Frank Abild‐Pedersen

SLAC National Accelerator Laboratory — United States

Materials Science · Physical Sciences

82h-index44.5kcitations268works8.62yr avg
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Research Topics

Catalytic Processes in Materials Science(122), Electrocatalysts for Energy Conversion(73), Catalysis and Oxidation Reactions(56), Machine Learning in Materials Science(51), CO2 Reduction Techniques and Catalysts(38)

Publications268 total

Dopant-Dependent Boron Arrangement and Chemistry of Metal Boride Surface
ACS Catalysis·2026
Toward Instant Prediction of Metal Adatom Diffusion Barriers for Understanding of Sintering and Catalyst Durability
The Journal of Physical Chemistry C·2025
A physics informed model for the prediction of surface energies and the shape of metal particles
iScience·2025Open Access
Unlocking Switchable Reactivity of MBene via Asymmetric Surface Adsorption
The Journal of Physical Chemistry Letters·2025
Towards instant prediction of metal ad-atom diffusion barriers forunderstanding of sintering and catalysts durability
2025
Revamped Electrode Models for Driving Electrochemical Reactions under Alkaline Conditions
2025
Cryogenic Carbon Monoxide Oxidation on Cuprous Oxide
Angewandte Chemie·2025Open Access
Cryogenic Carbon Monoxide Oxidation on Cuprous Oxide
Angewandte Chemie International Edition·2025· 2 citedOpen Access
Crossing the Oxo‐Peroxo Wall for Selective Electrochemical Epoxidation
Advanced Science·2025Open Access
Unlocking Switchable Reactivity of MBene via Asymmetric Surface Adsorption
2025
Crossing the Oxo-Peroxo Wall for Selective Electrochemical Epoxidation
2025Open Access
Atomic Origins of Roughness-Enhanced Multicarbon Selectivity in Copper-Catalyzed CO<sub>2</sub> Electroreduction
ACS Energy Letters·2025
Dopant-dependent boron arrangement and chemistry of metal boride surface
2025Open Access
Off-Equilibrium Reactivity of Boron-Enriched Metal Diboride Surfaces in Electroreduction Conditions
ACS Catalysis·2025· 4 cited
A Coordination-Based Model for the Prediction of Surface Energies and the Shape of Metal Particles
arXiv (Cornell University)·2025Open Access
From Micro-environments to Macroscopic Effects: How the Alkaline Hydrogen Evolution Reaction Drives Cu Cathodic Corrosion
ACS Catalysis·2025· 8 cited
Active Sites on Titanium and Hydrogen-Covered Transition Metal Surfaces for Nitrate Reduction
ACS electrochemistry.·2025· 3 cited
Revamped Electrode Models for Driving Electrochemical Reactions under Alkaline Conditions
2025Open Access
Off-equilibrium reactivity of boron-enriched metal diboride surfaces in electro-reduction conditions
2025Open Access
Nitrate Reduction Modeling under Acidic Conditions with Late Transition Metals
ACS Catalysis·2025· 7 cited
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Frequent Co-authors

Jens K. Nørskov(40), Felix Studt(23), Thomas Bligaard(18), Charlie Tsai(11), Jan Rossmeisl(7), Andrew J. Medford(5), Aleksandra Vojvodić(5), Hong Li(4), Xiaolin Zheng(4), Claus H. Christensen(4), Ib Chorkendorff(4), Karen Chan(4), Malte Behrens(3), Robert Schlögl(3), Hyun Soo Han(3), Egill Skúlason(3), Stig Helveg(3), Jens Sehested(3), J.R. Rostrup-Nielsen(3), Thomas F. Jaramillo(3)