Exploring how computational systems biology is revolutionizing our understanding of biological complexity through the partnership between computer simulations and laboratory experiments.
Discover how spatial linear predictive models are revolutionizing nuclear-phase classification in high-content screening for cancer research and drug discovery.
Explore how single-molecule and super-resolution microscopy are transforming our understanding of biopolymers, the fundamental building blocks of life.
Explore how geosensor networks and decentralized spatial computing create a digital nervous system for our planet, enabling real-time environmental monitoring and disaster prevention.
Exploring the fascinating world of biomineralization and how organisms create minerals that defy conventional chemistry through the vital effect phenomenon.
Explore how Adverse Outcome Pathways and AI are transforming chemical safety assessment through computational prediction models.
Discover how inhibitory signaling in the brain creates stable working memory through sophisticated braking systems rather than persistent activity.
Explore the revolutionary field of single-cell protein analysis and how it's transforming our understanding of cellular heterogeneity and function.
Discover how the largest toxicological database ever created is helping scientists predict chemical hazards more accurately than traditional animal testing.
Explore how the 2013 Nobel Prize in Chemistry transformed chemical research through computational modeling, bridging quantum and classical mechanics.