Dynamic research professional with experience at Northeastern University, adept in Python and deep learning. Successfully developed a neural surrogate model that reduced computational costs for epidemic simulations. Proven ability to leverage cloud computing for scalable solutions while collaborating effectively in team environments to enhance predictive modeling in epidemiology.
• Developed a neural surrogate model to accelerate large-scale epidemic simulators, significantly reducing computational costs while maintaining accuracy.
• Designed and implemented a scalable pipeline to calibrate the surrogate model for 51 U.S. states, leveraging cloud infrastructure for large-scale parallel computing.
• Applied Bayesian inference, deep learning, and time-series forecasting to improve epidemic modeling and simulation efficiency.
• Conducted research on generative models and AI applications in epidemiology, focusing on probabilistic forecasting and disease spread prediction.