Muutke küpsiste eelistusi

Noradrenergic Signaling and Astroglia [Kõva köide]

Edited by (University of Ljubljana, Faculty of Medicine, and Celica Biomedical, Ljubljana, Slovenia), Edited by (University of Ljubljana, Faculty of Medicine, and Celica Biomedical, Ljubljana, Slovenia)
  • Formaat: Hardback, 342 pages, kõrgus x laius: 229x152 mm, kaal: 700 g
  • Ilmumisaeg: 20-Jul-2017
  • Kirjastus: Academic Press Inc
  • ISBN-10: 0128050888
  • ISBN-13: 9780128050880
Teised raamatud teemal:
  • Formaat: Hardback, 342 pages, kõrgus x laius: 229x152 mm, kaal: 700 g
  • Ilmumisaeg: 20-Jul-2017
  • Kirjastus: Academic Press Inc
  • ISBN-10: 0128050888
  • ISBN-13: 9780128050880
Teised raamatud teemal:

Noradrenergic Signaling and Astroglia integrates what is known about the active role of astroglia in the locus coeruleus-noradrenergic system and outlines the most recent advances in the field. It discusses the molecular mechanisms underlying norepinephrine-induced receptor activation in astroglia, cellular metabolism and CNS energy provision, in vitro, ex vivo, and in vivo models, gliosignalling and neuronal activity, and astroglial networks, gap junctions, and morphological plasticity. The book also addresses the role of astroglial adrenergic receptor activation in memory formation, cognition, regulation of sleep homeostasis, and lastly in neurological disorders, including trauma (cellular edema), neurodegeneration (Alzheimer’s disease), and neuroinflammation (multiple sclerosis). Noradrenergic Signaling and Astroglia is a valuable source of new knowledge for a wide audience, including graduate students, post-doctoral fellows, and researchers in neuroscience, life sciences, and the biological and biomedical sciences.

  • Covers what is currently known about the role of astroglia in the noradrenergic system
  • Provides biochemical and physiological mechanistic data to understand how noradrenergic signals acting on astroglia produce observed effects
  • Includes figures and tables of structures, mechanisms and processes related to astroglia and noradrenergic signaling in CNS

Muu info

A reference on the role, molecular mechanisms, physiology, and pathophysiology of astroglia in the locus coeruleus-noradrenergic system
List of Contributors
xiii
Preface xvii
Acknowledgments xix
1 Locus Coeruleus Noradrenergic Neurons and Astroglia in Health and Disease
Robert Zorec
Nina Vardjan
Alexei Verkhratsky
Locus Coeruleus: Anatomy and Pathophysiology
2(4)
Astroglia and Neurodegeneration
6(4)
Presymptomatic Stage of Neurodegeneration Involves Astrogliosis
10(2)
Dysregulation of Astrocytic Vesicle Dynamics in Neurodegeneration
12(3)
Conclusions
15(1)
Abbreviations
16(1)
Acknowledgements
16(1)
References
16(10)
2 Astroglial Adrenergic Receptor Signaling in Brain Cortex
Leif Hertz
Ye Chen
Astrocytic and Neuronal Adrenergic Receptor Expression
26(2)
β-Adrenergic Signaling Pathways
28(3)
Signaling Pathways for Astrocytic α-Adrenergic Receptor Subtypes
31(3)
Metabolic Effects of α- and β-Adrenergic Stimulation of Astrocytes
34(1)
Glucose Uptake
34(1)
Glucose Metabolism
34(4)
Glycogen Turnover
38(3)
Importance of Glycogen Turnover for Brain Function
41(3)
βrAdrenergic Stimulation of the Astrocytic Na+, K+-ATPase
44(1)
Importance of Adrenergic Stimulation During Culturing of Astrocytes
44(3)
Conclusions
47(1)
Abbreviations
47(1)
References
48(16)
3 White Matter Astrocytes: Adrenergic Mechanisms
Maria Papanikolaou
Arthur Morgan Butt
Introduction
64(1)
White Matter Glia Ensure Rapid Neuronal Signaling Over Long Distances
65(1)
Neuroglial Communication in White Matter: The "Nodal Synapse"
66(2)
Adrenergic Mechanisms in White Matter
68(2)
Adrenergic Signaling in White Matter Physiology
70(1)
Adrenergic Signaling in White Matter Pathology
71(1)
Adrenergic Signaling Regulates Blood Flow
