基于FPGA的生物现实脉冲神经网络

Matthieu Ambroise, T. Levi, Y. Bornat, S. Saighi
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引用次数: 35

摘要

在本文中,我们提出了一种由117个Izhikevich神经元组成的生物现实脉冲神经网络的数字硬件实现。这个数字系统工作在硬实时,这意味着它保持相同的生物时间在毫秒级的模拟。Izhikevich神经元的实现需要很少的资源。神经元的行为是通过比较它们的放电率和生物数据来验证的。神经元间的连接是由生物现实的突触组成的。网络实现的体系结构允许在单个计算核心上工作。它可以自由配置,从独立神经元配置到全对全配置,或者与几个独立的小网络混合。这种脉冲神经网络将用于开发一种新的概念验证脑机接口,即用于神经假体的神经形态芯片,它必须取代中枢神经系统受损部分的功能。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Biorealistic spiking neural network on FPGA
In this paper, we present a digital hardware implementation of a biorealistic spiking neural network composed of 117 Izhikevich neurons. This digital system works in hard real-time, which means that it keeps the same biological time of simulation at the millisecond scale. The Izhikevich neuron implementation requires few resources. The neurons behavior is validated by comparing their firing rate to biological data. The interneuron connections are composed of biorealistic synapses. The architecture of the network implementation allows working on a single computation core. It is freely configurable from an independent-neuron configuration to all-to-all configuration or a mix with several independent small networks. This spiking neural network will be used for the development of a new proof-of-concept Brain Machine Interface, i.e. a neuromorphic chip for neuroprosthesis, which has to replace the functionality of a damaged part of the central nervous system.
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