Discover how noble metal nanomaterials are revolutionizing chemical and biosensing systems through their unique properties at the nanoscale.
Discover how molecular shape determines explosive combustion in polycyclic aromatic hydrocarbons and the implications for catalysis and materials science.
Explore the fascinating world of surface catalysis through the groundbreaking work of Professor Norbert Kruse, whose research reveals how surfaces accelerate chemical reactions that power our modern world.
Exploring advanced catalytic processes that could transform coal from a dirty fuel into a cleaner chemical feedstock through molecular engineering and industrial innovation.
Explore how ultra-slow muons and first-principles studies reveal hydrogen's interaction with graphene for next-generation energy storage solutions.
Explore how organic electronics are revolutionizing photocatalysis for sustainable polymerization reactions with tunable, eco-friendly materials.
Explore how organocatalysis is transforming the selective synthesis of centrally and axially chiral molecules for pharmaceuticals and sustainable chemistry.
Discover how asymmetric oxygen vacancies in metal oxides are revolutionizing catalysis, enabling more efficient chemical reactions for environmental cleanup and energy conversion.
Explore the life and scientific contributions of Paul H. Emmett, developer of the groundbreaking BET method for surface area measurement that transformed catalysis science.
Explore how rhodium-catalyzed C–H bond activation is transforming chemical synthesis through selective molecular assembly with reduced environmental impact.