The separations using pure water as a mobile phase in liquid chromatography using polar-embedded stationary phases

Following the idea of green chemistry, especially green analytical chemistry, a series of stationary phases was synthesized. The obtained materials connect polar and hydrophobic groups in the structure of bonded ligands. These specific surface properties provide the stability of the stationary phase...

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Main Authors: Szymon Bocian, Katarzyna Krzemińska
Format: Article
Language:English
Published: Taylor & Francis Group 2019-01-01
Series:Green Chemistry Letters and Reviews
Subjects:
Online Access:http://dx.doi.org/10.1080/17518253.2019.1576775
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spelling doaj-0f958b0ae0604ea4b0720d64ed000d212020-11-25T03:13:33ZengTaylor & Francis GroupGreen Chemistry Letters and Reviews1751-82531751-71922019-01-01121697810.1080/17518253.2019.15767751576775The separations using pure water as a mobile phase in liquid chromatography using polar-embedded stationary phasesSzymon Bocian0Katarzyna Krzemińska1Chair of Environmental Chemistry and Bioanalytics, Faculty of Chemistry, Nicolaus Copernicus UniversityChair of Environmental Chemistry and Bioanalytics, Faculty of Chemistry, Nicolaus Copernicus UniversityFollowing the idea of green chemistry, especially green analytical chemistry, a series of stationary phases was synthesized. The obtained materials connect polar and hydrophobic groups in the structure of bonded ligands. These specific surface properties provide the stability of the stationary phase in pure water as a mobile phase. To confirm the solvation ability in purely aqueous mobile phases, excess isotherms of water and acetonitrile were determined. Further, the mixtures of nucleosides, nucleic bases and purine alkaloids were applied to test the separation selectivity of stationary phases in purely aqueous conditions at ambient temperature without any additives to the mobile phase. Among the four tested stationary phases, it is possible to find one for separation of each group of analytes that offers selective separation in reasonable time. The presented data confirms that it is possible to synthesize stationary phases for the separation of target mixtures in pure water conditions.http://dx.doi.org/10.1080/17518253.2019.1576775liquid chromatographypurely aqueous mobile phasestationary phasegreen chemistry
collection DOAJ
language English
format Article
sources DOAJ
author Szymon Bocian
Katarzyna Krzemińska
spellingShingle Szymon Bocian
Katarzyna Krzemińska
The separations using pure water as a mobile phase in liquid chromatography using polar-embedded stationary phases
Green Chemistry Letters and Reviews
liquid chromatography
purely aqueous mobile phase
stationary phase
green chemistry
author_facet Szymon Bocian
Katarzyna Krzemińska
author_sort Szymon Bocian
title The separations using pure water as a mobile phase in liquid chromatography using polar-embedded stationary phases
title_short The separations using pure water as a mobile phase in liquid chromatography using polar-embedded stationary phases
title_full The separations using pure water as a mobile phase in liquid chromatography using polar-embedded stationary phases
title_fullStr The separations using pure water as a mobile phase in liquid chromatography using polar-embedded stationary phases
title_full_unstemmed The separations using pure water as a mobile phase in liquid chromatography using polar-embedded stationary phases
title_sort separations using pure water as a mobile phase in liquid chromatography using polar-embedded stationary phases
publisher Taylor & Francis Group
series Green Chemistry Letters and Reviews
issn 1751-8253
1751-7192
publishDate 2019-01-01
description Following the idea of green chemistry, especially green analytical chemistry, a series of stationary phases was synthesized. The obtained materials connect polar and hydrophobic groups in the structure of bonded ligands. These specific surface properties provide the stability of the stationary phase in pure water as a mobile phase. To confirm the solvation ability in purely aqueous mobile phases, excess isotherms of water and acetonitrile were determined. Further, the mixtures of nucleosides, nucleic bases and purine alkaloids were applied to test the separation selectivity of stationary phases in purely aqueous conditions at ambient temperature without any additives to the mobile phase. Among the four tested stationary phases, it is possible to find one for separation of each group of analytes that offers selective separation in reasonable time. The presented data confirms that it is possible to synthesize stationary phases for the separation of target mixtures in pure water conditions.
topic liquid chromatography
purely aqueous mobile phase
stationary phase
green chemistry
url http://dx.doi.org/10.1080/17518253.2019.1576775
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