In vitro fermentation of cereal dietary fibre carbohydrates by probiotic and intestinal bacteria

被引:245
|
作者
Crittenden, R [1 ]
Karppinen, S [1 ]
Ojanen, S [1 ]
Tenkanen, M [1 ]
Fagerström, R [1 ]
Mättö, J [1 ]
Saarela, M [1 ]
Mattila-Sandholm, T [1 ]
Poutanen, K [1 ]
机构
[1] VTT Biotechnol, FIN-02044 Espoo, Finland
关键词
cereal; dietary fibre; beta-glucan; xylan; arabinoxylan; xylo-oligosaccharides; fermentation; probiotic; prebiotic; synbiotic; intestine;
D O I
10.1002/jsfa.1095
中图分类号
S [农业科学];
学科分类号
09 ;
摘要
A range of probiotic and other intestinal bacteria were examined for their ability to ferment the dietary fibre carbohydrates beta-glucan, xylan, xylo-oligosaccharides (XOS) and arabinoxylan. beta-Glucan was fermented by Bacteroides spp and Clostridium beijerinckii but was not fermented by lactobacilli, bifidobacteria, enterococci or Escherichia coli. Unsubstituted xylan was not fermented by any of the probiotic bacteria examined. However, many Bifidobacterium species and Lactobacillus brevis were able to grow to high yields using XOS. XOS were also efficiently fermented by some Bacteroides isolates but not by E coli, enterococci, Clostridium difficile, Clostridium perfringens or by the majority of intestinal Lactobacillus species examined. Bifidobacteriurn longum strains were able to grow well using arabinoxylan as the sole carbon source. These organisms hydrolysed and fermented the arabinosyl residues from arabinoxylan but did not substantially utilise the xylan backbone of the polysaccharide. Arabinoxylan was not fermented by lactobacilli, enterococci, E coli, C perfringens or C difficile and has potential to be an applicable carbohydrate to complement probiotic Bif longum strains in synbiotic combinations. (C) 2002 Society of Chemical Industry.
引用
收藏
页码:781 / 789
页数:9
相关论文
共 50 条
  • [31] In Vitro Degradation and Fermentation of Three Dietary Fiber Sources by Human Colonic Bacteria
    Bliss, Donna Z.
    Weimer, Paul J.
    Jung, Hans-Joachim G.
    Savik, Kay
    JOURNAL OF AGRICULTURAL AND FOOD CHEMISTRY, 2013, 61 (19) : 4614 - 4621
  • [32] Improving the Viability and Metabolism of Intestinal Probiotic Bacteria Using Fibre Obtained from Vegetable By-Products
    Angeles Rivas, Maria
    Jose Benito, Maria
    Ruiz-Moyano, Santiago
    Martin, Alberto
    de Guia Cordoba, Maria
    Merchan, Almudena, V
    Casquete, Rocio
    FOODS, 2021, 10 (09)
  • [33] DIETARY FIBRE CONTENT AND EFFECT OF CEREAL PROCESSING TECHNOLOGY
    Slukova, Marcela
    Honcu, Iva
    Krejcirova, Lucie
    Velebna, Nikoleta
    PROCEEDINGS OF THE 7TH INTERNATIONAL CONFERENCE ON POLYSACCHARIDES-GLYCOSCIENCE, 2011, : 62 - 66
  • [34] Definition and analysis of dietary fibre in the context of food carbohydrates
    Asp, NG
    DIETARY FIBRE: BIO-ACTIVE CARBOHYDRATES FOR FOOD AND FEED, 2004, : 21 - 26
  • [35] Probiotic carbohydrates reduce intestinal permeability and inflammation in metabolic diseases
    Strowski, Mathias Z.
    Wiedenmann, Bertram
    GUT, 2009, 58 (08) : 1044 - 1045
  • [36] Biochanin A improves fibre fermentation by cellulolytic bacteria
    Harlow, Brittany E.
    Flythe, Michael D.
    Aiken, Glen E.
    JOURNAL OF APPLIED MICROBIOLOGY, 2018, 124 (01) : 58 - 66
  • [37] Probiotic bacteria and intestinal epithelial barrier function
    Ohland, Christina L.
    MacNaughton, Wallace K.
    AMERICAN JOURNAL OF PHYSIOLOGY-GASTROINTESTINAL AND LIVER PHYSIOLOGY, 2010, 298 (06): : G807 - G819
  • [38] Control of intestinal lipoprotein secretion by dietary carbohydrates
    Stahel, Priska
    Xiao, Changting
    Lewis, Gary F.
    CURRENT OPINION IN LIPIDOLOGY, 2018, 29 (01) : 24 - 29
  • [39] Screening of intestinal microflora for effective probiotic bacteria
    O'Sullivan, DJ
    JOURNAL OF AGRICULTURAL AND FOOD CHEMISTRY, 2001, 49 (04) : 1751 - 1760
  • [40] Effect of Dietary Restriction on Probiotic Bacteria Lactobacillus
    Mus, Tulay Elal
    Sonat, Fusun Ak
    Altinbas, Burin
    ACTA PHYSIOLOGICA, 2015, 215 : 60 - 60