Where science meets AI innovation

I’ve spent over a decade turning complex research questions into elegant software solutions. I’m always on the lookout for opportunities to pursue my passion for building AI systems that are dependable, adaptable, and impactful.

My unique perspective combines rigorous scientific methodology with modern ML engineering practices—creating solutions that researchers and industry professionals can trust with their most important data.


🖥️ AI projects

🔬 Science projects

CHNOSZ diagram

CHNOSZ

Enabling scientific discovery through thermodynamic calculations and diagrams

Evolutionary oxidation and hydration trends for proteins

Research

Understanding geosphere-biosphere coevolution through geochemistry and genomic data analysis

Combating concept drift through feedback-driven prompt engineering

Combating concept drift in LLM applications

Your LLM application works beautifully at launch. The model understands user preferences, accuracy metrics look great, and feedback is positive. Then, gradually—or sometimes suddenly—performance starts to degrade. Users complain. Metrics slide. What happened?

Double Descent: Rethinking Overfitting

Modern understanding of overfitting and generalization in machine learning

The conventional wisdom about the bias-variance tradeoff in machine learning has been dramatically challenged by modern neural networks. Traditionally, we believed that increasing model complexity would decrease bias but increase variance. However, recent research reveals that highly overparameterized models often generalize exceptionally well despite perfectly fitting the training data.

Accuracy curves for training DeBERTa transformer model with citation verification datasets

Experimenting with transformer models for citation verification

This article provides a systematic comparison of transformer-based architectures for scientific claim verification, evaluating their performance across multiple datasets and examining the trade-offs between model complexity, computational efficiency, and generalization capabilities.