Ciliary Function in Mammalian Development
, by Yoder- ISBN: 9780123744531 | 0123744539
- Cover: Hardcover
- Copyright: 12/11/2008
Contributors | p. xi |
Preface | p. xv |
Basal Bodies: Platforms for Building Cilia | p. 1 |
Introduction | p. 2 |
Basal Body Architecture and Assembly | p. 3 |
Basal Body Functions in Ciliogenesis | p. 7 |
Approaches to the Study of Basal Bodies | p. 14 |
Conclusions | p. 17 |
References | p. 17 |
Intraflagellar Transport (IFT): Role in Ciliary Assembly, Resorption and Signalling | p. 23 |
Introduction | p. 24 |
Early Events in Ciliogenesis | p. 28 |
General Description of Intraflagellar Transport | p. 29 |
Discovery and Evolution of IFT | p. 30 |
The Canonical Anterograde IFT Motor | p. 32 |
Additional Kinesin Motors Involved in Ciliogenesis | p. 35 |
The Retrograde IFT Motor | p. 37 |
IFT Particle Polypeptides | p. 38 |
Functional Analysis of IFT Particle Polypeptides: Distinct Roles of IFT Complexes A and B | p. 39 |
Regulation of IFT | p. 41 |
Targeting of Proteins to the Ciliary Compartment: Clues from Ciliary Disease Genes | p. 43 |
IFT and Cilia-Mediated Signaling | p. 47 |
Conclusions and Perspectives | p. 49 |
Acknowledgments | p. 50 |
References | p. 50 |
How Did the Cilium Evolve? | p. 63 |
Introduction | p. 64 |
The Link Between Ciliary Evolution and Eukaryotic Divergence | p. 66 |
Hypotheses of the Origin of Cilia | p. 67 |
The Viral Hypothesis of Ciliary Origin | p. 68 |
The Autogenous Model for the Origin of Cilia | p. 71 |
Origin of Intraflagellar Transport and the Sensory Function of Cilia | p. 76 |
The Evolution of Ciliary Motility | p. 78 |
Acknowledgments | p. 79 |
References | p. 79 |
Ciliary Tubulin and Its and Post-Translational Modifications | p. 83 |
Introduction | p. 83 |
Production and Turnover of Ciliary Tubulin | p. 84 |
Post-Translational Modifications of Tubulin | p. 89 |
Conclusions | p. 103 |
Acknowledgments | p. 103 |
References | p. 104 |
Targeting Proteins to the Ciliary Membrane | p. 115 |
Introduction | p. 116 |
Structure of the Ciliary Membrane | p. 118 |
Functions of the Ciliary Membrane | p. 121 |
Protein Machinery Involved in Trafficking to the Ciliary Membrane | p. 127 |
Ciliary Targeting Sequences | p. 134 |
References | p. 139 |
Cilia: Multifunctional Organelles at the Center of Vertebrate Left-Right Asymmetry | p. 151 |
Introduction | p. 152 |
Vertebrate LR Asymmetry is Chiral Asymmetry | p. 154 |
The Structure and Distribution of Cilia in the Vertebrate Embryo | p. 155 |
Motile Primary Cilia in LR Development | p. 156 |
Mouse and Human Mutations Affecting Cilia Have a Wide-Ranging Effect on Left-Right and Cardiac Development | p. 158 |
A Structure with Prominent Primary Cilia is Essential to the Development of LR Asymmetry in Most Vertebrates | p. 160 |
Cilia at the LR Organizer Generate Directional Fluid Flow | p. 162 |
A Conserved Asymmetric Calcium Signal Is Found at the LR Organizer | p. 164 |
Do Cilia Lie at the Root of All Vertebrate LR Asymmetry, and What Leads from Asymmetric Calcium to Asymmetric Organogenesis? | p. 168 |
References | p. 169 |
Ciliary Function and Wnt Signal Modulation | p. 175 |
Introduction | p. 176 |
Overview of Wnt Signaling | p. 176 |
Emerging Roles of the Primary Cilium and Basal Body in Wnt Signaling Modulation | p. 179 |
Wnt and Ciliogenesis | p. 184 |
Wnt Dysfunction and Ciliopathy Phenotypes | p. 185 |
What Drives the Phenotype: Gain of Canonical Wnt Signaling or Loss of Noncanonical Wnt Signaling? | p. 185 |
Other Phenotypes | p. 187 |
Discussion | p. 189 |
Acknowledgments | p. 190 |
