A promising solution to a cancer drug resistance problem

A protein that can dial down oxidative stress in cells helps some cancers resist treatment with a widely used class of drugs called BTK inhibitors, according to a study led by investigators at Weill Cornell Medicine.

Cornell Tech appoints new Associate Deans for research and education

Cornell Tech has appointed two longtime faculty leaders to new academic leadership roles.

Around Cornell

Inflammation may drive rare epileptic syndrome

An overactive immune response in the brain may play a role in Dravet syndrome, a rare and severe genetic epilepsy that typically begins in infancy, according to Weill Cornell Medicine researchers.

Tumor organoid tech advances toward a sci-fi future

Two studies advance precision medicine and point to the more routine use of tumor organoids as models for evaluating and optimizing cancer treatments.

$2.5M Department of Defense grant funds triple-negative breast cancer therapies

Weill Cornell Medicine has received a three-year, $2.5 million grant from the Department of Defense to develop therapies with fewer side effects for triple-negative breast cancer, one of the most aggressive and difficult-to-treat breast cancers.

Brian White appointed university general counsel

The Executive Committee of the Cornell Board of Trustees approved his appointment on June 15. White will start as Cornell’s top legal officer on Aug. 20.

Discovery could lead to drug therapy for hypopigmentation conditions

An NSAID-related compound called ampyrone appears to safely boost production of the pigment melanin in human skin, according to a preclinical study led by Weill Cornell Medicine and National Eye Institute investigators.

Cancer evolution study reveals biology of glioma progression

Glioma, a type of brain cancer, tends to progress toward greater malignancy due to an increasing tendency of the glioma cells to transform into immature, stem-cell-like states.

Demystifying the molecular mechanisms of general anesthesia

Researchers have identified a site where a commonly used anesthetic binds to sodium ion channels, revealing a molecular mechanism that may explain how these drugs dampen communication between neurons.