Stanford University
Showing 51-58 of 58 Results
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Johannes Voss
Staff Scientist, Energy Sciences
BioJohannes Voss is Staff Scientist at the SUNCAT Center for Interface Science and Catalysis at SLAC National Accelerator Laboratory. He leads a research team focused on the atomic-level understanding and computational design of systems of relevance for renewable storage and conversion of energy. The team employs machine learning approaches to improve the predictive power of super computer simulations for chemical reactions with emphasis on heterogeneous catalysis.
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Kirsten T Winther
Staff Scientist, Energy Sciences
BioKirsten Winther is a Staff Scientist at SUNCAT Center for Interface Science and Catalysis SLAC National Accelerator Laboratory. Her research combines electronic structure simulations and data science approaches to accelerate the discovery of materials for heterogenous catalysis. Her research interests include: The development of machine learning models for the prediction of catalyst stability and activity, Accelerated high-throughput frameworks, such as active-learning algorithms for materials exploration, and Developing the database Catalysis-Hub.org.
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Xueli(Sherry) Zheng
Staff Scientist, Energy Sciences
BioXueli (Sherry) Zheng is a Physical Science Research Scientist in the Department of Materials Science and Engineering at Stanford University. Dr. Zheng has over 10 years of experience in battery technology, electrochemistry, materials science, X-ray science, and catalysis. Throughout her career, she has published many high-impact peer-reviewed papers and has been awarded multiple patents. Her research focuses on 1) advancing the design, synthesis, and characterization of 2D nanomaterials, leveraging her extensive background and specialized expertise in materials synthesis and synchrotron X-ray spectroscopy/imaging characterization. 2) advancing synchrotron-based X-ray characterization, particularly for studying interfaces, surfaces, and nanomaterial properties. These include in situ measurements to explore catalytic reactions, lithium metal batteries, and aqueous battery systems. 3) decarbonizing steelmaking using sustainable hydrogen; 4) critical materials including Li/Co and rare earth element characterization and extraction. 5) leveraging fundamental science to enable translational research across many sustainable energy technologies, including batteries and decarbonizing steelmaking.
