William Schneider

Dept. Chair and Dorini Family Professor of Engineering

University of Notre Dame

United States

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William Schneider is the Department Chair and Dorini Family Professor of Engineering at the University of Notre Dame, USA. His research focuses on catalytic processes, including NOx reduction, methane oxidation, and plasma catalysis for light alkane conversion. Recent publications highlight his work on zeolite catalysts and molecular dynamics simulations relating to actinide ions.

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Collaborators (3)

Craig Waitt

Assistant Professor

Trine University

UNITED STATES

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Casey O'Brien

Assistant Professor

University of Notre Dame

UNITED STATES

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Edward Maginn

Keough-Hesburgh Professor

University of Notre Dame

UNITED STATES

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William Schneider

Research Interests

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About

Articles (22)

Contribution of Brønsted Acid Sites to N2O Generation during NOx Reduction over H-CHA Zeolite Catalysts

Heterogeneous and Framework-Bound Copper Species Contribute to Catalytic Partial Methane Oxidation in Cu–Chabazite Zeolites

Mechanistic Insights into the NH3 Oxidation Rate and Selectivity Hysteresis on Pt/Al2O3 Catalysts

Fundamental insights and emerging opportunities in plasma catalysis for light alkane conversion

Kinetic Monte Carlo Analysis Reveals Non-mean-field Active Site Dynamics in Cu–Zeolite-Catalyzed NOx Reduction

Structure and Reactivity of Binuclear Cu Active Sites in Cu-CHA Zeolites for Stoichiometric Partial Methane Oxidation to Methanol

Climbing the Hydrogen Evolution Volcano with a NiTi Shape Memory Alloy

Observation and Characterization of Vibrationally Active Surface Species Accessed with Nonthermal Nitrogen Plasmas

Density functional theory and microkinetics of ethylene chain growth and termination on silica grafted group 4 metal hydrides

Molecular dynamics simulations of uranyl and plutonyl cations in a task-specific ionic liquid

Predicted Influence of Organic Structure Directing Agents on Al Distributions in CHA Zeolites

Mean field model parameterization to recover coverage-dependent kinetics

Influence of framework Al density in chabazite zeolites on copper ion mobility and reactivity during NOx selective catalytic reduction with NH3

Characterization and analysis of ring topology of zeolite frameworks

Analysis and Augmentation of Guest–Host Interaction Energy Models as CHA and AEI Zeolite Crystallization Phase Predictors

Influence of an N,N,N-Trimethyl-1-adamantyl Ammonium (TMAda+) Structure Directing Agent on Al Distributions and Pair Features in Chabazite Zeolite

Plasma-Catalyst Reactivity Control of Surface Nitrogen Species through Plasma-Temperature-Programmed Hydrogenation to Ammonia

Evolution of Framework Al Arrangements in CHA Zeolites during Crystallization in the Presence of Organic and Inorganic Structure-Directing Agents

Kinetic Origins of High Selectivity of Metal Phosphides for Ethane Dehydrogenation

Observation and rationalization of nitrogen oxidation enabled only by coupled plasma and catalyst

Erratum: Plasma-catalyst modeling for materials selection: challenges and opportunities in nitrogen oxidation (2021 J. Phys. D: Appl. Phys. 54 454004)

Computational screen of M2P metal phosphides for catalytic ethane dehydrogenation

Collaborators (3)

Craig Waitt

Casey O'Brien

Edward Maginn

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