72(1)
Conclusions
73(1)
Abbreviations
73(1)
References
74(8)
4 Role for Astroglial α1-Adrenergic receptors in Glia-Neuron Communications and Aging-Related Metaplasticity in the Neocortex
Ulyana Lalo
Yuriy Pankratov
Introduction
82(1)
Role for Astroglia in Brain Signaling and Metaplasticity
83(1)
Astrocytic Ca2+ Signaling: Specific Role for Adrenergic Receptors
84(3)
Adrenergic Receptors Induce the Release of Gliotransmitters From Neocortical Astrocytes
87(2)
Age- and Environment-Related Alterations in Astroglial Adrenergic Signaling
89(2)
Astroglial α1-Adrenergic Receptors Modulate Synaptic Transmission and Plasticity in the Neocortex
91(8)
Summary and Perspectives
99(1)
Abbreviations
99(1)
References
100(4)
5 Adrenergic Ca2+ and cAMP Excitability: Effects on Glucose Availability and Cell Morphology in Astrocytes
Robert Zorec
Marko Kreft
Nina Vardjan
Introduction
104(1)
Adrenergic Modulation of Cytosolic Ca2+ and cAMP Excitability in Cultured Astrocytes
105(1)
Adrenergic Activation Triggers Phasic Ca2+ and Tonic cAMP/PKA Responses in Cultured Astrocytes
106(2)
Simultaneous Activation of α- and β-ARs Potentiates Ca2+ and cAMP/PKA Responses in Astrocytes
108(1)
Characteristics of Adrenergic Ca2+ Signaling in Astrocytes In Situ and In Vivo
109(1)
Adrenergic Excitability and Availability of Glycogen-Derived Cytosolic Glucose in Astrocytes
110(3)
Adrenergic Excitability and Astrocyte Morphologic Plasticity
113(1)
β-Adrenergic Activation and Stellation of Astrocytes
114(3)
Adrenergic Activation and Astrocyte Morphology In Vivo: Prevention of CNS Cellular Edema
117(1)
Conclusions
118(1)
Abbreviations
119(1)
References
120(8)
6 Adrenergic Receptors on Astrocytes Modulate Gap Junctions
Eliana Scemes
Randy F. Stout, Jr.
David C. Spray
Gap Junction Subtypes in Glia and Their Consensus Sites of Phosphorylation by Adrenergic Receptor---Mediated Processes
128(2)
Direct Effects of Adrenergic Receptors on Gap Junctions
130(3)
Gap Junction Formation and Degradation
133(3)
Indirect Effects of Adrenergic Signaling on Coupling Within the Astrocyte Network
136(1)
Calcium Signaling
136(1)
Diffusion of cAMP
137(1)
Diffusion of Metabolites
138(2)
Conclusions
140(1)
Abbreviations
140(1)
References
141(5)
7 Fluxes of Lactate Into, From, and Among Gap Junction-Coupled Astroglia and Their Interaction With Noradrenaline
Gerald A. Dienel
Introduction
146(1)
Aerobic Glycolysis
146(2)
Lactate Release vs Lactate Shuttling-Oxidation
148(1)
Thematic Sequence
149(1)
Lactate Fluxes During Brain Activation
149(1)
Parallel Glucose Utilization Assays Reveal Increased Glycolysis During Brain Activation
149(2)
Lactate is the Predominant Labeled Metabolite of Glucose Released From Brain
151(1)
Impact of Lactate Spreading and Release on Functional Imaging of Brain Activation
151(1)
Astrocytic Lactate Trafficking Via Gap Junctions
152(1)
Dye Coupling
152(2)
Selectivity of Gap Junctional Trafficking of Molecules Involved in Glycolysis
154(1)
Lactate Uptake and Shuttling
155(2)
Glucose Shuttling
157(1)
Summary
157(1)
Perivascular Routes for Metabolite Discharge From Activated Brain Structures
158(1)
Influence of Noradrenaline on Astrocytic Lactate Fluxes
158(1)
Adrenergic Signaling and Aerobic Glycolysis
158(1)
β2-Adrenergic Vagus Nerve Signaling by Adrenaline and Noradrenaline in Blood
159(1)
Excitatory and Inhibitory Effects of Lactate and Influence on Brain Noradrenaline Release
159(2)
Influence of Noradrenaline on Astrocytic Metabolism
161(1)
Conclusions
162(1)
Abbreviations
163(1)
References
163(5)
8 Dialogue Between Astrocytes and Noradrenergic Neurons Via L-Lactate
Anja G. Teschemacher
Sergey Kasparov
The Noradrenaline-to-Astrocyte Signaling Axis
168(1)
L-Lactate Release by Astrocytes
169(3)
L-Lactate as a Gliotransmitter Feed Forward Signal to Noradrenergic Neurons?
