adeetyapatel12 / gn-dgl

Local Learning with Neuron Groups

This repository contains the code to reproduce the results presented in the paper Local Learning with Neuron Groups.

Citation

If you find the code useful, please cite our paper.

@Article{patel2023local,
  title={Local Learning with Neuron Groups},
  author={Patel, Adeetya and Eickenberg, Michael and Belilovsky, Eugene},
  journal={arXiv preprint arXiv:2301.07635},
  year={2023}
}

Get Started

1. The Multilayer-GN-DGL folder contains the code to reproduce the results of GN-DGL for different values of K and G. The end-to-end and DGL are considered as a special case of G=1 and can be reproduced using the same folder.

   # ResNet-32:
   python train.py --dataset $dataset_name --model resnet --layers 32 --droprate 0.0 --cos_lr  --local_module_num $K --groups $G --local_loss_mode cross_entropy --aux_net_widen 1 --wide-list 16,16,32,64 --aux_net_feature_dim 128 --aux_net_config 1c2f --detach --detach-ratio 1.0 --div-reg --div-temp 3.0 --div-weight 0.5 --eval-ensemble --ensemble-type layerwise
    
   # ResNet-32x2:
   python train.py --dataset $dataset_name --model resnet --layers 32 --droprate 0.0 --cos_lr  --local_module_num $K --groups $G --local_loss_mode cross_entropy --aux_net_widen 1 --wide-list 32,32,64,128 --aux_net_feature_dim 128 --aux_net_config 1c2f --detach --detach-ratio 1.0 --div-reg --div-temp 3.0 --div-weight 0.5 --eval-ensemble --ensemble-type layerwise

   All the other commands are presented in commands.sh

2. The single_thread folder contains the code for reproducing the single thread results for different values of G, denoted by triangle in the following figures.

   # ResNet-32:
   python train.py --dataset $dataset_name --model resnet --layers 32 --droprate 0.0 --cos_lr --local_module_num 1A  --groups $G --local_loss_mode cross_entropy --aux_net_widen 1 --wide-list 16,16,32,64 --aux_net_feature_dim 128 --aux_net_config 1c2f --eval-ensemble --ensemble-type layerwise
    
   # ResNet-32x2:
   python train.py --dataset $dataset_name --model resnet --layers 32 --droprate 0.0 --cos_lr --local_module_num 1A  --groups $G --local_loss_mode cross_entropy --aux_net_widen 1 --wide-list 32,32,64,128 --aux_net_feature_dim 128 --aux_net_config 1c2f --eval-ensemble --ensemble-type layerwise

   All the other commands are presented in commands.sh

Results

	ResNet-32	ResNet-32 x 2
CIFAR-10
CIFAR-100
ImageNet-32

Results on CIFAR-10 (top row), CIFAR-100 (middle row), imagenet32 (bottom row). We show Accuracy versus max. training time in MACs for a given node in a distributed scenario for various local learning methods. We observe that for both ResNet-32 (left) and a wider ResNet-32x2 (right), the GN-DGL leads to better tradeoffs in training time versus accuracy. The size of the bubbles is proportional to the inference time of the models.

Contact

If you have any questions, please do not hesitate to reach out to the authors.

Adeetya Patel: [email protected].

Acknowledgments

We would like to acknowledge that parts of the code were reused from the project InfoPro.