Cavity-enhanced optical methods for online microfluidic analysis

Absorption spectroscopy is potentially an attractive detection technique for microfluidic applications, as it is universal, label-free, and rapid. However, the short optical pathlength through a microfluidic channel often imposes unacceptable limits on the detection sensitivity. We review a variety...

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প্রধান লেখক: Rushworth, C, Davies, J, Cabral, J, Dolan, P, Smith, J, Vallance, C
বিন্যাস: Journal article
ভাষা:English
প্রকাশিত: 2012
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author Rushworth, C
Davies, J
Cabral, J
Dolan, P
Smith, J
Vallance, C
author_facet Rushworth, C
Davies, J
Cabral, J
Dolan, P
Smith, J
Vallance, C
author_sort Rushworth, C
collection OXFORD
description Absorption spectroscopy is potentially an attractive detection technique for microfluidic applications, as it is universal, label-free, and rapid. However, the short optical pathlength through a microfluidic channel often imposes unacceptable limits on the detection sensitivity. We review a variety of strategies for increasing the pathlength and thereby improving the detection sensitivity of absorption measurements, covering extended-pathlength single-pass methods, multi-pass measurements, and finally a range of cavity-enhanced methods. We conclude that cavity-enhanced approaches show considerable promise for applications in which a high detection sensitivity is required within a small probed volume. © 2012 Elsevier B.V. All rights reserved.
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spelling oxford-uuid:fdd2aada-a087-4c0c-bb56-5e53c4b552e62022-03-27T13:31:44ZCavity-enhanced optical methods for online microfluidic analysisJournal articlehttp://purl.org/coar/resource_type/c_dcae04bcuuid:fdd2aada-a087-4c0c-bb56-5e53c4b552e6EnglishSymplectic Elements at Oxford2012Rushworth, CDavies, JCabral, JDolan, PSmith, JVallance, CAbsorption spectroscopy is potentially an attractive detection technique for microfluidic applications, as it is universal, label-free, and rapid. However, the short optical pathlength through a microfluidic channel often imposes unacceptable limits on the detection sensitivity. We review a variety of strategies for increasing the pathlength and thereby improving the detection sensitivity of absorption measurements, covering extended-pathlength single-pass methods, multi-pass measurements, and finally a range of cavity-enhanced methods. We conclude that cavity-enhanced approaches show considerable promise for applications in which a high detection sensitivity is required within a small probed volume. © 2012 Elsevier B.V. All rights reserved.
spellingShingle Rushworth, C
Davies, J
Cabral, J
Dolan, P
Smith, J
Vallance, C
Cavity-enhanced optical methods for online microfluidic analysis
title Cavity-enhanced optical methods for online microfluidic analysis
title_full Cavity-enhanced optical methods for online microfluidic analysis
title_fullStr Cavity-enhanced optical methods for online microfluidic analysis
title_full_unstemmed Cavity-enhanced optical methods for online microfluidic analysis
title_short Cavity-enhanced optical methods for online microfluidic analysis
title_sort cavity enhanced optical methods for online microfluidic analysis
work_keys_str_mv AT rushworthc cavityenhancedopticalmethodsforonlinemicrofluidicanalysis
AT daviesj cavityenhancedopticalmethodsforonlinemicrofluidicanalysis
AT cabralj cavityenhancedopticalmethodsforonlinemicrofluidicanalysis
AT dolanp cavityenhancedopticalmethodsforonlinemicrofluidicanalysis
AT smithj cavityenhancedopticalmethodsforonlinemicrofluidicanalysis
AT vallancec cavityenhancedopticalmethodsforonlinemicrofluidicanalysis