We show that the presented architecture allows for unsupervised learning; that synaptic rewiring enhanced to initialise synapses by drawing from a distribution of delays produces more specialised neurons for the task of motion decomposition; and that a pair of readout neurons is sufficient to correctly classify the input based on the target layer's activity using rank-order encoding, rather than spike-rate encoding.
Folder structure:
|--- simulation_statistics --> analysis scripts and pre-processed simulation results
---|-- preproc --> pre-processed simulation results
|--- synaptogenesis
---|-- moving_bar_simulations --> training and testing results for motion learning phase
---|-- readout_simulations --> training and testing results for readout phase
---|-- spiking_moving_bar_input --> moving bar spiking input used throughout
|--- spinnaker_software --> snapshot of SpiNNaker software used to generate the presented results
Date made available | 11 Mar 2019 |
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Publisher | Mendeley Data |
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Date of data production | 1 Jan 2019 - |
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- SpiNNaker
- Spiking neural networks
- computer vision
- structural plasticity
- neuromorphic computing