References | p. 191 |
Primary Cilia in Planar Cell Polarity Regulation of the Inner Ear | p. 197 |
Introduction | p. 198 |
Planar Cell Polarity and Ciliogenesis of the Inner Ear Sensory Organs | p. 200 |
Planar Cell Polarity Regulation for the Development of the Inner Ear | p. 206 |
Cilia and PCP Regulation | p. 209 |
Cilia and Determination of the Intrinsic Cellular Polarity of Inner Ear Cells | p. 214 |
Conclusions and Perspectives | p. 217 |
References | p. 219 |
The Primary Cilium: At the Crossroads of Mammalian Hedgehog Signaling | p. 225 |
Hh Signals Pattern Diverse Developing Tissues | p. 226 |
Hh Signal Transduction: Activating an Activator and Repressing a Repressor | p. 229 |
Functions of Gli Proteins in Development | p. 233 |
Defective Intraflagellar Transport Disrupts Mammalian Hh Signaling | p. 236 |
The Primary Cilium as a Cellular Signaling Center | p. 239 |
Mammalian Smo Activates the Hh Pathway at the Primary Cilium | p. 241 |
Proper Ciliary Function is Required for Processing of Gli Proteins | p. 242 |
Additional Ciliary Components Function in Hh Signal Transduction | p. 243 |
Are Cilia Involved in Hh Pathway-Mediated Tumorigenesis? | p. 246 |
Lingering Questions | p. 248 |
Acknowledgments | p. 249 |
References | p. 249 |
The Primary Cilium Coordinates Signaling Pathways in Cell Cycle Control and Migration During Development and Tissue Repair | p. 261 |
Introduction | p. 262 |
Cell Cycle Entry Regulated by PDGFR[alpha alpha] Signaling in the Primary Cilium | p. 267 |
Directional Cell Migration is Regulated by PDGFR[alpha] in the Primary Cilium | p. 272 |
The Extracellular Matrix and the Primary Cilium | p. 280 |
Polarization, Cell Migration, Cell Cycle Control and Wnt Signaling in the Primary Cilium | p. 282 |
Conclusions and Perspectives | p. 286 |
Acknowledgments | p. 288 |
References | p. 288 |
Cilia Involvement in Patterning and Maintenance of the Skeleton | p. 303 |
Introduction | p. 304 |
Cilia are Required for Anterior-Posterior Limb Patterning | p. 305 |
A Role for IFT/Primary Cilia in Endochondral Bone Formation and Development of the Postnatal Growth Plate | p. 312 |
Primary Cilia in Articular Cartilage | p. 318 |
A Role for Primary Cilia in the Development of the Bone Collar | p. 319 |
Primary Cilia in the Maintenance of Bone | p. 321 |
Primary Cilia in Craniofacial Development | p. 323 |
Primary Cilia in Tooth Development | p. 325 |
Summary | p. 326 |
Acknowledgments | p. 327 |
References | p. 327 |
Olfactory Cilia: Our Direct Neuronal Connection to the External World | p. 333 |
Olfaction as a Sensory Modality | p. 334 |
Anatomy and Organization of the Olfactory Epithelium | p. 335 |
Structure of Olfactory Cilia | p. 338 |
Formation of Olfactory Cilia | p. 344 |
Intraflagellar Transport | p. 347 |
Ciliary Proteome | p. 349 |
Olfactory Cilia and Disease | p. 355 |
Summary | p. 358 |
References | p. 359 |
Ciliary Dysfunction in Developmental Abnormalities and Diseases | p. 371 |
Introduction | p. 372 |
The Oak Ridge Polycystic Kidney (Orpk) Mouse: A Model For Human Ciliopathies | p. 374 |
Functions and Phenotypes Associated with Abnormal Motile Cilia | p. 376 |
Functions and Diseases Associated with Immotile Cilium | p. 383 |
Oligogenic Inheritance and Clinical Variability in the Ciliopathies | p. 409 |
Cilia Proteome and Genome Databases and the Identification of Human Ciliopathy Genes | p. 410 |
Acknowledgments | p. 412 |
References | p. 413 |
Index | p. 429 |
Contents of Previous Volumes | p. 437 |
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