An experimental drug designed to block blood-clotting proteins may slightly lower the risk of recurrent strokes, according to a dose-finding trial published in The Lancet Neurology.
A new Northwestern Medicine study has identified short strands of toxic RNAs that contribute to brain cell death and DNA damage in Alzheimer’s and aged brains.
Northwestern Medicine investigators have discovered that specialized immune cells within the glioblastoma tumor microenvironment use a unique “feeding” mechanism that promotes tumor growth and treatment resistance, according to findings published in the journal Cell Metabolism.
An established transcription factor known for bone formation also supports specialized cells in the central nervous system to promote brain tissue stiffness, findings that could inform new therapeutics for neuronal regeneration, according to a Northwestern Medicine study published in Neuron.
Modulating the activity of a kinase in motor neurons may help mitigate mitochondrial defects and other symptoms of spinal muscular atrophy, offering a new therapeutic avenue for the devastating disease, according to a Northwestern Medicine study published in the Proceedings of the National Academy of Sciences (PNAS).
Insertable cardiac monitors detected a higher incidence of atrial fibrillation in patients with prior ischemic stroke over a three-year period than standard medical monitoring methods, according to results published in JAMA Neurology, based on long-term findings from the Northwestern Medicine-led STROKE AF clinical trial.
A new Northwestern Medicine study has uncovered previously unidentified intracellular mechanisms in the peripheral nervous system that cause Charcot–Marie–Tooth Type 2B disease, findings that may inform the development of new targeted therapies.
A pair of recent studies from the laboratory of Evangelos Kiskinis, PhD, have uncovered novel cellular mechanisms that are involved in two types of genetic ALS, providing support for future development of targeted therapies to treat the disease.
Scientists have uncovered a genetic explanation for a subset of common brain tumors, according to a study published in Nature Communications.
A new Northwestern Medicine study has demonstrated how differences in neural activity within the brain’s olfactory and orbital cortices cause people to perceive the same odors differently, according to findings published in Nature Neuroscience.