Biologically Plausible Ferroelectric Quasi-Leaky Integrate and Fire Neuron

S. Dutta, A. Saha, P. Panda, W. Chakraborty, J. Gomez, A. Khanna, S. Gupta, K. Roy, S. Datta
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引用次数: 16

Abstract

Biologically plausible mechanism like homeostasis compliments Hebbian learning to allow unsupervised learning in spiking neural networks [1]. In this work, we propose a novel ferroelectric-based quasi-LIF neuron that induces intrinsic homeostasis. We experimentally characterize and perform phase-field simulations to delineate the non-trivial transient polarization relaxation mechanism associated with multi-domain interaction in poly-crystalline ferroelectric, such as Zr doped $\text{HfO}_{2}$, that underlines the Q-LIF behavior. Network level simulations with the Q-LIF neuron model exhibits a 2.3x reduction in firing rate compared to traditional LIF neuron while maintaining iso-accuracy of 84-85% across varying network sizes. Such an energy-efficient hardware for spiking neuron can enable ultra-low power data processing in energy constrained environments suitable for edge-intelligence.
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生物学上似是而非的铁电准漏积分与放电神经元
生物学上似是而非的机制,如内稳态,使赫比式学习得以在尖峰神经网络中实现无监督学习。在这项工作中,我们提出了一种新的基于铁电的准lif神经元,可以诱导内在稳态。我们通过实验表征并进行相场模拟来描述多晶铁电中与多畴相互作用相关的非平凡瞬态极化弛豫机制,例如Zr掺杂$\text{HfO}_{2}$,强调Q-LIF行为。使用Q-LIF神经元模型进行的网络级模拟显示,与传统的LIF神经元相比,放电率降低了2.3倍,同时在不同网络大小的情况下保持84-85%的等精度。这种高效能的尖峰神经元硬件可以在能量受限的环境中实现适合边缘智能的超低功耗数据处理。
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