Classical Retention Mechanism in Ion Exchange Chromatography. Theory and Experiment

The classical model for ion exchange chromatography is characterized by firmly adsorbed driving ions at the surface of the stationary phase in an amount required by electroneutrality and stoichiometric ion exchange between the bulk of the eluent electrolyte and this immobilized Stern layer. Retentio...

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Veröffentlicht in:Analytical chemistry (Washington) 1996-08, Vol.68 (15), p.2580-2589
Hauptverfasser: Fóti, György, Révész, Gabriella, Hajós, Péter, Pellaton, Gabrielle, sz. Kováts, Ervin
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container_end_page 2589
container_issue 15
container_start_page 2580
container_title Analytical chemistry (Washington)
container_volume 68
creator Fóti, György
Révész, Gabriella
Hajós, Péter
Pellaton, Gabrielle
sz. Kováts, Ervin
description The classical model for ion exchange chromatography is characterized by firmly adsorbed driving ions at the surface of the stationary phase in an amount required by electroneutrality and stoichiometric ion exchange between the bulk of the eluent electrolyte and this immobilized Stern layer. Retention equations have been derived for system peaks, labeled eluent ions, and analytes in a system containing only strong electrolytes by strictly respecting this model. It is shown that the classical model described dependence of retention data on concentration and composition of the binary eluent with excellent precision, but the resulting system parameters were not self-consistent. Inconsistency of the results might be due to contributions from another retention mechanism.
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subjects Analytical chemistry
Chemistry
Chromatographic methods and physical methods associated with chromatography
Exact sciences and technology
Ions
Other chromatographic methods
Theory
title Classical Retention Mechanism in Ion Exchange Chromatography. Theory and Experiment
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