Discover how cross-correlation analysis combined with molecular dynamics simulations is revealing the hidden atomic patterns in liquid metals, enabling breakthroughs in reconfigurable electronics and advanced materials.
Explore how glycosylation affects the stability and function of alpha-1-antitrypsin through molecular dynamics simulations and its implications for therapeutic development.
Explore the fascinating melting behavior of Au-Pd nanoparticles through molecular dynamics simulations and discover how geometry influences thermal stability at the nanoscale.
Exploring how carbon nanotubes buckle under pressure and the computational methods used to predict this behavior for next-generation materials.
Discover how molecular dynamics simulations reveal subcritical clusters in benzoic acid that challenge classical nucleation theory and reshape our understanding of crystal formation.
Exploring how water affects Deep Eutectic Solvents through molecular dynamics simulations and their implications for green chemistry.
Explore how Reactive Martini enables chemical reaction simulations in coarse-grained molecular dynamics, bridging computational efficiency with chemical accuracy.
Exploring the finite temperature behavior of tetrahedral Au19 and Au20 gold clusters through ab initio molecular dynamics simulations.
Explore how scientists use molecular dynamics simulations and clustering algorithms to capture the intricate movements of proteins and identify metastable states.
Explore how computational biology predicts how single molecule changes in DNA can alter cellular function and impact health.