Exploring the revolutionary potential of chiral zeolites in enantioselective catalysis for pharmaceutical and industrial applications.
Explore Eric N. Jacobsen's Arthur C. Cope Award-winning research on noncovalent catalysis and its transformative impact on chemical synthesis.
Discover how metal-organic frameworks with coordinatively unsaturated iron sites enable the direct conversion of ethane to ethanol using nitrous oxide.
Exploring how mononuclear copper-active-oxygen complexes mimic biological oxidation reactions and enable greener industrial processes.
Exploring how iron porphyrin catalysts with strategic acid placement are revolutionizing CO₂ conversion into valuable chemicals and fuels.
Explore how copper transforms from a simple metal to a sophisticated tool for building complex molecules in modern chemistry.
Explore how rare earth elements are revolutionizing organic synthesis and materials science through their unique catalytic properties and applications.
Exploring the evolution of Beckmann rearrangement from traditional methods to modern green catalytic approaches with industrial applications.
Explore how Cu₃(BTC)₂, a metal-organic framework, is transforming chemical synthesis through superior catalytic performance in the Friedländer reaction.
Discover how scientists are imparting chiral microenvironments onto stable achiral MOFs to create powerful asymmetric catalysts for pharmaceutical and chemical applications.