News

Sharon Gerecht and her laboratory have used induced pluripotent stem cells (iPSCs) to grow specialized blood vessel cells critical to retinal health for the first time.

Duke researchers highlight the gaps in federal guidance governing validation of wearable devices

Critical cells that line retinal blood vessels grown from stem cells restore retinal function in mouse models and form retinal tissue in a lab for future disease studies.

By tracking the flow of cerebrospinal fluid, researchers gain an unprecedented view of the brain's glymphatic system

Jessilyn Dunn weighs in on what it takes for data gathered by wearables like blood pressure to be actionable in clinical settings as apps begin connecting users to physicians.

Duke biomedical engineer shares the prize with colleagues who developed the hearing-restoring technology.

The award recognizes Chory's efforts to use automated, robotic platforms to drive cellular evolution

The inaugural neural engineering symposium highlights Duke's collaborative vision for neurotechnology

Amy Gladfelter describes her work studying "extreme cells" that break many of the rules of biology and may hold clues to pregnancy complications, certain diseases, and even cancer.

Highly competitive awards will help graduate students conduct impactful biomedical research

Chory will use robotic platforms to synthesize molecules capable of reaching key proteins affiliated with “undruggable” pediatric cancers

Gerecht was recognized for her trailblazing stem cell and vascular bioengineering research and her steadfast mentorship to young scientists