Explore how graphene oxide is transforming catalysis with its unique properties, applications in biodiesel production, environmental remediation, and pharmaceutical synthesis.
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.
Explore how chemical reactions on surfaces drive technologies in catalysis, gas sensing, desalination and Li-ion batteries through surface science principles.
Discover the groundbreaking catalytic method for direct C–H azidation using safe, commercial reagents with the C–H donor as the limiting reagent.
Explore how positrons and positronium are revolutionizing surface science and catalysis research through advanced imaging techniques.
Explore how hot electrons are transforming surface chemistry and catalysis science, enabling more efficient energy conversion and chemical processes.
Explore how palladium-catalyzed vicinal difunctionalization is transforming carborane chemistry, enabling new applications in medicine and materials science.
Explore how supported NiO nanoclusters are transforming chemical synthesis through efficient oxidative coupling of thiophenol to disulfides.