Dr. Vivek Mittal

A Weill Cornell Medicine researcher has received a $610,000 grant from the Department of Defense to investigate the mechanisms causing DNA instability that potentially drives metastasis in bladder cancer.

A protein commonly found at high levels in lung cancer cells controls a major immunosuppressive pathway that allows lung tumors to evade immune attack.

A multidisciplinary team of Weill Cornell Medicine researchers has received a five-year $5.7 million grant from the National Cancer Institute at the National Institutes of Health to fund a center aimed at developing messenger RNA (mRNA) vaccines to deter cancer development in at-risk groups.

Depleting copper levels may reduce the production of energy that cancer cells need to travel and establish themselves in other parts of the body by a process referred to as metastasis.

Malignant tumors can enhance their ability to survive and spread by suppressing antitumor immune cells in their vicinity, but a study led by researchers at Weill Cornell Medicine and NewYork-Presbyterian has uncovered a new way to counter this immunosuppressive effect.

A prestigious Cancer Moonshot grant from the National Cancer Institute’s Immuno-Oncology Translational Network will enable investigators to explore the mechanisms that allow slow-growing lung cancer lesions to progress into aggressive malignancies and identify new therapeutic strategies to intercept the transition. 

Weill Cornell Medicine researchers have shown that giving mice with triple-negative breast cancer therapeutic microRNA (miRNA) in a protective gold nanoparticle results in significantly less spreading of cancer to the lung.

Treating early-stage lung cancers with drugs that unleash the immune system’s ability to attack malignant cells may hinder tumor growth and improve overall survival, according to new research by Weill Cornell Medicine and NewYork-Presbyterian investigators.