Georgia Tech · MIT MCSC · MIT Earth Intelligence Lab
My research sits at the intersection of machine learning and planetary-scale sensing — training foundation models that map Earth's mineral resources via satellite hyperspectral imagery, and building physics-guided systems that extract geochemical signal from high-dimensional observational data to advance carbon capture and critical mineral discovery.
Fourth-year double major in Computer Science and Mathematics at Georgia Tech. Research affiliate at the MIT Climate & Sustainability Consortium and MIT Earth Intelligence Lab, advised by Dr. Evan Coleman, Prof. Sherrie Wang, and Prof. Elsa Olivetti. Publications at AAAI, ICLR, AAS, PASP, and more.
Applying machine learning to NASA EMIT satellite imagery to estimate global soil chemistry, combining satellite and field data and incorporating physical constraints to improve reliability and interpretability.
Training models to predict mineral locations across continents by learning from geophysical data — fault lines, elevation, rock type, and soil surveys. Work has direct implications for critical mineral discovery and carbon capture.
Fine-tuning pose estimation models for automated sports officiating and human hand-tracking for robotic manipulation using depth cameras.
Early deep learning work on detecting exoplanets from photometric light curves using CNNs and LSTMs. Contributed to NASA's EXOTIC citizen science pipeline with 10 publications.
All-in-one soil property prediction pipeline fusing NASA EMIT hyperspectral satellite data with geospatial, atmospheric, and high-quality field measurements from YardStick PBC. Uses a physics-guided autoencoder that learns spectral-spatial embeddings to reconstruct soil spectra and predict soil properties.
Trained a U-Net ResNet to infill the presence of masked minerals based on surrounding mineral resources, geophysical data (fault lines, elevation, rock type), and agronomic data (RaCA). Model outperformed ViT and Kriging baselines with a test Dice coefficient of 0.31.
Used USDA RaCA data to reconstruct soil organic carbon spectra alongside SOC regression to improve out-of-distribution generalization. A physics-based pipeline provides an interpretable spectral signature of SOC and avoids generalization failures through fine-tuning.