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Application of Multilinear Gradient Elution for Optimization of Separation of Chlorophenols Using Derringer’s Desirability Function

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Abstract

Multilinear gradient elution was applied for the simultaneous optimization of resolution and analysis times of nine chlorophenols separated by HPLC. The first relationship of ln k versus φ was determined using the isocratic retention time for each analyte. For prediction of gradient retention times of analytes, the fundamental equation of gradient elution was numerically solved. Then a grid search program was used to simulate chromatograms under each new condition. Two different chromatographic goals, analysis time and minimum distance between adjacent peaks, were evaluated simultaneously using Derringer’s desirability function for each chromatogram. The sigmoid function was used to transform the optimization criteria to desirability values. Under optimal conditions, a good agreement was observed between predicted and experimental values of the chromatographic response function when analysis time was less than 40 min.

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Correspondence to Kamyar Kamel.

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Kamel, K., Hadjmohammadi, M.R. Application of Multilinear Gradient Elution for Optimization of Separation of Chlorophenols Using Derringer’s Desirability Function. Chroma 67, 169–172 (2008). https://doi.org/10.1365/s10337-007-0458-5

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