Schoenberg Kernel Loss for Spiking Neural Network Training

In this paper, we propose the Schoenberg kernel loss, a loss function that measures the divergence between spike trains for spiking neural network training. Our method addresses the challenges of non-differentiable spiking neurons and leverages both spatial and temporal dynamics in information processing. We evaluated our approach on the neuromorphic benchmark datasets, N-MNIST, and DVS Gesture, demonstrating our method outperforms previously published loss functions on our network architecture. In addition, we extend our investigation to real-time classification simulations in real-world scenarios. This work contributes to the advancement of direct SNN training methods, offering improved performance, particularly on low spike density data, and potential applications in neuromorphic classification.

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Publication Details

Published
2025-03-12
DOI
https://doi.org/10.1109/icassp49660.2025.10887614
Primary Topic
Neural Networks and Applications
Type
article
Field-Weighted Citation Impact
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article

Schoenberg Kernel Loss for Spiking Neural Network Training

José C. Prı́ncipe, Kan Li, Liyang Ru
Neural Networks and Applications
article

Schoenberg Kernel Loss for Spiking Neural Network Training

José C. Prı́ncipe, Kan Li, Liyang Ru
article en

Abstract

In this paper, we propose the Schoenberg kernel loss, a loss function that measures the divergence between spike trains for spiking neural network training. Our method addresses the challenges of non-differentiable spiking neurons and leverages both spatial and temporal dynamics in information processing. We evaluated our approach on the neuromorphic benchmark datasets, N-MNIST, and DVS Gesture, demonstrating our method outperforms previously published loss functions on our network architecture. In addition, we extend our investigation to real-time classification simulations in real-world scenarios. This work contributes to the advancement of direct SNN training methods, offering improved performance, particularly on low spike density data, and potential applications in neuromorphic classification.

University of Florida (US)
Openalex Percentile: Top 98%
Neural Networks and Applications
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