Building brains an introduction to neural development
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Wiley-Blackwell
2011
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| 245 | 1 | 0 | |a Building brains |b an introduction to neural development |c David Price ... |
| 264 | 1 | |a Oxford [u.a.] |b Wiley-Blackwell |c 2011 | |
| 300 | |a XV, 331 S. | ||
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Datensatz im Suchindex
| _version_ | 1804145681577803776 |
|---|---|
| adam_text | Titel: Building brains
Autor: Price, David J.
Jahr: 2011
Preface xi Chick 27
Conventions and Commonly iised Abbreviations xiii Mouse 29
2.5 Secondary neurulation in
1 Models and Methods for Studying Neural vertebrates 36
Development 1 2.6 Formation ofinvertebrate and vertebrate
1.1 What is neural development? 1 peripheral nervous Systems 37
1.2 Why research neural development? 2 Invertebrates 37
The uncertaintyof current understanding 2 Vertebrates: the neural crest and the placodes 38
Implicationsforhumanhealth 2 Vertebrates: developmentofsenseorgans 40
Implicationsforfuture technologies 3 2.7 Summary 41
1.3 Maj or breakthroughs that have
contributed to understanding
developmentalmechanisms 4 3 Neural Induction: An Example of How
1.4 Invertebratemodelorganisms 4 Intercellular Signalling Determines
Ry 4 CellFates 43
vYorm 5 3.1 What is neural induction? 43
Other invertebrates 9 3.2 Specification and commitment 44
1.5 Vertebrate model organisms 9 3.3 The discoveryof neural induction 44
Frog 9 3.4 A more recent breakthrough:
Chick 10 identifying molecules that mediate
Zebrafish 10 neural induction 46
Mouse 12 35 Conservation of neural induction
Humans 16 mechanisms in Drosophüa 49
Other vertebrates 16 36 ßeyond the default model - other
1.6 Observation and expenment: methods for signalling pathways involved in neural
studying neural development 17 induction 49
1.7 Summary 18 37 Signal transduction: how cells respond to
intercellular Signals 54
2 The Anatomy of Developing Nervous 3g Intercellular signalling regulates gene
Systems 19 expression 55
2.1 The nervous system develops from the Generd mechanisms oftranscriptionai
embryomc neuroectoderm 19 regulation 55
2.2 Anatomical terms used to describe Transcription factors involved in neural
locations in embryos 20 induction 59
2.3 Development of the neuroectoderm of What genes do transcription factors
invertebrates 21 control? 60
C. elegans 21 Genejunction can also be controlled by other
Drosophüa 21 mechanisms 60
2.4 Development of the neuroectoderm of 3.9 The essence of development: a complex
vertebrates and the process of interplay of intercellular and intracellular
neurulation 24 signalling 62
Frog 25 3.10 Summary 63
VI • CONTENTS
Patterning the Neuroectoderm 65 5.4 The regulationof neuronal subtype
4.1 Regional patterning of the nervous identity 99
system 65 Neural precursors already have intrinsic
Patterns ofgene expression are set up by identity 99
morphogens 65 Different proneural genes - different programmes
Patterning occurs within a monolayer epithelium 66 ofneurogenesis 100
Patterning happens progressively 66 Combinatorial control by transcription factors
4.2 Patterning the anteroposterior (AP) axis of creates neuronal diversity WO
the Drosophüa CNS 68 5.5 The regulationof cell proliferation during
Creating domains oftranscription factor neurogenesis 102
expression 68 Signals that promote proliferation 102
Dividing the ectoderm into segmental units 70 Cell division patterns during neurogenesis 103
Assigning segmental identity - the Hox code 70 Asymmetrie cell division in Drosophüa
4.3 Patterning the AP axis of the vertebrate requiresNumb 103
CNS 71 Control ofasymmetric cell division in vertebrate
Hox genes are highly conserved 71 neurogenesis 106
Initial AP information is imparted by the ln vertebrates, division patterns are regulated to
mesoderm 73 generatevastnumbersofneurons 107