172(2)
Further Potential Signaling Roles of L-Lactate in the Brain
174(4)
Conclusions
178(1)
Abbreviations
178(1)
Acknowledgments
178(1)
References
178(6)
9 Noradrenergic System and Memory: The Role of Astrocytes
Manuel Zenger
Sophie Burlet-Godinot
Jean-Marie Petit
Pierre J. Magistretti
Introduction
184(1)
Brain Noradrenergic System and its Weight on Cerebral Energy Metabolism
184(1)
Noradrenergic Pathways and Receptors
184(3)
The Specific Action of Noradrenaline on Glycogen Metabolism
187(1)
Noradrenaline and Memory
188(1)
Noradrenaline Action on Synaptic Plasticity: Neurons as Targets
188(1)
Noradrenaline Action on Synaptic Plasticity: Astrocytes as Targets
189(1)
Role of Noradrenaline in Memory Paradigms
189(1)
Modulation of Astrocytic Energy Metabolism by Noradrenaline: Impact on Memory
190(1)
Brain Energy Metabolism and Memory
190(1)
The Central Role of Glycogen
191(2)
Influence of the Sleep---Wake Cycle
193(1)
Conclusions
194(1)
Abbreviations
194(1)
References
195(7)
10 Hippocampal Noradrenaline Regulates Spatial Working Memory in the Rat
Rosario Gulino
Anna Kostenko
Gioacchino de Leo
Serena Alexa Emmi
Domenico Nunziata
Giampiero Leanza
Introduction
202(1)
Methods
203(1)
Subjects and Experimental Design
203(1)
Lesion and Transplantation Surgery
204(1)
Behavioral Tests
204(1)
Morris Water Maze
205(1)
Postmortem Analyses
206(1)
Microscopic Analysis and Quantitative Evaluation
207(1)
Results
208(1)
General Observations
208(1)
Behavioral Analyses
209(3)
Morphological Analyses
212(1)
Effects of the Lesion and of Transplants
212(2)
Discussion
214(1)
Effects of the Anti-DBH-Saporin Lesion
214(1)
Effects of Transplants
215(1)
Conclusions
216(1)
Abbreviations
216(1)
Acknowledgments
217(1)
References
217(5)
11 Enteric Astroglia and Noradrenergic/Purinergic Signaling
Vladimir Grubisic
Vladimir Purpura
Introduction
222(1)
Innervation of the Gut Wall
222(2)
Enteric Glia---Essentials
224(2)
Enteric Glia Cells Respond to the Direct Sympathetic Input: Ca2+ Excitability
226(1)
Enteric Glial Ca2+ Responses Regulate Gut Motility
227(1)
Other Selected Roles of Sympathetic Innervation and Enteric Glia in the Gut
228(3)
Sympathetic Nervous System and Enteric Glia in GI Disorders/Diseases
231(2)
Conclusions
233(1)
Abbreviations
234(1)
Acknowledgment
234(1)
References
234(8)
12 Noradrenaline Drives Structural Changes in Astrocytes and Brain Extracellular Space
Ang D. Sherpa
Chiye Aoki
Sabina Hrabetova
The Noradrenergic System---General Remarks
242(1)
Diversity of Noradrenergic Receptor Expression Underlies Diversity of Astrocytic Responses
242(1)
Noradrenergic System Relates to Function of Astrocytes
243(2)
Noradrenergic System's Effects on Astrocytes In Vitro
245(1)
Noradrenergic System's Effects on Astrocytes In Situ
245(2)
Brain Extracellular Space
247(2)
Noradrenergic System's Effects on Extracellular Space Structure
249(2)
Conclusions
251(1)
Abbreviations
252(1)
Acknowledgments
252(1)
References
252(6)
13 Signaling Pathway of ß-Adrenergic Receptor in Astrocytes and its Relevance to Brain Edema
Baoman Li
Dan Song
Ting Du
Alexei Verkhratsky
Liang Peng
Introduction
258(1)
β1-Adrenergic Receptor
259(3)
Extracellular Ions During Ischemia and/or Reperfusion
262(1)
MAPK/ERK1/2 Signaling Pathway During Ischemia and/or Reperfusion
