Discover how crystal seeds actively manipulate ion pair formation in calcium carbonate crystallization through ReaxFF molecular dynamics simulations.
Discover how drifting mass accommodation coefficients challenge traditional physics and transform our understanding of phase change phenomena through molecular dynamics simulations.
Discover how molecular dynamics simulations reveal the phosphorylation mechanism that activates p47phox, a crucial immune system protein.
Explore how molecular dynamics simulations and continuum shell models predict carbon nanotube buckling behavior under compressive forces.
Explore how computational science creates digital twins of reality to solve complex problems in drug discovery, climate science, and more through simulations.
Explore how molecular dynamics simulations reveal the atomic structure of liquid and amorphous alumina, enabling advances in materials science and technology.
Explore how molecular dynamics simulations reveal why protein concentration dramatically affects aggregation in diseases like Alzheimer's and Parkinson's.
Exploring how molecular dynamics simulations reveal the atomic-scale behavior of bulk metallic glasses, their deformation mechanisms, and potential applications.