The study of quantum graphs is motivated by modeling physical phenomena and complex quantum systems with graphs. My research specifically pertains to the application of modeling waves propagating through thin branching structures. This can be accomplished by solving Schrodinger type wave equations on metric graphs. Given any graph G and spatial operator L, my goal is to numerically define L on G with spectral accuracy. The next step is to implement highly accurate time evolution solvers which are complicated by boundary conditions. Using highly accurate spatial and time dependent solvers, we will then apply the Adjoint Continuation Method to search for time periodic orbits on a variety of Quantum Graphs. All of these components will be adapted into a software package jointly with Roy Goodman.
Displacement Analysis of Neo-Hookean Elastic Materials - UNC, Chapel Hill
Derived and tested the behaviour of finite element formulations for incompressible plastic materials at finite strains using Cooks Membrane and the Elasto-Plastic Strip using FreeFem++.
Calculating the Stark Effect Energy Shift for the Hydrogen Atom - UNC, Chapel Hill
Found that the numerical eigenvalue methods produced very close estimates to the first-order
perturbation theory corrections. However, the second-order estimates were slightly lower than the
perturbation theory results. This is likely due to the fact that we truncated the Hamiltonian matrix and
so we lost the effect of the higher level states on the eigenvalues.
Heterojunction-Assisted Impact Ionization - University of Oregon REU
Designed and performed a series of experiments to determine if it is possible to improve the efficiency of
solar cells on a quantum level. Presented the theoretical background and experimental results to
colleagues and undergraduate students.