Researchers have discovered how to design molecular “glues” and “bumpers” that precisely control GPCR signaling pathways. This breakthrough could overcome decades of failed promises in biased drug development and create more targeted therapeutics.
Groundbreaking research reveals how two bacterial metabolites from our gut microbiome compete to control mammalian cell growth. The discovery could lead to novel cancer treatments by harnessing nature’s own growth regulators.
Groundbreaking experiments show hydrogen-rich planets can generate massive water oceans through internal chemical reactions. This discovery rewrites how we understand water worlds and their formation throughout the galaxy.
A groundbreaking study reveals how graphene interfaces can fundamentally alter magnetic behavior in 2D materials. The discovery enables electrical control of magnetic states through charge transfer, opening new possibilities for magnetic memory and computing applications.
A new website offers unprecedented access to 25 years of International Space Station history. Built by NASA contractors in their spare time, ISS in Real Time aggregates millions of photos, videos, and audio recordings from the station’s entire operational history.
New research reveals the atomic structure of bacterial formate channels, uncovering dynamic transport mechanisms. These findings could lead to novel antibiotic strategies targeting bacterial metabolism. The research opens doors to engineering more efficient microbial factories.
A comprehensive system dynamics study reveals that integrated policy combinations significantly outperform single-measure approaches in reducing urban transport emissions. The research identifies public transit optimization combined with energy technology upgrades as the most effective dual-policy s
Breakthrough research provides engineering guidance for protecting conveyor systems from extreme wind events. The study reveals critical spacing requirements and aerodynamic vulnerabilities that could prevent catastrophic industrial failures.
Researchers have developed a hydrogel that defies traditional material trade-offs, offering both extreme stretchability and remarkable strength. This breakthrough could transform wearable electronics and medical devices. The material’s unique properties stem from innovative molecular engineering.
Large language models demonstrate inconsistent performance in personalized health interventions according to new research. While safety scores remain high, accuracy varies significantly across different medical conditions and patient demographics.
