
From June 12–13, 2025, the 3rd Advances in Separation Science Workshop will take take place in Gembloux, Belgium.

Giorgio Purcaro is an analytical chemistry professor at Gembloux Agro-Bio Tech (University of Liège, Belgium). Her research focuses mainly on the development of miniaturized sample preparation coupled with advanced chromatographic methods (GC×GC, LC–GC, LC-GC×GC) in food quality and safety. She was awarded the L.S. Ettre (2010) and the J. Philipps (2015) awards at the joint ISCC & GC×GC Symposium for her contribution to the GC×GC field. She was included in the Top 40 under 40 list in 2015. She has authored or co-authored more than 130 peer-reviewed publications and has an H-index of 33.

From June 12–13, 2025, the 3rd Advances in Separation Science Workshop will take take place in Gembloux, Belgium.

Headspace-solid-phase microextraction (HS-SPME) is widely used for the analysis of volatile compounds from different kinds of samples.

There are several key benefits to using multidimensional GC techniques in routine analysis. An examination of mineral oil analysis in food reveals the utility of these techniques.

Multiple-cumulative trapping headspace extraction coupled with high-concentration-capacity tools, such as SPME, enhances sensitivity of volatiles, as illustrated here in food analysis.

The potential of SPME when combined with MSE for the characterization of olive oil aroma profiles is presented.

An overview of the analytical approaches proposed, from sample preparation to the final chromatographic determination, for the reliable risk assessment of mineral oil hydrocarbon (MOH) contaminants in food. The analysis of these contaminants in food is a challenging task and requires a comprehensive approach to tackle the cumbersome issues related to their determination.

Food contamination from mineral oil saturated hydrocarbons (MOSHs) and mineral oil aromatic hydrocarbons (MOAHs) is problematic and requires a sensitive analytical technique. These contaminants were analyzed using GC×GC with flame ionization detection (FID) and time-of-flight–MS (TOF–MS) parallel dual detection. The method provides enhanced chromatographic separation, along with the full mass spectra information, and overcomes difficult interferences, resulting in reduction of false positives over conventional GC–MS methods.

Published: November 1st 2023 | Updated:

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