Design of an Electronic Flash Thermal Measurement System for Biological and Organic Materials
Date of Graduation
Spring 2014
Degree
Master of Science in Materials Science
Department
Physics, Astronomy, and Materials Science
Committee Chair
Ryan Giedd
Abstract
The electronic flash technique is a promising approach for finding the thermal conductivities of highly conductive materials with smaller than average dimensions. If a material can display desirable characteristics, it may pave the way for promising applications in any field of science and/or technology. I have successfully designed an electronic thermal measuring device to measure temperature changes in both biological and organic materials using the method of electronic flash. This method is an original idea and is patentable. Electronic flash method employs the measuring of the specific heat of samples in order to better learn the characteristics and the behaviors of these materials for use in many applications ranging from biomedical to electrical, for example. Not only does this technique offer an effective way of measuring the thermal conductivity of highly conductive materials of small dimensions, but it is a valuable technique because it precisely measures the specific heat of any given material and, when the specific heat and density of a material are known, the thermal conductivity can then be determined. This thesis explains in detail how the findings of thermal conductivities in materials are determined by use of a uniquely designed low mass thermal couple, heater and circuit device. This thesis also introduces a similar method Laser Flash and its similar technique.
Keywords
electronic flash, thermal conductivity, effective thermal conductivity, thermal diffusivity, specific heat, laser flash, regenerative devices
Subject Categories
Materials Science and Engineering
Copyright
© La Shawn Antoinette Johnson
Recommended Citation
Johnson, La Shawn Antoinette, "Design of an Electronic Flash Thermal Measurement System for Biological and Organic Materials" (2014). MSU Graduate Theses. 3060.
https://bearworks.missouristate.edu/theses/3060
Dissertation/Thesis