Explore how crystal engineering combines experiments and computational methods to optimize drug properties using pyrazinamide and nicotinamide as examples.
Discover how scientists transformed common acetone into precious carbon nanomaterials through precursor-free synthesis in supercritical conditions.
Explore how quantum chemical calculations reveal how methyl substitution dramatically alters the electronic properties of oxazole and thiazole molecules.
Explore how machine learning transforms chemistry and materials science through predictive modeling, generative design, and AI-accelerated discovery.
Explore how computational methods like DFT and machine learning are revolutionizing materials science, enabling the design of functional materials with unprecedented properties.
Discover how the revolutionary Synchrotron Rapid-Scanning X-ray Fluorescence (SRS-XRF) imaging station is transforming scientific research across multiple fields.
Explore the fascinating world of circular polarization in fluorescent probes - from the science behind twisted light to revolutionary applications in medicine and security.
Explore how quantum chemistry and IR spectroscopy are revolutionizing protein analysis, from disease research to drug development.
Discover how DDEC6 atomic population analysis revolutionizes electron counting in molecules, enabling breakthroughs in drug design and materials science.
Explore how III-V semiconductors and germanium are overcoming silicon limitations to create faster, more efficient transistors for next-generation electronics.