I obtained my Master’s and PhD degrees in Biomedical Engineering at Tech under the guidance of Dr. Bruce P. Lee in the Department of Biomedical Engineering. My PhD dissertation was entitled “Reversibly switching adhesion of smart adhesives inspired by mussel adhesive chemistry.”
The motivation behind conducting this research was to develop smart adhesives that could be reversibly attached and detached from various surfaces by applying an external trigger. I synthesized a smart adhesive consisting of mussel-inspired adhesive groups and boronic acid protective groups. It showed strong adhesion in a wetted saline environment, while this adhesion was dramatically decreased by elevating the pH to a basic value. The adhesive could be reversibly attached and detached owing to the reversible pH-responsive complexation between the adhesive and protective groups.
Such a smart adhesive that can adhere and debond on-command can enable the repeated attachment of sensors and devices to underwater surfaces such as ship hulls and submarines. These sensors and devices can then be retrieved and re-deployed. A moisture-resistant smart adhesive which can be integrated with wearable electronic sensors that track human vital signs also bears tremendous implications in the biomedical field.
I am currently working as a Postdoctoral Researcher at Syracuse University, where I am designing light-triggered biomaterials for examining cellular activity.