Rapid Single Cell Detection of Lactic Acid Bacteria in the Beer Using Bioluminescence Method

In this study, we developed a system, known as MicroStarTM Rapid Microbe Detection System (RMDS) , to detect Lactobacillus brevis, which usually requires 2-4 days for examination by the conventional plate count procedure, for beer quality control using a bioluminescence method within 24 hr and also...

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Published inBiocontrol Science Vol. 24; no. 1; pp. 29 - 37
Main Authors TAKAHASHI, TOSHIHIRO, NAKAKITA, YASUKAZU, NAKAMURA, TAKESHI
Format Journal Article
LanguageEnglish
Published Japan The Society for Antibacterial and Antifungal Agents, Japan 2019
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Abstract In this study, we developed a system, known as MicroStarTM Rapid Microbe Detection System (RMDS) , to detect Lactobacillus brevis, which usually requires 2-4 days for examination by the conventional plate count procedure, for beer quality control using a bioluminescence method within 24 hr and also aimed to develop a technology to detect bacterial growth without the need for cultivation. We used a highly sensitive luminous reagent that increased the activity of the luciferin- luciferase reaction to 2.5×10-18 mol ATP/0.2 μl and could detect even a single lactic acid bacterial cell. The limitation of the method was that ATP derived from the beer hindered bacterial measurement and the supply of energy source to secure ATP of lactic acid bacterial cell. The sample beer was filtered through a membrane filter, avoiding the formation of beer foam to the best extent, the filter was cleaned with 10% ethanol and 0.1% sodium hydrogen carbonate solution, and incubated on a GMY agar plate (1% glucose, 0.2% malic acid, 0.67% yeast nitrogen base, 1% agar; pH 5.2) at room temperature for 2 hr. Post incubation of the filter, bacterial cell count was measured with RMDS. This method could overcome the hindrance of ATP measurement and could stably detect lactic acid bacteria without the need for cultivation.
AbstractList In this study, we developed a system, known as MicroStar Rapid Microbe Detection System (RMDS) , to detect Lactobacillus brevis, which usually requires 2-4 days for examination by the conventional plate count procedure, for beer quality control using a bioluminescence method within 24 hr and also aimed to develop a technology to detect bacterial growth without the need for cultivation. We used a highly sensitive luminous reagent that increased the activity of the luciferin- luciferase reaction to 2.5×10 mol ATP/0.2 μl and could detect even a single lactic acid bacterial cell. The limitation of the method was that ATP derived from the beer hindered bacterial measurement and the supply of energy source to secure ATP of lactic acid bacterial cell. The sample beer was filtered through a membrane filter, avoiding the formation of beer foam to the best extent, the filter was cleaned with 10% ethanol and 0.1% sodium hydrogen carbonate solution, and incubated on a GMY agar plate (1% glucose, 0.2% malic acid, 0.67% yeast nitrogen base, 1% agar; pH 5.2) at room temperature for 2 hr. Post incubation of the filter, bacterial cell count was measured with RMDS. This method could overcome the hindrance of ATP measurement and could stably detect lactic acid bacteria without the need for cultivation.
In this study, we developed a system, known as MicroStarTM Rapid Microbe Detection System (RMDS) , to detect Lactobacillus brevis, which usually requires 2-4 days for examination by the conventional plate count procedure, for beer quality control using a bioluminescence method within 24 hr and also aimed to develop a technology to detect bacterial growth without the need for cultivation. We used a highly sensitive luminous reagent that increased the activity of the luciferin- luciferase reaction to 2.5×10-18 mol ATP/0.2 μl and could detect even a single lactic acid bacterial cell. The limitation of the method was that ATP derived from the beer hindered bacterial measurement and the supply of energy source to secure ATP of lactic acid bacterial cell. The sample beer was filtered through a membrane filter, avoiding the formation of beer foam to the best extent, the filter was cleaned with 10% ethanol and 0.1% sodium hydrogen carbonate solution, and incubated on a GMY agar plate (1% glucose, 0.2% malic acid, 0.67% yeast nitrogen base, 1% agar; pH 5.2) at room temperature for 2 hr. Post incubation of the filter, bacterial cell count was measured with RMDS. This method could overcome the hindrance of ATP measurement and could stably detect lactic acid bacteria without the need for cultivation.
Author NAKAKITA, YASUKAZU
TAKAHASHI, TOSHIHIRO
NAKAMURA, TAKESHI
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crossref_primary_10_1128_Spectrum_01404_21
crossref_primary_10_1039_D3AN00576C
crossref_primary_10_6013_jbrewsocjapan_115_203
Cites_doi 10.1016/S1389-1723(00)89108-2
10.1007/978-1-4757-4679-2_5
10.1051/lait:198927
10.1016/B978-1-78242-331-7.00013-7
10.5650/jos1956.26.278
10.5803/jsfm.13.29
10.1271/bbb.64.1032
10.1016/S0003-2697(02)00427-X
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Keywords Lactobacillus brevis
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References Takahashi T., Nakakita Y., Nara Y., Uehara A., Monji Y., Watari J., and Shinotsuka K. (1999) Application of automatic Micro-Star-RMDS-SPS (ATP bioluminescence method) to product testing in brewery. Bokin Bobai (in Japanese) , 27, 759-764.
