Explore how crystallographic orientation influences material behavior under nanoindentation through Molecular Dynamics simulations.
Explore how scientists use molecular dynamics simulations to control heat flow in carbon nanotubes, enabling thermal rectification and next-generation nano-electronics.
Discover how first-principles modeling and the GNNQQNY peptide are helping scientists understand Alzheimer's disease at the atomic level.
Discover how the AmtB protein performs a life-sustaining magic trick, converting toxic ammonium ions into harmless ammonia gas through molecular dynamics simulations.
Explore how Tight-Binding Molecular Dynamics bridges quantum accuracy and computational feasibility in materials science simulations.
Discover how string-like propagation of five-coordinated defects explains water's mysterious properties at supercooled temperatures through molecular dynamics research.
Explore how molecular dynamics simulations reveal the potential of water-soluble cryptophanes in medical imaging and environmental applications.
Explore how ultra-intense lasers are revolutionizing molecular control, with breakthroughs in measurement techniques and applications across physics, medicine, and energy.
Discover how peptide-peptide interactions provide crucial stability for carbon nanotube applications in nanotechnology and biomedicine.
Exploring the groundbreaking 1997 research that transformed our understanding of chemical structure and dynamics at environmental interfaces