Catalytic chemistry of Pd−Au bimetallic surfaces

Catalyst development is important to the contemporary world as suitable catalysts can allow chemical processes to proceed with reduced energy consumption and waste production. In order to design catalysts with improved performance, the fundamental studies that correlate catalytic properties with sur...

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Main Author: Yu, Wen-Yueh
Other Authors: Mullins, C. B.
Format: Others
Language:en
Published: 2015
Subjects:
Online Access:http://hdl.handle.net/2152/31336
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spelling ndltd-UTEXAS-oai-repositories.lib.utexas.edu-2152-313362015-09-20T17:33:51ZCatalytic chemistry of Pd−Au bimetallic surfacesYu, Wen-YuehCatalysisSurface ScienceModel CatalystPalladiumGoldCatalyst development is important to the contemporary world as suitable catalysts can allow chemical processes to proceed with reduced energy consumption and waste production. In order to design catalysts with improved performance, the fundamental studies that correlate catalytic properties with surface structures are essential as they can provide mechanistic insights into the reaction mechanism. Pd−Au bimetallic catalysts have shown exceptional performance for a number of chemical reactions, however, the interplay between the reactive species and surface properties are still unclear at the molecular level. In this dissertation, the catalytic chemistry of Pd−Au surfaces was investigated via model catalyst studies under ultrahigh vacuum conditions. A range of Pd−Au model surfaces were generated by annealing Pd/Au(111) surfaces and characterized/tested by surface science techniques. The findings in this dissertation may prove useful to enhance the fundamental understanding of structure-reactivity relation of Pd−Au catalysts in associated reactions.Mullins, C. B.2015-09-16T18:16:50Z2015-082015-07-14August 20152015-09-16T18:16:51ZThesistextapplication/pdfhttp://hdl.handle.net/2152/31336en
collection NDLTD
language en
format Others
sources NDLTD
topic Catalysis
Surface Science
Model Catalyst
Palladium
Gold
spellingShingle Catalysis
Surface Science
Model Catalyst
Palladium
Gold
Yu, Wen-Yueh
Catalytic chemistry of Pd−Au bimetallic surfaces
description Catalyst development is important to the contemporary world as suitable catalysts can allow chemical processes to proceed with reduced energy consumption and waste production. In order to design catalysts with improved performance, the fundamental studies that correlate catalytic properties with surface structures are essential as they can provide mechanistic insights into the reaction mechanism. Pd−Au bimetallic catalysts have shown exceptional performance for a number of chemical reactions, however, the interplay between the reactive species and surface properties are still unclear at the molecular level. In this dissertation, the catalytic chemistry of Pd−Au surfaces was investigated via model catalyst studies under ultrahigh vacuum conditions. A range of Pd−Au model surfaces were generated by annealing Pd/Au(111) surfaces and characterized/tested by surface science techniques. The findings in this dissertation may prove useful to enhance the fundamental understanding of structure-reactivity relation of Pd−Au catalysts in associated reactions.
author2 Mullins, C. B.
author_facet Mullins, C. B.
Yu, Wen-Yueh
author Yu, Wen-Yueh
author_sort Yu, Wen-Yueh
title Catalytic chemistry of Pd−Au bimetallic surfaces
title_short Catalytic chemistry of Pd−Au bimetallic surfaces
title_full Catalytic chemistry of Pd−Au bimetallic surfaces
title_fullStr Catalytic chemistry of Pd−Au bimetallic surfaces
title_full_unstemmed Catalytic chemistry of Pd−Au bimetallic surfaces
title_sort catalytic chemistry of pd−au bimetallic surfaces
publishDate 2015
url http://hdl.handle.net/2152/31336
work_keys_str_mv AT yuwenyueh catalyticchemistryofpdaubimetallicsurfaces
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