Metal-phenolic networks enhanced the protection of excipients for probiotics during freeze-drying

被引:0
|
作者
Zhang, Tong [1 ]
Wang, Chen [1 ]
Su, Shengpeng [1 ,2 ]
Sun, Axiang [1 ]
Du, Ting [1 ]
Wang, Jianlong [1 ]
Liu, Julong [3 ]
Zhang, Wentao [1 ]
机构
[1] Northwest A&F Univ, Coll Food Sci & Engn, Yangling 712100, Shaanxi, Peoples R China
[2] Inner Mongolia Mengniu Dairy Grp Co Ltd, Inner Mongolia Enterprise Key Lab Dairy Nutr Hlth, Hohhot 011500, Peoples R China
[3] Mengniu Hitech Dairy Prod Beijing Co Ltd, Beijing 101107, Tongzhou, Peoples R China
关键词
Bifidobacterium bifidum; Probiotic powder; Freeze-drying; Nanoencapsulation;
D O I
10.1016/j.foodres.2025.116097
中图分类号
TS2 [食品工业];
学科分类号
0832 ;
摘要
Probiotic powder using a single protective method during freeze-drying is insufficient vitality because it lacks adequate protection. Here we developed a protection strategy through biointerfacial phenolic self-assembly to enhance the protection of excipients for probiotics to address existing challenges during freeze-drying. This strategy could strengthen the connections of excipients and phenolic protective layers containing hydroxyl groups with water molecules, improving the hydration layer's preservation and shielding bacteria from damage. The results indicated that, compared with origin probiotics, protected probiotics maintained higher viability at approximately 91 % and higher ATPase activity and exhibited a better survival rate in various environmental challenges after freeze-drying. The broad applicability of this protection strategy was confirmed across other LAB strains. Additionally, the protected probiotics demonstrated superior shelf life during 30 days of storage, indicating promising prospects for preparing bacterial powder via freeze-drying.
引用
收藏
页数:7
相关论文
共 50 条
  • [21] Recombination of nanometric vesicles during freeze-drying
    Cabane, B
    Blanchon, S
    Neves, C
    LANGMUIR, 2006, 22 (05) : 1982 - 1990
  • [22] DEPOLYMERIZATION OF SODIUM HYALURONATE DURING FREEZE-DRYING
    WEDLOCK, DJ
    PHILLIPS, GO
    DAVIES, A
    GORMALLY, J
    WYNJONES, E
    INTERNATIONAL JOURNAL OF BIOLOGICAL MACROMOLECULES, 1983, 5 (03) : 186 - 188
  • [23] SURVIVAL AND STABILITY OF MICROORGANISMS DURING FREEZE-DRYING
    MALIK, KA
    CRYOBIOLOGY, 1988, 25 (06) : 517 - 518
  • [24] Prevention of nanoparticle aggregation during freeze-drying
    Park, Kinam
    JOURNAL OF CONTROLLED RELEASE, 2017, 248 : 153 - 153
  • [25] THE LOSS OF PARABEN PRESERVATIVES DURING FREEZE-DRYING
    FLORA, KP
    CRADOCK, JC
    POOCHIKIAN, GK
    JOURNAL OF PHARMACY AND PHARMACOLOGY, 1980, 32 (08) : 577 - 578
  • [26] Protection of protein secondary structure by saccharides of different molecular weights during freeze-drying
    Izutsu, K
    Aoyagi, N
    Kojima, S
    CHEMICAL & PHARMACEUTICAL BULLETIN, 2004, 52 (02) : 199 - 203
  • [27] A FREEZE-DRYING METHOD OF FUNGI USING METAL BLOCKS
    KATOH, M
    MAKAMURA, S
    JOURNAL OF ELECTRON MICROSCOPY, 1983, 32 (03): : 278 - 278
  • [28] Cracking during freeze-drying in dense freeze cast ceramics: Role of drying rate
    Pinches, Samuel
    Franks, George V. V.
    JOURNAL OF THE AMERICAN CERAMIC SOCIETY, 2023, 106 (09) : 5167 - 5177
  • [29] Influence of Ionic Strength on the Deposition of Metal-Phenolic Networks
    Guo, Junling
    Richardson, Joseph J.
    Besford, Quinn A.
    Christofferson, Andrew J.
    Dai, Yunlu
    Ong, Chien W.
    Tardy, Blaise L.
    Liang, Kang
    Choi, Gwan H.
    Cui, Jiwei
    Yoo, Pil J.
    Yarovsky, Irene
    Caruso, Frank
    LANGMUIR, 2017, 33 (40) : 10616 - 10622
  • [30] Metal-phenolic networks as tuneable spore coat mimetics
    Wasuwanich, Pris
    Fan, Gang
    Burke, Benjamin
    Furst, Ariel L.
    JOURNAL OF MATERIALS CHEMISTRY B, 2022, 10 (37) : 7600 - 7606