Explore how computational chemists benchmark and test the Local Density Functional method to predict molecular behavior and design new materials.
Explore how computational chemistry reveals the fascinating properties of Ag₂AuN nanoalloy clusters through Density Functional Theory and their potential applications.
Discover how a simple diamine cation reveals critical flaws in computational chemistry methods and how self-interaction correction provides solutions.
Explore the fascinating history of quantum chemistry, a discipline that bridges physics and chemistry to explain molecular behavior at the quantum level.
Learn how scientists are accelerating ab initio QM/MM molecular dynamics simulations with multiple time step integration and recalibrated semi-empirical Hamiltonians.
Explore how computational chemistry is revolutionizing the prediction of carbon-13 chemical shifts in methyl derivatives of cyclohexanols
Explore how computational chemistry reveals the quantum dance of potassium in water through theoretical calculations and molecular dynamics simulations.
Exploring how Metal-Organic Frameworks (MOFs) and computational chemistry are revolutionizing drug delivery through precise molecular interactions.
Explore how theoretical studies on pyrido isomers' electronic and thermodynamic properties are revolutionizing drug design and materials science.
Explore the fundamental forces of chemical bonding through computational chemistry simulations. Learn how attraction and repulsion create the molecular world around us.