Liquidus temperature measurements for modeling oxide glass systems relevant to nuclear waste vitrification

Journal of Materials Research

Volumn 20, Issue 12, 2005, Pages 3346-3357

  Hanni, Jonathan B ^a   Pressly, Eric ^a   Crum, Jarrod V ^a   Minister, Kevin B C ^a   Tran, Diana ^a   Hrma, Pavel ^a   Vienna, John D ^a  

^a PACIFIC NORTHWEST NATIONAL LABORATORY   (United States)

Author keywords

[No Author keywords available]

Indexed keywords

CORRELATION METHODS; GLASS; MATHEMATICAL MODELS; OXIDES; PHASE COMPOSITION; RADIOACTIVE WASTES; TEMPERATURE MEASUREMENT; TERNARY SYSTEMS; VITRIFICATION;

GLASS-FORMING SYSTEM; NUCLEAR WASTE VITRIFICATION; OXIDE GLASS SYSTEMS;

GLASS MANUFACTURE;

EID: 30444443762     PISSN: 08842914     EISSN: None     Source Type: Journal    
DOI: 10.1557/jmr.2005.0424     Document Type: Article

References (28)

1. Design Construction, and Commissioning of the Hanford Tank Waste Treatment and Immobilization Plant. U.S. Department of Energy Contract No. DE-AC27-01RV14136, (2000, as amended).
2. D-S. Kim and P. Hrma: Models for liquidus temperature of nuclear waste glasses. Ceram. Trans. 45, 327 (1994).
3. I.G. Choi, D.F. Bickford, and J.T. Carter: Thermal effects of electrically conductive deposits in a joule-heated melter. Ceram. Trans. 29, 645 (1993).
4. D-S. Kim and J.D. Vienna: Influence of glass property restrictions on Hanford HLW glass volume. Ceram. Trans. 132, 105 (2002).
5. P. Hrma, J.D. Vienna, and M.J. Schweiger: Liquidus temperature limited waste loading maximization for vitrified HLW. Ceram. Trans. 72, 449 (1996).
6. T.M. Besmann and K.E. Spear: Thermochemical modeling of oxide glasses. J. Am. Ceram. Soc. 85, 2887 (2002).
7. T.M. Besmann, K.E. Spear, and J.D. Vienna: Extension of the modified associate species thermochemical model for high-level nuclear waste: Inclusion of chromia, in Scientific Basis for Nuclear Waste Management XXVI, edited by R.J. Finch and D.B. Bullen (Mater. Res. Sec. Symp. Proc. 757, Warrendale, PA, 2003), p. 195.
8. T.M. Besmann, N.S. Kulkarni, and K.E. Spear: Thermochemical and phase equilibria property prediction for oxide glass systems based on the modified associate species approach, in High Temperature Corrosion and Materials Technology TV, edited by E. Opila, P. Hou, T. Maruyama, B. Pieraggi, M. McNallan, D. Shifler, and E. Wuchina. (The Electrochemical Society, Pennington, NJ, 2004), p. 557.
9. K.E. Spear, T.M. Besmann, and E.E. Beahm: Thermochemical modeling of glass: Application to high-level nuclear waste glass. MRS Bull. 24(4), 37 (1999).
10. J.V. Crum, P. Hrma, M.J. Schweiger, and G.F. Piepel: Liquidus temperature models for high-level waste glasses that precipitate zirconium-containing crystalline phases. Ceram. Trans. 87, 271 (1998).
11. T. Plaisted, P. Hrma, J. Vienna, and A. Jiricka: Liquidus temperature and primary phase in high-zirconia high-level waste borosilicate glasses, in Scientific Basis for Nucelar Waste Management XXIII, edited by R.W. Smith and D.W. Shoesmith (Mater.Res. Soc. Symp. Proc. 608, Warrendale, PA, 2000), p. 709.
