Discover how first-principles modeling and the GNNQQNY peptide are helping scientists understand Alzheimer's disease at the atomic level.
Discover how groundbreaking research using advanced computer simulations and rate theory revealed the chaotic journey of protons in water, solving a 220-year-old scientific mystery.
Explore how molecular dynamics simulations reveal the atomic behavior of sodium bentonite clay, enabling safer nuclear waste containment solutions.
Explore how molecular dynamics simulations and graph theory combine to reveal the secrets of protein complexes and their dynamic functions in biology.
Discover how mRNA structure controls protein phase separation and prevents neurodegenerative diseases like Huntington's through liquid-liquid phase separation mechanisms.
Discover how the AmtB protein performs a life-sustaining magic trick, converting toxic ammonium ions into harmless ammonia gas through molecular dynamics simulations.
Discover how Relaxation-Assisted 2DIR spectroscopy revolutionizes molecular imaging by breaking distance barriers in molecular interaction studies.
Explore the fascinating chemistry behind soluble salt flotation - how scientists use microscopic bubbles and molecular lassos to extract valuable minerals from brine.
Explore how interactive science exhibits use psychology and neuroscience to create engaging learning experiences that transform public understanding of science.
Explore how bias probing and challenging scientific assumptions leads to more reliable discoveries through compelling experiments like the 'Musical Rats' study.