Mesoderm Signals set up domains of transcription 5.6 Temporal regulation of neural
factor expression 75 identity 109
The hindbrain is organized into segments called A neural cell s time ofbirth is importantfor neural
rhombomeres 76 identity 109
How rhombomeres are speeified 77 Time ofbirth can generate spatial patterns
4.4 Refining AP axis patterning within ofneurons 110
regions and segments 79 ^ow aoes bifth date influence a neuron sfate? 112
Rhombomere cell populations are kept separate by Intrinsic mechanism of temporal control
Eph-ephrin signalling 79 in Drosophüa neuroblasts 112
Boundaries organize local patterning in Drosophüa ßirth date- lamination and competence
segments 80 in the mammalian cortex 114
In the vertebrate brain, boundaries organize local 5.7 Why do we need to know about
patterning 82 neurogenesis? 117
4.5 Patterning the dorsoventral (DV) axis of 5.8 Summary 117
the nervous system 83
Patterns ofneurons in the DV oxis 6 Neuronal Migration 119
ofthe spinal cord 83 6.1 Many neurons migrate long distances
Embryonic origin ofthe DV axis 84 during formation ofthe nervous
DV neural patterning in Drosophüa 84 system 119
DVpatterntng in vertebrates 86 62 How can neuronal migration be
Morphogens set up DVprogenitor domains 89 observed? 119
4.6 Bringingitalltogether 89 Watching neurons move in Uvingembryos 119
4./ Summary 90 Observingmigrating neurons in eultured
tissues 121
Neurogenesis: Generating Neural Traädng cell migration by indirect methods 122
Cells 91 6.3 Major modesof migration 125
5.1 Generating neural cells 91 Some migrating neurons are guidedby
5.2 Neurogenesis in Drosophüa 92 a scaffold 125
Proneural genes promote neural commitment 92 Some neurons migrate in groups 126
Lateral Inhibition: Notch signalling inhibits Some neurons migrate individually 128
commitment 94 6.4 Initiation of migration 130
5.3 Neurogenesis in vertebrates 96 Initiation of neural crest cell migration 130
Proneural genes are conserved 96 Initiation of neuronal migration 131
In the vertebrate CNS, neurogenesis involves 6.5 How are migrating cells guided to their
radial glial cells 96 destinations? 132
Proneural factors and Notch signalling in the Diredional migration ofneurons in C. elegans 132
vertebrate CNS 98 Guidance of neural crest cell migration 133
CONTENTS • VII
Guidance of neural precursors in the developing 8 AxonGuidance 165
lateral lineofzebrafish 135 8.1 Many axons navigate long and complex
Guidanceby radial glialfibres 136 routes 165
6.6 Locomotion 137 82 The growth cone 165
6.7 Journey s end - termination of 83 How might axons be guided to their
migration 138 targets? 166
6.8 The mechanisms that govern migration 84 ßreaking the journey - intermediäre
ofimportantpopulationsofcortical targets 168
neurons remain unknown 141 85 Contact guidance 169
6.9 Summary 143 Contact guidance in action: pioneers and followers,
fasciculation and defasciculation 170
How Neurons Develop Their Shapes 145 Extracellular matrix provides a Substrate for
7.1 Neurons form two specialized types of navigathig axons 170
nllfrrr nwrh 145 ^^s and eP^nns: versatile cell surface molecüles
Axnm and dendrites 145 with roles in contact guidance 171
The cytoskeleton in mature axons and 8-6 Guidance of axons by drffusible
dendrites 147 cues - chemotropism 173
7 2 The erowing neurite 148 Netrin - a chemotropic cue expressed at the
A neunte extendsby growth atitstip 148 ventral midline 174
Mechanisms of growth cone dynamics 149
7.3 Stagesof neurite outgrowth 150 Semaphorins 174
ir ° ^ ., . ,4. ji- , Other axon guidance molecüles 177
Neurite outgrowth in culturedhippocampal TT ö , , . , ,
neurons 150 w axons change their behaviour at
Neurite outgrowth in vivo 151 choice points? 177
7 4 Neurite outgrowth is influenced by a Commissural axons lose their attraction
neuron s surroundings 151 tonetrinoncetheyhavecrossedthefioor
The importance of extracellular cues 151 Pae . ,_ .
