074-on-the-convergence-of-fedavg-on-non-iid-data
https://github.com/szu-advtech-2023/074-on-the-convergence-of-fedavg-on-non-iid-data
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Repository
Basic Info
- Host: GitHub
- Owner: SZU-AdvTech-2023
- License: mit
- Language: Python
- Default Branch: main
- Size: 135 MB
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- Forks: 0
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Metadata Files
README.md
On the Convergence of FedAvg on Non-IID Data
This repository contains the codes for the paper
Our paper is a tentative theoretical understanding towards FedAvg and how different sampling and averaging schemes affect its convergence.
Our code is based on the codes for FedProx, another federated algorithm used in heterogeneous networks.
Usage
First generate data by the following code. Here
generate_random_niidis used to generate the dataset named asmnist unbalancedin our paper, where the number of samples among devices follows a power law.generate_equalis used to generate the dataset named asmnist balancedwhere we force all devices to have the same amount of samples. More non-iid distributed datasets could be found in FedProx.cd fedpy python data/mnist/generate_random_niid.py python data/mnist/generate_equal.py python data/synthetic/generate_synthetic.pyThen start to train. You can run a single algorithm on a specific configuration like
python main.py --gpu --dataset $DATASET --clients_per_round $K --num_round $T --num_epoch $E --batch_size $B --lr $LR --device $device --seed $SEED --model $NET --algo $ALGO --noaverage --noprint
Notes
There are three choices for
$ALGO, namelyfedavg4(containning the Scheme I and II),fedavg5(for the original scheme) andfedavg9(for the Transformed Scheme II).If you don't want to use the Scheme I (where we sample device acccording to $p_k$ and simply average local parameters), please add
--noaverage.If you want to mute the printed information, please use
--noprint.
Once the trainning is started, logs that containning trainning statistics will be automatically created in
result/$DATASET. Each run has a unique log file name in this wayyear-month-day-time_$ALGO_$NET_wn10_tn100_sd$SEED_lr$LR_ep$E_bs$B_a/w, for example,2019-11-24T12-05-13_fedavg4_logistic_wn10_tn100_sd0_lr0.1_ep5_bs64_aDuring the trainning, you visualize the process by running either of the following
tensorboard --logdir=result/$DATASET
tensorboard --logdir=result/$DATASET/$LOG
# For example
tensorboard --logdir=result/mnist_all_data_0_equal_niid/
tensorboard --logdir=result/mnist_all_data_0_equal_niid/2019-11-24T12-05-13_fedavg4_logistic_wn10_tn100_sd0_lr0.1_ep5_bs64_a
- All the codes we used to draw figures are in
plot/. You can find some choices of hyperparameters in both our paper and the scripts inplot/.
Dependency
Pytorch = 1.0.0
numpy = 1.16.3
matplotlib = 3.0.0
tensorboardX
Owner
- Name: SZU-AdvTech-2023
- Login: SZU-AdvTech-2023
- Kind: organization
- Repositories: 1
- Profile: https://github.com/SZU-AdvTech-2023