Explore the fascinating history of quantum chemistry, from the impossible atom problem to the rivalry between Pauling and Mulliken's theories.
Exploring how molecular electron spin qubits lose coherence through dynamic ligand fields and the path to building better quantum computers.
Explore how diamond micro-chips with nitrogen-vacancy centers are revolutionizing quantum microscopy and enabling unprecedented nanoscale observation.
Explore how atomic arrangement in binary metal alloys creates different surface and bulk properties, revolutionizing catalysts and electronics.
Discover how quantum-chemical calculations confirmed the hypothesis of hemoprotein sensors, revealing the quantum mechanics behind oxygen sensing in cells.
Explore how scientists are mapping chemicals at the nanoscale using cutting-edge techniques like AFM-IR, EC-TERS, and fused electron tomography.
Explore the fascinating world of switchable host-guest systems on surfaces - molecular machines that can catch and release molecules using light, electricity, or pH changes.
Explore how the 2013 Nobel Prize in Chemistry revolutionized chemical research through computational modeling and multiscale simulations.
Explore how computer simulation has become the third pillar of science, transforming research across physics, chemistry, biology and mathematics.
Explore how graphene's atomic arrangement creates the world's strongest, most conductive material and enables revolutionary technologies.