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Cytoskeleton,

One of the characteristic features of mononuclear cell activation is the deformation of their cytoskeleton. While Phaire-Washington et al. (1980) determined the spreading of peritoneal macrophages stimulated by phorbol myristate acetate by draw- [Pg.241]

51 box where the animals stayed for 15 min. Ih later under methitural anaesthesia, the lung was fi d by intratracheal instillation of 2.5 % glutaraldehyde in phosphate buffer (pH 7.4) before opening the thorax. Postfixation with 1 % osmium tetroxide in phosphate buffer (pH 7.4). Contrasted en bloc for 12 h with 0.5% uranyl acetate in 70% ethanol. Embedded in a 2 8 mixture of methyl and butyl methacrylate. Sectioned at 50 run. Lead citrate after Reynolds (1963). Plate 20/02. (from Schiller 1971) [Pg.242]

The microtubules, microfilaments, and intermediate filaments of the cytoskeleton influence the shape of free cells such as macrophages, but also [Pg.242]

Oxidant injury produces dramatic changes in cy-toskeletal organisation and cell shape as shown in the P388Di cell line by Hinshaw et al. (1988). [Pg.243]


The modem era of biochemistry and molecular biology has been shaped not least by the isolation and characterization of individual molecules. Recently, however, more and more polyfunctional macromolecular complexes are being discovered, including nonrandomly codistributed membrane-bound proteins [41], These are made up of several individual proteins, which can assemble spontaneously, possibly in the presence of a lipid membrane or an element of the cytoskeleton [42] which are themselves supramolecular complexes. Some of these complexes, e.g. snail haemocyanin [4o], are merely assembled from a very large number of identical subunits vimses are much larger and more elaborate and we are still some way from understanding the processes controlling the assembly of the wonderfully intricate and beautiful stmctures responsible for the iridescent colours of butterflies and moths [44]. [Pg.2822]

Fig. 1. The GP Ib-IX-V complex. The complex consists of seven transmembrane polypeptides denoted GP Iba (mol wt 145,000), GP IbP (mol wt 24,000), GPIX (mol wt 17,000) and GP V (mol wt 82,000), in a stoichiometry of 2 2 2 1. The hatched region represents the plasma membrane. The area above the hatched region represents the extracellular space that below represents the cytoplasm. The complex is a major attachment site between the plasma membrane and the cytoskeleton. Two molecules associated with the cytoplasmic domain are depicted a 14-3-3 dimer, which may mediate intracellular signaling, and actin-binding protein, which connects the complex to the cortical cytoskeleton and fixes its position and influences its function. Fig. 1. The GP Ib-IX-V complex. The complex consists of seven transmembrane polypeptides denoted GP Iba (mol wt 145,000), GP IbP (mol wt 24,000), GPIX (mol wt 17,000) and GP V (mol wt 82,000), in a stoichiometry of 2 2 2 1. The hatched region represents the plasma membrane. The area above the hatched region represents the extracellular space that below represents the cytoplasm. The complex is a major attachment site between the plasma membrane and the cytoskeleton. Two molecules associated with the cytoplasmic domain are depicted a 14-3-3 dimer, which may mediate intracellular signaling, and actin-binding protein, which connects the complex to the cortical cytoskeleton and fixes its position and influences its function.
J. W. Shay, ed.. Cell and Molecular Biology of the Cytoskeleton, Plenum Press, New York, 1986. [Pg.59]

Microfilaments and Microtubules. There are two important classes of fibers found in the cytoplasm of many plant and animal ceUs that are characterized by nematic-like organization. These are the microfilaments and microtubules which play a central role in the determination of ceU shape, either as the dynamic element in the contractile mechanism or as the basic cytoskeleton. Microfilaments are proteinaceous bundles having diameters of 6—10 nm that are chemically similar to actin and myosin muscle ceUs. Microtubules also are formed from globular elements, but consist of hoUow tubes that are about 30 nm in diameter, uniform, and highly rigid. Both of these assemblages are found beneath the ceU membrane in a linear organization that is similar to the nematic Hquid crystal stmcture. [Pg.202]

In this lecture we will be concerned by exocytosis of neurotransmitters by chromaffin cells. These cells, located above kidneys, produce the adrenaline burst which induces fast body reactions they are used in neurosciences as standard models for the study of exocytosis by catecholaminergic neurons. Prior to exocytosis, adrenaline is contained at highly concentrated solutions into a polyelectrolyte gel matrix packed into small vesicles present in the cell cytoplasm and brought by the cytoskeleton near the cell outer membrane. Stimulation of the cell by divalent ions induces the fusion of the vesicles membrane with that of the cell and hence the release of the intravesicular content into the outer-cytoplasmic region. [Pg.10]

