(September 2021 - Present) Ph.D. Student at Princeton Program in Plasma Physics. First-year project.

  • Optimizations for gyrokinetic modeling for high-field magnetic mirror experiments using Gkeyll.
    - Currently thinking about non-uniform grid discontinuous Galerkin schemes
    - Developed a unit test for the C-level Gkeyll implementation to facilitate the GPU implementation.
    - Implemented a penalization term to turn off the high forces imposed in inaccessible regions of phase space. This resulted in a speed-up of 20X

(January 2021 - September 2021) Fulbright Fellow at Max Planck Institute for Plasma Physics

  • Developed an E and B model for kinetic shear Alfven waves in tokamak plasmas using hybrid gyrokinetic-magnetohydrodynamics.

  • Studying the E&B model presented in Chen (2020) "A gyrokinetic simulation model for low-frequency electromagnetic fluctuations in magnetized plasmas"
    -
    Recreating the results from this paper.

- Extending the model to tokamak geometry.

(September 2020 - December 2020) Technician Intern at Princeton Plasma Physics Laboratory

  • Solving Poisson’s equation on GPU for application to particle-in-cell codes.

- Utilized the linear algebra package Hypre on Princeton’s supercomputer Traverse to investigate the performance of solving Poisson’s equation on GPUs.


(Summer 2020) Summer Undergraduate Laboratory Internship at Princeton Plasma Physics Laboratory

  • Fast ion modeling using a 2D Chebyshev approximation for the magnetic potential.

- Created a partially kinetic simulation for fast ions on GPU to simulate particle loss from neutral beam injection on the Lithium Tokamak Experiment.


(September 2019 - June 2020) Staff Associate at Columbia Plasma Physics Laboratory at Columbia University

  • A multi-staged biorthogonal decomposition for finding disruption-causing modes on HBT-EP.

- Through exploratory efforts, invented an algorithm to find disruption-causing modes across many shots. It is finding the biorthogonal decomposition of the mirnov coil sinals on many different shots, then computing the biorthogonal decomposition of those modes to find the best representation of the dominant biorthogonal decomposition modes.

- Wrote a random forest algorithm to predict disruptions.

- Defined a 2D Lomb-Scargle periodogram for unraveling the structure of magnetic diagnostic data.


(Summer 2018) Summer Intern at the Korean Institute for Science and Technology

  • Contactless actuation of ionomer membranes in a salt solution

- Constructed the experimental apparatus and analyzed data to study the contactless actuation of ionomer membranes in a salt solution.

- Daily presentations at group meetings about experimental findings.


(May 2017 - June 2019) Undergraduate Researcher at Dynamical Systems Laboratory in New York University

  • Contactless actuation of ionomer membranes in a salt solution.

- Designed and manufactured multiple experimental apparatuses, conducted experiments, and analyzed the data.

- Published in Nature: Scientific Reports.

  • Additive manufacturing of ionic-polymer metal composites.

- Developed a procedure for filament extrusion of perfluorinated sulfonic acids (PFSA), customized a 3D printer to print PSFA membranes, and designed a procedure for the electroless plating of PSFAs.

- Designed a novel ionic-polymer metal composite actuator with diagonal fibers to exhibit a torsional rotation.

- Mentored two undergraduates during Summer 2018.

  • An information-theoretic study of fish swimming in the wake of a pitching airfoil.

- Designed the pilot experimental apparatus, a servo motor controller, and the data analysis program.

- Created an interactive demonstration of the experiment for the 2018 Tandon Research Expo.

  • An information-theoretic approach to study fluid-structure interactions.

- Designed and manufactured the experimental apparatus, conducted PIV imaging, performed experiments, and analyzed the data using transfer entropy and a custom-built video analysis software in MatLab.


(June 2015 - September 2015) Summer Science Training Program at the University of Florida

  • Manufacturing nanoparticles for intra-articular delivery of osteoarthritis medications.

- Varied the intensity and duration of sonication treatments to reduce particle size and increase homogeneity.