Cory J. Wright, Ph.D.
Instructor
- Milwaukee WI UNITED STATES
- Mathematics
Dr. Wright is an Instructor in the Mathematics Department.
Education, Licensure and Certification
Ph.D.
Mathematics
University of Nebraska at Lincoln
2018
M.S.
Mathematics
University of Nebraska at Lincoln
2015
B.S.
Mathematics
Rowan University
2013
Minor in Physics & Astronomy
Areas of Expertise
Accomplishments
MCTP Graduate Fellowship
University of Nebraska at Lincoln 2013-2014
Affiliations
- Rocky Mountain Journal of Mathematics : Referee
- 2019 SIAM Cetneral States Annual Meeting : Minisymposium Organizer
Event and Speaking Appearances
Nonlocal Trace Theorems and Their Applications
SIAM Central States Annual Meeting
2019-10-19
"Existence and Regularity of Minimizers for Nonlocal Energy Functionals"
Spring Southeast Sectional Meeting of the AMS, Analysis Control and Stabilization of PDE's Session College of Charleston, Charleston, SC
2017-03-10
Research Interests
Non local partial differential equations & peridynamics
. His research area is in the field of nonlocal partial differential equations and peridynamics where discontinuous phenomena such as crack propagation, fractures, and corrosion are modeled.
Selected Publications
Nonlocal Trace Spaces and Extension Results for Nonlocal Calculus
arXiv:2107.00177For a given Lipschitz domain Ω, it is a classical result that the trace space of W1,p(Ω) is W1−1/p,p(∂Ω), namely any W1,p(Ω) function has a well-defined W1−1/p,p(∂Ω) trace on its codimension-1 boundary ∂Ω and any W1−1/p,p(∂Ω) function on ∂Ω can be extended to a W1,p(Ω) function. Recently, Dyda and Kassmann (2019) characterize the trace space for nonlocal Dirichlet problems involving integrodifferential operators with infinite interaction ranges, where the boundary datum is provided on the whole complement of the given domain ℝd∖Ω.
Existence and regularity of minimizers for nonlocal energy functionals
Differential and Integral EquationsIn this paper, we consider minimizers for nonlocal energy functionals generalizing elastic energies that are connected with the theory of peridynamics [19] or nonlocal diffusion models [1]. We derive nonlocal versions of the Euler-Lagrange equations under two sets of growth assumptions for the integrand. Existence of minimizers is shown for integrands with joint convexity (in the function and nonlocal gradient components). By using the convolution structure, we show regularity of solutions for certain Euler-Lagrange equations.
Four derivations of an interesting bilateral series generalizing the series for zeta of 2
International Journal of Mathematical Education in Science and TechnologyWe present four derivations of the closed form of the partial fractions expansion
This interesting series is a generalization of the series made famous by Euler.
Interesting bilateral series generalising a result of Euler
The Mathematical GazettePublished online by Cambridge University Press: 23 January 2015