Exploring the complex but fruitful relationship between molecular chemistry and quantum mechanics in celebration of the International Year of Quantum Science and Technology.
Explore how theoretical chemists bridge the gap between quantum chemistry and classical structural theory through interpretation.
Discover how a simple diamine cation reveals critical flaws in computational chemistry methods and how self-interaction correction provides solutions.
Explore how quantum chemical calculations revolutionize NMR spectroscopy and acidity prediction in solid catalysts through computational breakthroughs like IMPRESSION-G2.
Exploring the breakthrough in state-to-state chemistry for three-body recombination in ultracold rubidium gas and its implications for quantum control.
Explore the fascinating history of quantum chemistry, a discipline that bridges physics and chemistry to explain molecular behavior at the quantum level.
Explore the profound partnership between chemistry and physics through quantum chemistry and its implications for our understanding of reality.
Discover how developing quantum chemical programs can transform science education for gifted high school students, bridging physics, math, and computer science.
Explore how computational chemists unravel molecular mysteries through theoretical investigation of vibronic, spin-orbit, and hyperfine interactions in polyatomic molecules.
Exploring how quantum coherence and light-matter interactions are revolutionizing chemical reaction control through vibrational polaritons and optical cavities.