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Toward Large-scale Spiking Neural Networks: A Comprehensive Survey and Future Directions
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Deep learning has revolutionized artificial intelligence (AI), achieving remarkable progress in fields such as computer vision, speech recognition, and natural language processing. Moreover, the recent success of large language models (LLMs) has fueled a surge in research on large-scale neural networks. However, the escalating demand for computing resources and energy consumption has prompted the search for energy-efficient alternatives. Inspired by the human brain, spiking neural networks (SNNs) promise energy-efficient computation with event-driven spikes. To provide future directions toward building energy-efficient large SNN models, we present a survey of existing methods for developing deep spiking neural networks, with a focus on emerging Spiking Transformers. Our main contributions are as follows: (1) an overview of learning methods for deep spiking neural networks, categorized by ANN-to-SNN conversion and direct training with surrogate gradients; (2) an overview of network architectures for deep spiking neural networks, categorized by deep convolutional neural networks (DCNNs) and Transformer architecture; and (3) a comprehensive comparison of state-of-the-art deep SNNs with a focus on emerging Spiking Transformers. We then further discuss and outline future directions toward large-scale SNNs.
Forward citations
Cited by 3 Pith papers
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Lapis: Laplacian Spiking Attention via First-Spike Timing and Membrane Leakage
Lapis replaces dot-product query-key scoring in spiking vision transformers with L1-distance-based Laplacian kernels on first-spike latencies, reaching near-dot-product accuracy at lower estimated arithmetic cost.
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Spiking Neural Networks for Temporal Processing: Status Quo and Future Prospects
This paper shows common neuromorphic benchmarks do not test temporal processing, proposes three temporal benchmarks, and finds a persistent SNN performance gap on long-range dependencies.
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Efficient Logit-based Knowledge Distillation of Deep Spiking Neural Networks for Full-Range Timestep Deployment
Temporal-wise logits distillation with ensemble self-distillation lets one SNN, trained at T=6, be deployed at T=1 through T=6 without retraining and with competitive accuracy.
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