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.
Discover how scientists are revolutionizing materials science with low-cost, wafer-scale Au(111) single crystals for epitaxy of two-dimensional layered materials.
Explore the revolutionary world of larger linear N-heteroacenes - organic semiconductors transforming flexible electronics through molecular engineering.
Exploring how dendrimers and nanostructures are revolutionizing cancer therapy through precise boron delivery in Boron Neutron Capture Therapy (BNCT).
Explore how chemical reactions on surfaces drive technologies in catalysis, gas sensing, desalination and Li-ion batteries through surface science principles.
Explore groundbreaking advances in catalyst design for transforming CO2 and methane into valuable syngas through dry reforming of methane (DRM).
Exploring how scientists are developing precise M-N-C catalysts to replace platinum in clean energy technologies through atomic-level engineering.