Evolution of particle size and strength of hydrargillite from carbonization in seeded sodium aluminate liquors

Journal of Crystal Growth

Volumn 274, Issue 1-2, 2005, Pages 218-225

  Wang, Zhi ^a   Bi, Shiwen ^b   Yang, Yihong ^b   Yuan, Zhangfu ^a  

^a INSTITUTE OF GEOLOGY AND GEOPHYSICS   (China)

^b NORTHEASTERN UNIVERSITY   (China)

Author keywords

A1. Aggregation; A1. Carbonization; A2. Agglomeration; B1. Gibbsite; B1. Sodium aluminate solution

Indexed keywords

SODIUM ALUMINATE SOLUTIONS; SUPERFINE PARTICLES; SUPERSATURATED LIQUORS;

AGGLOMERATION; ALUMINA; CRYSTALLIZATION; INTERFACIAL ENERGY; PARTICLE SIZE ANALYSIS; SINTERING; SURFACE TENSION;

SODIUM COMPOUNDS;

EID: 11144270215     PISSN: 00220248     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.jcrysgro.2004.09.077     Document Type: Article

References (21)

1. J. Chen, L. Shao, F. Guo, and X. Wang Synthesis of nano-fibers of aluminum hydroxide in novel rotating packed bed reactor Chem. Eng. Sci. 58 2003 569 575
2. A.L. Vadim, I.D. Viktor, A.K. Andrey, Special requirements to aluminium hydroxide of non-metallurgical application, Light Met. (2002) 169-173.
3. Z. Wang, S. Bi, Y. Yang, and Y. Xie Influence of mass concentration on carbonation decomposition in sodium aluminate solutions J. Northeastern University Natural Science 23 2002 560 562
4. V.A. Chan, and H.M. Ang A laboratory continuous crystallization system for aluminium hydroxide precipitation studies J. Crystal Growth 166 1996 1009 1014
5. I. Seyssiecq, S. Veesler, and R. Boistelle A non-immersed induction conductivity system for controlling supersaturation in corrosive media the case of gibbsite crystals agglomeration in Bayer liquors J. Crystal Growth 169 1996 124 128
6. B.K. Satapathy, P. Vidyasager, Effect of temperature, impurities, retention time and seeding on the rate of crystal growth, nucleation and quality of alumina hydrate during precipitation, Light Met. (1990) 105-113.
7. J. L. Anjier, M. L. Roberson, Precipitation technology, Light Met. (1985) 367-375.
8. K. Sakamoto, M. Kanahara, and K. Matsushita Agglomeration of crystalline particles of gibbsite during the precipitation in sodium aluminate solution J. Sol. Energy Soc. Amer. 2 1976 149 162
9. 3 crystals in Bayer liquors. Influence of the process parameters Chem. Eng. Sci. 53 1998 2177 2185
10. I. Seyssiecq, S. Veesler, D. Mangin, J.P. Klein, and R. Boistelle Modelling gibbsite agglomeration in a constant supersaturation crystallizer Chem. Eng. Sci. 55 2000 5565 5578
11. R. David, A. Paulaime, F. Espitalier, and L. Rouleau Modelling of multiple-mechanism agglomeration in a crystallization process Powder Technol. 130 2003 338 344
12. J.V. Sang, Factors affecting the attrition strength of alumina products, Light Met. (1987) 121-127.
13. 3), mechanism and quantification of particle fragility by a new attrition index, Powder Technol. 75 (1993) 49-57.
14. R. Utsumi, T. Hata, T. Hirano, H. Mori, J. Tsubaki, and T. Maeda Attrition testing of granules with a tapping sieve Powder Technol. 119 2001 128 133
15. O. Lecoq, P. Guigon, and M.N. Pons A grindability test to study the influence of material processing on impact behaviour Powder Technol. 105 1999 21 29
16. E. Rodriguez, R. Mendoza, Evaluation of the precipitation circuit operation parameters to control the alumina attrition index, Light Met. (2002) 145-148.
17. A.M. Archer Considerations in the selection of alumina for smelter operation J. Met. 35 1983 43 46
18. J.L. Anjier, D.F.G. Marten, Particle strength of Bayer hydrate, Light Met. (1982) 199-209.
19. J.K. Pradhan, P.K. Gochhayat, I.N. Bhattacharya, and S.C. Das Study on the various factors affecting the quality of precipitated non-metallurgical alumina trihydrate particles Hydrometallurgy 60 2001 143 153
20. M.J. Kim, P.L.M. Wong, and T. Tran A study on the precipitation of radial alumina trihydrate J. Crystal Growth 178 1997 360 366
21. Y. Xie, Q. Zhao, S. Bi, Effect of precipitating condition and additives on the attrition-resistance property of hydroxide alumina, Light Met. (2002) 149-152.