Motor Learning and Synaptic Plasticity in the Cerebellum

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Format: Hardcover
Pub. Date: 1997-11-28
Publisher(s): Cambridge University Press
List Price: $148.00

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Summary

This book is concerned with the involvement of the cerebellum in learning and remembering the ability to carry out motor tasks such as walking, riding a bicycle, and speaking. Processes of plasticity have been identified at the cellular level in the cerebellum that could underlie the learning of motor tasks but whether they actually have such a role is controversial. This book is unique in bringing together studies of plasticity at the cellular level with studies of plasticity or learning at the behavioral level and in attempting to build bridges between these two levels of discourse. The book will appeal to neuroscientists and physiologists interested in the neural control of movement.

Table of Contents

Preface vii
David J. Linden
1 Cerebellar long-term depression as investigated in a cell culture preparation
1(8)
F. Crepel
N. Hemart
D. Jaillard
H. Daniel
2 Cellular mechanisms of long-term depression in the cerebellum
9(7)
Masanobu Kano
3 Long-lasting potentiation of GABAergic inhibitory synaptic transmission in cerebellar Purkinje cells: Its properties and possible mechanisms
16(8)
Steven R. Vincent
4 Nitric oxide and synaptic plasticity: NO news from the cerebellum
24(6)
James C. Houk
Jay T. Buckingham
Andrew G. Barto
5 Models of the cerebellum and motor learning
30(16)
J.I. Simpson
D.R. Wylie
C.I. De Zeeuw
6 On climbing fiber signals and their consequence(s)
46(15)
Allan M. Smith
7 Does the cerebellum learn strategies for the optimal time-varying control of joint stiffness?
61(12)
W.T. Thach
8 On the specific role of the cerebellum in motor learning and cognition: Clues from PET activation and lesion studies in man
73(23)
Open Peer Commentary and Authors' Responses 96(71)
Table of Commentators
96(2)
Open Peer Commentary
98(48)
Arbib, M.A.
Spanning the levels in cerebellar function
98(1)
Baudry, M.
Similarities and contrasts between cerebellar LTD and hippocampal LTP
99(1)
Bekkering, H.
Heck, D.
Sultan, F.
What has to be learned in motor learning?
100(1)
Bindman, L.J.
How and where does nitric oxide affect cerebellar synaptic plasticity? New methods for investigating its action
101(1)
Bower, J.M.
Perhaps it's time to completely rethink cerebellar function
102(1)
Calabresi, P.
Pisani, A.
Bernardi, G.
Long-term changes of synaptic transmission: A topic of long-term interest
103(1)
De Schutter, E.
One cannot build theories of cerebellar function on shaky foundations: Induction properties of long-term depression have to be taken into account
104(1)
Dean, P.
Saccades and the adjustable pattern generator
105(1)
Dufosse, M.
How can the cerebellum match "error signal" and "error correction?"
106(1)
Feldman, A.G.
Levin, M.F.
Grasping cerebellar function depends on our understanding the principles of sensorimotor integration: The frame of reference hypothesis
106(3)
Fiala, J.C.
Bullock, D.
Timing implications of metabotropic mechanisms for cerebellar learning
109(2)
Flament, D.
Ebner, T.J.
The cerebellum as comparator: Increases in cerebellar activity during motor learning may reflect its role as part of an error detection correction mechanism
111(1)
Gielen, C.
Cerebellum does more than recalibration of movements after perturbations
112(1)
Gilbert, P.F.C.
How and what does the cerebellum learn?
113(1)
Gomi, H.
Is stiffness a byproduct or a target?
114(1)
Haggard, P.
What can and what cannot be adjusted in the movement pattern of cerebellar patients?
115(2)
Hallett, M.
The role of the cerebellum in motor learning is limited
117(1)
Hartell, N.A.
Two separate pathways for cerebellar LTD: NO-dependent and NO-independent
117(2)
Hepp, K.
Programming the cerebellum
119(1)
Hesslow, G.
Positive cerebellar feedback loops
119(1)
Hirano, T.
Molecules involved in cerebellar long-term depression (LTD) and mutant mice defective in it
120(1)
Hore, J.
Cerebellar arm ataxia: Theories still have a lot to explain
121(1)
Houk, J.C.
Alford, S.
Computational significance of the cellular mechanisms for synaptic plasticity in Purkinje cells
121(4)
Jaeger, D.
Constructing a theory of cerebellar function in limb movement control is premature
125(1)
Kano, M.
New players for cerebellar long-term depression
126(1)
Kawato, M.
The common inverse-dynamics motor-command coordinates for complex and simple spikes
126(2)
Kiedrowski, L.
Which cerebellar cells contribute to extracellular cGMP?
128(1)
Latash, L.P.
Latash, M.L.
The notions of joint stiffness and synaptic plasticity in motor memory
129(1)
Miall, R.C.
Malkmus, M.
Robertson, E.M.
Sensory prediction as a role for the cerebellum
130(1)
Mori-Okamoto, J.
Okamoto, K.
Further evidence for the involvement of nitric oxide in trans-ACPD-induced suppression of AMPA responses in cultured chick Purkinje neurons
131(1)
Okada, D.
Nitric oxide is involved in cerebellar long-term depression
132(1)
O'Mara, S.M.
The cerebellum and cerebral cortex: Contrasting and converging contributions to spatial navigation and memory
133(1)
Paulin, M.G.
Cerebellar theory out of control
134(1)
Roberts, P.D.
McCollum, G.
Holly, J.E.
Cerebellar rhythms: Exploring another metaphor
135(1)
Schmahmann, J.D.
Dysmetria of thought: Correlations and conundrums in the relationship between the cerebellum, learning, and cognitive processing
136(2)
Sultan, F.
Heck, D.
Bekkering, H.
How to link the specificity of cerebellar anatomy to motor learning?
138(1)
Swinnen, S.P.
Walter, C.B.
Dounskaia, N.
We know a lot about the cerebellum, but do we know what motor learning is?
138(1)
Thompson, R.F.
Motor learning and synaptic plasticity in the cerebellum
139(2)
Timmann, D.
Diener, H.C.
Limitations of PET and lesion studies in defining the role of the human cerebellum in motor learning
141(1)
van Donkelaar, P.
Sensorimotor learning in structures "upstream" from the cerebellum
141(1)
Van Galen, G.P.
Hendriks, A.W.
DeJong, W.P.
What behavioral benefit does stiffness control have? An elaboration of Smith's proposal
142(1)
Weiss, C.
Disterhoft, J.F.
Eyeblink conditioning, motor control, and the analysis of limbic-cerebellar interactions
143(2)
Wessel, K.
Plasticity of cerebro-cerebellar interactions in patients with cerebellar dysfunction
145(1)
Authors' Responses
146(21)
Linden, D.J.
A cerebellar long-term depression update
146(6)
Crepel, F.
Cellular mechanisms of long-term depression: From consensus to open questions
152(1)
Kano, M.
A bridge between cerebellar long-term depression and discrete motor learning: Studies on gene knockout mice
152(2)
Vincent, S.R.
NO more news from the cerebellum
154(2)
Houk, J.C.
Barto, A.G.
More models of the cerebellum
156(4)
Simpson, J.I.
Wylie, D.R.
De Zeeuw, C.I.
More on climbing fiber signals and their consequence(s)
160(3)
Smith, A. M.
Resilient cerebellar theory complies with stiff opposition
163(2)
Thach, W.T.
Q: Is the cerebellum an adaptive combiner of motor and mental motor activites? A: Yes, maybe, certainly not, who can say?
165(2)
References 167(26)
Index 193

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