Synapse dynamics in CMOS derived from a model of neurotransmitter release

M. Noack, C. Mayr, J. Partzsch, R. Schüffny
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引用次数: 12

Abstract

Neuromorphic realizations of the short-term dynamics at a synapse often use simplistic circuit models. In this paper, we present a more biologically realistic VLSI implementation of these mechanisms. Our circuit approach is analytically derived from a model of neurotransmitter release, so that it can be directly related to simulation results and biological measurements. We present a reduced implementation of this approach that is highly configurable, allowing for an individual adjustment of all model parameters. Furthermore, it achieves a high robustness against process variations and successfully reproduces biological paired-pulse depression experiments.
CMOS中的突触动力学来源于神经递质释放模型
突触短期动态的神经形态学实现通常使用简单的电路模型。在本文中,我们提出了这些机制的更生物现实的VLSI实现。我们的电路方法是从神经递质释放模型中解析导出的,因此它可以直接与模拟结果和生物测量相关。我们提出了这种方法的简化实现,它是高度可配置的,允许对所有模型参数进行单独调整。此外,它对过程变化具有很高的鲁棒性,并成功地再现了生物成对脉冲抑制实验。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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