Discover how amyloid proteins are being engineered for groundbreaking applications in biotechnology, medicine, and materials science.
Explore the fascinating world of polymer brushes - nanoscale molecular chains that are transforming surface science with applications in medicine, smart materials, and sensing technology.
Discover how catalytic doses of fullerene derivatives enable post-modulation of molecular assemblies without external fields, revolutionizing nanotechnology.
Discover how graphene acts as a molecular gatekeeper, directing chemical reactions in confined nanospaces on metal surfaces for advanced catalytic applications.
Discover how scientists created perfectly ordered arrays of molybdenum trioxide species on titanium dioxide through self-assembly, a breakthrough in atomic-level materials design.
Explore how interface confinement creates nanoscale environments that dramatically enhance catalytic efficiency, selectivity, and stability in chemical reactions.
Discover how embedding platinum-cobalt alloys in nitrogen-doped graphene nanopores creates synergistic catalysts that revolutionize the oxygen reduction reaction for clean energy applications.
Explore the fascinating world of polyoxometalates (POMs) - molecular metal oxides with revolutionary applications in medicine, energy storage, and environmental technology.
Explore how self-assembling protein systems are transforming materials science through nature's molecular origami and AI-powered design approaches.
Explore how laser catalysis technology is transforming chemical reactions, clean energy production, and environmental remediation through precise laser-matter interactions.