Explore how parallel algorithms and big data are revolutionizing molecular dynamics simulations of liquid metal solidification at atomic scale.
How supercomputers are unlocking the recipes of ancient industrial magic through molecular dynamics simulations of molten slag systems.
Explore the 50-year journey of molecular dynamics, a revolutionary computational tool that reveals atomic-scale processes in biology, chemistry, and materials science.
Discover how molecular dynamics simulations reveal how microscopic defects control explosive sensitivity and power through computational analysis.
Explore how implicit integration methods enable efficient molecular dynamics simulations by constraining fast bond vibrations, allowing scientists to study complex biological processes.
Explore how molecular dynamics reveals the vibrational secrets of SiO₂ surfaces through computational simulations
Discover how scientists uncover ultraslow molecular dynamics in organized fluids using NMR experiments and Monte-Carlo simulations.
Explore how molecular dynamics simulations reveal how single atoms at grain boundaries dramatically affect metal strength and durability.
Explore how non-adiabatic molecular dynamics simulations reveal the femtosecond-scale transformations of molecules after light absorption, with applications from solar energy to medicine.
Explore how molecular dynamics simulations reveal the thermally induced martensitic transformation in NiAl, a fascinating atomic-scale process.