Spikingformer: Spike-driven Residual Learning for Transformer-based Spiking Neural Network, Arxiv 2023
Spikingformer is a pure event-driven transformer-based spiking neural network (75.85% top-1 accuracy on ImageNet-1K, + 1.04% and significantly reduces energy consumption by 57.34% compared with Spikformer). To our best knowledge, this is the first time that a pure event-driven transformer-based SNN has been developed in 2023/04.
[2024.2.23] Update energy_consumption_calculation of Spikingformer or Spikformer on ImageNet.
[2023.9.11] Update origin_logs and cifar10 trained model.
[2023.8.18] Update trained models.
If you find this repo useful, please consider citing:
@article{zhou2023spikingformer,
title={Spikingformer: Spike-driven Residual Learning for Transformer-based Spiking Neural Network},
author={Zhou, Chenlin and Yu, Liutao and Zhou, Zhaokun and Zhang, Han and Ma, Zhengyu and Zhou, Huihui and Tian, Yonghong},
journal={arXiv preprint arXiv:2304.11954},
year={2023},
url={https://arxiv.org/abs/2304.11954}
}
Model | Resolution | T | Param. | FLOPs | Power | Top-1 Acc | Download |
---|---|---|---|---|---|---|---|
Spikingformer-8-384 | 224x224 | 4 | 16.81M | 3.88G | 4.69 mJ | 72.45 | - |
Spikingformer-8-512 | 224x224 | 4 | 29.68M | 6.52G | 7.46 mJ | 74.79 | - |
Spikingformer-8-768 | 224x224 | 4 | 66.34M | 12.54G | 13.68 mJ | 75.85 | here |
All download passwords: abcd
Model | T | Param. | CIFAR10 Top-1 Acc | Download | CIFAR100 Top-1 Acc |
---|---|---|---|---|---|
Spikingformer-4-256 | 4 | 4.15M | 94.77 | - | 77.43 |
Spikingformer-2-384 | 4 | 5.76M | 95.22 | - | 78.34 |
Spikingformer-4-384 | 4 | 9.32M | 95.61 | - | 79.09 |
Spikingformer-4-384-400E | 4 | 9.32M | 95.81 | here | 79.21 |
All download passwords: abcd
Model | T | Param. | CIFAR10 DVS Top-1 Acc | DVS 128 Top-1 Acc |
---|---|---|---|---|
Spikingformer-2-256 | 10 | 2.57M | 79.9 | 96.2 |
Spikingformer-2-256 | 16 | 2.57M | 81.3 | 98.3 |
timm==0.6.12; cupy==11.4.0; torch==1.12.1; spikingjelly==0.0.0.0.12; pyyaml;
data prepare: ImageNet with the following folder structure, you can extract imagenet by this script.
│imagenet/
├──train/
│ ├── n01440764
│ │ ├── n01440764_10026.JPEG
│ │ ├── n01440764_10027.JPEG
│ │ ├── ......
│ ├── ......
├──val/
│ ├── n01440764
│ │ ├── ILSVRC2012_val_00000293.JPEG
│ │ ├── ILSVRC2012_val_00002138.JPEG
│ │ ├── ......
│ ├── ......
Setting hyper-parameters in imagenet.yml
cd imagenet
python -m torch.distributed.launch --nproc_per_node=8 train.py
Download the trained model first here, passwords: abcd
cd imagenet
python test.py
Setting hyper-parameters in cifar10.yml
cd cifar10
python train.py
Setting hyper-parameters in cifar100.yml
cd cifar10
python train.py
cd dvs128-gesture
python train.py
cd cifar10-dvs
python train.py
Download the trained model first here, passwords: abcd
cd imagenet
python energy_consumption_calculation_on_imagenet.py
In neuromorphic datasets, the preprocessing (transforming events into frames) of neuromorphic datasets is according to SEW or SpikingJelly. The event stream comprises four dimensions: the event’s coordinate (x, y), time (t), and polarity (p). We split the event’s number N into T (the simulating time-step) slices with nearly the same number of events in each slice and integrate events into frames. It is a pity that Equation 20 in the manuscript is a formula mistake, we corrected it as follows:
Related project: spikformer, pytorch-image-models, CML, spikingjelly.
For help or issues using this git, please submit a GitHub issue.
For other communications related to this git, please contact zhouchl@pcl.ac.cn or zhouchenlin19@mails.ucas.ac.cn.