A collection of data science, machine learning, and research projects spanning from experimental physics to industry applications and AI research.
Technologies: Python Transformers
A systematic exploration of transformer architecture fundamentals, approaching neural attention mechanisms through the lens of physics intuition and structured analysis. This project documents my methodology for rapidly understanding complex ML architectures and identifies physics-inspired research questions for future investigation.
Key Insights:
Technologies: Python XGBoost GCP/Vertex.ai Recommendation Systems
Production ML system for personalized load recommendations at CloudTrucks, improving driver load booking rates through intelligent matching. Built end-to-end pipeline from feature engineering to real-time inference, serving hundreds of drivers daily.
Key Achievements:
Technologies: Python PyMC3 Bayesian Inference Maritime Analytics
Automated sea condition detection for cargo ships using time series sensor data and Bayesian logistic regression. Developed during Insight Data Science Fellowship to address small data challenges in maritime consulting applications.
Key Achievements:
Additional projects from my physics research, data science work at NBCUniversal, and ongoing interpretability research will be added here.
PhD in Physics from Columbia with postdoctoral research at Yale. Specialized in experimental nuclear and particle physics, dark matter detection, and neutrino physics. Co-authored 25+ peer-reviewed papers with 8,000+ citations.
Senior Data Scientist roles at CloudTrucks and NBCUniversal, building ML systems for load recommendations, price forecasing, advertising effectiveness, and customer analytics. Experience scaling models from prototypes to production systems.
Transitioning to AI interpretability research, combining experimental physics rigor with modern ML techniques. Developing systematic approaches to understanding how neural networks actually work.
Find me on LinkedIn | GitHub | Google Scholar