W
W. Hunter Woodward
Researcher at Dow Chemical Company
Publications - 29
Citations - 713
W. Hunter Woodward is an academic researcher from Dow Chemical Company. The author has contributed to research in topics: Reactivity (chemistry) & Low-density polyethylene. The author has an hindex of 11, co-authored 26 publications receiving 629 citations. Previous affiliations of W. Hunter Woodward include Pennsylvania State University.
Papers
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Journal ArticleDOI
Complementary active sites cause size-selective reactivity of aluminum cluster anions with water.
TL;DR: The size selectivity of aluminum cluster anion reactions with water, which can be attributed to the dissociative chemisorption of water at specific surface sites, is observed.
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Reactivity of aluminum cluster anions with water: origins of reactivity and mechanisms for H2 release.
TL;DR: The role of charge in the reactivity is considered, which could account for the observed increase in reactivity at large sizes and a mechanism for transferring hydroxyl groups on the surface of the cluster is discussed.
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Crystal field effects on the reactivity of aluminum-copper cluster anions
TL;DR: The limits and useful modifications of the jellium model are of great interest in understanding the properties of metallic clusters, especially involving bimetallic systems as mentioned in this paper, where an odd-even alternation is observed that is in accordance with spin-dependant etching.
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Edge-induced active sites enhance the reactivity of large aluminum cluster anions with alcohols.
TL;DR: Theoretical investigations reveal that at small sizes, the location of reactive pairs occurs on specific active sites, but at larger sizes the reactive pairs begin to accumulate on the edges between facets, marking the transition from the nonscalable size-dependent regime to the scalable regime where the nanoparticles are universally reactive.
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Growth kinetics of Al clusters in the gas phase produced by a magnetron-sputtering source
TL;DR: In this paper, a magnetron-sputtering (MagS) cluster source was used to produce metal clusters of different size distributions by varying individual source parameters, and a collision-dependent growing time domain was demonstrated.