Flow cell for high throughput Raman spectroscopy of non-transparent solutions

This work introduces a high-throughput setup for Raman analysis of various flowing fluids, both transparent and non-transparent. The setup employs a microfluidic cell, used with an external optical setup, to control the sample flow's position and dimensions <i>via</i> 3-dimensional hydrodynamic focusing. This approach, in contrast to the prevalent use of fused silica capillaries, reduces the risk of sample photodegradation and boosts measurement efficiency, enhancing overall system throughput. The microfluidic cell has been further evolved to laminate two distinct flows from different samples in parallel. Using line excitation, both samples can be simultaneously excited without moving parts, further increasing throughput. This setup also enables real-time monitoring of phenomena like mixing or potential reactions between the two fluids. This development could significantly advance the creation of highly sensitive, high-throughput sensors for fluid composition analysis.

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Publication Details

Journal
Lab on a Chip
Published
2024-11-29
DOI
https://doi.org/10.1039/d4lc00586d
Citations
2
Primary Topic
Spectroscopy Techniques in Biomedical and Chemical Research
Type
article
Field-Weighted Citation Impact
1.32

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article

Flow cell for high throughput Raman spectroscopy of non-transparent solutions

Filippo Zorzi, Morten Hanefeld Dziegiel, Luigino Criante, Emil Alstrup Jensen et al.
2 citations
Lab on a Chip
Spectroscopy Techniques in Biomedical and Chemical Research
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article

Flow cell for high throughput Raman spectroscopy of non-transparent solutions

Filippo Zorzi, Morten Hanefeld Dziegiel, Luigino Criante, Emil Alstrup Jensen, Anders Kristensen, Murat Serhatlıoğlu, Silvio Bonfadini
article en
2 citations

Abstract

This work introduces a high-throughput setup for Raman analysis of various flowing fluids, both transparent and non-transparent. The setup employs a microfluidic cell, used with an external optical setup, to control the sample flow's position and dimensions <i>via</i> 3-dimensional hydrodynamic focusing. This approach, in contrast to the prevalent use of fused silica capillaries, reduces the risk of sample photodegradation and boosts measurement efficiency, enhancing overall system throughput. The microfluidic cell has been further evolved to laminate two distinct flows from different samples in parallel. Using line excitation, both samples can be simultaneously excited without moving parts, further increasing throughput. This setup also enables real-time monitoring of phenomena like mixing or potential reactions between the two fluids. This development could significantly advance the creation of highly sensitive, high-throughput sensors for fluid composition analysis.

Lab on a ChipVol. 25(1)
Copenhagen University Hospital (DK), Italian Institute of Technology (IT), Center for Nano Science and Technology (IT), Politecnico di Milano (IT), Technical University of Denmark (DK)
Novo Nordisk, Novo Nordisk Fonden
Openalex Percentile: Top 14%
Spectroscopy Techniques in Biomedical and Chemical Research
1.32
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