Golgi apparatus, endoplasmic reticulum, ribosomes, lysosomes, peroxisomes, and cytoskeleton... [Pg.29]

Just how fast can proteins move in a biological membrane Many membrane proteins can move laterally across a membrane at a rate of a few microns per minute. On the other hand, some integral membrane proteins are much more restricted in their lateral movement, with diffusion rates of about 10 nm/sec or even slower. These latter proteins are often found to be anchored to the cytoskeleton (Chapter 17), a complex latticelike structure that maintains the cell s shape and assists in the controlled movement of various substances through the ceil. [Pg.265]

C. botulinum C3-toxin and related toxins Rho proteins ADP-ribosylation Inhibition of RhoA, B,C Destruction of the cytoskeleton... [Pg.246]

Barbieri JT, Riese MJ, Aktories K (2002) Bacterial toxins that modify the actin cytoskeleton. Annu Rev Cell Dev Biol 18 315-344... [Pg.248]

Catenins are defined as cytoplasmic interaction partners of cadherins that form a chain of proteins ( catena, latin for chain), which connects cadherins to the actin cytoskeleton. [Pg.306]

The cytoplasmic domains of protocadherins are unrelated to those of classical cadherins. They do not bind catenins and it is not clear whether they are associated with the cytoskeleton [1]. Some protocadherins interact with the c- src-related kinase Fyn, indicating a role in signal transduction (see below). [Pg.307]

The calpain system has a number of different roles in cells, including remodeling of cytoskeleton attachments... [Pg.312]

Interactions with the cytoskeleton seem to be responsible for the processing and the targeting of the Na+/fC+-ATPase to the appropriate compartment structures. Protein kinases are considered to play an essential role in modulation of the sodium pump. [Pg.327]

Cytoskeleton. Figure 1 Cytoskeleton - see text for further explanation. [Pg.414]


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Actin cytoskeleton

Actin cytoskeleton dynamics

Actin cytoskeleton dynamics myosin

Actin cytoskeleton dynamics response

Anchoring to the cytoskeleton via PSD

Ascaris cytoskeleton

Axons cytoskeleton

Brain cytoskeleton

Cell locomotion cytoskeleton, role

Cell membranes interaction with cytoskeleton

Cross-linking cytoskeleton

Cytokinesis Cytoskeleton

Cytoskeleton actin microfilaments

Cytoskeleton ankyrin

Cytoskeleton assembly

Cytoskeleton assembly, role

Cytoskeleton cellular

Cytoskeleton codes

Cytoskeleton damage

Cytoskeleton disturbances

Cytoskeleton dynamics

Cytoskeleton eukaryotic cells

Cytoskeleton fluorescent probes

Cytoskeleton functions

Cytoskeleton immunofluorescence microscopy

Cytoskeleton intermediate filaments

Cytoskeleton microfilaments

Cytoskeleton microtubules

Cytoskeleton molecular components

Cytoskeleton protein phosphorylation

Cytoskeleton response

Cytoskeleton spectrin

Cytoskeleton structure

Cytoskeleton submembrane

Cytoskeleton ultrastructure

Cytoskeleton, changes

Cytoskeleton, definition

Cytoskeleton, microtubule activity

Cytoskeleton- specific immunoliposomes

Cytoskeleton/cytoskeletal proteins

Dictyostelium discoideum cytoskeleton

Differentiation signal cytoskeleton

Domain families cytoskeleton

Erythrocytes cytoskeleton

Eukaryotes cytoskeleton

Fluorescence microscopy cytoskeleton dynamics

Impedance actin cytoskeleton

In cytoskeleton

Isolation of the erythrocyte membrane cytoskeleton

Membrane cytoskeleton

Microfilament cytoskeleton

Microfilaments microfilament-based cytoskeleton

Microtubules Microtubule-based cytoskeleton

Nematode Sperm is Coupled to Assembly and Disassembly of the Cytoskeleton

Neurons cytoskeleton

Phosphorylation cytoskeleton

Plant cytoskeleton

Proteins cytoskeleton

Quantification of erythrocyte membranes and cytoskeletons. The Lowry protein assay

Rhodamine cytoskeleton

Role in Actin Cytoskeleton Rearrangements

Subcellular cytoskeleton

The cytoskeleton

Tight junction actin cytoskeleton association

Tight junction actin cytoskeleton interactions

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