Research Articles
The Molecular Movie: How Scientists Captured Electrons in Motion During Atomic Breakups
Discover how scientists are now able to visualize electron rearrangement in space and time during molecular dissociation using cutting-edge ultrafast techniques.
The Invisible Highway: How Computational Physics is Revolutionizing Blood Vessel Health
Exploring how computational physics transforms our understanding of blood vessel constrictions and medical infusions through advanced simulations and digital modeling.
The Invisible Scaffold: Decoding the Extracellular Matrix Through Molecular Modeling
Exploring computational approaches to understand and engineer the extracellular matrix (ECM) for biomedical applications.
The Hidden Architecture of Glass: Strontium, Aluminum, and Silicon Under the Microscope
Exploring the atomic architecture of strontium-aluminosilicate glasses through NMR and molecular dynamics simulations
The Xylene Puzzle: How Molecular Sleuths Cracked a Chemical Mystery
How molecular dynamics simulations revealed Cu-HKUST-1's ability to separate xylene isomers, a critical challenge in petrochemical industry
The Tiny Giants: How Computer Models Revolutionize Nanocrystal Science
Exploring how Martini 3 computational models are transforming nanocrystal science by predicting colloidal stability of cellulose nanocrystals.
The Fifth Element: How Five-Body Interactions Are Revolutionizing Molecular Simulations
Breakthrough in molecular simulations with five-body interactions through QuinNet technology
The Invisible Battlefield: How Atoms Decide When Materials Shatter
Exploring the atomic-scale mechanisms behind material fracture and how modern science is uncovering these hidden processes.
The Quantum Dance: How Electrons and Nuclei Shape Chemistry in Real Time
Exploring the intricate dance between electrons and nuclei that governs chemical reactions in real time, with breakthrough experimental techniques revealing these ultrafast processes.
The Invisible Ocean: How Single Water Molecules Shape Hydrogen's Future
Discover how scanning Kelvin probes reveal the atomic-scale interactions between water monolayers and noble metals, revolutionizing hydrogen electrode design.