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Anthony W. Thomas

Researcher at University of Adelaide

Publications -  982
Citations -  22196

Anthony W. Thomas is an academic researcher from University of Adelaide. The author has contributed to research in topics: Nucleon & Quark. The author has an hindex of 69, co-authored 955 publications receiving 20694 citations. Previous affiliations of Anthony W. Thomas include University of Bonn & University of Mainz.

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Pion-deutron and pion-nucleus scattering — a review

TL;DR: In this paper, a review of recent developments in the microscopic theory of pion-nucleus elastic scattering is presented, with particular emphasis on the connection which has developed between the sophisticated studies of the three-body πNN system, and the less rigorous (but equally sophisticated) treatments of the many-body problem.
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Nucleon magnetic moments beyond the perturbative chiral regime

TL;DR: In this paper, the quark mass dependence of nucleon magnetic moments is explored over a wide range and the predictions of the cloudy bag model are succinctly described by the simple formula, which reproduces the lattice data, as well as the leading nonanalytic behavior of $\ensuremath{\chi}\mathrm{PT}$.
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Magnetic Moments of the Nucleon Octet Calculated in the Cloudy Bag Model

TL;DR: In this article, the authors used the cloudy bag model to calculate the pion coupling to the strange members of the nucleon octet (and delta decuplet) and then calculated the magnetic moments of all members, including lowest-order pionic corrections.
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The EMC effect-with emphasis on conventional nuclear corrections

TL;DR: In this paper, the authors discuss the present status of understanding of the EMC effect and provide a brief introduction to deep-inelastic scattering and the present state of experimental knowledge, including Fermi motion, binding and contributions from meson-exchange currents.
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Variations of hadron masses and matter properties in dense nuclear matter.

TL;DR: Using a self-consistent quark model for nuclear matter, variations of the masses of the nonstrange vector mesons, the hyperons, and the nucleon in dense nuclear matter are investigated and the changes in the hadron masses can be described in terms of the value of the scalar mean field in matter.