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Cellular layers table

All of these structures have an epithelial lining that lies at the interface as well as extracellular matrix including basement membranes and loose connective tissue that supports the cellular layers (Table 3.2). These tissues are similar in their general structure they all have an inner cellular layer, supportive connective tissue, and an outer cellular layer. It is important to be familiar with the structure of these tissues to be able to analyze how external and internal mechanical forces are transduced at both the macroscopic and microscopic level into and out of cells. The effect of mechanical loading on these tissues is complex, but as discussed above, with increased frictional forces on the epidermis, the surface layer of skin actually increases the thickness of the epidermis. [Pg.82]

The composition of the extracellular compartment is kept constant by the cooperation of the cellular transport systems with various transport systems which are located in epithelial layers connecting the organism with its environment (Table 1). Examples are the epithelia of the intestine, the kidney and of various glands. It is their function to establish a relatively constant concentration of the respective solutes... [Pg.3]

As already pointed out, staphylococci and streptococci are generally more sensitive to biocides than Gram-negative bacteria examples are provided in Table 18.4. On the other hand, mycobacteria and especially bacterial spores are much more resistant. A major reason for this variation in response is associated with the chemical composition and structure of the outer cell layers such that there is restricted uptake of a biocide. In consequence of this cellular impermeability, a reduced concentration of the antimicrobial compound is available at the target site(s) so that the cell may escape severe injury. Another, less frequently observed, mechanism is the presence of constitutive, biocidedegrading enzymes. [Pg.313]

Four principal patterns of convection were distinguished when pure liquids were employed cells, streamers, ribs, and vermiculated rolls. These names were chosen in an attempt to describe the actual appearance of the convection patterns and in accordance with historical designations. Examples are shown in Fig. 21. The patterns depicted there were exhibited in all of the liquids under various conditions. In particular, cells appeared to be the dominant patterns in all liquids for depths of 2 mm or less, and the cell size for the various liquids at the 1-mm and 2-mm depths is shown in Table VI. For a thin (< 2 mm) layer of given liquid evaporating into still air, the cell size increased with the depth of the liquid layer, and the flow which the cellular schlieren pattern represented was the same as that observed by Benard (see Fig. 3). These cells were quite immobile and generally neither grew nor decayed in size with time. A direct stream of dry nitrogen onto the surface of the liquid sharpened the cell peripheries and tended to reduce the cell size. [Pg.111]

In term placenta, there are two ceil layers (syncytium and endothelium) with basal laminae and connective tis.sue in between (Jinga et ai, 2000), Information on the detailed cellular structure of the placenta is still emerging (Ockleford et al., 2004), Histologically, several cell types with their specialized functions can be recognized in the placental tissue (Table 1), Whereas some factors, such as endothelin,... [Pg.464]

The important material properties which can influence protein and cell interactions at the biomaterial-biologic interface are listed in Table 2. It is probable that surface composition and topography most strongly influence the composition and organization of the initial adsorbed protein layer It is this layer which mediates subsequent cellular events at that interface. Thus, a great deal of effort has gone into surface modifications and characterization of polymeric biomaterials. [Pg.143]

The commercial coatings are tabulated in Table 1 with a description of the coating and the employed cooling mechanism. Most of the commercial fire retardant coatings selected for this work function by intumescence, in which the coating swells and forms a cellular protective layer upon application of heat. Commercial coatings were applied to the steel coupon substrate with a brush and permitted to cure according to the manufacturer s instructions. [Pg.2351]


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Cellular layers

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