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Single Molecule Studies of Ion-Exchange Chromatography
by
Kisley, Lydia
in
Analytical chemistry
/ Chemical engineering
/ Physical chemistry
2015
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Single Molecule Studies of Ion-Exchange Chromatography
by
Kisley, Lydia
in
Analytical chemistry
/ Chemical engineering
/ Physical chemistry
2015
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Dissertation
Single Molecule Studies of Ion-Exchange Chromatography
2015
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Overview
As the pharmeceutical industry moves away from traditional small organic molecules towards biologically-based treatments, ion-exchange separation methods must be investigated to improve the cost and time required for protein purification. Several new single molecule, super-resolution techniques are presented to offer a mechanistic experimental understanding of chromatography unachievable through traditional ensemble-averaged methods. Super-resolution analysis visualizes single protein adsorption kinetics to single, super-resolved ligands, allowing for the first experimental validation of the statistical mechanical stochastic theory of chromatography. Imperative results on the spatial charge-distribution of ligands, reduction of heterogeneity by ionic strength, and tuning of protein/stationary phase interfacial interactions by pH are observed. A common finding that the sterics of the agarose support induces separation heterogeneity leads to super-resolution imaging of the agarose structure and diffusion properties. Finally, the single molecule techniques are applied to several applications beyond protein chromatography to demonstrate the potential for future materials research. Overall, we have shown that single molecule spectroscopy can aid in the mechanistic experimental and theoretical understanding of the ion-exchange chromatographic separation of proteins.
Publisher
ProQuest Dissertations & Theses
ISBN
0355384000, 9780355384000
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