Masters Theses
Abstract
"This report presents the design of an optimum, high temperature silicon carbide thermoelectric generator element. The analytical efforts have been divided into three basic parts, the development of the theory, the accumulation of the data, and the optimization of the design. The first step in the theory development was the derivation of accurate design equations. With this done, the design philosophy and computer program were constructed, the latter utilizing a subroutine to contain the design equations. The data was obtained from a survey of many references and, for the most part, was found to be inexact, requiring the consideration of ranges of loosely bounded values. In evaluating the data and optimizing the designs, both graphical and numerical methods were used. The actual calculations during the optimization process were performed on the IBH 360/50 system, and entailed some twenty computer runs, encompassing sixty designs. The final result was an element that would produce electrical power at a power density of 9.2 Megawatts/H3 and an efficiency of 9.17 Percent"--Abstract, page ii.
Advisor(s)
Adair, James E.
Committee Member(s)
Smith, Richard T.
McPherson, George, 1921-2017
Gillett, Billy E.
Department(s)
Electrical and Computer Engineering
Degree Name
M.S. in Electrical Engineering
Publisher
University of Missouri--Rolla
Publication Date
1971
Pagination
xi, 96 pages
Note about bibliography
Includes bibliographical references (pages 94-95).
Rights
© 1971 John Talmage Barrow, Jr., All rights reserved.
Document Type
Thesis - Open Access
File Type
text
Language
English
Subject Headings
Thermoelectric generators -- DesignThermoelectric generators -- Mathematical modelsSilicon carbide -- Electric propertiesMaterials at high temperatures
Thesis Number
T 2579
Print OCLC #
6034342
Electronic OCLC #
874574995
Recommended Citation
Barrow, John Talmage Jr., "The design of a high temperature thermoelectric generator element using silicon carbide" (1971). Masters Theses. 5516.
https://scholarsmine.mst.edu/masters_theses/5516