Results 81 to 90 of about 227,094 (98)
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1984
Publisher Summary This chapter summarizes the results obtained in capping/cytoskeleton research. There are two types of capping phenomena: ligand-dependent and ligand-independent processes. A number of different reagents, such as colchicine and hypertonic media, can cause the formation of cap structures in the absence of any externally added ligand ...
Lilly Y.W. Bourguignon +1 more
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Publisher Summary This chapter summarizes the results obtained in capping/cytoskeleton research. There are two types of capping phenomena: ligand-dependent and ligand-independent processes. A number of different reagents, such as colchicine and hypertonic media, can cause the formation of cap structures in the absence of any externally added ligand ...
Lilly Y.W. Bourguignon +1 more
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Neurotoxicants and the cytoskeleton
Current Opinion in Neurology, 1999Exposure to occupational and environmental toxicants can result in distal axonopathies through reaction with various components of the axonal cytoskeleton. The solvents n-hexane and methyl n-butyl ketone are metabolized to the beta-diketone, 2,5-hexanedione, which covalently cross-links neurofilaments, resulting in large paranodal axonal swellings ...
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Plasmodesmata and plant cytoskeleton
Trends in Plant Science, 2001Plant cell-to-cell communication is achieved by membranous conduits called plasmodesmata, which bridge the cytoplasm of neighboring cells. A growing body of immunolocalization data shows an association of the cytoskeleton machinery with plasmodesmata.
Aaziz, R., Dinant, Sylvie, Epel, B.L.
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Reorganization of Cytoskeleton
1988Cell division is a multistage reorganization of morphology in which alterations of cytoskeleton play the central role. Division, like reorganization of interphase cells, described in Chapter 7, is based on alteration of the assembly and distribution of cytoskeletal structures.
Alexander D. Bershadsky, J M Vasiliev
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1998
Publisher Summary This chapter discusses the osteoclast cytoskeleton. Eukaryotic cells contain three major classes of cytoskeletal fibers: 7 nm diameter actin microfilaments, 24 nm diamenter microtubules (MTs), and 10 nm diameter intermediate filaments. All of these fibers are formed by finely regulated polymerization of protein subunits.
ZAMBONIN ZALLONE A +2 more
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Publisher Summary This chapter discusses the osteoclast cytoskeleton. Eukaryotic cells contain three major classes of cytoskeletal fibers: 7 nm diameter actin microfilaments, 24 nm diamenter microtubules (MTs), and 10 nm diameter intermediate filaments. All of these fibers are formed by finely regulated polymerization of protein subunits.
ZAMBONIN ZALLONE A +2 more
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Fibronectin and the Cytoskeleton [PDF]
, 1990 The involvement of FN in adhesion and cytoskeletal organization (Chapters 8 and 9) suggested that FN might also affect cell migration, which involves both cell—substratum adhesion and the cytoskeleton. A direct test of this hypothesis showed it to be true; purified FN promoted the migration of a variety of cultured cell lines (Fig. 10-1, Ali and Hynes,
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