PSV - Zoologie und Tierwissenschaften
PST - Botanik und Pflanzenwissenschaften
Inhaltsverzeichnis
1. Components of Cytoskeleton.- 1 Systems of Actin Filaments.- I. Introduction: The Main Types of Actin Structures.- A. Components of Actin Structures.- B. The Main Types of Structures Formed by Actin Filaments.- C. Association of Actin Structures with Plasma Membrane.- D. Basic Processes Essential for Formation and Function of Actin Structures.- II. Structure of Globular and Filamentous Actins.- A. Amino Acid Sequences of Actins.- B. Form of Actin Molecules.- C. Structure of Actin Filament.- III. Polymerization of Actin.- A. Conditions and Manifestations of Polymerization.- B. Two Stages of Actin Polymerization: Nucleation and Elongation.- C. Elongation: The Role of ATP.- D. Elongation: Differences of Two Filament Ends.- IV. Agents Regulating Actin Polymerization.- A. Proteins Sequestering Actin Monomers.- B. Proteins Binding the Ends of Filaments (Capping Proteins).- C. Proteins Binding along the Filament (Side-Binding Proteins).- D. Cytochalasins.- E. Phalloidin.- V. Proteins Cross-Linking Actin Filaments.- A. Cross-Linking of Filaments in Vitro.- B. The Main Groups of Cross-Linking Proteins.- C. Function of Cross-Linking Proteins in the Cell.- VI. Proteins Attaching Actin Filament to the Membrane.- VII. Myosins.- A. Nonpolymerized Myosin.- B. Polymorphism of Myosins.- C. Polymerization.- D. Phosphorylation of Myosin and Regulation of Polymerization.- E. Formation of Myosin Filaments in the Cell.- VIII. Organization of Actin-Myosin Motile Systems.- A. Molecular Interactions of Myosin with Actin and ATP.- B. Motility of Various Model Systems Containing Actin and Myosin.- IX. Regulation of Contractility in Actin-Myosin Systems.- A. Regulation of the State of Myosin.- B. Modulation of the State of Actin-Attached Tropomyosin-Troponin Complex.- C. Solation and Gelation of Actin Gels.- D. Calcium Regulation of Contraction in Different Cells.- X. Conclusion: Dynamics of Actin Systems.- Literature Cited.- Additional Readings.- 2 Systems of Microtubules.- I. Introduction: Microtubular Structures in the Cell.- A. Components of Microtubular Structures.- B. Morphology of Microtubular Structures.- C. Basic Processes Essential for the Formation and Function of Microtubular Systems.- II. Tubulin.- A. Amino Acid Sequences.- B. Properties of Tubulin Dimers.- III. Structure of the Microtubule.- A. Protofilament.- B. Variants of Microtubules.- C. Polarity of Microtubules.- IV. Polymerization and Depolymerization of Tubulin.- A. Conditions of Polymerization.- B. Nucleation of Microtubules.- C. Elongation.- V. Microtubule-Associated Proteins.- A. The Main Types of MAPS.- B. Effects of MAPs on Polymerization and Depolymerization of Tubulin in Vitro.- C. Regulation of the State of MAPs.- D. Functions of MAPs in the Cell.- VI. Effects of Specific Drugs on Polymerization of Tubulin.- VII. Function and Formation of Microtubule-Organizing Centers.- A. The Main Types of MTOCs.- B. Nucleation and Stabilization of Microtubules by MTOCs in Vitro.- C. Determination of the Structure of Microtubular Arrays by MTOCs.- D. Formation of MTOCs.- VIII. Motility of Microtubular Systems.- A. Dyneins.- B. Dynein Interactions with Microtubules.- C. Organization and Regulation of the Movements of Cilia and Flagella.- IX. Conclusion: Dynamics of Microtubular Systems.- Literature Cited.- Additional Readings.- 3 Systems of Intermediate Filaments.- I. General Morphology of Structures Formed by Intermediate Filaments.- II. Proteins of Intermediate Filaments.- A. Isolation.- B. Five Classes of IF-Proteins.- C. Common and Specific Features of Different IF-Proteins.- III. Formation and Structure of Intermediate Filaments.- A. Polymerization of Filaments.- B. The Structure of 10-nm Filaments.- C. Intermediate Filament-Associated Proteins (IFAPs).- IV. Dynamics of Intermediate Filaments in the Cells.- A. Rearrangements of Filaments.- B. Alterations of Protein Composition of Filaments.- Literature Cited.- Additional Readings.- 4 Unconventional Fibrillar Structures in the Cytoplasm.- I. Thin Nonactin Filaments.- A. The Spasmoneme of the Vorticellid Ciliates.- B. Striated Rootlets of Cilia and Flagella.- C. Nematode Sperm Movements.- D. 2-nm Filaments in Muscle Sarcomere.