The design of microfluidic affinity chromatography systems for the separation of bioanalytes.

The analytical (numerical) design of planar microfluidic affinity chromatography devices, which consist of multiple separation lanes and multiple, different surface-immobilised receptor patterns in each lane, is described. The model is based on the analytical solution of the transport-reaction equat...

Full description

Bibliographic Details
Main Authors: Friedrich, D, Please, C, Melvin, T
Format: Journal article
Language:English
Published: 2012
_version_ 1797061809204625408
author Friedrich, D
Please, C
Melvin, T
author_facet Friedrich, D
Please, C
Melvin, T
author_sort Friedrich, D
collection OXFORD
description The analytical (numerical) design of planar microfluidic affinity chromatography devices, which consist of multiple separation lanes and multiple, different surface-immobilised receptor patterns in each lane, is described. The model is based on the analytical solution of the transport-reaction equations in microfluidic systems of low Gratz number and for injection of small analyte plugs. The results reveal a simple approach for the design of microfluidic affinity chromatography devices tailored to the separation of bioanalytes, where receptors with high binding affinity are available. These devices have been designed for bioanalytical applications in mind, most notably for the proteomics field; the results are illustrated with an example using β-Amyloid binding peptides.
first_indexed 2024-03-06T20:36:31Z
format Journal article
id oxford-uuid:32d2061e-5cf8-4ff5-aed4-78cb5d935991
institution University of Oxford
language English
last_indexed 2024-03-06T20:36:31Z
publishDate 2012
record_format dspace
spelling oxford-uuid:32d2061e-5cf8-4ff5-aed4-78cb5d9359912022-03-26T13:16:26ZThe design of microfluidic affinity chromatography systems for the separation of bioanalytes.Journal articlehttp://purl.org/coar/resource_type/c_dcae04bcuuid:32d2061e-5cf8-4ff5-aed4-78cb5d935991EnglishSymplectic Elements at Oxford2012Friedrich, DPlease, CMelvin, TThe analytical (numerical) design of planar microfluidic affinity chromatography devices, which consist of multiple separation lanes and multiple, different surface-immobilised receptor patterns in each lane, is described. The model is based on the analytical solution of the transport-reaction equations in microfluidic systems of low Gratz number and for injection of small analyte plugs. The results reveal a simple approach for the design of microfluidic affinity chromatography devices tailored to the separation of bioanalytes, where receptors with high binding affinity are available. These devices have been designed for bioanalytical applications in mind, most notably for the proteomics field; the results are illustrated with an example using β-Amyloid binding peptides.
spellingShingle Friedrich, D
Please, C
Melvin, T
The design of microfluidic affinity chromatography systems for the separation of bioanalytes.
title The design of microfluidic affinity chromatography systems for the separation of bioanalytes.
title_full The design of microfluidic affinity chromatography systems for the separation of bioanalytes.
title_fullStr The design of microfluidic affinity chromatography systems for the separation of bioanalytes.
title_full_unstemmed The design of microfluidic affinity chromatography systems for the separation of bioanalytes.
title_short The design of microfluidic affinity chromatography systems for the separation of bioanalytes.
title_sort design of microfluidic affinity chromatography systems for the separation of bioanalytes
work_keys_str_mv AT friedrichd thedesignofmicrofluidicaffinitychromatographysystemsfortheseparationofbioanalytes
AT pleasec thedesignofmicrofluidicaffinitychromatographysystemsfortheseparationofbioanalytes
AT melvint thedesignofmicrofluidicaffinitychromatographysystemsfortheseparationofbioanalytes
AT friedrichd designofmicrofluidicaffinitychromatographysystemsfortheseparationofbioanalytes
AT pleasec designofmicrofluidicaffinitychromatographysystemsfortheseparationofbioanalytes
AT melvint designofmicrofluidicaffinitychromatographysystemsfortheseparationofbioanalytes