The State of Research on Antimicrobial Activity of Cold Plasma

被引:80
作者
Niedzwiedz, Iwona [1 ]
Wasko, Adam [1 ]
Pawlat, Joanna [2 ]
Polak-Berecka, Magdalena [1 ]
机构
[1] Univ Life Sci Lublin, Dept Microbiol Biotechnol & Human Nutr, Lublin, Poland
[2] Lublin Univ Technol, Fac Elect Engn & Comp Sci, Lublin, Poland
关键词
biofilm; cellular response; cold plasma; mycotoxin; viruses; CLOSTRIDIUM-DIFFICILE SPORES; ATMOSPHERIC ARGON PLASMA; NONTHERMAL PLASMA; ASPERGILLUS-FLAVUS; ESCHERICHIA-COLI; INACTIVATION; DECONTAMINATION; STERILIZATION; MODEL; JET;
D O I
10.33073/pjm-2019-028
中图分类号
Q93 [微生物学];
学科分类号
071005 ; 100705 ;
摘要
Microbiological contamination is a big challenge to the food industry, medicine, agriculture, and environmental protection. For this reason, scientists are constantly looking for alternative methods of decontamination, which ensure the effective elimination of unwanted biological agents. Cold plasma is a new technology, which due to its unique physical and chemical properties becomes a point of interest to a growing group of researchers. The previously conducted experiments confirm its effective action, e.g. in the disinfection of skin wounds, air, and sewage treatment, as well as in food preservation and decontamination. The reactive compounds present in the plasma: high-energy electrons, ionized atoms and molecules, and UV photons are the key factors that cause an effective reduction in the number of microorganisms. The mechanism and effectiveness of the cold plasma are complex and depend on the process parameters, environmental factors and the type and properties of the microorganisms that are to be killed. This review describes the current state of knowledge regarding the effectiveness of the cold plasma and characterizes its interaction with various groups of microorganisms based on the available literature data.
引用
收藏
页码:153 / 164
页数:12
相关论文
共 100 条
[1]  
Afshari R., 2014, J PARAMEDICAL SCI, V5, P116, DOI DOI 10.22037/JPS.V5I1.5348
[2]   Inactivation of a Foodborne Norovirus Outbreak Strain with Nonthermal Atmospheric Pressure Plasma [J].
Ahlfeld, Birte ;
Li, Yangfang ;
Boulaaba, Annika ;
Binder, Alfred ;
Schotte, Ulrich ;
Zimmermann, Julia L. ;
Morfill, Gregor ;
Klein, Guenter .
MBIO, 2015, 6 (01)
[3]  
Alkawareek M.Y., 2014, Plasma Med, V4, P211, DOI [10.1615/PlasmaMed.2015011977, DOI 10.1615/PLASMAMED.2015011977]
[4]   CAP modifies the structure of a model protein from thermophilic bacteria: mechanisms of CAP-mediated inactivation [J].
Attri, Pankaj ;
Hang, Jeongmin ;
Choi, Sooho ;
Choi, Eun Ha ;
Bogaerts, Annemie ;
Lee, Weontae .
SCIENTIFIC REPORTS, 2018, 8
[5]   Complex Responses of Microorganisms as a Community to a Flowing Atmospheric Plasma [J].
Bayliss, Danny L. ;
Walsh, James L. ;
Iza, Felipe ;
Shama, Gilbert ;
Holah, John ;
Kong, Michael G. .
PLASMA PROCESSES AND POLYMERS, 2012, 9 (06) :597-611
[6]   A quantitative method for evaluating the photoreactivation of ultraviolet damaged microorganisms [J].
Beggs, CB .
PHOTOCHEMICAL & PHOTOBIOLOGICAL SCIENCES, 2002, 1 (06) :431-437
[7]   Plasma Technology: An Emerging Technology for Energy Storage [J].
Bogaerts, Annemie ;
Neyts, Erik C. .
ACS ENERGY LETTERS, 2018, 3 (04) :1013-1027
[8]   Synergy effect of heat and UV photons on bacterial-spore inactivation in an N2-O2 plasma-afterglow sterilizer [J].
Boudam, M. K. ;
Moisan, M. .
JOURNAL OF PHYSICS D-APPLIED PHYSICS, 2010, 43 (29)
[9]   Microbiological interactions with cold plasma [J].
Bourke, P. ;
Ziuzina, D. ;
Han, L. ;
Cullen, P. J. ;
Gilmore, B. F. .
JOURNAL OF APPLIED MICROBIOLOGY, 2017, 123 (02) :308-324
[10]   Investigation of the mutagenic potential of cold atmospheric plasma at bactericidal dosages [J].
Boxhammer, V. ;
Li, Y. F. ;
Koeritzer, J. ;
Shimizu, T. ;
Maisch, T. ;
Thomas, H. M. ;
Schlegel, J. ;
Morfill, G. E. ;
Zimmermann, J. L. .
MUTATION RESEARCH-GENETIC TOXICOLOGY AND ENVIRONMENTAL MUTAGENESIS, 2013, 753 (01) :23-28