Abstract. Large-scale neural simulation virtually necessitates dedicated hardware with on-chip learning. Using SpiNNaker, a universal neural network chip multiprocessor, we demonstrate an STDP implementation as an example of programmable on-chip learning for dedicated neural hardware. By using a pre-synaptic sensitive scheme, we optimize both the data representation and processing for efficiency of implementation. The deferred-event model we developed provides a reconfigurable length of timing records to meet different requirements of accuracy. Results demonstrate successful STDP within a multi-chip simulation containing 60 neurons and 240 synapses. This optimisable learning model illustrates scalable general-purpose techniques essential fo...
To understand how the human brain works, neuroscientists heavily rely on brain simulations which inc...
The technical report outlines initial steps toward implementing the INST/FILT rule on the SpiNNaker ...
Abstract—This paper presents an efficient approach for implementing spike-timing-dependent plasticit...
Abstract—This paper presents the algorithm and software developed for parallel simulation of spiking...
Abstract — Recent development of neuromorphic hardware offers great potential to speed up simulation...
Abstract—This paper presents the algorithm and software developed for parallel simulation of spiking...
Abstract—SpiNNaker is a novel chip – based on the ARM processor – which is designed to support large...
Abstract — Neural networks present a fundamentally different model of computation from conventional ...
International audienceMany of the precise biological mechanisms of synaptic plasticity remain elusiv...
In computational neuroscience, synaptic plasticity learning rules are typically studied using the f...
The modelling of large systems of spiking neurons is computationally very demanding in terms of proc...
The promise of neuromorphic computing to develop ultra-low-power intelligent devices lies in its abi...
Abstract — SpiNNaker is a massively-parallel neuromorphic computing architecture designed to model v...
Neuromorphic computing systems simulate spiking neural networks that are used for research into how ...
International audienceReal-time on-chip learning is an important feature for current neuromorphic co...
To understand how the human brain works, neuroscientists heavily rely on brain simulations which inc...
The technical report outlines initial steps toward implementing the INST/FILT rule on the SpiNNaker ...
Abstract—This paper presents an efficient approach for implementing spike-timing-dependent plasticit...
Abstract—This paper presents the algorithm and software developed for parallel simulation of spiking...
Abstract — Recent development of neuromorphic hardware offers great potential to speed up simulation...
Abstract—This paper presents the algorithm and software developed for parallel simulation of spiking...
Abstract—SpiNNaker is a novel chip – based on the ARM processor – which is designed to support large...
Abstract — Neural networks present a fundamentally different model of computation from conventional ...
International audienceMany of the precise biological mechanisms of synaptic plasticity remain elusiv...
In computational neuroscience, synaptic plasticity learning rules are typically studied using the f...
The modelling of large systems of spiking neurons is computationally very demanding in terms of proc...
The promise of neuromorphic computing to develop ultra-low-power intelligent devices lies in its abi...
Abstract — SpiNNaker is a massively-parallel neuromorphic computing architecture designed to model v...
Neuromorphic computing systems simulate spiking neural networks that are used for research into how ...
International audienceReal-time on-chip learning is an important feature for current neuromorphic co...
To understand how the human brain works, neuroscientists heavily rely on brain simulations which inc...
The technical report outlines initial steps toward implementing the INST/FILT rule on the SpiNNaker ...
Abstract—This paper presents an efficient approach for implementing spike-timing-dependent plasticit...