I am a Ph.D. student in Mechanical Engineering at UC Santa Barbara's Computational Applied Science Laboratory (CASL), working under the supervision of Dr. Fredric Gibou and Dr. Jeff Moehlis.
My research develops computational methods for complex biological systems through distinct approaches: stochastic control strategies for neural oscillator networks with applications in Parkinson's disease treatment, Level Set Methods for solving high-dimensional Hamilton-Jacobi equations, and machine learning frameworks for biological systems. This work combines numerical methods, scientific computing, and machine learning to create novel tools for both theoretical understanding and practical applications.
Additionally, I'm pursuing an M.S. in Computer Science, strengthening my expertise in scientific computing and machine learning. Through this interdisciplinary approach, I aim to advance computational tools for understanding and controlling complex biological systems, with applications spanning from neuroscience to biotherapeutics.
CASL-ForgeX: An advanced computational framework for solving nonlinear stochastic PDEs, specializing in Hamilton-Jacobi-Bellman equations using level set methods. Applications span neuroscience, engineering, finance, and machine learning.
Developing energy-efficient, event-based control strategies for neural networks using stochastic optimal control. Our approach incorporates system noise into deterministic models, achieving significant network desynchronization while minimizing energy consumption.
Investigating cell separation using active and passive methods, along with drug delivery applications in mechanical micropumps. Research focuses on enhancing separation efficiency and optimizing drug delivery mechanisms in.mechanisms in MEMS devices.
Developing novel computational models for protein aggregation in high-concentration biotherapeutics. Our approach bridges microscopic and macroscopic scales using continuum field representations and level-set methods to predict long-term stability in drug formulations.
Ongoing ResearchDeveloping machine learning-based approaches for adaptive Deep Brain Stimulation (DBS) in Parkinson's disease. Our research utilizes artificial neural networks to predict bursting events and modulate beta band rhythms in the basal ganglia.
Ongoing ResearchImplementing machine learning approaches to accelerate drug discovery pipelines. Focusing on deep learning models for molecular property prediction, protein-ligand interaction analysis, and drug candidate screening.
Ongoing Research