Inhibiting a novel protein variant within glioma stem cells may be a promising therapeutic approach to treat glioblastoma, according to a recent Northwestern Medicine study.
A novel integrative computational technique allowed scientists to classify disease conditions at the molecular level using epigenomic data sets.
Northwestern Medicine investigators have discovered that inhibiting tumor-associated myeloid cells ability to produce specialized metabolites called polyamines may improve the effectiveness of treatments for glioblastoma.
Northwestern Medicine scientists have engineered a novel antibody that revitalizes immune cell activity in a deadly brain cancer, according to a recent study.
An experimental spherical nucleic acid drug developed by Northwestern scientists was able to penetrate the blood-brain barrier and trigger the death of glioblastoma cells.
Perioperative chemotherapy treatment did not improve overall survival for patients with resectable pancreatic cancer, according to a recent Northwestern Medicine clinical trial.
Blocking the arginine methylation pathway, which helps brain tumor cells proliferate by promoting cell division, could improve cancer therapies, according to a recent study.
Northwestern Medicine investigators have identified a protein kinase called DYRK1A and its downstream substrates as potential therapeutic targets for treating pediatric patients with B-cell acute lymphoblastic leukemia.
A new antibody drug demonstrated similar efficacy to currently available therapies to treat advanced ERBB2-positive breast cancer, according to a recent clinical trial.
T-cell acute lymphoblastic leukemia hijacks a signaling pathway to produce nucleotides, a basic building block of life that fuels the growth and spread of the cancer, according to a recent study.