NeuroMoCo: A Neuromorphic Momentum Contrast Learning Method for Spiking Neural Networks
Yuqi Ma, Huamin Wang, Hangchi Shen, Xuemei Chen, Shukai, Duan, Shiping Wen

TL;DR
NeuroMoCo introduces a pioneering self-supervised momentum contrast learning method for spiking neural networks, significantly enhancing classification accuracy on neuromorphic datasets by leveraging a novel loss function and pre-training approach.
Contribution
This paper is the first to implement self-supervised learning based on momentum contrast in spiking neural networks, introducing a new loss function and achieving state-of-the-art results.
Findings
Achieved new SOTA benchmarks on multiple neuromorphic datasets.
Demonstrated effectiveness of MixInfoNCE loss in temporal feature extraction.
Validated the benefits of self-supervised pre-training for SNNs.
Abstract
Recently, brain-inspired spiking neural networks (SNNs) have attracted great research attention owing to their inherent bio-interpretability, event-triggered properties and powerful perception of spatiotemporal information, which is beneficial to handling event-based neuromorphic datasets. In contrast to conventional static image datasets, event-based neuromorphic datasets present heightened complexity in feature extraction due to their distinctive time series and sparsity characteristics, which influences their classification accuracy. To overcome this challenge, a novel approach termed Neuromorphic Momentum Contrast Learning (NeuroMoCo) for SNNs is introduced in this paper by extending the benefits of self-supervised pre-training to SNNs to effectively stimulate their potential. This is the first time that self-supervised learning (SSL) based on momentum contrastive learning is…
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Taxonomy
TopicsAdvanced Memory and Neural Computing · Neural dynamics and brain function · Neural Networks and Applications
MethodsContrastive Learning
