Scientists have uncovered new insights into the molecular players behind calcium channel regulation, a biological process that coordinates a wide array of physiological responses, according to a study published in the Proceedings of the National Academy of Sciences.
In research published in Science Advances, scientists at Northwestern and Case Western Reserve universities have developed the first polymer-based therapeutic for Huntington’s disease, an incurable, debilitating illness that causes nerve cells to break down in the brain.
Scientists have discovered an RNA that controls how much or how little protein is produced by a gene, with implications for neurodevelopmental disorders like epilepsy and autism.
Northwestern Medicine investigators have identified novel genetic mechanisms that regulate blood vessel growth in the retina and may also serve as therapeutic targets for retinal vascular disease, according to findings published in Nature Communications.
Northwestern Medicine scientists have been awarded $17 million to study genetic causes of autism and schizophrenia, with the aim of developing new drugs to treat the conditions.
Northwestern Medicine scientists have developed a new method of measuring and optimizing the maturation process of cultured heart cells, an approach that will set the future standard for a commonly used cell model in scientific research, according to details published in Cell Reports.
A multi-institutional team of investigators have developed a new framework for supporting healthcare providers in implementing polygenic risk score-based testing into primary care settings, according to a recent study published in Nature Medicine.
Northwestern Medicine scientists have developed a method to identify and characterize microproteins, a development which opens the door for understanding physiology and disease at a molecular level not possible until now, according to findings published in Nature Communications.
A multidisciplinary team of investigators have engineered a more accurate model for studying the underlying mechanisms of atrial fibrillation and treatment response, according to findings published in Science Advances.
Scientists have discovered a neuronal pathway involved in how the brain encodes the transition to high-intensity fear response behaviors required for survival, according to a study published in Nature.