Conventional and high frequency microwave processing of nanophase ceramic materials

D. Lewis; R. J. Rayne; B. A. Bender; L. K. Kurihara; G. M. Chow; A. Fliflet; A. Kincaid; R. Bruce

doi:10.1016/S0965-9773(97)00027-5

Conventional and high frequency microwave processing of nanophase ceramic materials

D. Lewis, R. J. Rayne, B. A. Bender, L. K. Kurihara, G. M. Chow, A. Fliflet, A. Kincaid, R. Bruce

Research output: Contribution to journal › Article › peer-review

Abstract

Results are given for preliminary experiments on processing of conventional and nanophase ceramic materials by conventional (2.45GHz) and high frequency (≥35 GHz) microwave processing. Characterization of materials processed under different conditions (time, temperature, frequency) includes XRD, density, and microstructure. The basis for such experimentation is discussed briefly, including results of previous measurements showing significant advantages in high frequency microwave processing of nanophase ceramics, and previous experi-ments, showing enhanced sintering of aluminum oxide with 28 GHz microwave processing. The results to-date, while somewhat promising, do not show these dramatic results.

Original language	English (US)
Pages (from-to)	97-100
Number of pages	4
Journal	Nanostructured Materials
Volume	9
Issue number	1-8
DOIs	https://doi.org/10.1016/S0965-9773(97)00027-5
State	Published - 1997
Externally published	Yes

ASJC Scopus subject areas

General Materials Science
Condensed Matter Physics

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10.1016/S0965-9773(97)00027-5

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abstract = "Results are given for preliminary experiments on processing of conventional and nanophase ceramic materials by conventional (2.45GHz) and high frequency (≥35 GHz) microwave processing. Characterization of materials processed under different conditions (time, temperature, frequency) includes XRD, density, and microstructure. The basis for such experimentation is discussed briefly, including results of previous measurements showing significant advantages in high frequency microwave processing of nanophase ceramics, and previous experi-ments, showing enhanced sintering of aluminum oxide with 28 GHz microwave processing. The results to-date, while somewhat promising, do not show these dramatic results.",

author = "D. Lewis and Rayne, {R. J.} and Bender, {B. A.} and Kurihara, {L. K.} and Chow, {G. M.} and A. Fliflet and A. Kincaid and R. Bruce",

year = "1997",

doi = "10.1016/S0965-9773(97)00027-5",

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AU - Lewis, D.

AU - Rayne, R. J.

AU - Bender, B. A.

AU - Kurihara, L. K.

AU - Chow, G. M.

AU - Fliflet, A.

AU - Kincaid, A.

AU - Bruce, R.

PY - 1997

Y1 - 1997

N2 - Results are given for preliminary experiments on processing of conventional and nanophase ceramic materials by conventional (2.45GHz) and high frequency (≥35 GHz) microwave processing. Characterization of materials processed under different conditions (time, temperature, frequency) includes XRD, density, and microstructure. The basis for such experimentation is discussed briefly, including results of previous measurements showing significant advantages in high frequency microwave processing of nanophase ceramics, and previous experi-ments, showing enhanced sintering of aluminum oxide with 28 GHz microwave processing. The results to-date, while somewhat promising, do not show these dramatic results.

AB - Results are given for preliminary experiments on processing of conventional and nanophase ceramic materials by conventional (2.45GHz) and high frequency (≥35 GHz) microwave processing. Characterization of materials processed under different conditions (time, temperature, frequency) includes XRD, density, and microstructure. The basis for such experimentation is discussed briefly, including results of previous measurements showing significant advantages in high frequency microwave processing of nanophase ceramics, and previous experi-ments, showing enhanced sintering of aluminum oxide with 28 GHz microwave processing. The results to-date, while somewhat promising, do not show these dramatic results.

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Conventional and high frequency microwave processing of nanophase ceramic materials

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