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README.md
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pipeline_tag: audio-classification
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---
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pipeline_tag: audio-classification
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---
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# SNN Voice
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SNN Voice is the repository for my paper: "Retraining SNN Conversions: CNN to SNN for Audio Classification Tasks".
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The models are deposited here for archival.
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See our code repository for implementation @ GitHub: https://github.com/Eve-ning/snn_voice
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## Abstract
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Efficient yet powerful models are in high demand for its portability and affordability.
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Amongst other methods such as model-pruning, is limiting neural network operations to
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sparse event-driven spikes: Spiking Neural Networks (SNNs) aims to unravel a new di-
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rection in machine learning research. A significant amount of SNN literature straddles
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upon mature works of artificial neural networks (ANNs) by migrating its architecture
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and parameters into SNNs, optimizing the migration to retain as much performance as
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possible. We spearhead a novel approach: the architecture is migrated and retrained
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from scratch. We hypothesize that this new direction will unravel concepts that cur-
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rently bottlenecks improvements in the field of SNN conversions. Furthermore, alike
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Transfer Learning, inspire future efforts of fine-tuning a well converted model through
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training.
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This paper presents our analysis of training converted Convolutional Neural Networks
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(CNNs) to SNNs on audio classification models. Results show that (1) SNN conver-
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sions consistently underperforms CNNs marginally during training, however we also
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show that model complexity has a possible association with this margin. (2) SNN con-
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verts doesn’t necessarily approach the performance of its CNN counterparts asymptot-
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ically by increasing the number of time-steps. (3) SNN training from scratch is costly
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and impractical with current hardware and dedicated SNN optimization techniques are
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necessary. (4) Enabling the SNN membrane decay rate to be learned doesn’t signifi-
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cantly affect performance. This paper provides valuable insights into the perspective of
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retraining converted SNNs for audio classification, and serves as a reference for future
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studies and hardware implementation benchmarks.
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## SNN Voice Trained Models
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**Important**
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We only upload Piczak's SNN Model for 15 time-steps with Learnable Beta = False due to it's extremely large size (300MB)
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