Development of a Mass-Producible Microfluidic Device for Single and Bulk Mycobacteria Investigations

We developed a mass-producible microfluidic device capable of long-term observations of single bacilli and bulk bacteria culture interactions for subsequent antimicrobial resistance (AMR) studies. The device provides high consistency across separate devices due to its standardized manufacturing process unlike conventional microfluidic devices. <i>Mycobacteria bovis</i> BCG and <i>M. smegmatis</i> are trapped within the microfluidic device using minimal equipment and capillary-based techniques, acting as a surrogate model for the highly pathogenic bacteria <i>M. tuberculosis</i>. Individual bacilli and bulk bacteria aggregates were observed across a span of ten growth cycles, revealing bacteria growth morphologies alike those in past research. We accordingly propose that this chip would be appropriate for observations of AMR trials involving <i>M. tuberculosis</i>.

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Publication Details

Journal
Biosensors
Published
2025-02-13
DOI
https://doi.org/10.3390/bios15020108
Citations
1
Primary Topic
Bacterial Identification and Susceptibility Testing
Type
article
Field-Weighted Citation Impact
1.32

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Development of a Mass-Producible Microfluidic Device for Single and Bulk Mycobacteria Investigations

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Development of a Mass-Producible Microfluidic Device for Single and Bulk Mycobacteria Investigations

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article en
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Abstract

We developed a mass-producible microfluidic device capable of long-term observations of single bacilli and bulk bacteria culture interactions for subsequent antimicrobial resistance (AMR) studies. The device provides high consistency across separate devices due to its standardized manufacturing process unlike conventional microfluidic devices. <i>Mycobacteria bovis</i> BCG and <i>M. smegmatis</i> are trapped within the microfluidic device using minimal equipment and capillary-based techniques, acting as a surrogate model for the highly pathogenic bacteria <i>M. tuberculosis</i>. Individual bacilli and bulk bacteria aggregates were observed across a span of ten growth cycles, revealing bacteria growth morphologies alike those in past research. We accordingly propose that this chip would be appropriate for observations of AMR trials involving <i>M. tuberculosis</i>.

BiosensorsVol. 15(2)
Oregon State University (US), Nanyang Technological University (SG), Sichuan University (CN), Hewlett Packard Enterprise (United States) (US)
Ministry of Education - Singapore, Ministry of Education, India
Openalex Percentile: Top 23%
Bacterial Identification and Susceptibility Testing
1.32
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