Explore the groundbreaking development of visible light-responsive photocatalysts that harness sunlight for environmental remediation and renewable energy production.
Explore how mechanical stress is transforming catalyst design and enabling unprecedented control over chemical reactions at the atomic level.
Explore how AC E(S)TEM technology enables real-time observation of single atoms in catalysis, revolutionizing clean energy and chemical production.
Discover how scientists shattered chemical dogma by creating a stable 20-electron ferrocene complex using monodentate ferrocene donor ligands.
Explore the revolutionary field of single-chain technology where synthetic molecules fold into functional nanoparticles for drug delivery, catalysis, and molecular electronics.
Explore the revolutionary synthesis methods for cellulose-metal nanoparticle composites, from green synthesis to chemical protocols, and their applications in sustainable technology.
Explore the fascinating world of pincer ligands - molecular structures that revolutionized catalysis through their unique three-pronged grip on metal atoms.
Explore metal-mediated halogen exchange, a precise chemical process enabling atomic-level molecular modifications for pharmaceuticals and materials science.
Discover how conductive atomic force microscopy enables true atomic-resolution imaging under ambient conditions, revolutionizing materials science.
Discover how ion soft landing technology enables precise molecular deposition for advanced energy storage and catalysis research.