Explore how chemically induced proximity (CIP) is transforming medicine by using molecular matchmakers to bring cellular partners together for therapeutic applications.
Discover how plants survive freezing temperatures through the molecular regulation of ICE1 protein and its implications for climate-resilient crops.
Discover how a mutated SUMO enzyme acts as a dominant negative inhibitor, disrupting plant stress response systems and revealing new insights into cellular mechanisms.
Explore the molecular and cellular regulators of embryo implantation and their application in improving IVF success rates through cutting-edge scientific research.
Discover how rice plants employ sophisticated molecular strategies to combat phosphate starvation through regulatory feedback mechanisms.
Discover how the RZFP34 protein acts as a molecular switch that helps plants conserve water during drought conditions through sophisticated cellular mechanisms.
Discover how scientists created a stable chemical SUMO1–Ubc9 conjugate to reveal the molecular mechanism of cellular protein tagging.
Discover how ubiquitination regulates milk fat synthesis in dairy cows through molecular mechanisms that control fatty acid transport and triglyceride assembly.
Exploring how cDNA libraries from frog testes reveal insights into the ubiquitin system and its role in cellular regulation and human health.