Team from Duke University School of Medicine and Duke NUS identify an enzyme that helps explain why muscles weaken in some cancer patients.

Duke Children's Hospital pinpoints genetic cause and disease course of alternating hemiplegia of childhood, a rare pediatric neurological disorder.

Serious fungal infections are becoming more common and harder to treat as fungi develop resistance to drugs. A new Duke University study reveals, for the first time, how the antifungal drug caspofungin really works: instead of simply sticking to a fungal enzyme, it jams the process while the fungus is actively building its cell wall. Understanding this hidden mechanism helps explain why the drug sometimes fails and could lead to better antifungal treatments in the future.

The Association for Clinical and Translational Science (ACTS) fellows program recognizes individuals who have made substantial contributions to and service within the clinical and translational science field and who are an essential part of the clinical and translational community. 

Some tissues, like liver and skeletal muscle, can regenerate after injury and can go back to functioning normally. Heart tissue, though, typically scars after injury.  

Duke University medical students launched a first-of-its-kind telehealth program that transformed the way primary care is delivered to low-income older, homebound adults, and those with disabilities in Durham.

Duke investigators are advancing gene and genome editing approaches to treat Pompe disease and glycogen storage disorders.

Duke University alumnus and second-generation physician Vijay Ramakrishnan, MD and his wife, Praveena Ramakrishnan, have made a unique $3 million gift that supports both Duke University Health System patients and School of Medicine radiology residents. Practicing medicine runs deep in the Ramakrishnan family — and now, their legacy is helping shape the future of radiology at Duke.

Researchers at Duke University School of Medicine have uncovered a previously unknown role for astrocytes in shaping the developing brain. By sending different signals to immune cells, these star-shaped cells help decide which neural connections stay and which ones are pruned away.