Research here centers on creating novel polymer-based materials to enhance joint function. This includes developing synthetic polymers that supplement synovial fluid to reduce cartilage wear, as well
This area focuses on developing and applying innovative imaging techniques—including quantitative computed tomography (with both anionic/cationic and nanoparticle contrast agents) and Raman
This area integrates computational and experimental approaches to understand how structural and material changes in bone and cartilage affect overall function. It encompasses work on CT-based rigidity
Dedicated to the unique challenges in growing patients, this research area aims to improve the functional outcomes of children affected by complex musculoskeletal disorders. The team develops and
Focusing on the interplay between bone quality and geometry, this area develops quantitative, CT-based computational models to predict fracture risk in bones compromised by neoplastic or metabolic
This research area harnesses the unique capabilities of nanomaterials to refine diagnostic imaging and open avenues for targeted treatment. By engineering nanoparticle contrast agents—such as
