Conformable Device for Independent Measurements of Mucosal and Vascular Barriers in a Complex In Vitro Intestinal Model

Electrochemical approaches for monitoring cell barrier integrity have become important read-out tools for in vitro models. Conventional commercially available electrochemical devices are however poorly suited for monitoring the more complex and multi-dimensional models which have recently been developed thanks to advances in tissue engineering. In particular, commercially available devices are typically unable to provide barrier-by-barrier resolution in multi-barrier models. In this study, a gut-immune-vasculature model is presented and utilized to investigate the potential for a novel conformable device to independently monitor two cell barriers within the same model-device platform. The platform, supported by cytokine analysis, is first used to study known bacterial metabolites and dietary compounds, showing changes in epithelial and/or endothelial barrier resistance. The platform is also used to test complex mixtures of bacterial metabolites produced by four intestinal bacteria individually as well as by a community of 25 diverse gut bacteria. The study demonstrates the potential for employing tailored in vitro intestinal models coupled with novel electrochemical device monitoring for host-microbe interactions studies.

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Publication Details

Journal
Advanced Science
Published
2025-12-21
DOI
https://doi.org/10.1002/advs.202511686
Primary Topic
Barrier Structure and Function Studies
Type
article
Field-Weighted Citation Impact
0.00

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article

Conformable Device for Independent Measurements of Mucosal and Vascular Barriers in a Complex In Vitro Intestinal Model

Advanced Science
Barrier Structure and Function Studies
article

Conformable Device for Independent Measurements of Mucosal and Vascular Barriers in a Complex In Vitro Intestinal Model

article en

Abstract

Electrochemical approaches for monitoring cell barrier integrity have become important read-out tools for in vitro models. Conventional commercially available electrochemical devices are however poorly suited for monitoring the more complex and multi-dimensional models which have recently been developed thanks to advances in tissue engineering. In particular, commercially available devices are typically unable to provide barrier-by-barrier resolution in multi-barrier models. In this study, a gut-immune-vasculature model is presented and utilized to investigate the potential for a novel conformable device to independently monitor two cell barriers within the same model-device platform. The platform, supported by cytokine analysis, is first used to study known bacterial metabolites and dietary compounds, showing changes in epithelial and/or endothelial barrier resistance. The platform is also used to test complex mixtures of bacterial metabolites produced by four intestinal bacteria individually as well as by a community of 25 diverse gut bacteria. The study demonstrates the potential for employing tailored in vitro intestinal models coupled with novel electrochemical device monitoring for host-microbe interactions studies.

Advanced ScienceVol. 13(13)
University of Cambridge (GB), MRC Epidemiology Unit (GB), MRC Toxicology Unit (GB)
UK Research and Innovation, University of Cambridge, Medical Research Council, Newnham College, University of Cambridge
Openalex Percentile: Top 52%
Barrier Structure and Function Studies
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