The Electron Microscopy Group is composed of six permanent scientific and technical staff members and five state-of-the-art electron microscopes optimized for cutting-edge studies of nanomaterials (details online www.bnl.gov/cfn), including an aberration-corrected FEI Titan 80-300 Environmental Transmission Electron Microscope (ETEM) with ultrafast camera, and an FEI Talos operando (S)TEM with specially designed specimen chamber optimized for in situ holders. The CFN is acquiring two new customized, ultra-high spatial& energy resolution STEMs with have sub-angstrom spatial-resolution and sub-10meV energy-resolution, with expected installation in 2026 (20 keV, secondary electron detector) and 2027 (ultra-high vacuum environmental STEM with nine orders of magnitude pressure range). This highly collaborative project involves partners at Brookhaven and nearby institutions including Stonybrook University, U. Pittsburgh, and SUNY Binghamton. You will be professionally mentored by Dr. Judith Yang and Dr. Meng Li and receive technical guidance from other CFN Electron Microscopy group members. Because of the sophistication and uniqueness of the instrumentation, you will have demonstrated your hands-on expertise with high-resolution TEM/STEM/EELS, atomic-resolution in situ experiments in gas/liquids, and coding-based data analysis during your graduate research. This position is an extraordinary research opportunity to develop and apply cutting-edge electron microscopy techniques as well as advance fundamental understanding of oxidation to establish predictive understanding of oxidation in metals and alloys relevant to energy, extreme environments, catalysis, nanoprocessing, and structural materials. The CFN is seeking an exceptional Postdoctoral Research Associate to conduct research on the atomic-scale understanding of metal/alloy oxidation, by developing and using state-of-the-art environmental transmission electron microscopy (ETEM) with machine learning enhanced data analysis. In this postdoc position, you will be a member of the Electron Microscopy group and collaborate closely with theorists and experimentalists to uncover the fundamental oxidation mechanisms in metal and alloys using aberration-corrected environmental transmission electron microscopy (ETEM), first-of-its-kind aberration-corrected monochromated environmental scanning transmission electron microscopy (E-STEM) with advanced electron energy-loss spectroscopy (EELS), and a suite of new in situ operando gas and liquid cell holders to perform quantitative, atomic-resolution in situ experiments under oxidizing conditions. You will also work on developing and applying machine learning and advanced data analysis tools to accelerate and enhance the interpretation of E(S)TEM datasets, to advance the mechanistic understanding of metal/alloy oxidation.
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Job Type
Full-time
Career Level
Mid Level
Education Level
Ph.D. or professional degree