Explore the fascinating world of instrumental inorganic element analysis and discover how scientists detect trace elements in our environment, food, and bodies.
Discover how quantum chemistry helps astronomers identify molecules in space through their unique spectral fingerprints.
Explore how synchrotron radiation enables breakthrough research in porous silicon oxide materials for advanced technological applications.
Explore how scientists measure titanium dioxide's absorption coefficient using advanced techniques like GI-FTIR and ellipsometry, and discover its applications in solar cells, coatings, and environmental purification.
Explore how ATR-FTIR mapping technology reveals microscopic layers in centuries-old artworks, overcoming the diffraction limit for unprecedented analysis.
Explore modern developments in electron spin resonance spectroscopy, its principles, advanced techniques, and applications in biology and materials science.
Explore how AFM-IR combines atomic force microscopy with infrared spectroscopy to reveal nanoscale chemical composition with unprecedented resolution.
Exploring how optical-optical double resonance reveals thiophosgene's dark triplet states and their quantum behaviors.
Discover how NMR spectroscopy serves as the ultimate molecular spy, allowing scientists to decipher complex organic structures through atomic radio frequencies.
Breakthrough spectroscopic strategy using gold nanoclusters to observe electron transfer at thiol-gold interfaces, enabling innovations in solar energy, bioimaging, and catalysis.