Abstract

AbstractInvited for the cover of this issue are the groups of Joanna Aizenberg and Cynthia M. Friend from Harvard University, Cambridge, USA. The image depicts a templated silica matrix decorated with AuAg nanoparticles catalyzing the oxidative coupling of methanol to form methyl formate. Read the full text of the article at 10.1002/chem.201704552.

Highlights

  • A highly modular synthesis of designed catalysts with controlled bimetallic nanoparticle size and composition and a well-defined structural hierarchy is demonstrated

  • We demonstrate a modular and versatile approach for the design of an efficient bimetallic catalyst system based on the synthesis of a porous framework of silica with embedded bimetallic AgAu nanoparticles of uniform size and composition

  • This specific system establishes that catalytic activity and selectivity observed in support-free nanoporous Ag3Au97 alloys[1a, 3-4] translates to the embedded nanoparticles; demonstrating that the modular synthesis process can be used to more generally test design principles

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Summary

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Tanya, Judith Lattimer, Mathilde Luneau, Elijah Shirman, Christian Reece, Michael Aizenberg, Robert J. “New Architectures for Designed Catalysts: Selective Oxidation Using AgAu Nanoparticles on Colloid-Templated Silica.”. Chemistry - A European Journal 24 (8) (November 14): 1833–1837. New architectures for designed catalysts: Selective oxidation using AgAu nanoparticles on colloid-templated silica. Tanya Shirman,§1,2 Judith Lattimer,§3 Mathilde Luneau, Elijah Shirman, Christian Reece, Michael Aizenberg, Robert J. Paulson School of Engineering and Applied Sciences, Harvard University, Cambridge, MA 02138, USA.

MF selectivity methyl formate
Catalyst compositionb npAu
Findings
References:
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