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Bacterial interaction with

This chapter will provide an overview of the research on anti-adhesion agents. Particular attention will be devoted to the anti-adherence agents derived from or foimd naturally in foods. In addition, the pathogen infection process, the architecture of host epithelial cell surfaces, and the chemistry and mechanisms involved in bacterial interactions with host cell surfaces will also be reviewed. [Pg.103]

Baumler, A. J., Tsolis, R. M., and Heffron, F. (1997). Fimbrial adhesins of Salmonella typhimurium. Role in bacterial interactions with epithelial cells. Adv. Exp. Med. Biol. 412,149-158. [Pg.141]

Holmstrom, C. and Kjelleberg, S., Bacterial interactions with marine fouling organisms, Biofilms Recent Advances in their Study, Evans, L.V., Ed., Harwood Academic Publishers, Amsterdam, 101, 2000. [Pg.382]

Dorn BR, Dunn WA Ir., Progulske-Fox A (2002) Bacterial interactions with the autophagic pathway. Cell Microbiol 4 1-10... [Pg.117]

H. pylori infection tends to persist for life despite the gastric inflammatory response. This persistent infection requires a balanced host-bacterial interaction, with continuous adaption of bacterial binding properties to match the dynamic changes of glycosylation of the gastric epithelium. This may be achieved by phase variation as described for SabA [8], or by recombination events as described for BabA [17]. [Pg.135]

SiAwsoN RM, Lee H and Trevors JT (1990) Bacterial interactions with silver. Biol Metab 3 151-154. [Pg.763]

Milde K, Sand W, Wolff W, Bock E (1983) Thiobacilli of the concrete walls of the Hamburg sewer system. J Gen Microbiol 129 1327-1333 Millard SG, Gowers KR, Bungey JH (1995) Galvanostatic pulse techniques a rapid method of assessing corrosion rates of steel in concrete structure. NACE International Corrosion, Houston Miller JDA (1970) Microbial aspects of metallurgy. Elsevier, New York, pp 61-105 Mills AL, Powelson DK (1996) Bacterial interactions with surfaces in soils. In Fletcher M (ed) Bacterial adhesion molecular and ecological diversity. Wiley-Liss, New York, pp 25-57... [Pg.337]

Willcox M D P, Cowell B A, Wilhams T, Holden B A et al. (2001) Bacterial Interactions with Contact Lenses effects of Lens Material, Lens wear and Microbial Physiology. Biomaterials 22 3235-3247. [Pg.68]

The presence of organic acid substituents in exopolysaccharides increases the lipophilidty of the molecule. In addition, for some exopolysaccharides with relatively high organic acid contents, their interaction with cations and with other polysaccharides may be influenced. Several amino adds have also been found in bacterial exopolysaccharides, including serine and L-glutamic add (Figure 7.1). [Pg.197]

Flynn, G. C., Beckers, C. J. M., Baase, W. A., and Dahlquist, F. W. (1993). Individual subunits of bacterial luciferase are molten globules and interact with molecular chaperones. Proc. Natl. Acad. Sci. USA 90 10826-10830. [Pg.395]

Francisco, W. A., et al. (1996). Interaction of bacterial luciferase with 8-substituted flavin mononucleotide derivatives. /. Biol. Chem. 271 104-110. [Pg.396]

Bacterial or viral proteins linking T-cell receptors and MHC molecules through simultaneous interaction with the constant domains of all MHC class II molecules and of T-cell receptor (3-chains. Hence, superantigens are polyclonal T-cell activators most likely involved in the development of autoimmune diseases. [Pg.1167]

Figure 37-6. The predominant bacterial transcription termination signal contains an inverted, hyphenated repeat (the two boxed areas) followed by a stretch of AT base pairs (top figure). The inverted repeat, when transcribed into RNA, can generate the secondary structure in the RNA transcript shown at the bottom of the figure. Formation of this RNA hairpin causes RNA polymerase to pause and subsequently the p termination factor interacts with the paused polymerase and somehow induces chain termination. Figure 37-6. The predominant bacterial transcription termination signal contains an inverted, hyphenated repeat (the two boxed areas) followed by a stretch of AT base pairs (top figure). The inverted repeat, when transcribed into RNA, can generate the secondary structure in the RNA transcript shown at the bottom of the figure. Formation of this RNA hairpin causes RNA polymerase to pause and subsequently the p termination factor interacts with the paused polymerase and somehow induces chain termination.

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