Extracellular Vesicles

There’s nothing like a good set of tweezers. Chancellor Faculty Fellow and Associate Professor Justus Ndukaife, with his team, have developed next-generation nanotweezers that let scientists better analyze “extracellular vesicles” in real time and in their native state—no chemical staining or fixation to alter them. A patent application for the technology has been filed with the U.S. Patent and Trademark Office; the research was just published in Light: Science and Applications. Read More

Researchers from the School of Medicine Basic Sciences recently developed an analytical tool called EV Fingerprinting that could lead to the use of “liquid biopsies” as a substitute for traditional biopsies for certain patients or diseases. Read More

“Biomanufacturing is a growing but critical field that is reshaping how we diagnose and treat some of the most devastating diseases known to humanity,” said Jamey Young, Cornelius Vanderbilt Professor of Chemical and Biomolecular Engineering and principal investigator on the four-year grant. “Vanderbilt is uniquely well-suited to help advance the future of biomanufacturing, given our... Read More

Justus C. Ndukaife, assistant professor of electrical engineering, has received a prestigious NSF CAREER Award for foundational research in cell-to-cell communication. His CAREER project, “Resonant Dielectric Optical Metasurfaces for Single-Cell Extracellular Vesicles Analysis,” will enable Ndukaife to associate the properties of extracellular vesicles directly to their cell sources—up to the resolution of single cells—a capability that... Read More

Vanderbilt researchers awarded one of NSF’s 24 new projects to drive future manufacturing One of the challenges of drug delivery systems is to optimize their targeting properties so therapeutic compounds used in smaller amounts reach only a specific area of the body and result in little or no side effects. The ability to engineer the... Read More