Grady B. Wright

Grady B. Wright


Research Focus & Metrics

Academic Career Length

17Years (2010-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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6 September 2014 in Journal of Scientific Computing
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Journal Article
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VSVarun Shankar
Varun Shankar
GWGrady B. Wright
Grady B. Wright
RKRobert M. Kirby
Robert M. Kirby
AFAaron Fogelson
Aaron Fogelson

23 February 2013 in Journal of Scientific Computing
Verified
Journal Article
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EFEdward J. Fuselier
Edward J. Fuselier
GWGrady B. Wright
Grady B. Wright

8 July 2010 in Geochemistry, Geophysics, Geosystems
Verified
Journal Article
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GWGrady B. Wright
Grady B. Wright
NFNatasha Flyer
Natasha Flyer
David YuenDavid Yuen
David Yuen

22 September 2022 in SIAM Journal on Scientific Computing
Verified
Journal Article
Closed access
KDKathryn P. Drake
Kathryn P. Drake
EFEdward J. Fuselier
Edward J. Fuselier
GWGrady B. Wright
Grady B. Wright
Surface reconstruction from a set of scattered points, or a point cloud, has many applications ranging from computer graphics to remote sensing. We present a new method for this task that produces ...

18 July 2011 in Physical Review E
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Journal Article
Open access
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RGRobert Guy
Robert Guy
TNToshiyuki Nakagaki
Toshiyuki Nakagaki
GWGrady B. Wright
Grady B. Wright
A model is presented to explain the development of flow channels within the cytoplasm of the plasmodium of the giant amoeba Physarum polycephalum. The formation of channels is related to the development of a self-organizing tubular network in large cells. Experiments indicate that the flow of cytoplasm is involved in the development and organization of these networks, and the mathematical model proposed here is motivated by recent experiments involving the observation of development of flow channel in small cells. A model of pressure-driven flow through a polymer network is presented in which the rate of flow increases the rate of depolymerization. Numerical solutions and asymptotic analysis of the model in one spatial dimension show that under very general assumptions this model predicts the formation of channels in response to flow.

27 July 2023 in Computers & Mathematics with Applications
Verified
Journal Article
Closed access
AJAndrew M. Jones
Andrew M. Jones
PBPeter A. Bosler
Peter A. Bosler
PKPaul A. Kuberry
Paul A. Kuberry
GWGrady B. Wright
Grady B. Wright