Bacterial Community Assessed by Utilization of Single Carbon Sources in Broiler Ground Meat after Treatment with an Antioxidant, Carnosine, and Cold Plasma

Contaminated poultry meat is a major source of human foodborne illnesses. Many interventions have been developed to reduce and/or eliminate human foodborne pathogens in poultry products; however, treatments with cold plasma or carnosine or their combination have not been extensively investigated. In...

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Veröffentlicht in:Journal of food protection 2020-11, Vol.83 (11), p.1967-1973
Hauptverfasser: Yeh, Hung-Yueh, Line, John E, Hinton, Arthur, Gao, Yue, Zhuang, Hong
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container_end_page 1973
container_issue 11
container_start_page 1967
container_title Journal of food protection
container_volume 83
creator Yeh, Hung-Yueh
Line, John E
Hinton, Arthur
Gao, Yue
Zhuang, Hong
description Contaminated poultry meat is a major source of human foodborne illnesses. Many interventions have been developed to reduce and/or eliminate human foodborne pathogens in poultry products; however, treatments with cold plasma or carnosine or their combination have not been extensively investigated. In this study, the bacterial microflora of poultry meat samples after treatments with cold plasma and carnosine were characterized with EcoPlates in the OmniLog system. The plates were incubated at 25°C for 7 days in the OmniLog chamber, and bacterial growth was monitored by recording formazan production every 30 min at an optical density of 590 nm. The kinetics of lag, log, and stationary phases of bacterial growth followed the Gompertz sigmoidal model but with different inflection times and asymptotes at the log phase and the stationary phase, respectively. Results indicated that treatment of poultry meat samples with cold plasma technology and carnosine could inhibit growth of the bacteria in the treated meat samples. Of 31 chemicals tested, phenylethylamine, α-d-lactose, d,l-α-glycerol phosphate, 2-hydroxybenzoic acid, γ-hydroxybutyric acid, α-ketobutyric acid, and d-malic acid could not be metabolized by bacteria in the meat samples. Future research is required to determine whether these seven chemicals that inhibited growth of bacteria in these meat samples can be used as food preservatives for extending the shelf life of these products. Whether the bacterial flora can be an indicator of effectiveness for meat samples treated with cold plasma, carnosine, or both needs further study.
doi_str_mv 10.4315/JFP-20-063
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subjects Animals
Antioxidants
Asymptotes
Bacteria
Carbon
Carbon sources
Carnosine
Chemicals
Chickens
Cold
Cold plasmas
Electrodes
Flora
Food
Food contamination
Food safety
Food sources
Foodborne diseases
Glycerol
Growth kinetics
Growth models
Humans
Kinetics
Lactose
Malic acid
Meat
Meat - analysis
Meat products
Microflora
Microorganisms
Optical density
p-Hydroxybenzoic acid
Pathogens
Phenethylamine
Phenylethylamine
Plasma
Plasma Gases
Poultry
Preservatives
Principal components analysis
Shelf life
Software packages
Stationary phase
Statistical analysis
title Bacterial Community Assessed by Utilization of Single Carbon Sources in Broiler Ground Meat after Treatment with an Antioxidant, Carnosine, and Cold Plasma
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