Doctoral Dissertations
Abstract
"Fusion-cast alumina refractories have become a popular choice for crowns and side-walls in oxy-fueled glass furnaces due to their homogeneity, low porosity, high refractoriness, low levels of glassy phase, and good spall resistance. Yet, published engineering creep and high temperature modulus of elasticity data are essentially nonexistent for commercial refractories used in such applications in the glass industry. Results from research at the University of Missouri--Rolla and Oak Ridge National Laboratory on measurements of creep, physical, and microstructural characteristics are discussed, along with basic modeling of exhibited behavior and limitations of fusion-cast alumina refractories. Such physical characterization as density/porosity measurement, chemical analysis, microstructural analysis, elastic modulus, thermal expansion, thermal stability, and thermal conductivity were performed both at room temperature and elevated temperatures. Creep measurements were performed at stresses ranging from 0.2 - 0.6 MPa and temperatures from 1450 - 1650°C using a pneumatically controlled compressive creep frame and electrically heated furnace"--Abstract, page iii.
Advisor(s)
Moore, Robert E., 1930-2003
Committee Member(s)
Hilmas, Greg
Smith, Jeffrey D.
Van Aken, David C.
Wereszczak, Andrew A.
Ferber, Mattison K.
Department(s)
Materials Science and Engineering
Degree Name
Ph. D. in Ceramic Engineering
Publisher
University of Missouri--Rolla
Publication Date
Fall 2001
Pagination
xii, 179 pages
Note about bibliography
Includes bibliographical references (pages 157-164).
Rights
© 2001 James Gordon Hemrick, All rights reserved.
Document Type
Dissertation - Restricted Access
File Type
text
Language
English
Subject Headings
Refractory materialsAluminum oxide -- Creep -- Measurement
Thesis Number
T 7977
Print OCLC #
50333445
Recommended Citation
Hemrick, James G., "Creep behavior and physical characterization of fusion-cast alumina refractories" (2001). Doctoral Dissertations. 1421.
https://scholarsmine.mst.edu/doctoral_dissertations/1421
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Comments
Acknowledgement is also due to the U. S. Department of Energy, Assistant Secretary for Energy Efficiency and Renewable Energy, Office of Industrial Technologies, Advanced Industrial Materials Program and the Glass Vision Team, under Contract DE-AC05-00OR22725 with UT - Battelle, LLC for financially sponsoring the work contained in this dissertation.