Turning on Low-Temperature Catalytic Conversion of Biomass Derivatives through Teaming Pd1 and Mo1 Single-Atom Sites

On-purpose atomic scale design of catalytic sites, specifically active and selective at low temperature for a target reaction, is a key challenge. Here, we report teamed Pd1 and Mo1 single-atom sites that exhibit high activity and selectivity for anisole...

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Bibliographic Details
Main Author:	Yu Tang (343157) (author)
Other Authors:	George Yan (3638245) (author), Shiran Zhang (1391485) (author), Yuting Li (524325) (author), Luan Nguyen (577966) (author), Yasuhiro Iwasawa (1359543) (author), Tomohiro Sakata (3218961) (author), Christopher Andolina (1852780) (author), Judith C. Yang (1500133) (author), Philippe Sautet (1268361) (author), Franklin Feng Tao (2892356) (author)
Published:	2024
Subjects:	Cell Biology Evolutionary Biology Science Policy Computational Biology Chemical Sciences not elsewhere classified transferring h atoms much less effective computational studies show 4 </ sub 3 </ sub 2 </ sub 1 </ sub target reaction channel report teamed pd exhibit high activity designing catalysts active atom sites alone temperature catalytic conversion target reaction catalytic sites atom sites specifically active catalysts built temperature range sites shows low temperature teaming pd oxide nanoparticles neither metal key challenge finding opens combination triggers biomass derivatives
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Turning on Low-Temperature Catalytic Conversion of Biomass Derivatives through Teaming Pd<sub>1</sub> and Mo<sub>1</sub> Single-Atom Sites

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