Cold Atmospheric Plasma and Plasma-Activated Water in Meat Processing: Microbial Safety, Molecular Transformations, Quality Changes, and Analytical Assessment
This review describes the principles of cold plasma generation and critically evaluates the effects of cold atmospheric plasma (ACP) and plasma-activated water (PAW) on the microbial safety, physicochemical quality, and preservation of meat products, with emphasis on analytical methods used to characterize plasma-induced changes. Peer-reviewed English-language publications from 2016 to 2026 were reviewed using the Web of Science Core Collection, Scopus, PubMed, and ScienceDirect databases, with searches performed from January to June 2026. A total of 240 references supported the review. In one study conducted under comparable experimental conditions, in-package plasma treatment of diced poultry meat reduced Listeria monocytogenes, Salmonella spp., and Escherichia coli O157:H7 by 3.5–3.9 log CFU/cube. This study-specific range should not be generalized because antimicrobial efficacy depends on plasma-system configuration, processing conditions, target microorganism, and meat matrix. However, plasma treatment may also cause undesirable oxidative changes. In ready-to-eat ham, the TBARS value increased from 0.92 to 1.53 mg MDA/kg after treatment, indicating enhanced lipid oxidation and potential quality deterioration. ACP and PAW may improve microbial safety and extend shelf life, but treatment intensity must be carefully controlled to minimize adverse quality effects. Future research should prioritize standardized reporting, product-specific validation, toxicological assessment, industrial scale-up, regulatory compliance, and techno-economic evaluation.
The growing demand for minimally processed dairy products increases the need to improve the microbiological safety of raw milk while preserving its natural composition, nutritional value, and sensory properties. This review describes key non-thermal processing technologies, combined treatment schemes, and digital tools...
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Livestock and poultry meat is an essential nutrient source, but significant losses occur during circulation. This review focusing on the generation and classification of low-temperature plasma (LTP), its application effects in preserving different types of livestock and poultry, and the core mechanisms involving microb...
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This study comparatively evaluated the efficacy of atmospheric cold plasma (ACP), plasma‐activated water (PAW), and plasma‐activated mist (PAM) in microbial decontamination and quality preservation of fresh lettuce. ACP treatment for 20 min exhibited the highest bactericidal activity, reducing
Escherichia coli...
Lin Chen, Wen-Jian Yang, Yang Jiao et al.· Journal of food process engi...· 0 citations
Considering the growing global population, attention must be paid to secure human protein supply. Animal protein is highly valuable and should be utilized in a sustainable manner. Microbial contamination of meat can occur due to initial microbial colonization from animal husbandry, or via cross-contamination during sla...
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Plasma-activated water (PAW) represents an innovative disinfection technology utilizing water as the material. In this study, we employed sodium hypochlorite (NaClO; 10 ppm) solution as the substrate for activation by cold plasma (CP) and compared the disinfection efficacy of CP-NaClO with that of NaClO against Escheri...
Yuan-Peng Li, Xin-Meng Huang, Yan-Fei Yan et al.· Journal of Food Science· 0 citations
Camel milk is a nutrient-rich functional food containing bioactive proteins, peptides, vitamins, minerals, and other constituents associated with antimicrobial, antioxidant, antidiabetic, and immunomodulatory activities. However, conventional thermal processing can compromise heat-sensitive nutrients and bioactive comp...
Shamsedin Mahdi Hassan, T. A. Teka, S. Mahamed et al.· Food Chemistry: X· 0 citations
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