Takahashi T., Nakakita Y., Watari J., and Shinotsuka K. (2000b) A new rapid technique for detection of microorganisms using bioluminescence and fluorescence microscope method. J. Biosci. Bioeng., 89(5) , 509-513.
Odaka H., Fuuda K., Mizuochi S., and Horigome K. (1996) Adenosine Triphosphate Content of Microorganisms Related with Food Spoilage. Jpn. J. Food Microbiol., 13, 29-34.
Sato T. and Nakakita Y., Japan Kokai Tokkyo Koho, 07-053757 (Feb. 20, 1995) .
Takahashi T., Nakakita Y., Watari J., and Shinotsuka K. (2000a) Application of bioluminescence method for the beer industry: Sensitivity of MicroStarTM-RMDS for detecting beer-spoilage bacteria. Biosci. Biotechnol. Biochem., 64(5) , 1032-1037.
Ogino K., and Hayashi H. (1977) Studies of the Builder Effects on Detergency, I. Sequestration Capacities of Some Organic Compounds. Jpn. Oil Chemistes’ Society (in Japanese) , 26(5) , 278-282.
Sakakibara T., and Imai K. (2003) Enumeration of bacterial cell numbers by amplified firefly bioluminescence without cultivation. Anal. Biochem., 312, 48-56.
Hill A. E. (2015) Traditional methods of detection and identification of brewery spoilage organisms., P271-286. Brewing Microbiology 1st Edition, Woodhead Publishing.
Boyaval P. (1989) Lactic acid bacteria and metal ions. Lait, 69(2) , 87-113.
Nishikawa N. and Kohgo M. (1996) Microbial control in the brewery. MBAA Tech. Quart., 22, 61-66.
Priest, F. G. (1995) Gram-positive brewery bacteria., P.127-161. In Priest, F. G. and Campbell, I. (ed.) , Brewing microbiology. Chapman & Hall, London.
Igimi S., Ezaki T., Takatori K., and Tsuchido T. (2013) Guidebook of Easy and Rapid Microbial Test Method (in Japanese) , Technosystem, Tokyo.
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References_xml – reference: Sato T. and Nakakita Y., Japan Kokai Tokkyo Koho, 07-053757 (Feb. 20, 1995) .
– reference: Hill A. E. (2015) Traditional methods of detection and identification of brewery spoilage organisms., P271-286. Brewing Microbiology 1st Edition, Woodhead Publishing.
– reference: Ogino K., and Hayashi H. (1977) Studies of the Builder Effects on Detergency, I. Sequestration Capacities of Some Organic Compounds. Jpn. Oil Chemistes’ Society (in Japanese) , 26(5) , 278-282.
– reference: Sakakibara T., and Imai K. (2003) Enumeration of bacterial cell numbers by amplified firefly bioluminescence without cultivation. Anal. Biochem., 312, 48-56.
– reference: Takahashi T., Nakakita Y., Nara Y., Uehara A., Monji Y., Watari J., and Shinotsuka K. (1999) Application of automatic Micro-Star-RMDS-SPS (ATP bioluminescence method) to product testing in brewery. Bokin Bobai (in Japanese) , 27, 759-764.
– reference: Igimi S., Ezaki T., Takatori K., and Tsuchido T. (2013) Guidebook of Easy and Rapid Microbial Test Method (in Japanese) , Technosystem, Tokyo.
– reference: Priest, F. G. (1995) Gram-positive brewery bacteria., P.127-161. In Priest, F. G. and Campbell, I. (ed.) , Brewing microbiology. Chapman & Hall, London.
– reference: Takahashi T., Nakakita Y., Watari J., and Shinotsuka K. (2000a) Application of bioluminescence method for the beer industry: Sensitivity of MicroStarTM-RMDS for detecting beer-spoilage bacteria. Biosci. Biotechnol. Biochem., 64(5) , 1032-1037.
– reference: Boyaval P. (1989) Lactic acid bacteria and metal ions. Lait, 69(2) , 87-113.
– reference: Nishikawa N. and Kohgo M. (1996) Microbial control in the brewery. MBAA Tech. Quart., 22, 61-66.
– reference: Odaka H., Fuuda K., Mizuochi S., and Horigome K. (1996) Adenosine Triphosphate Content of Microorganisms Related with Food Spoilage. Jpn. J. Food Microbiol., 13, 29-34.
– reference: Takahashi T., Nakakita Y., Watari J., and Shinotsuka K. (2000b) A new rapid technique for detection of microorganisms using bioluminescence and fluorescence microscope method. J. Biosci. Bioeng., 89(5) , 509-513.
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  doi: 10.1051/lait:198927
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  doi: 10.5650/jos1956.26.278
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Snippet In this study, we developed a system, known as MicroStarTM Rapid Microbe Detection System (RMDS) , to detect Lactobacillus brevis, which usually requires 2-4...
In this study, we developed a system, known as MicroStar Rapid Microbe Detection System (RMDS) , to detect Lactobacillus brevis, which usually requires 2-4...
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SubjectTerms ATP Bioluminescence
Lactobacillus brevis
Rapid Detection
Title Rapid Single Cell Detection of Lactic Acid Bacteria in the Beer Using Bioluminescence Method
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