Researchers at IOCB Prague developed a highly precise and ultra-stable fluorescent labeling method that stays attached even inside cells, enabling long-term, reliable tracking of biomolecules.

GC-MS and HS-SPME enabled quantitative and qualitative profiling of key rose alcohols in natural extracts, perfumes, and flowers, supporting adulteration detection and differentiation of fragrance compositions.

RECETOX researchers showed that some flame retardants in car interiors rise up to 700× in summer compared to winter, revealing strong temperature-driven exposure risks for drivers and passengers.

Pixel-based GC×GC-TOFMS preprocessing enables rapid chemometric comparison of Brazilian pre-salt oils, revealing subtle light-hydrocarbon patterns and distinguishing Barra Velha from Itapema.

Peter’s lab combines GC×GC innovation, real forensic workflows, and strong industry partnerships to train students and advance research from fingerprint aging to complex chemical mixture analysis.

Automated methanol extraction enables fast, consistent sampling of sand, clay, and soil. This article shows clear chromatogram differences and highlights benefits for efficient sample handling.

Aroma analysis of six CBD hemp cultivars revealed 52 odor-active compounds, many new to hemp. Key terpenes and potent sulfur odorants drive distinct scent profiles across varieties.

In this interview, Taylor Bias shares how she studies the protein MitoNEET using GC-MS and HPLC, uncovering its enzymatic roles and links to diabetes, Parkinson’s disease, and cancer.

IOCB Prague scientists have developed light-driven molecular motors that remain fully functional even when anchored to metal surfaces, marking a major step toward controllable nanoscale machines.

Learn how Organomation evaporators help labs save up to 8 hours weekly by accelerating solvent evaporation for hexane, chloroform, acetonitrile, and methanol—boosting research speed and efficiency.