
Tanning bed use is tied to almost a threefold increase in melanoma risk, and for the first time, scientists have shown how these devices cause melanoma-linked DNA damage across nearly the entire skin surface, according to a recent study.

Increased esophageal hypervigilance and anxiety were associated with worse post-treatment symptoms and poor quality of life in patients with achalasia, a rare esophageal motility disorder, according to a recent Northwestern Medicine study.

Northwestern Medicine scientists have discovered that targeting neuronal signaling controlling aberrant learning in the striatum may improve the efficacy of a first-line therapy for Parkinson’s disease and has the potential to reduce therapy-related side effects, according to a recent study published in Science Advances.

In a new study published in Nature Communications, Northwestern scientists have uncovered how a critical membrane pathway controls the flow of chemical messages responsible for everything from brain activity to inflammation.

Feinberg experienced a year of discovery and scientific achievement in 2025, from honors and awards to unprecedented research discoveries.

In a landmark effort to understand how the physical structure of our DNA influences human biology, Northwestern investigators and the 4D Nucleome Project have unveiled the most detailed maps to date of the genome’s three‑dimensional organization across time and space, according to a new study published in Nature.

From elucidating cellular mechanisms underlying tissue regeneration to developing novel biomaterials to improve organ function, Feinberg investigators have provided stunning new snapshots of biological processes invisible to the naked eye.

In a new study, scientists have identified a previously unknown driver of Alzheimer’s disease, and an experimental drug developed at Northwestern University has demonstrated further promise as an early intervention to treat the disease.

Northwestern Medicine scientists have discovered how molecular “traffic controllers” in cells influence aging and cellular senescence — a state where cells stop dividing but remain metabolically active.

Investigators from the laboratory of Derek Walsh, PhD, have discovered how human cytomegalovirus rewires intracellular mechanisms to control the movement of the cell nucleus and promote infection, according to a recent study.