Explore the quantum dynamics of the H + Br2 → HBr + Br reaction through state-to-state analysis, revealing vibrational population inversion and quantum tunneling effects.
Explore how computer simulations are revolutionizing the fabrication of aluminium oxide tunnel junctions for quantum computing applications.
Scientists use femtosecond soft X-ray spectroscopy to observe the dissociative ionization of CH₂Br₂ molecules in real-time, revealing ultrafast chemical dynamics.
Discover how combining molecular dynamics simulations with electrodiffusion models is revolutionizing our understanding of ion channel conductance and neural communication.
Exploring how blood flow patterns and physical processes influence cancer metastasis, offering a non-genetic paradigm for personalized cancer therapy.
How Liquid-Phase TEM allows scientists to watch and guide nanoparticle self-assembly in real-time, revolutionizing materials science.
Exploring how a molecular dynamics erratum refined our understanding of liquid alumina and demonstrated science's self-correcting nature.
Discover how Deformable Elastic Network refinement revealed the dynamic architecture of cellular vault particles, nature's sophisticated transport containers.
Explore the fascinating structure and dynamics of the NiAl(110) surface through advanced scientific techniques revealing atomic-scale phenomena.
Explore how molecular dynamics simulations and vibrational analysis unlock the secrets of ionic liquid analogues for green technology.