263(1)
Effect of β-Adrenergic Receptor Antagonist on Brain Edema During Ischemia/Reperfusion
264(2)
Conclusions
266(1)
List of Abbreviations
267(1)
Acknowledgments
268(1)
References
268(6)
14 Noradrenaline, Astroglia, and Neuroinflammation
Jose L.M. Madrigal
Introduction
274(1)
Astrocytes and Neuroinflammation
274(1)
Noradrenaline Depletion in Neurodegenerative Diseases
275(1)
Astrocyte Activation in Neurodegenerative Diseases
276(1)
Noradrenaline Regulation of Astrogliosis
277(3)
Noradrenaline Regulation of Astroglial Chemokines
280(2)
Conclusions
282(1)
Abbreviations
282(1)
References
283(7)
15 Astrocytic β2-Adrenergic Receptors and Multiple Sclerosis
Jacques De Keyset
Introduction
290(1)
Downregulation of Astrocytic β2-Adrenergic Receptors in Multiple Sclerosis
291(1)
β2-Adrenergic Receptors in Multiple Sclerosis and Progressive Multifocal Leukoencephalopathy
292(1)
Underlying Mechanism of Astrocytic β2-Adrenergic Receptor Downregulation
293(1)
Pathophysiological Role in Focal Inflammatory Lesions
294(1)
Pathophysiological Role in Axonal Degeneration
294(1)
Pathophysiological Role in Both Axonal Degeneration and Oligodendrogliopathy
295(1)
Abbreviations
296(1)
Acknowledgments
296(1)
References
296(6)
16 Potentiation of β-Amyloid-Induced Cortical Inflammation by Noradrenaline and Noradrenergic Depletion: Implications for Alzheimer's Disease
Douglas L. Feinstein
Michael T. Heneha
Introduction: The Locus Coeruleus and Noradrenaline Function in Alzheimer's Disease
302(1)
Neuroinflammation in Alzheimer's Disease
302(1)
Antiinflammatory Actions of Noradrenaline
303(2)
Locus Coeruleus Damage in Alzheimer's Disease
305(1)
Locus Coeruleus Damage in Mouse Models of Alzheimer's Disease
305(1)
Clinical Trials to Modulate Noradrenaline Levels in Alzheimer's Disease Patients
306(1)
Conclusions
307(1)
Abbreviations
307(1)
Acknowledgments
307(1)
References
308(5)
Index 313
Nina Vardjan, Ph.D., Assistant Professor of Biochemistry is Coordinating Director of the Neuroglia Projects, part of the National Programme of Cell Physiology (jointly carried out by the Laboratory of Neuroendocrinology-Molecular Cell Physiology at Institute of Pathophysiology, Faculty of Medicine, University of Ljubljana, and the Cell Engineering Laboratory at Celica Biomedical, Tech Park Ljubljana, Slovenia). Her fields of study include Biochemistry, Molecular Biology, Neuroscience, Cell Physiology, Neuroendocrinology and Biophysics. She obtained her B.Sc. in Microbiology at the Biotechnical Faculty, University of Ljubljana, Slovenia in 1999. In 2003 she received her Ph.D. in Biochemistry and Molecular Biology at the Post-graduate Study of Biomedicine, Faculty of Medicine, University of Ljubljana, Slovenia. During her Ph.D. she held the position of a Young Researcher and from 2003 to 2004 she was Associate Research Scientist at the Department of Biochemistry and Molecular Biology, Joef Stefan Institute, Ljubljana, Slovenia. In 2002, she obtained a FEBS Fellowship for training in neuromuscular junction physiology at the Department of Physiology and Pharmacology, University of Strathclyde, Glasgow, UK. Since 2004, she holds a Research Scientist position at the Celica Biomedical and the Faculty of Medicine, Ljubljana, Slovenia. From 