
Improving Treatment for Triple-Negative Breast Cancer
A team led by Northwestern Medicine investigators has identified a novel molecular target that may improve the efficacy of current treatments for triple-negative breast cancer.
A team led by Northwestern Medicine investigators has identified a novel molecular target that may improve the efficacy of current treatments for triple-negative breast cancer.
Take a look back at a handful of groundbreaking research discoveries that marked one of, if not the most, unprecedented and transformative years for Feinberg.
Northwestern Medicine scientists have developed a new high-throughput sequencing tool to test how drugs interact with genetically modified cells.
A series of recent discoveries by Northwestern Medicine scientists point to a more nuanced understanding of how epigenetic regulators function.
Northwestern Medicine investigators have discovered that oncogenes contain specific epigenetic markers called broad genic repression domains, which could help identify potential therapeutic targets for cancer treatment.
Northwestern Medicine investigators have identified a novel “gate latch” mechanism within the Orai1 ion channel that is essential for proper activation of the immune system.
Northwestern Medicine investigators have discovered that inserting dietary antioxidants into the mitochondria of cancer cells may inhibit overall tumor growth.
Shi-Yuan Cheng, PhD, professor in The Ken and Ruth Davee Department of Neurology in the Division of Neuro-oncology, has been named a fellow of the American Association for the Advancement of Science (AAAS) for his outstanding contributions to molecular and translational cancer research.
A new Northwestern Medicine study has identified tissue-specific epigenetic regulators in zebrafish, filling in a longtime gap in the understanding of the organism’s genome.
Combining the current standard-of-care chemotherapy drug with a genetic inhibitor may improve treatment for pancreatic ductal adenocarcinoma, according to a recent study published in PNAS.