Overview
The overall goal of my research program is to utilize an interdisciplinary approach to first advance the basic understanding of mechanotransduction on multiple scales and then use this knowledge to guide the development of new treatments for mechanosensitive diseases. Our work combines principles and techniques from protein engineering, molecular biology, soft matter physics, cell and developmental biology, biomaterials engineering, automated image analysis, and state of the art live cell microscopy. Specifically, we engineer and use biosensors that report the tension across specific proteins in living cells through changes in the color of light they emit. This technology enables dynamic measurements of proteins and sub-cellular structures that are under load. Unlike more traditional techniques that measure the entirety of cellular force output, the ability of these sensors to measure mechanical stress at the molecular level means they are innately compatible with concepts and approaches common in molecular biology and biophysics.
Current Duke Appointments & Affiliations
Recent Scholarly Works
Physical continuity at biomaterial-ECM interfaces is associated with reduced fibroblast activation and NF-κB signaling.
Journal article Biomaterials · December 2026 Fibrotic responses at biomaterial-tissue interfaces limit implant integration and regenerative healing, yet how the interaction between biomaterials and the extracellular matrix (ECM) regulates fibroblast activation remains poorly understood. Granular hydr ... Full text CiteMechanometabolism of cell adhesion: Vinculin regulates bioenergetics via RhoA-ROCK.
Journal article The Journal of cell biology · March 2026 Cell migration and cytoskeletal remodeling are energetically demanding processes. Reorganizing the cytoskeleton requires ATP to fuel the actomyosin complex, enabling cells to adhere to and migrate through a matrix. While it is known that energy is required ... Full text CiteCell shape and maturation impacts α-actinin-2 tension in iPSC-derived cardiomyocytes.
Journal article APL bioengineering · March 2026 The contractile activity of cardiomyocytes (CMs) critical to heart function emerges from the collective shortening of sarcomeres. However, how these sarcomeric forces are transmitted within CMs during this process remains poorly understood. Traction force ... Full text CiteRecent Grants
Cell and Molecular Biology Training Program
Inst. Training Prgm or CMEMentor · Awarded by National Institute of General Medical Sciences · 2026 - 2031Force-sensitive Linker Proteins as Mediators of Cellular Mechanosensitivity
ResearchPrincipal Investigator · Awarded by National Institute of General Medical Sciences · 2025 - 2029Understanding how basement membrane regulates tissue elasticity
ResearchCo-Mentor · Awarded by National Institutes of Health · 2026 - 2028View All Grants