Abstract
The forces involved in adhesion of cells to other surfaces may include any of the interactions possible in aqueous physical systems (see Chapter 6). Thus, a wide variety of surface properties and measurements may have some relevance to adhesion problems. The classical work on colloid stability, known as the DLVO theory, considered the balance between the London-van der Waals attractive forces and the electrostatic repulsive interaction between the two interacting surfaces [see Section 3.1, and Rutter and Vincent (1980) for a short introduction and references]. Thus, appreciation of the electrostatic charge on surfaces and of the London-type, or dispersion, interactions characteristic of the surfaces involved are required. In addition, the polarity of biological material means that polar interactions must also be taken into account. The measurement of surface charge in aqueous systems, and of estimation of the London and polar components of the surface energies of solid surfaces, have consequently been closely associated with research into bioadhesion. By measuring and assigning experimental values to these various parameters, it becomes possible to examine experimentally the theoretical basis of adhesion processes and to test the validity of such theories.
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Loeb, G.I. (1985). The Properties of Nonbiological Surfaces and Their Characterization. In: Savage, D.C., Fletcher, M. (eds) Bacterial Adhesion. Springer, Boston, MA. https://doi.org/10.1007/978-1-4615-6514-7_5
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DOI: https://doi.org/10.1007/978-1-4615-6514-7_5
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