2006, she is involved in teaching (General Physiology, Cell Physiology, Molecular Physiology, Cell Engineering) at the Faculty of Chemistry and Chemical Technology and Biotechnical Faculty, University of Ljubljana, Slovenia. She co-edited a special volume of the Annals of the New York Academy of Sciences Mechanisms of Exocytosis” and co-organized the international meetings ISN Satellite Meeting: Glial Cells in (Patho)physiology (2011), FEPS 2009 (2009), and Mechanism(s) of Exocytosis (2008) and 15th Young Neuroscientists Meeting (2008). Robert Zorec, Ph.D., Professor of Pathophysiology at the University of Ljubljana, Faculty of Medicine, a Full Member of Academia Europaea (London) and Slovenian Academy of Sciences and Arts (continuation of Academia Operosorum Labacensis from 1693), as well as a past Member of the Committee for Advanced Therapy at the European Medicines Agency (London). He received his Ph.D. from the University of Ljubljana in 1986 for his work conducted at the Newcastle Medical School and at the MRC Neuroendocrinology Unit in Newcastle upon Tyne, UK, in Dr. R.N. McBurney's laboratory studying single-channel chloride currents activated by GABA and glycine in spinal cord neurons. He introduced the patch-clamp technique in Ljubljana in 1985. Dr. Zorecs post-doctoral experience was at Cambridge, UK, in Dr. W.T. Mason's laboratory. Independently of the laboratory of the Nobel Laureate, Erwin Neher, he developed his own membrane capacitance measurements (MCM) to monitor processes such as endo-and exocytosis in real time. In Prof. M. Berridge's laboratory at Cambridge University (UK), he studied cytosolic calcium homeostasis by imaging related to the MCM approach. In 1991, he conducted experiments on plant secretory cells at the University of Adelaide, Australia. He used his MCM technique to study regulated exocytosis in skeletal muscle, taste cells, neurons, and glia. Since 1991, he has been Head of the Laboratory of Neuroendocrinology-Molecular Cell Physiology and in 1997 he received the Republic of Slovenia Prize for Science. In 2000, he established the Cell Engineering Laboratory at Celica Biomedical, Ljubljana Tech Park (http://celicabiomedical.com/) where he has been a CEO since 2006 and the head of the Carl Zeiss Reference Center for Confocal Microscopy. Recently, his laboratory has developed research on astrocytes, the most heterogeneous neuroglial cells in the brain, to learn how vesicle traffic and regulated exocytosis are altered in these cells under pathologic conditions. In addition to MCM, super-resolution fluorescence microscopy has been developed in his laboratory to study subcellular vesicle traffic and more than 160 peer-reviewed papers have been published. He has lectured at over 100 distinguished universities, international meetings, and research institutions worldwide. He has been a reviewer for leading scientific journals including Nature, Science, PNAS, Neuron, Journal of Neuroscience, Journal of Physiology, Biophysical Journal, Brain Research, and others. In addition to basic research, the laboratory is also developing advanced cell-based medicines such as hybridoma cells to treat cancer; one product, HybriCure, is currently in phase 1/2 clinical trials.