- E. Connecting Filaments.- F. Conclusion.- II. The Problem of Microtrabecular Lattice.- Literature Cited.- Additional Readings.- II. General Organization and Function of Cytoskeleton.- 5 Cytoskeleton and Internal Organization of the Cell.- I. Introduction.- II. Integrated Structure of Cytoskeleton.- A. General Organization of Cytoskeleton in Various Types of Cells.- B. Interdependence of Various Cytoskeletal Systems.- C. The Links between Various Types of Fibrils.- III. Cytoskeleton and Distribution of Cellular Organelles.- IV. Cytoskeleton and Intracellular Movement of Organelles.- A. Various Forms of Intracellular Motility.- B. Rotational Movements of Organelles and Cytoplasm.- C. Radial Movements of Organelles.- V. Cytoskeleton Control of Distribution and Movement of Components of Plasma Membrane.- A. Immobilization of Membrane Components by Cortical Cytoskeleton.- B. Effects of External Ligands on the Membrane- Cytoskeleton Anchorage.- C. Directional Movements of Membrane Components.- D. Endocytosis.- E. Cytoskeletal Arrays as Sensors of Mechanical Stimuli.- VI. Cytoskeleton and Nucleus.- VII. Conclusion: Self-Integration of Cytoskeleton and of the Cellular Organization.- Literature Cited.- Additional Readings.- 6 Regulation of Synthesis of Cytoskeletal Proteins.- I. Introduction.- II. Flagellar Regeneration in Chlamydomonas: Induction of Synthesis of Cytoskeletal Protein.- III. Differentiation of NaegJeria: Alternative Expression of Actin and Tubulin Genes.- IV. Differential Expressions of Genes in Multigene Families Coding Tubulins, Actins, and Myosins.- V. Regulation of the Synthesis of Intermediate Filament Proteins in Cell Cultures: The Role of Cell Shape and Cell-Cell Interactions.- VI. Unpolymerized Tubulin Modulates the Level of Tubulin Synthesis: Specific Feedback Control of the Synthesis.- VII. Incorporation of Synthesized Proteins into Cytoskeletal Structures.- VIII. Conclusion.- Literature Cited.- Additional Readings.- 7 Reorganization of Cytoskeleton: Morphogenesis and Locomotion of Pseudopod-Forming Cells.- I. Introduction: The Main Features of Pseudopodial Reactions.- II. Morphological Reorganization Based on Pseudopodial Reactions.- A. Spreading and Locomotion of Fibroblasts.- B. Spreading of Epitheliocytes and Formation of Epithelial Sheets.- C. Neurons: The Growth of Neurites.- D. Movement of Polynuclear Leukocytes and of Amebae.- E. Spreading of Platelets.- F. Alterations of Cytoskeleton during Various Morphological Reorganizations.- III. Reorganization of Actin Cytoskeleton during Pseudopodial Reactions.- A. Mechanisms of the Extensions of Pseudopods.- B. Retraction of Pseudopods.- C. Attachment of Pseudopods.- D. Reorganization of Actin Structures Anchored to the Contacts.- IV. Factors Controlling the Distribution of Pseudopods: Reorganization of Microtubules.- V. Common and Special Features of Cytoskeletal Reorganization in Various Classes of Pseudopod-Forming Cells.- VI. Integration of Morphogenetic Reactions of Many Cells.- VII. Conclusion.- Literature Cited.- Additional Readings.- 8 Reorganization of Cytoskeleton: Cell Division.- I. Introduction.- II. Formation of the Spindle.- III. Reorganization of the Spindle Leading to Chromatid Separation.- A. Dynamic Equilibrium of the Metaphase Spindle.- B. Poleward Movement of Kinetochores.- C. Elongation of the Spindle.- IV. Cytokinesis.- V. Induction and Coordination of Mitotic Events.- Literature Cited.- Additional Readings.- 9 Neoplastic Transformations: Possible Unexplored Functions of Cytoskeleton.- I. Introduction.- II. Deficient Morphogenetic Reactions of Transformed Fibroblasts.- A. General Characteristics of Transformations.- B. Morphological Alterations of Transformed Cells.- C. Mechanisms of Abnormal Regulation of the Cytoskeletal Organization in Transformed Cells.- III. Possible Role of Cytoskeleton in the Regulation of Proliferation.- A. Abnormal Regulation of Proliferation in Transformed Cells.- B. Is Reorganization of Cytoskeleton Essential for Growth Activation by Oncoproteins?.- C. Dependence of Proliferation of Normal Cells on Their Shape.- IV. Conclusion: Possible Role of Cytoskeleton in the Reprogramming of Cellular Syntheses.- Literature Cited.- Additional Readings.
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