Advanced search
User account
Login
Register
Find models by
Model name
First author
Each author
Find models for
Brain region
Concept
Find models of
Realistic Microcircuits
Connectionist Networks
Distributed cerebellar plasticity implements adaptable gain control (Garrido et al., 2013)
 
Download zip file
Help downloading and running models
Model Information
Model File
Accession:
150067
We tested the role of plasticity distributed over multiple synaptic sites (Hansel et al., 2001; Gao et al., 2012) by generating an analog cerebellar model embedded into a control loop connected to a robotic simulator. The robot used a three-joint arm and performed repetitive fast manipulations with different masses along an 8-shape trajectory. In accordance with biological evidence, the cerebellum model was endowed with both LTD and LTP at the PF-PC, MF-DCN and PC-DCN synapses. This resulted in a network scheme whose effectiveness was extended considerably compared to one including just PF-PC synaptic plasticity. Indeed, the system including distributed plasticity reliably self-adapted to manipulate different masses and to learn the arm-object dynamics over a time course that included fast learning and consolidation, along the lines of what has been observed in behavioral tests. In particular, PF-PC plasticity operated as a time correlator between the actual input state and the system error, while MF-DCN and PC-DCN plasticity played a key role in generating the gain controller. This model suggests that distributed synaptic plasticity allows generation of the complex learning properties of the cerebellum.
Reference:
1 .
Garrido JA, Luque NR, D'Angelo E, Ros E (2013) Distributed cerebellar plasticity implements adaptable gain control in a manipulation task: a closed-loop robotic simulation
Front. Neural Circuits
7:159
:1-20
[
PubMed
]
Citations
Citation Browser
Model Information
(Click on a link to find other models with that property)
Model Type:
Realistic Network;
Brain Region(s)/Organism:
Cerebellum;
Cell Type(s):
Cerebellum deep nucleus neuron;
Channel(s):
Gap Junctions:
Receptor(s):
Gene(s):
Transmitter(s):
Simulation Environment:
C or C++ program;
MATLAB;
Simulink;
Model Concept(s):
Long-term Synaptic Plasticity;
Implementer(s):
Garrido, Jesus A [jesus.garrido at unipv.it];
Luque, Niceto R. [nluque at ugr.es];
Download the displayed file
/
Garridoetal2013
EDLUTAbstract
MEX
Register
Videos
readme.txt
accel.m
*
Other models using accel.m:
Fast convergence of cerebellar learning (Luque et al. 2015)
cin_dir_och3joints.m
cin_dir_och3joints_funct.m
cin_inv_och3joints.m
CINDIR.m
*
Other models using CINDIR.m:
Fast convergence of cerebellar learning (Luque et al. 2015)
EDLUTIcon.jpg
*
Other models using EDLUTIcon.jpg:
Fast convergence of cerebellar learning (Luque et al. 2015)
EdLuTSimulink.mdl
errormanagementmod.m
fRBFdesiredcontex1optimal.m
fRBFgauss1optimal.m
fRBFgausspeed1optimal.m
inverse.m
*
Other models using inverse.m:
Fast convergence of cerebellar learning (Luque et al. 2015)
LaunchSimulink.m
MANIPUL.mat
MANIPULDETERIORADO.mat
MANIPULDETERIORADO05.mat
MANIPULDETERIORADO1.mat
MANIPULDETERIORADO10.mat
MANIPULDETERIORADO15.mat
MANIPULDETERIORADO2.mat
MANIPULDETERIORADO25.mat
MANIPULDETERIORADO6.mat
Parametros.txt
Select.m
Thresh4refractarytime.m
ThreshMFsrefractarytime.m
Video3D.m
ModelDB scripts have detected that binary file '/Garridoetal2013/MANIPULDETERIORADO25.mat' is not displayable. You may download the file to examine if desired.
<- Select file from this column.