Exploring how quantum Monte Carlo methods revealed the secrets of strongly correlated electrons in transition metal oxides like TiO, ScO, and VO.
Exploring the breakthrough integration of silicon-vacancy centers with diamond whispering gallery mode cavities for quantum light control.
Explore how plasmonics is breaking light's diffraction limit to revolutionize medicine, computing, and energy at the nanoscale.
Exploring how NIR-II emitting rare earth nanoparticles enable ultra-sensitive thermal sensing in biomedical applications through advanced nanothermometry.
Discover how green fluorescent carbon dots derived from sustainable sources like almond resin are revolutionizing science with their optical properties and applications.
Exploring the science behind samarium-doped lithium zinc borosilicate glasses and their revolutionary applications in lighting, agriculture, and medicine.
Discover how metal-encapsulating Si₁₆ cage superatoms are revolutionizing chemistry with their unprecedented stability and tunability.
Exploring how multiscale materials modeling links quantum phenomena to engineering applications to create superior metals
Exploring the quantum confinement effects and optical properties of GaSb-AlSb quantum wells for infrared technology applications.
Exploring revolutionary quantum materials that promise computing speeds 1,000x faster than silicon through quantum confinement, topological states, and strong correlations.