Use of microwave radiation for the processing of glass

Glass Technology

Volumn 38, Issue 3, 1997, Pages 91-96

  Knox, M P ^a   Copley, G J ^a  

^a British Glass Manufacturers   (United Kingdom)

Author keywords

[No Author keywords available]

Indexed keywords

ABSORPTION; COATINGS; HEATING; HYDRATION; ION EXCHANGE; MELTING; MICROWAVES; RADIATION; REFINING; SURFACE TREATMENT; TOUGHENING;

MICROWAVE ABSORBING COATINGS; MICROWAVE RADIATION; REHEATING; SILICATE GLASS; THERMAL TOUGHENING;

GLASS;

EID: 0031170275     PISSN: 00171050     EISSN: None     Source Type: Journal    
DOI: None     Document Type: Article

References (25)

1. Assinder, I. Microwaves for food processing - industrial application of microwave energy. IMPI Trans., 1974, 2, 92.
2. Bedrosian, K. The necessary ingredients for successful microwave applications in the food industry. J. Microwave Power, 1973, 8 (2), 173.
3. Bengtsson, N. E. & Ohlsson, T. Microwave heating in the food industry. Proc. IEEE, 1974, 62, (1), 44-55.
4. Bird, L. Microwave rendering. Proc IMPI Conf., Monaco. 1979. Pp 63-5.
5. Chamberlain, N. Microwave energy in baking of bread. Food Trade Rev., 1975, 8-12.
6. Lefort, J. Experience in the drying of foodstuffs using microwave energy. Seminar in processing using rf and mw techniques. 1981. BNCE , 30 Millbank, London.
7. Meisel, N. Microwave vacuum drying by the gigavac process for continuous manufacture of instantly soluble fruit powder. Microwave Energy Applications Newsletter XII, 1979, (6), 3-6.
8. Smith, F. J. Microwave - hot air drying of pasta, onions and bacon. Microwave Energy Applications Newsletter XII, 1979, (6), 6-12.
9. Bowden, A. & Hamlin, M. Microwave firing. Ceram Tech. Int., 1994, 159-61.
10. Binner, J. Microwave sintering. Ceram. Tech. Int., 1992, 183-6.
11. Brandon, J. R., Samuels, J. & Hodgkins, W R. Microwave sintering of oxide ceramics. MRS Symp. Proc., Microwave Processing of Mater. III. 1992. Vol. 269, Pp 237-44.
12. Sutton, W. H. Ceram. Bull., 1989, 68, 376.
13. Janney, M. A. & Kimney, H. D. Diffusion controlled processes in microwave fired oxide ceramics. MRS Symp. Proc., Microwave Processing of Mater. II. 1990. Vol. 189. Pp 215-27.
14. Sutton, W. H.Microwave firing of high alumina castables. MRS Symp. Proc., Microwave Processing of Materials. 1988. Vol. 124. Pp 287-95.
15. Patterson, M. C L., Kimber, R. M. & Apte, P. S. The properties of alumina sintered in a 2·45 GHz microwave field. MRS Symp. Proc., Microwave Processing of Materials II. 1990. Vol. 189. Pp 257-66.
16. Dielectric materials and applications. 1954. Edited by A. Von-Hippel. Technology Press, Chapman and Hall.
17. Navais, L. & Green, R. L. Dielectric properties of glasses at ultra high frequencies and their relation to composition. J. Am. Ceram. Soc., 1946, 29, (10), 267-76.
18. Topping, J. A. & Isard, J. O. The dielectric properties of sodium aluminosilicate glasses at microwave frequencies Phys. Chem. Glasses, 1971, 12 (6), 145-51.
19. Arhein, V. E.. Glastech. Ber., 1963, 11, 425-44.
20. Meredith, R. J. Microwave energy for high speed efficient vulcanisation of extruded rubber. J. Elastomers Plastics, 1976, 8, 191.
21. Shute, R. A. Industrial microwave systems for the rubber industry. J. Microwave Power, 1971, 6 (3), 193-205.
22. Fathi, Z., Clark, D. E. & Hutcheon, R. Surface modification of ceramics using microwave energy. MRS Symp. Proc., Microwave Processing of Materials III. 1992. Vol. 269. Pp 347-51.
23. Knox, M. P. In preparation.
24. European Patent Application 92311133.0.
25. Copley, G. J. & Kennedy, J. A. Microwave treatment for lead crystal glassware. Proc. Int. Crystal Federation, Pittsburgh. April 1993.