Atypical applications of transverse diffusion of laminar flow profiles methodology for in-capillary reactions in capillary electrophoresis

Investor logo

Warning

This publication doesn't include Faculty of Arts. It includes Faculty of Science. Official publication website can be found on muni.cz.
Authors

BRŽEZICKÁ Taťána KOHÚTOVÁ Lenka GLATZ Zdeněk

Year of publication 2024
Type Article in Periodical
Magazine / Source JOURNAL OF SEPARATION SCIENCE
MU Faculty or unit

Faculty of Science

Citation
Web https://analyticalsciencejournals.onlinelibrary.wiley.com/doi/epdf/10.1002/jssc.202400157
Doi http://dx.doi.org/10.1002/jssc.202400157
Keywords Capillary electrophoresis; In-capillary reaction; High-throughput screening technology; Transverse diffusion of laminar flow profiles methodology; Drug
Description CE is a powerful separation technique offering quick and efficient analyses in various fields of bioanalytical chemistry. It is characterised by many well-known advantages, but one, which is perhaps the most important for this application field, is somewhat overlooked. It is the possibility of performing chemical and biochemical reactions at the nL scale inside the separation capillary. There are two basic formats applicable for this purpose, heterogeneous and homogeneous. In the former, one reactant is immobilised onto a particle or monolithic support or directly on the capillary wall, and the other is injected. In the latter, the reactant mixing inside a capillary is based on electromigration or diffusion. One of the diffusion-based methodologies, termed Transverse Diffusion of Laminar Flow Profiles, is the subject of this review. Since most studies utilising in-capillary reactions in CE focus on enzymes, which are being continuously and exhaustively reviewed, this review covers the atypical applications of this methodology, but still in the bioanalytical field. As can be seen from the demonstrated applications, they are not limited to reactions, but can also be utilised for other biochemical systems such as affinity interaction studies or biochemically important processes such as cell lysis, even in single-cell format.
Related projects:

You are running an old browser version. We recommend updating your browser to its latest version.