Explore how Terahertz Kerr Effect microscopy enables scientists to observe ultrafast molecular dynamics in liquids, particularly water's hydrogen bond network.
Explore the fundamental principles of molecular structure, chemical reactivity, and reaction dynamics that govern chemical processes at the atomic level.
Explore how computational approaches are revolutionizing our understanding of molecular functions through simulations, machine learning, and multi-scale modeling.
Discover how ultrafast electron diffraction captures molecular breakups in real-time, revealing transient intermediates in chemical reactions.
Explore the groundbreaking 1997 research that allowed scientists to observe molecular reactions at the femtosecond scale, revolutionizing our understanding of chemical dynamics.
Explore the revolutionary field of chemical computing, where molecular interactions replace silicon-based logic, and discover recent breakthroughs in quantum simulation.
Discover how Berni Alder pioneered molecular dynamics and established computer simulation as the third pillar of scientific discovery.
Exploring how molecular dynamics simulations are revolutionizing gas separation through nanofluidic channel design for carbon capture and clean energy applications.
Explore how scientists use multiscale approaches to derive force fields, from quantum calculations to macroscopic equations of state, enabling revolutionary material design.
Explore how empirical force fields revolutionize chemical reaction simulations, enabling accurate predictions of molecular behavior at unprecedented scales.