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Development and Evaluation of a Paper-Based Microfluidic Device for Detection of on Food Contact and Non-Food Contact Surfaces

Overview
Journal Foods
Specialty Biotechnology
Date 2022 Apr 12
PMID 35407034
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Abstract

is the third most deadly foodborne pathogen in the United States. The bacterium is found in soil and water, contaminating raw food products and the processing environment, where it can persist for an extended period. Currently, testing of food contact and non-food contact surfaces is performed using an array of sampling devices and endpoint technologies, offering various levels of sensitivity, cost, user skill, and time to detection. Paper-based microfluidic devices (µPADs) are a rapid detection platform amenable to low-cost, user-friendly, and portable diagnostics. In this study, we developed and evaluated a µPAD platform specific for the colorimetric detection of the genus following recovery from food contact and non-food contact surfaces. For detection, four colorimetric substrates specific for the detection of β-glucosidase, two broths selective for the detection of spp., and a nonselective broth were evaluated to facilitate detection of spp. The limit of detection and time to detection were determined by using pure bacterial cultures. After 8 h enrichment, (10 Colony Forming Units (CFU)/coupon) was detected on every surface. After 18 h enrichment, (10 CFU/coupon) was detected on all surfaces with all swabbing devices. This study demonstrated the ability of the µPAD-based method to detect potentially stressed cells at low levels of environmental contamination.

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