Generative AI is one of the most fascinating tools out there and I'm thrilled to be exploring how to best use it!
A domain-specialized large language model fine-tuned on text/data mined bioinspired materials literature. Built with a LoRA strategy and a synthetic Q&A dataset, it excels at knowledge retrieval, hypothesis generation, and exploring agentic approaches to new material design.
A project bridging LLM-generated ideas to real-world experiments. Using Hierarchical Sampling, an LLM-driven framework generates and evaluates hundreds of hypotheses to guide experimental validation. This approach enabled the fabrication of a plant-based adhesive with tunable morphology and measurable shear strength, demonstrating AI’s role as a scientific co-pilot for materials design.
A systematic investigation of strategies to adapt large language models (LLMs) for domain-specific applications in materials science and engineering. Through experiments with continued pretraining, supervised fine-tuning, and preference optimization methods such as DPO and ORPO, as well as model merging, the study revealed how different training strategies influence model performance.
Deep learning models for forward and inverse molecular design(SMILES), applying diffusion modeling and transformer architectures to capture complex chemical structures. Trained on the QM9 dataset and extended to deep eutectic solvents (DESs), the models were capable of predicting quantum mechanical properties and designing solvent systems with targeted behaviors.
I am honored to have authored several perspective and review papers exploring how generative AI and materials informatics can accelerate scientific discovery—particularly at the intersection of biological materials mechanics. These works discuss how artificial intelligence can help us learn from Nature’s time-tested designs and reimagine sustainable material systems.
AI-generated 3D models of bioinspired structures for validation and 3D printing.
Custom and compact smart assistant speaker powered by LLMs.
Foundational science satisfies the part of my brain that’s always asking why and eager to dive into the data.
Horse hooves endure daily impact with surprising toughness. This project investigated the fracture and impact mechanics of the equine hoof wall through experiments, simulations, and advanced imaging, and extended those findings into 3D-printed composites. The results uncovered new crack deflection mechanisms that point toward future bioinspired materials.
What happens inside a horse hoof when it’s pushed to its limits? Using 4D synchrotron micro-CT at Berkeley Lab(LBNL), this project visualized the hoof wall’s structural changes under mechanical loading, uncovering how its architecture adapts and fractures in real time.
Jackfruit, the largest fruit on Earth, has a peel that doubles as a natural armor. This project examined its cellular and fibrous architecture through experiments and imaging, uncovering how the structure resists impact and fracture. The findings offer inspiration for designing lightweight, bioinspired protective materials.
I see engineering as a way to build practical solutions, from sensor tools for crucial data collection to devices that make life a little better.
A mobile air sampling system for atmospheric greenhouse gas tracking for the Scripps Institution of Oceanography. A custom 3D-printed carbon-fiber fixture positioned the sampling inlet below the drone rotors for well-mixed air collection, with tubing secured to prevent stress on the mount. A Raspberry Pi, sensors, and an external battery pack were housed in a protective acrylic fixture mounted on top of the drone, enabling real-time communication.
Six low-cost ocean drifters, designed and built for deployment in Hawaii, tracked currents and dispersion over time. Iterative prototyping and fabrication ensured proper buoyancy and reliable performance in the field.
Wouldn't be an engineering degree without building a robot right? This robotic arm combined a rotating friction-drive base with a claw gripper capable of handling oddly shaped small objects. The base design provided a high torque ratio, while the gripper enabled smooth and precise operation.
A comprehensive energy model of the Birch Aqauarium(La Jolla, CA) using eQUEST. Our work included conducting site tours, performing lighting counts, evaluating HVAC systems, and developing CAD building layouts.
This immersive tabletop game is built from modular 3D-printed tiles, so the board can be redesigned every time you play. Set in a post-apocalyptic future, players navigate a layered system of rewards, punishments, and karma points. Beneath the fun, the game hints at larger questions about survival, community, and the choices we make under pressure.
A wearable medical brace to support post-surgical rehabilitation by detecting movements that could re-injure the surgical site. The device alerts users through light, vibration, and sound feedback.