The official implementation of NeurIPS 2021 paper: Finding Optimal Tangent Points for Reducing Distortions of Hard-label Attacks

Overview

Introduction

This repository includes the source code for "Finding Optimal Tangent Points for Reducing Distortions of Hard-label Attacks", which is published in NeurIPS 2021.

Citation

We kindly ask anybody who uses this code to cite the following bibtex:

@inproceedings{
    ma2021finding,
    title={Finding Optimal Tangent Points for Reducing Distortions of Hard-label Attacks},
    author={Chen Ma and Xiangyu Guo and Li Chen and Jun-Hai Yong and Yisen Wang},
    booktitle={Thirty-Fifth Conference on Neural Information Processing Systems},
    year={2021},
    url={https://openreview.net/forum?id=g0wang64Zjd}
}

Structure of Folders and Files

+-- configures
|   |-- HSJA.json  # the hyperparameters setting of HSJA, which is also used in Tangent Attack
+-- dataset
|   |-- dataset_loader_maker.py  # it returns the data loader class that includes 1000 attacks images for the experiments.
|   |-- npz_dataset.py  # it is the dataset class that includes 1000 attacks images for the experiments.
+-- models
|   |-- defensive_model.py # the wrapper of defensive networks (e.g., AT, ComDefend, Feature Scatter), and it converts the input image's pixels to the range of 0 to 1 before feeding.
|   |-- standard_model.py # the wrapper of standard classification networks, and it converts the input image's pixels to the range of 0 to 1 before feeding.
+-- tangent_attack_hemisphere
|   |-- attack.py  # the main class for the attack.
|   |-- tangent_point_analytical_solution.py  # the class for computing the optimal tagent point of the hemisphere.
+-- tangent_attack_semiellipsoid
|   |-- attack.py  # the main class for the attack.
|   |-- tangent_point_analytical_solution.py  # the class for computing the optimal tagent point of the semi-ellipsoid.
+-- cifar_models   # this folder includes the target models of CIFAR-10, i.e., PyramidNet-272, GDAS, WRN-28, and WRN-40 networks.
|-- config.py   # the main configuration of Tangent Attack.
|-- logs  # all the output (logs and result stats files) are located inside this folder
|-- train_pytorch_model  # the pretrained weights of target models
|-- attacked_images  # the 1000 image data for evaluation 

In general, the train_pytorch_model includes the pretrained models' weights, and attacked_images includes the image data, which is packaged into .npz format with pixel range of [0-1].

In the attack, all logs are dumped to logs folder, the statistical results are also written into logs folder, which are .json format.

Attack Command

The following command could run Tangent Attack (TA) and Generalized Tangent Attack (G-TA) on the CIFAR-10 dataset under the untargetd attack's setting:

python tangent_attack_hemisphere/attack.py --gpu 0 --norm l2 --dataset CIFAR-10 --arch resnet-50
python tangent_attack_hemisphere/attack.py --gpu 0 --norm l2 --dataset CIFAR-10 --arch gdas
python tangent_attack_semiellipsoid/attack.py --gpu 0 --norm l2 --dataset CIFAR-10 --arch resnet-50
python tangent_attack_semiellipsoid/attack.py --gpu 0 --norm l2 --dataset CIFAR-10 --arch gdas

Once the attack is running, it directly writes the log into a newly created logs folder. After attacking, the statistical result are also dumped into the same folder, which is named as *.json file.

Also, you can use the following bash shell to run the attack of different models one by one.

./tangent_attack_CIFAR_undefended_models.sh

The commmand of attacks of defense models are presented in tangent_attack_CIFAR_defense_models.sh.

  • The gpu device could be specified by the --gpu device_id argument.
  • the targeted attack can be specified by the --targeted argument. If you want to perform untargeted attack, just don't pass it.
  • the attack of defense models uses --attack_defense --defense_model adv_train/jpeg/com_defend/TRADES argument.

Requirement

Our code is tested on the following environment (probably also works on other environments without many changes):

  • Ubuntu 18.04
  • Python 3.7.3
  • CUDA 11.1
  • CUDNN 8.0.4
  • PyTorch 1.7.1
  • torchvision 0.8.2
  • numpy 1.18.0
  • pretrainedmodels 0.7.4
  • bidict 0.18.0
  • advertorch 0.1.5
  • glog 0.3.1

You can just type pip install -r requirements.txt to install packages.

Download Files of Running Results and Logs

I have uploaded all the logs and results with the compressed zip file format onto this google drive link so that you can download them.

Owner
machen
machen
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