Exploring the complex dynamics of soft matter, active systems, and electrohydrodynamics through computational modeling and theoretical physics. Currently advancing neuromorphic computing and iontronic technologies at Northwestern University.
My work focuses on systems where ionic transport, hydrodynamics, and soft-matter organization are deeply intertwined. One major direction concerns electrohydrodynamic ion transport at the nanoscale, where reduced friction and strong confinement give rise to fast, highly correlated ionic flows. I am particularly interested in how active ionic fluxes can couple to electrostatics and hydrodynamics to produce symmetry breaking, autonomous currents, and other emergent behaviors with potential relevance for neuromorphic and iontronic technologies.
In parallel, I investigate oscillatory active media and non-reciprocal soft matter, focusing on how interactions, internal cycles, and symmetry constraints shape collective dynamics. Recent work on self-oscillating colloids has shown how hydrodynamic interactions can generate coupled orientational and temporal order, leading to mixed phase–alignment states and new forms of collective organization.
Together, these efforts aim to build a multiscale understanding of how ionic, mechanical, and hydrodynamic processes can be harnessed to design adaptive, energy-efficient soft materials and functional systems.
Since my first publication in 2020, my research has received 41 citations with an h-index of 4 according to Web of Science. Below is a selection of peer-reviewed journal articles including recent work published in Nature Communications and preprints currently under review.
I'm always interested in discussing research collaborations, speaking opportunities, and new projects in computational physics and soft matter.
Evanston, Illinois, United States