^ * « i ¦ . i *!. * *. ™ • i.-uj* Putting it all together - guidance cues and
Extracellular Signals that promote or inhibit , . * * ö , . ,
., ir_ their receptors Choreograph commissural axon
neunte outgrowth 152 f +¦,¦*,¦
__ ., , , -+.1. ^-v. pathnnding at the ventral midline 180
7.5 Molecular responses in the growth *, J ? ., . . ,
*• *J (Xttov /-» / »cciMOr tV 0 minima mmmiccumt n
cone 153
After crossing the midline, commissural axons
project towards the brain 183
Key intracellular Signal transduction gg How can such a small number of
6V£TltS T.S3
_ ... , , + cues guide such a large number of
Small G proteins are cntical regulators ö ö
of neurite growth 154 ff° .J3 , , ,
Effector molecüles directly influence actin ^ same Suldance mes are dePIo^d in multiPle
filament dynamics 155 axonpathways 184
Regulation of other processes in the extending Interactions between guidance cues
neurite 156 and t^r recePtors can ^e altered by
7.6 Active transport along the axon is nn co-factors 185
important for outgrowth 157 89 Some axons form specific
7.7 The development of neuronal connections oyer very short
polarity 158 distances, hkely using different
Signalling during axon specification 158 mechanisms 185
Ensuring there isjust one axon 160 810 The growth cone has autonomy
Which neurite becomes the axon? 160 m its abihty to respond to guidance
7.8 Dendrites 161 cues 186
Kegularion ofdendrite branching 161 Growth cones can still navigate when severed
Dendrite branches undergo from lheir cell bodies 186
self-avoidance 162 Local translation in growth cones 186
Dendrites and other sensory structures based 8.11 Transcription factors regulate axon
onmodifiedcilia 163 guidance decisions 187
7.9 Summary 164 8.12 Summary 189
VIII • CONTENTS
Map Formation 191 10.4 Synaptogenesis 227
9.1 What are maps? 191 The Synapse 227
9.2 Typesofmaps 191 Stagesof synaptogenesis 227
Coarsemaps 192 Synaptic speäfication and induction 229
Finemaps 195 Synapse formation 233
9.3 Principles of map formation 196 Synapse selection: stabilization and
Axon order during development 196 withdrawal 234
Theories of map formation 197 10.5 Spinogenesis 235
9.4 Development ofcoarse maps: cortical Spine shape and dynamics 237
areas 198 Theories of spinogenesis 238
Protomapvs.protocortex 198 Mouse modeis of spinogenesis: the weaver
Spatial position of cortical areas 200 mutant 239
9.5 Development of finemaps: Molecvlar regulato^ ofspine development 239
topographic 200 10.6 Summary 241
Retinotectal pathways 200
Sperry and the chemoaffinity hypothesis 201 11 Life and Death in the Developing Nervous
Ephrins act as molecülar postcodes System 243
in the chick tectum 202 11.1 The frequency and function of cell death
9.6 Inputs from multiple structures: when during normal development 243
maps collide 205 11.2 Cells die in one of two main ways:
From retina to cortex in mammals 206 apoptosis or necrosis 245
Activity-dependent eye spetific segregation: arole 1 j .3 studies in invertebrates have taught us
for retinal waves 207 much about how cells kill
Formation ofoculardominancebands 209 themselves 247
Ocular dominance bands form by directed ingrowth ^ dficatim hase 249
ofthalamocortical axons 210 Thekülingphase 249
Acttvtty and the formation of ocular dominance ^ mgulftnmt phase 250
bands 2W 11.4 Most ofthe genes that regulate
9.7 Development offeature maps 211 ° iuwu-%»u» ,m
D . ^ . ., . , . ^ _.. programmed cell death m C. elegans are
conserved in vertebrates 250
Feature maps in the Visual system 211
Role ofexperience in orientation and direction . , .
map formation 213 11.5 Examples of neurodevelopmental
9.8 Summary 214 processes in which programmed cell
death plays a prominent role 252
10 Maturation of Functional Programmed cell death in early progenitor
Properties 217 cell populations 252
10.1 Neurons are excitable cells 218 Programmed cell death contributes to sexual
What makesa cell excitable? 218 differences in the nervous system 253
ui ^- 1 *• c -,-, , Programmed cell death removes cells -with transient
Electrica! properties ofneurons 218 . * i7 . _ , . , ___
Typesof ton Channels 219 functions once their task is done 255
. ., , -^ v-,._ , • Programmed cell death matches the numbers
10.2 Neuronal excitabihty during o/cJk . Memcting nmml fou£S 259
development 220 11.6 Neurotrophic factors are important
Neuronal exataMty changes dramatically during regulators of cell survival and death 261
development 221 ö
Early action Potentials are drivenbyCa2+, (?m1thpCt0r* 261
notNa+ 221 Cytohnes 263
Neurotransmitter reeeptors regulate exatability n-7 Arole for electrical activity in regulatmg
