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New Technologies for Studying Biofilms

Franklin, Michael J., Chang, Connie, Akiyama, Tatsuya, Bothner, Brian·2015·Microbial Biofilms
DOI 10.1128/9781555817466.ch1
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Abstract

The results of recent biofilm characterizations have helped reveal the complexities of these surface-associated communities of microorganisms. The activities of the cells and the structure of the extracellular matrix material demonstrate that biofilm bacteria engage in a variety of physiological behaviors that are distinct from planktonic cells (1–3). For example, bacteria in biofilms are adapted to growth on surfaces, and most produce adhesins and extracellular polymers that allow the cells to firmly adhere to the surfaces or to neighboring cells (4–6). The extracellular material of biofilms contains polysaccharides, proteins, and DNA that form a glue-like substance for adhesion to the surface and for the three-dimensional (3D) biofilm architecture (4). The matrix material, although produced by the individual cells, forms structures that provide benefits for the entire community, including protection of the cells from various environmental stresses (7–9). Biofilm cells form a community and engage in intercellular signaling activities (10–19). Diffusible signaling molecules and metabolites provide cues for expression of genes that may benefit the entire community, such as genes for production of extracellular enzymes that allow the biofilm bacteria to utilize complex nutrient sources (18,20–22). Biofilm cells are not static. Many microorganisms have adapted to surface-associated motility, such as twitching and swarming motility (23–28). Cellular activities, including matrix p…

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Metadata

Authors
Franklin, M. J., Chang, C., Akiyama, T., & Bothner, B.
Affiliations
Center for Biofilm Engineering, Montana State University-Bozeman; Bozeman MT 59717
Venue
Microbial Biofilms
Publisher
ASM Press
Published
2015-09-10
Pages
1-32
DOI
10.1128/9781555817466.ch1
Cited by
11
References
6
Language
en

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