Articles tagged with G Protein Subunits
Researchers at TUM have determined the mechanism of G protein switching, providing insights into the design of new active agents. The study reveals that the open form of the protein is more accessible to active agents than its rigid, closed form.
Researchers at MCG have made a groundbreaking discovery about G proteins, which could lead to better understanding of drug action. The study found that certain G proteins don't dissociate, affecting the response of cells to epinephrine.
Scientists at the University of Rochester Medical Center have found a mechanism to modify the effects of major drug class, potentially leading to better control of pain relief, inflammation, and heart disease. The new drugs aim to influence related signaling on the inside of cells, rather than on the outside.
A team of neuroscientists has identified a specific molecular mechanism that targets the machinery causing fusion process, allowing for controlled release of neurotransmitters instead of an all-or-none release. This discovery has important implications for treating neurological conditions and may lead to new drugs.
Researchers identified a novel class of G proteins in yeast that could play a role in sensing unique signals important for health and disease. The discovery offers potential for developing new drugs targeting G protein-coupled receptors, which are involved in various diseases.
UCSD researchers have discovered a natural regulatory protein, RGS-PX1, with dual roles in regulating cellular functions. The protein modulates both cell signaling and membrane trafficking, offering new avenues for disease research and potential targets for developing drugs to treat heart failure, hormone imbalances, and cancer.