Doctoral Dissertations
Abstract
As the consumption of energy continues to rise globally, so too has interest in alternative energy sources such as nuclear power. However, a fundamental understanding of the actinide series is needed in order to safely and efficiently utilize these elements. Rotational or microwave spectroscopy, depending on if one is speaking of the physical outcome of the experiment or the region of the electromagnetic spectrum being operated in, is a gas phase molecular study utilized for structural determination. This technique can be utilized to gain an in depth understanding of bonding within the actinide series. However, when studying species that are not found in the gas phase at ambient conditions, one must employ the use of exotic sourcing techniques to promote them to the gas phase for study. Metal containing species in this study employs the use of a high energy density laser to ablate a portion of a metal to enable gas phase study. This work aims to explain the general theory of microwave spectroscopy, describe the experimental process and instrumentation utilized, as well as explore the structural determination of five metal containing species: Thorium sulfide (ThS, hafnium sulfide (HfS), thorium oxysulfide (OThS), cerium oxysulfide (OCeS), and uranium dioxysulfide (SUO2).
Advisor(s)
Grubbs, Garry S.
Committee Member(s)
Winiarz, Jeffrey G.
Donnell, Kristen M.
Dawes, Richard
Cooke, Stephen
Department(s)
Chemistry
Degree Name
Ph. D. in Chemistry
Publisher
Missouri University of Science and Technology
Publication Date
Fall 2025
Pagination
x, 85 pages
Note about bibliography
Includes_bibliographical_references_(pages 80-83)
Rights
© 2025 Joshua Edward Isert , All Rights Reserved
Document Type
Dissertation - Open Access
File Type
text
Language
English
Thesis Number
T 12568
Recommended Citation
Isert, Joshua Edward, "Products of Laser Ablated Actinides and Actinide Comparators in the Presence of Carbonyl Sulfide Characterized by Rotational Spectroscopy" (2025). Doctoral Dissertations. 3435.
https://scholarsmine.mst.edu/doctoral_dissertations/3435