prior to Synapse formation 223 programmed cell death 265
GABAergicreeeptoractivationswitchesfrombeing WA Summary 265
excitatory to inhibitory 223
10.3 Developmental processes regulatedby 12 Experience-Dependent Development 267
neuronal excitabihty 225 12.1 Effects ofexperience on Visual system
Electrica! excitability regulates neuronal proliferation development 268
and migration 225 Seeing one world with two eyes: ocular dominance of
Neuronal activity and axon guidance 226 cortical cells 268
CONTENTS • IX
Visual experience regulates ocular dominance 269 Synaptic changes that mediate the expression
Competition regulates experience-dependent oflTP/LTD and experience-dependent
plastiaty: the effects of dark-rearing and plastiaty 286
Strabismus 270 Metaplastidty 288
Physiological changes in ocular dominance prior Spike-timing dependent plastiaty 289
to anatomical changes 272 12.3 Cellular basis of plasticity: development
Cooperative binocular interactions and of inhibitory networks 292
Visual cortex plasticity 275 Inhibition mediates expression ofthe effects
The timing ofdevelopmental plasticity: sensitive ofmonocular deprivation 292
or critical periods 275 Development of inhibitory circuits regulates the
Multiple sensitive periods in the developing time-course ofthe sensitive periodfor monocular
Visual system 277 deprivation 292
12.2 How does experience change functional 12.4 Homeostatic plasticity 294
Connectivity? 279 12.5 Structural plasticity and the role ofthe
Electrica! properties of dendrites 279 extracellular matrix 295
Cellular basis of plasticity: synaptic strengthening 12 6 Summarv 297
and wedkening 280
The time-course of changes in synaptic
weight in response to monocular deprivation 282 Suggesüons for Further Reading 299
Cellular and molecular mechanisms of LTP/LTD Glossary 303
induction 284 Index 321
|
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| id | DE-604.BV037392050 |
| illustrated | Not Illustrated |
| indexdate | 2024-07-09T23:23:19Z |
| institution | BVB |
| isbn | 9780470712290 |
| language | English |
| oai_aleph_id | oai:aleph.bib-bvb.de:BVB01-022544913 |
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| open_access_boolean | |
| owner | DE-188 DE-11 DE-19 DE-BY-UBM |
| owner_facet | DE-188 DE-11 DE-19 DE-BY-UBM |
| physical | XV, 331 S. |
| publishDate | 2011 |
| publishDateSearch | 2011 |
| publishDateSort | 2011 |
| publisher | Wiley-Blackwell |
| record_format | marc |
| spelling | Building brains an introduction to neural development David Price ... Oxford [u.a.] Wiley-Blackwell 2011 XV, 331 S. txt rdacontent n rdamedia nc rdacarrier Gehirn (DE-588)4019752-9 gnd rswk-swf Entwicklung (DE-588)4113450-3 gnd rswk-swf Neurogenese (DE-588)4331352-8 gnd rswk-swf Brain--Growth. Developmental neurobiology. Neurogenese (DE-588)4331352-8 s DE-188 Gehirn (DE-588)4019752-9 s Entwicklung (DE-588)4113450-3 s 1\p DE-604 Price, David J. 1957- Sonstige (DE-588)1011622378 oth HBZ Datenaustausch application/pdf http://bvbr.bib-bvb.de:8991/F?func=service&doc_library=BVB01&local_base=BVB01&doc_number=022544913&sequence=000002&line_number=0001&func_code=DB_RECORDS&service_type=MEDIA Inhaltsverzeichnis 1\p cgwrk 20201028 DE-101 https://d-nb.info/provenance/plan#cgwrk |
| spellingShingle | Building brains an introduction to neural development Gehirn (DE-588)4019752-9 gnd Entwicklung (DE-588)4113450-3 gnd Neurogenese (DE-588)4331352-8 gnd |
| subject_GND | (DE-588)4019752-9 (DE-588)4113450-3 (DE-588)4331352-8 |
| title | Building brains an introduction to neural development |
| title_auth | Building brains an introduction to neural development |
| title_exact_search | Building brains an introduction to neural development |
| title_full | Building brains an introduction to neural development David Price ... |
| title_fullStr | Building brains an introduction to neural development David Price ... |
| title_full_unstemmed | Building brains an introduction to neural development David Price ... |
| title_short | Building brains |
| title_sort | building brains an introduction to neural development |
| title_sub | an introduction to neural development |
| topic | Gehirn (DE-588)4019752-9 gnd Entwicklung (DE-588)4113450-3 gnd Neurogenese (DE-588)4331352-8 gnd |
| topic_facet | Gehirn Entwicklung Neurogenese |
| url | http://bvbr.bib-bvb.de:8991/F?func=service&doc_library=BVB01&local_base=BVB01&doc_number=022544913&sequence=000002&line_number=0001&func_code=DB_RECORDS&service_type=MEDIA |
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