Microwave sintering of ceramic rods: Experiments and models

Journal of Microwave Power and Electromagnetic Energy

Volumn 33, Issue 2, 1998, Pages 113-120

  Thomas Jr , J R ^a   Goodson, C C ^a   Stern, C H ^a   Jackson, M ^b   Vogt, G J ^c  

^a Virginia Polytechnic Institute and State University   (United States)

^b VIRGINIA POLYTECHNIC INSTITUTE AND STATE UNIVERSITY   (United States)

^c LOS ALAMOS NATIONAL LABORATORY   (United States)

Author keywords

Ceramic; Heat; Microwave

Indexed keywords

CAVITY RESONATORS; CERAMIC PRODUCTS; HEAT TRANSFER; MATHEMATICAL MODELS; MICROWAVE TUBES; SINTERING;

CERAMIC RODS; MICROWAVE SINTERING;

MICROWAVE HEATING;

EID: 0031678233     PISSN: 08327823     EISSN: None     Source Type: Journal    
DOI: 10.1080/08327823.1998.11688367     Document Type: Article

References (15)

1. Johnson, D., 1991. Microwave processing of ceramics at Northwestern University. In: Microwaves: Theory and Application in Materials Processing, American Ceramic Society, Ceramic Transactions 21, 17-28.
2. Johnson, D., Skamser, D., and Spotz, M. 1993. Temperature gradients in microwave processing: boon or bane. In: Microwaves: Theory and Application in Materials Processing II, American Ceramic Society, Ceramic Transactions 36, 133-146.
3. Kriegsmann, G. and Varatharajah, 1993. Formation of hot spots in microwave heated ceramic rods. In: Microwaves: Theory and Application in Materials Processing II, American Ceramic Society, Ceramic Transactions 36, 221-228.
4. Kriegsmann, G. 1994. Growth and stabilization of hot spots in microwave heated ceramic fibers. In: Microwave Processing of Materials IV, Materials Research Society, Symposium Proceedings 347, 473-478.
5. Kriegsmann, G. 1996. Cavity effects and hot spot formation in microwave heated ceramic fibers. In: Microwave Processing of Materials V, Materials Research Society, Symposium Proceedings 430, 181-192.
6. Sutton, W. 1989. Microwave processing of ceramic materials. Ceram. Bull. 68: 376-386.
7. Thomas, J., Unruh, W., and Vogt, G. 1994. Mathematical model of thermal spikes in microwave heating of ceramic oxide fibers. In: Microwave Processing of Materials III Materials Research Society, Symposium Proceedings 347, 363-368.
8. Touloukian, Y., and DeWitt, 1972. Thermal Radiative Properties: Nonmetallic Solids, Plenum, New York.
9. 010 Microwave Cavity at 2.45 GHz. In: Microwave Processing of Materials III, Materials Research Society Symposium Prceedings 269, 245-250.
10. Vogt, G. and Unruh, W. 1993. Microwave hybrid heating of alumina filaments. In: Microwaves: Theory and Applications in Materials Processing II, American Ceramic Society, Ceramic Transactions 36, 297-306.
11. Vogt, G., Unruh, W., and Thomas, J. 1994. Experimental observations of thermal spikes in microwave processing of ceramic oxide fibers. In: Microwave Processing of Materials IV, Materials Research Society, Symposium Proceedings 347, 539-544.
12. Vogt, G., Unruh, W., and Plovnick, R. 1994. Microwave sintering of continuous zirconia ceramic fibers. In: Microwave Processing of Materials IV, Materials Research Society, Symposium Proceedings 347, 551-555, Materials Research Society.
13. Vogt, G., Regan, A., Rohlev, A., and Curtin, M. 1995a. Use of a variable frequency source with a single-mode cavity to process ceramic filaments. In Conference Proceedings for Microwave and High Frequency Heating 1995, Cambridge University, Cambridge, U.K. F3.1-F3.4.
14. Vogt, G., Tinga, W., and Plovnick, R. 1995b. Dielectric property measurement of zirconia fibers at high temperatures. In: Microwaves: Theory and Applications in Materials Processing III, American Ceramic Society, Ceramic Transactions 59, 227-235.
15. Vogt, G., Regan A., Rohlev, A., and Curtin, M. 1996. Microwave process control through a traveling wave tube source. In: Microwave Processing of Materials V, Materials Research Society, Symposium Proceedings 430, 513-518.