Evaluation of polycaprolactone as a new sorbent coating for determination of polar organic compounds in water samples using membrane–SPME

Commercially available solid-phase microextraction fibers used for isolation of polar analytes are based on the adsorption phenomenon. In consequence, typical limitations bonded with analytes displacement and matrix effects are very frequent. In the present study, alternative solution is described....

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Veröffentlicht in:Analytical and bioanalytical chemistry 2015-02, Vol.407 (4), p.1205-1215
Hauptverfasser: Marcinkowski, Łukasz, Kloskowski, Adam, Spietelun, Agata, Namieśnik, Jacek
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Kloskowski, Adam
Spietelun, Agata
Namieśnik, Jacek
description Commercially available solid-phase microextraction fibers used for isolation of polar analytes are based on the adsorption phenomenon. In consequence, typical limitations bonded with analytes displacement and matrix effects are very frequent. In the present study, alternative solution is described. Polycaprolactone (PCL) was used for the first time as sorbent to isolate polar organic compounds from water samples using the membrane–solid-phase microextraction (M-SPME) technique. In this technique, due to protective role of the mechanically and thermally stable polydimethylsiloxane (PDMS) membrane, internal polar coating might be melted during extraction and desorption of analytes. In consequence sorbents with low melting points like a PCL might be utilized. Based on chromatographic retention data, triazines were selected as a model compounds for evaluation of the sorptive properties of the polycaprolactone. Applying the screening plan and central composite design, statistically significant parameters influencing extraction efficiency were determined and optimized. The analysis of variance confirmed the significant influence of temperature, salt content, and pH of samples on the extraction efficiency. Besides the new PCL/PDMS fiber, a commercial fiber coated with divinylbenzene/polydimethylsiloxane (DVB/PDMS) was used for comparative studies. The results obtained showed that PCL is an interesting sorbent which can be successfully applied for isolation of polar organics from aqueous matrices at a broad range of analytes concentration. The determined detection limits of procedure based on the novel fiber enable its application at the concentration levels of triazines recommended by the US EPA standards. The practical applicability of the developed fiber has been confirmed by the results based on the analysis of real samples.
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subjects Adsorbents
Adsorption
Alzheimer's disease
analysis of variance
Analytical Chemistry
Biochemistry
Characterization and Evaluation of Materials
Chemical properties
Chemistry
Chemistry and Materials Science
chromatography
Coating
coatings
Comparative studies
desorption
detection limit
Detection limits
Drinking water
Efficiency
Extraction
Extraction (Chemistry)
Fibers
Food Science
Herbicides
Identification and classification
Laboratory Medicine
melting
Melting point
Membrane separation
Methods
Microplastics
Monitoring/Environmental Analysis
Organic compounds
protective effect
Research Paper
salt content
Samples
screening
Silicone resins
solid phase microextraction
Sorbents
Statistical analysis
Statistical methods
temperature
triazines
United States
United States Environmental Protection Agency
Variance analysis
Water analysis
Water sampling
title Evaluation of polycaprolactone as a new sorbent coating for determination of polar organic compounds in water samples using membrane–SPME
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