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Autores principales: Li, Bingzhi, Cheng, Kun, Chen, Pengyu, Luo, Linpin, Zhang, Liang, Du, Ting, Zhang, Tong, Li, Qingqing, Ma, Yiyue, Sun, Jing, Jin, Maojun, Wang, Jianlong, Chen, Yiping
Formato: Artículo científico
Lenguaje:en
Publicado: Food research international (Ottawa, Ont.) 2025
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Acceso en línea:https://pubmed.ncbi.nlm.nih.gov/39779128/
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author Li, Bingzhi
Cheng, Kun
Chen, Pengyu
Luo, Linpin
Zhang, Liang
Du, Ting
Zhang, Tong
Li, Qingqing
Ma, Yiyue
Sun, Jing
Jin, Maojun
Wang, Jianlong
Chen, Yiping
author_facet Li, Bingzhi
Cheng, Kun
Chen, Pengyu
Luo, Linpin
Zhang, Liang
Du, Ting
Zhang, Tong
Li, Qingqing
Ma, Yiyue
Sun, Jing
Jin, Maojun
Wang, Jianlong
Chen, Yiping
Li, Bingzhi
Cheng, Kun
Chen, Pengyu
Luo, Linpin
Zhang, Liang
Du, Ting
Zhang, Tong
Li, Qingqing
Ma, Yiyue
Sun, Jing
Jin, Maojun
Wang, Jianlong
Chen, Yiping
collection PubMed - marine biology
contents Unlocking dual-mode enzyme activities on bacterial surface: Directional recognition and swift capture of Alicyclobacillus acidoterrestris from fruit juices. Li, Bingzhi Cheng, Kun Chen, Pengyu Luo, Linpin Zhang, Liang Du, Ting Zhang, Tong Li, Qingqing Ma, Yiyue Sun, Jing Jin, Maojun Wang, Jianlong Chen, Yiping Fruit and Vegetable Juices Alicyclobacillus Muramidase Adsorption Bacterial Adhesion Food Microbiology Magnetite Nanoparticles The acidophilic and heat-resistant characteristics of Alicyclobacillus acidoterrestris (A. acidoterrestris) pose significant challenges to fruit juice production. Traditional thermal removal methods are often ineffective against this resilient bacterium. To address this issue, we developed a novel adsorbent, magnetic carbonation carbon-lysozyme nanohybrid (MCL), composed of magnetic nanoparticles with a thin carbon shell and covalently grafted lysozyme. The outer lysozyme facilitates binding to the bacterial surface through two modes: electrostatic attraction and chemical interaction, acting as a vital engine for bacterial adhesion. The ultrathin carbon coating enhances dispersion, reduces magnetic loss, provides more adsorption sites for lysozyme grafting, and ensures stable function in acidic environments. Benefiting from the large surface area of MCL and the specific peptidoglycan recognition structure of lysozyme, MCL exhibits rapid adsorption kinetics and can completely remove 10 CFU/mL of A. acidoterrestris from juice within 20 min. The MCL demonstrates excellent capture performance, negligible cytotoxicity, and no significant impact on juice quality, offering a promising non-thermal strategy to improve juice safety.
format Artículo científico
id pubmed_39779128
institution PubMed
language en
publishDate 2025
publisher Food research international (Ottawa, Ont.)
record_format pubmed
spellingShingle Unlocking dual-mode enzyme activities on bacterial surface: Directional recognition and swift capture of Alicyclobacillus acidoterrestris from fruit juices.
Li, Bingzhi
Cheng, Kun
Chen, Pengyu
Luo, Linpin
Zhang, Liang
Du, Ting
Zhang, Tong
Li, Qingqing
Ma, Yiyue
Sun, Jing
Jin, Maojun
Wang, Jianlong
Chen, Yiping
Fruit and Vegetable Juices
Alicyclobacillus
Muramidase
Adsorption
Bacterial Adhesion
Food Microbiology
Magnetite Nanoparticles
Unlocking dual-mode enzyme activities on bacterial surface: Directional recognition and swift capture of Alicyclobacillus acidoterrestris from fruit juices. Li, Bingzhi Cheng, Kun Chen, Pengyu Luo, Linpin Zhang, Liang Du, Ting Zhang, Tong Li, Qingqing Ma, Yiyue Sun, Jing Jin, Maojun Wang, Jianlong Chen, Yiping Fruit and Vegetable Juices Alicyclobacillus Muramidase Adsorption Bacterial Adhesion Food Microbiology Magnetite Nanoparticles The acidophilic and heat-resistant characteristics of Alicyclobacillus acidoterrestris (A. acidoterrestris) pose significant challenges to fruit juice production. Traditional thermal removal methods are often ineffective against this resilient bacterium. To address this issue, we developed a novel adsorbent, magnetic carbonation carbon-lysozyme nanohybrid (MCL), composed of magnetic nanoparticles with a thin carbon shell and covalently grafted lysozyme. The outer lysozyme facilitates binding to the bacterial surface through two modes: electrostatic attraction and chemical interaction, acting as a vital engine for bacterial adhesion. The ultrathin carbon coating enhances dispersion, reduces magnetic loss, provides more adsorption sites for lysozyme grafting, and ensures stable function in acidic environments. Benefiting from the large surface area of MCL and the specific peptidoglycan recognition structure of lysozyme, MCL exhibits rapid adsorption kinetics and can completely remove 10 CFU/mL of A. acidoterrestris from juice within 20 min. The MCL demonstrates excellent capture performance, negligible cytotoxicity, and no significant impact on juice quality, offering a promising non-thermal strategy to improve juice safety.
title Unlocking dual-mode enzyme activities on bacterial surface: Directional recognition and swift capture of Alicyclobacillus acidoterrestris from fruit juices.
topic Fruit and Vegetable Juices
Alicyclobacillus
Muramidase
Adsorption
Bacterial Adhesion
Food Microbiology
Magnetite Nanoparticles
url https://pubmed.ncbi.nlm.nih.gov/39779128/