Publication Beamlines Strategic Pillar
Stephen Campbell (2023). Vibrational spectroscopy and the structure of solids: The example of carbonate minerals. Supervisor: Poduska, Kristin, M.. Newfoundland and Labrador, Canada: Memorial University. https://doi.org/10.48336/M3DG-WP79. MID-IR Environment
Vanessa Orr (2021). Rotational and Vibrational Spectroscopy and Structure Determination of Organic Molecules of Astrochemical Relevance. Supervisor: McMahon, Robert; Claude, Woods. Wisconsin, USA: University of Wisconsin- Madision. . FAR-IR Environment
Vibhu Sharma (2016). Mechanism of wear and tribofilm formation with ionic liquids and ashless antiwear additives. Supervisor: Aswath, Pranesh B.. Texas, United States: The University of Texas at Arlington. . SGM, SXRMB, VLS-PGM Environment
Vibhu Sharma (2016). Mechanism of wear and tribofilm formation with ionic liquids and ashless antiwear additives. Supervisor: Aswath, Pranesh B.. Texas, United States: The University of Texas at Arlington. . SGM, SXRMB, VLS-PGM Environment
Vibhu Sharma (2016). Mechanism of wear and tribofilm formation with ionic liquids and ashless antiwear additives. Supervisor: Aswath, Pranesh B.. Texas, United States: The University of Texas at Arlington. . SGM, SXRMB, VLS-PGM Environment
Vinay Sharma (2017). Development of Plasma Functionalized Nano-additives for Oils and Study of their Tribological Properties. Supervisor: Timmons, Richard B.; Aswath, Pranesh. Texas, United States: The University of Texas at Arlington. . SGM, SXRMB, VLS-PGM Environment
Vinay Sharma (2017). Development of Plasma Functionalized Nano-additives for Oils and Study of their Tribological Properties. Supervisor: Timmons, Richard B.; Aswath, Pranesh. Texas, United States: The University of Texas at Arlington. . SGM, SXRMB, VLS-PGM Environment
Vinay Sharma (2017). Development of Plasma Functionalized Nano-additives for Oils and Study of their Tribological Properties. Supervisor: Timmons, Richard B.; Aswath, Pranesh. Texas, United States: The University of Texas at Arlington. . SGM, SXRMB, VLS-PGM Environment
Wang, Baolin (2024). Mineral Carbonation Potential and Transition Metal Migration in Kimberlite and Ultramafic Rocks: An Integrated Study of Acid Leaching, Enhanced Rock Weathering, and Microbial CO2 Sequestration. Supervisor: Wilson, Sasha; Zeyen, Nina. Alberta, Canada: University of Alberta. https://doi.org/10.7939/r3-b743-cx81. SM Environment
Wei Xiao (2017). Development of High-performance Carbon and Phosphorus Anode Materials for Sodium-ion Batteries. Supervisor: Sun, Xueliang; Sham, Tsun-Kong. Ontario, Canada: The University of Western Ontario. https://ir.lib.uwo.ca/etd/4974. VLS-PGM Environment
Wenshuai Li (2021). Tracing chemical weathering using lithium and potassium isotopes. Supervisor: Liu, Xiao-Ming; Teng, F-Z.; Wasylenki, L.; Benninger, L.; Barzyk, J.. North Carolina, USA: University of North Carolina at Chapel Hill. https://doi.org/10.17615/jmxm-4116. SXRMB Environment
Zeitvogel; Fabian (2015). Spatially resolved analysis of the structure and composition of cell-mineral aggregates formed by Fe(II)-oxidizing bacteria and their role in heavy metal sorption processes. Supervisor: Obst, Martin. Baden-Württemberg, Germany: University of Tuebingen. . SM Environment
(2023). Characterizing and Modelling Tailings Hydrogeochemistry Under a Composite Cover at the Abandoned Kam Kotia Mine, ON. Supervisor: Blowes, David; Ptacek, Carol. Ontario, Canada: University of Waterloo. https://uwspace.uwaterloo.ca/handle/10012/19039. CLS-APS, SXRMB Environment
(2023). Characterizing and Modelling Tailings Hydrogeochemistry Under a Composite Cover at the Abandoned Kam Kotia Mine, ON. Supervisor: Blowes, David; Ptacek, Carol. Ontario, Canada: University of Waterloo. https://uwspace.uwaterloo.ca/handle/10012/19039. CLS-APS, SXRMB Environment
28. Oliver; Jonathan (2018). Soil from the Yellowknife, NT Region: Spatial Distribution of Arsenic, Characterization of Solid Phase Arsenic Hosts, and Distinguishing Giant and Con Mine Contamination. Supervisor: Jamieson, Heather. ON: Queen's University. http://hdl.handle.net/1974/25448. CLS-APS Environment