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Separation of Polymeric Charge Enables Efficient Bipolar Membrane Operation
Wei Lun Toh; An T. Chu; Yogesh Surendranath.
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Electrically driven proton transfer promotes Brønsted acid catalysis by orders of magnitude
Karl S. Westendorff; Max J. Hülsey; Thejas S. Wesley; Yuriy Román-Leshkov; Yogesh Surendranath.
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Open circuit potential decay transients quantify interfacial pH swings during high current density hydrogen electrocatalysis
Ethan R. Sauvé; Bryan Y. Tang; Neil K. Razdan; Wei Lun Toh; Sophia Weng; Yogesh Surendranath.
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An electrochemical approach for designing thermochemical bimetallic nitrate hydrogenation catalysts
Kunal M. Lodaya; Bryan Y. Tang; Ryan P. Bisbey; Sophia Weng; Karl S. Westendorff; Wei Lun Toh; Jaeyune Ryu; Yuriy Román-Leshkov; Yogesh Surendranath.
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A molecular-level mechanistic framework for interfacial proton-coupled electron transfer kinetics.
Noah B. Lewis; Ryan P. Bisbey; Karl S. Westendorff; Alexander V. Soudackov; Yogesh Surendranath.
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The role of ionic blockades in controlling the efficiency of energy recovery in forward bias bipolar membranes.
Wei Lun Toh; Hieu Q. Dinh; An T. Chu; Ethan R. Sauvé; Yogesh Surendranath.
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Weakly Coordinating Organic Cations Are Intrinsically Capable of Supporting CO2 Reduction Catalysis
Sophia Weng; Wei Lun Toh; Yogesh Surendranath.
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Metal nanoparticles supported on a nonconductive oxide undergo pH-dependent spontaneous polarization
Thejas S. Wesley; Max J. Hülsey; Karl S. Westendorff; Noah B. Lewis; Ethan J. Crumlin; Yuriy Román-Leshkov; Yogesh Surendranath
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Organic Non-Nucleophilic Electrolyte Resists Carbonation during Selective CO2 Electroreduction
An T. Chu; Onyu Jung; Wei Lun Toh; Yogesh Surendranath.
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Reaction Environment Impacts Charge Transfer but not Chemical Reaction Steps in Hydrogen Evolution Catalysis
Bryan Y. Tang; Ryan P. Bisbey; Kunal M. Lodaya; Wei Lun Toh; Yogesh Surendranath.
Research Summary
Global challenges in the areas of chemical catalysis, energy storage and utilization, and environmental stewardship require new methods for controlling the selectivity and efficiency of inner-sphere reactions at solid-liquid interfaces. Our group works to solve these problems via bottom-up, molecular-level engineering of functional inorganic interfaces with a focus on electrochemical energy conversion.
