Transforming Separation Science with Single-Molecule Methods

Empirical optimization of the multiscale parameters underlying chromatographic and membrane separations leads to enormous resource waste and production costs. A bottom-up approach to understand the physical phenomena underlying challenges in separations is possible with single-molecule observations...

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Veröffentlicht in:Analytical chemistry (Washington) 2020-10, Vol.92 (20), p.13622-13629
Hauptverfasser: Calabrase, William, Bishop, Logan D. C., Dutta, Chayan, Misiura, Anastasiia, Landes, Christy F., Kisley, Lydia
Format: Artikel
Sprache:eng
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Zusammenfassung:Empirical optimization of the multiscale parameters underlying chromatographic and membrane separations leads to enormous resource waste and production costs. A bottom-up approach to understand the physical phenomena underlying challenges in separations is possible with single-molecule observations of solute-stationary phase interactions. We outline single-molecule fluorescence techniques that can identify key interactions under ambient conditions. Next, we describe how studying increasingly complex samples heightens the relevance of single-molecule results to industrial applications. Finally, we illustrate how separation methods that have not been studied at the single-molecule scale can be advanced, using chiral chromatography as an example case. We hope new research directions based on a molecular approach to separations will emerge based on the ideas, technologies, and open scientific questions presented in this Perspective.
ISSN:0003-2700
1520-6882
DOI:10.1021/acs.analchem.0c02572