389 Computational Catalysis III: Electrocatalysis


Description:
Electronic structure theory has matured as a widely employed tool for predicting and characterizing properties of materials and enhancing mechanistic understanding of chemical reactions. Nevertheless, typically employed approaches, such as local or semi-local density functional theory, often fail for key systems of interest in catalysis. In particular, correlated electrons in transition-metal complexes are difficult to describe without careful consideration of correlation and localization (e.g. as reintroduced in DFT+U or in correlated wavefunction theory). Equally importantly, physisorption events are often dominated by non-covalent interactions that are not directly treated in standard semi-local DFT and instead necessitate reincorporation through nonlocal descriptions of correlation. This session solicits contributions that develop or utilize methods that aim to go beyond standard semi-local DFT.

Sponsor:
Catalysis and Reaction Engineering Division
Co-Sponsor(s):
Computational Molecular Science and Engineering Forum (21)


Chair:
Ronald Michalsky
Postdoctoral Research Associate
ETH Zurich
Department of Mechanical and Process Engineering
Zurich
02912
Email: michalskyr@ethz.ch

Co-Chair:
Craig Plaisance
Technical University of Munich

Email: craig.plaisance@tum.de


Papers:
Understanding the Importance of High Coverages in Electro-Catalysed Reduction of NO on Pt-Sn Alloys
Siddharth Deshpande, Purdue University; Jeffrey Greeley, Purdue University
Probing the Intrinsic Reaction Barriers of HER in Acidic and Alkaline Media Using Electronic Structure Theory
Per Lindgren, Brown University; Georg Kastlunger, Brown University; Andrew A. Peterson, Brown University
First-Principles Prediction of Activated Carbon Nanostructures for Catalyzing Oxygen Reduction
Gregory Hartmann, The University of Texas at Austin; Gyeong S. Hwang, The University of Texas at Austin
Quantifying Confidence in DFT Predicted Surface Pourbaix Diagrams and Associated Reaction Pathways for Chlorine Evolution
Vaidish Sumaria, Carnegie Mellon University; Dilip Krishnamurthy, Carnegie Mellon University; Venkatasubramanian Viswanathan, Carnegie Mellon University
A Roadmap for Modeling Single-Site (electro)Catalysts: A Combined Coupled Cluster, DFT and a Classical Force Field Approach
Jens Nørskov, Stanford University; Anjli M. Patel, Stanford University; Ambarish Kulkarni, University of California, Davis
The Effect of Electrode Potential on the Stability of Intermediates Involved in Both Electrochemical CO2 Reduction and Hydrogen Evolution
Haochen Zhang, Tsinghua University; William A. Goddard III, California Institute of Technology; Qi Lu, Tsinghua University; Mu-Jeng Cheng, National Cheng-Kung University
Trends in Electrochemical Oxygen Reduction and Evolution Activities of Layered Double Hydroxides
Zhenghang Zhao, Stanford University; Ambarish R. Kulkarni, Georgia Institute of Technology; Michal Bajdich, SUNCAT Center for Interface Science and Catalysis, Stanford University and SLAC National Accelerator Laboratory; Jens Nørskov, Stanford University
Electrochemical CO2 Reduction Reaction on Transition Metal Oxide Catalysts
Ebrahim Tayyebi, University of Iceland; Javed Hussain, University of Iceland; Younes Abghoui, University of Iceland; Egill Skúlason, University of Iceland
Abstract Submissions Closed
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