Fine-Tuning ProGen2 Protein Language Model
Fine-tuned ProGen2 transformer model on PFAM protein families to generate biologically valid sequences. Achieved 93%+ motif retention rates through targeted hyperparameter …
Bridging experimental materials science and machine learning to solve complex, data-scarce problems. I specialize in extracting maximum insight from limited datasets through intelligent experimental design and physics-informed algorithms.

Carbon nanotube fiber assembly - Scanning Electron Microscopy
PyTorch, TensorFlow, scikit-learn
Supervised, Unsupervised, Deep Learning
MLflow, Airflow, Docker, GCP
SEM, Raman, Mechanical Testing
Feature Engineering, Visualization
DOE, Bayesian Optimization
My research bridges experimental materials science and machine learning. I work with real, noisy experimental data from carbon nanotube fiber assemblies, applying techniques like Bayesian optimization and data-efficient ML strategies to extract maximum insight from limited datasets.
I’m passionate about solving problems where physical intuition meets computational power - where domain knowledge guides algorithms, and algorithms reveal patterns that experiments alone cannot uncover.
Fine-tuned ProGen2 transformer model on PFAM protein families to generate biologically valid sequences. Achieved 93%+ motif retention rates through targeted hyperparameter …
Built a physics-informed neural network in PyTorch that embeds the transient 2D heat equation PDE directly into the loss function, achieving high accuracy validated against …
Building intelligent experimental workflows for CNT fiber optimization by integrating comprehensive materials characterization with machine learning. Developed automated data …
Built production-ready ML pipeline for customer segmentation with automated workflows, containerization, and cloud deployment. Demonstrates end-to-end MLOps practices from data …