Explore the atomic-level interactions at copper and platinum-sapphire interfaces that power modern technology from microchips to quantum computing.
Discover how active-feedback 3D tracking allows scientists to observe the growth of single polymer particles in solution with unprecedented precision.
Explore how porous graphene is revolutionizing nanotechnology through atomic-scale engineering, with applications in energy, electronics, and molecular sieving.
Exploring the microscopic interactions between metal oxides and biomolecules that are revolutionizing medicine, energy, and biotechnology.
Explore how gold nanoparticles defy conventional physics by exhibiting magnetic properties at room temperature through quantum effects.
Explore how sensitized mesoscopic solar cells are revolutionizing solar energy through quantum physics and nanotechnology, offering versatile, affordable power solutions.
Exploring the revolutionary science of atomically precise gold clusters and their potential applications in medicine, electronics, and catalysis.
Explore how High-Resolution Ultra-High Vacuum Electron Microscopy enables scientists to observe atomic-scale surface processes in real time.
Explore how pulse radiolysis reveals quantum effects in nanomaterials through real-time observation of oxidation processes in semiconductor nanoparticles.
Explore how nano-composite materials are revolutionizing technology, medicine, and environmental science through their extraordinary properties and applications.