp J.H. Refractory Calcium Aluminate Cements, Trans. Brit. Cer. Soc. 1982, 81 35-42.
Yongting W., Valdelievre B., Parr C. et al., The Use of Calcium Aluminates Cements in Monolithic Refractories for Tundish Applications in 4th International conference on Refractories, Dalian, 2003.
Trubitsyn M. A., Effective service of aluminosilicate ceramic concretes in a furnace lining for firing objects in the ceramic industry, Refractories and Industrial Ceramics 2010 51 64-66.
Mendoza J. L. and Moore R.E., Air Permeability of Refractory Concretes, Refractories Division, in Fall Meeting of the American Ceramic Society. Bedford Spring, 1983.
Mendoza J. L. and Moore R.E., Air Permeability of Low Cement Refractory Concretes, Refractories Division, in Fall Meeting of the American Ceramic Society, 1984.
Pileggi R. C., Studart A. R. and Pandolfelli V. C., How Mixing Affects the Rheology of Refractory Castables, Part 1”, Am. Ceram. Soc. Bull 2001, 80 27-31.
Pileggi R. C., Studart A. R. and Pandolfelli V. C., How Mixing Affects the Rheology of Refractory Castables, Part 2”, Am. Ceram. Soc. Bull, 2001 80 38-42.
Salomao R., Cardoso F. A., Innocentini M. D. M., Pandolfelli V., Polymeric Fibers and Refractory Castables Permeability, in 39th Symposium on refractories, 2003.
Pileggi R. G. and Pandolfelli V. C., Rheology and Particle-Size Distribution of Pumpable Refractory Castables, Part 1”, 2001 80, 52-57.
Evangelista P., Parr C., and Revais C., Optimization of aluminate cements with 70% and 80% of alumina based castables, Refractories Applications, 2000.
Bel’maz N. S., Development of high-alumina ceramic concrete based on a composite binder, Refractories and Industrial Ceramics, 2010 51 31-33.
Li Y., Zhu L., Effect of curing temperature on volume stability of CAC-bonded alumina-based castables, Ceramics International, 2019 45 (9)12066-12071
Akiyoshi M., Cardoso F., Innocentini M. et al., Key properties for the optimization of refractory castables drying, Refractories Applications and News 2004
Innocentini M., Studart A., Akiyoshi M. et al., The drying behavior of high alumina ultra low cement refractory castables under different heating rates, Refractories Applications and News 2002, 7 1146-1148
Wang Y., Li X., et. al. Microstructure evolution during the heating process and its effect on the elastic propertires of CAC-bonded alumina castables, Ceramics International, 2016 42 (9), 11355-11362
Czechowski J., Majchrowicz I., Microwave and conventional treatment of low-cement high-alumina castables with different water to cement ratios, Part I. Drying, Ceramics International, 2018 44 (1) 65-70
ASTM C-020: Method for apparent porosity, water absorption, apparent specific gravity and bulk density of burned ref. brick and shapes by boiling water.
ASTM C-133: Test method for cold crushing strength and Modulus of rupture of refractories.
ASTM C-862: Practice for preparing refractory concrete specimens by casting.
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Copyright (c) 2023 Laura Imelda García-Ortiz, Ana María Guzmán Hernández, Cristian Gómez-Rodríguez, Javier Rodrigo González López, Guadalupe Alan Castillo-Rodríguez
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