12. J.D. Vienna, P. Hrma, J.V. Crum, and M. Mika: Liquidus temperature-composition model for multi-component glasses in the Fe, Cr, Ni, and Mn spinet primary phase field. J. Non-Cryst. Solids 292, 1 (2001).
13. P. Hrma, J. Vienna, J. Crum, and G. Piepel: Liquidus temperature of high-level waste borosilicate glasses with spinet primary phase, in Scientific Basis for Nucelar Waste Management XXIII, edited by R.W. Smith and D.W. Shoesmith (Mater. Res. Sec. Symp. Proc. 608, Warrendale, PA, 2000), p. 671.
14. M. Mika, M.J. Schweiger, J.D. Vienna, and P. Hrma: Liquidus temperature of spinet precipitating high-level waste glasses, in Scientific Basis for Nucelar Waste Management XX, edited by W.J. Gray and I.R. Tridy (Mater. Res. Soc. Symp. Proc., 465, Pittsburgh, PA, 1997), p. 71.
15. J.D. Vienna: Nuclear waste glasses, in Properties of Glass-Forming Melts, edited by L.D. Pye, I. Joseph, and A. Montenero (CRC Press, Boca Raton, FL, 2005). pp. 391-403.
16. J.W. Hastie and D.W. Bonnell: A predictive phase-equilibrium model for multicomponent oxide mixtures. 2. Oxides of Na-KCa-Mg-Al-Si. High Temp. Sci. 19, 275 (1985).
17. D.W. Bennell and J.W. Hastie: A predictive thermodynamic model for complex high-temperature solution phases 11. High Temp. Sci. 26, 313 (1989).
18. B.A. Shakhmatkin, N.M. Vedishcheva, and A.C. Wright: Can thermodynamics relate the properties of melts and glasses to their structure? J. Non-Cryst. Solids 293, 220 (2001).
19. B.A. Shakhmatkin, N.M. Vedishcheva, M.M. Shultz, and A.C. Wright: The thermodynamic properties of oxide glasses and glass-forming liquids and their chemical-structure. J. Non-Cryst. Solids 177, 249 (1994).
20. E.F. Osborn and A. Muan: Fig. 501, in Phase Diagrams for Ceramists, Vol. 1, edited by E.M. Levin, C.R. Robbins, and H.F. McMurdie, (The American Ceramic Society, Columbus, OH, 1964), p. 181.
21. G.W. Morey and N.L. Bowen: J. Soc. Glass Technol., 9, p. 232 (1925), reprinted as Fig. 482 in Phase Diagrams for Ceramists, Vol. 1, edited by E.M. Levin, C.R. Robbins, and H.F. McMurdie (The American Ceramic Society, Columbus, OR, 1964), p. 175.
22. E.F. Osborn and A. Muan: Fig. 630, in Phase Diagrams for Ceramists, Vol. 1, edited by E.M. Levin, C.R. Robbins, and H.F.McMurdie (The American Ceramic Society, Columbus, OH, 1964), p. 219.
23. ASTM C829-81: Standard practices for measurement of liquidus temperature of glass by the gradient furnace method. (re-approved 1995), in 1999 Annual Book of ASTM Standards, Vol. 15.02 (American Society for Testing and Materials, West Conshohocken, PA, 1999).
24. R. Backman, K.H. Karlsson, M. Cable, and N.P. Pennington: Model for liquidus temperature of multi-component silicate glasses. Phys. Chem. Glasses 38, 103 (1997).
25. C. Dreyfus and G. Dreyfus: A machine learning approach to the estimation of the liquidus temperature of glass-forming oxide blends. J. Non-Cryst. Solids 318, 63 (2003).
26. 4). ceram. Trans. 87, 279 (1998).
27. ASTM E1508-98: Standard guide for quantitative analysis by energy-dispersive spectroscopy, in 2003 Annual Book of ASTM Standards, Vol. 03.01 (American Society for Testing and Materials, West Conshohocken, PA, 2003).
28. 6 solid solutions at 1350°C. J. Am. Ceram. Soc. 75, 1458 (1992).