Research
Current Interests
I am interested in the unique mechanical properties of biological soft materials, such as biopolymer hydrogels, extracellular matrices, and tissues. Unlike synthetic polymer materials in which significant physical insights have been gained over the last few decades, we have yet to develop comparable physical insights in biopolymers and tissues due to their non-Gaussian structural conformations, multi-component microstructures and interactions, and non-trivial mechanical responses. Yet, the mechanics of biological materials are known to play a decisive role in biology, governing the fate of cells residing in such mechanical environments through mechanotransduction. As such, a deep understanding of the mechanics of biological materials holds the key to understanding how materials properties regulate the development and disease of tissues, and developing engineered polymeric materials to model these behaviors for biomedical applications.
Previous Projects
I have been involved in a wide range of research projects in polymers, soft matter, and living systems throughout my time at Stanford, MIT, and Northwestern. You can find examples of these projects below:
Cartilage mechanobiology
I am studying how the mechanics of the extracellular matrix regulates chondrocyte behavior in quiescence and under external mechanical stresses.
Non-linear tissue mechanics
I developed rheometric techniques to analyze the non-linear elasticity and plasticity of soft tissues and composite hydrogels.
Complex viscoelasticity
I studied the microscopic origins of non-Maxwellian viscoelastic stress relaxations in soft materials.
Bio-inspired soft materials
I leveraged metal-coordination chemistry to design polymeric materials and composites with tunable structure, mechanics, and stimuli-responsivity.
Food as soft materials
I studied the mechanics of dairy proteins and tissues, and designed plant-based food materials that mimic these properties.
Confined polymer physics
I developed and used coarse-grained models for polymers to study their mechanics under nanoscale confinement.