TraSw for FairMOT - A Single-Target Attack example (Attack ID: 19; Screener ID: 24):

Overview

TraSw for FairMOT

  • A Single-Target Attack example (Attack ID: 19; Screener ID: 24):
Fig.1 Original Fig.2 Attacked
By perturbing only two frames in this example video, we can exchange the 19th ID and the 24th ID completely. Starting from frame 592, the 19th and 24th IDs can keep the exchange without noise.

TraSw: Tracklet-Switch Adversarial Attacks against Multi-Object Tracking,
Delv Lin, Qi Chen, Chengyu Zhou, Kun He,
arXiv 2111.08954

Related Works

Abstract

Benefiting from the development of Deep Neural Networks, Multi-Object Tracking (MOT) has achieved aggressive progress. Currently, the real-time Joint-Detection-Tracking (JDT) based MOT trackers gain increasing attention and derive many excellent models. However, the robustness of JDT trackers is rarely studied, and it is challenging to attack the MOT system since its mature association algorithms are designed to be robust against errors during tracking. In this work, we analyze the weakness of JDT trackers and propose a novel adversarial attack method, called Tracklet-Switch (TraSw), against the complete tracking pipeline of MOT. Specifically, a push-pull loss and a center leaping optimization are designed to generate adversarial examples for both re-ID feature and object detection. TraSw can fool the tracker to fail to track the targets in the subsequent frames by attacking very few frames. We evaluate our method on the advanced deep trackers (i.e., FairMOT, JDE, ByteTrack) using the MOT-Challenge datasets (i.e., 2DMOT15, MOT17, and MOT20). Experiments show that TraSw can achieve a high success rate of over 95% by attacking only five frames on average for the single-target attack and a reasonably high success rate of over 80% for the multiple-target attack.

Attack Performance

Single-Target Attack Results on MOT challenge test set

Dataset Suc. Rate Avg. Frames Avg. L2 Distance
2DMOT15 95.37% 4.67 3.55
MOT17 96.35% 5.61 3.23
MOT20 98.89% 4.12 3.12

Multiple-Target Attack Results on MOT challenge test set

Dataset Suc. Rate Avg. Frames (Proportion) Avg. L2 Distance
2DMOT15 81.95% 35.06% 2.79
MOT17 82.01% 38.85% 2.71
MOT20 82.02% 54.35% 3.28

Installation

  • same as FairMOT

  • Clone this repo, and we'll call the directory that you cloned as ${FA_ROOT}

  • Install dependencies. We use python 3.7 and pytorch >= 1.2.0

  • conda create -n FA
    conda activate FA
    conda install pytorch==1.2.0 torchvision==0.4.0 cudatoolkit=10.0 -c pytorch
    cd ${FA_ROOT}
    pip install -r requirements.txt
    cd src/lib/models/networks/DCNv2 sh make.sh
  • We use DCNv2 in our backbone network and more details can be found in their repo.

  • In order to run the code for demos, you also need to install ffmpeg.

Data preparation

  • We only use the same test data as FairMOT.

  • 2DMOT15, MOT17 and MOT20 can be downloaded from the official webpage of MOT-Challenge. After downloading, you should prepare the data in the following structure:

    ${DATA_DIR}
        ├── MOT15
        │   └── images
        │       ├── test
        │       └── train
        ├── MOT17
        │   └── images
        │       ├── test
        │       └── train
        └── MOT20
            └── images
                ├── test
                └── train
    

Target Model

Tracking without Attack

  • tracking on original videos of 2DMOT15, MOT17, and MOT20
cd src
python track.py mot --test_mot15 True --load_model all_dla34.pth --conf_thres 0.3 --data_dir ${DATA_DIR} --output_dir ${OUTPUT_DIR}
python track.py mot --test_mot17 True --load_model all_dla34.pth --conf_thres 0.4 --data_dir ${DATA_DIR} --output_dir ${OUTPUT_DIR}
python track.py mot --test_mot20 True --load_model all_dla34.pth --conf_thres 0.3 --data_dir ${DATA_DIR} --output_dir ${OUTPUT_DIR}

Attack

Single-Target Attack

  • attack all attackable objects separately in videos in parallel (may require a lot of memory).
cd src
python track.py mot --test_mot15 True --load_model all_dla34.pth --conf_thres 0.3 --data_dir ${DATA_DIR} --output_dir ${OUTPUT_DIR} --attack single --attack_id -1
python track.py mot --test_mot17 True --load_model all_dla34.pth --conf_thres 0.4 --data_dir ${DATA_DIR} --output_dir ${OUTPUT_DIR} --attack single --attack_id -1
python track.py mot --test_mot20 True --load_model all_dla34.pth --conf_thres 0.3 --data_dir ${DATA_DIR} --output_dir ${OUTPUT_DIR} --attack single --attack_id -1
  • attack a specific object in a specific video (require to set specific video in src/track.py).
cd src
python track.py mot --test_mot15 True --load_model all_dla34.pth --conf_thres 0.3 --data_dir ${DATA_DIR} --output_dir ${OUTPUT_DIR} --attack single --attack_id ${a specific id in origial tracklets}
python track.py mot --test_mot17 True --load_model all_dla34.pth --conf_thres 0.4 --data_dir ${DATA_DIR} --output_dir ${OUTPUT_DIR} --attack single --attack_id ${a specific id in origial tracklets}
python track.py mot --test_mot20 True --load_model all_dla34.pth --conf_thres 0.3 --data_dir ${DATA_DIR} --output_dir ${OUTPUT_DIR} --attack single --attack_id ${a specific id in origial tracklets}

Multiple-Targets Attack

  • attack all attackable objects in videos.
cd src
python track.py mot --test_mot15 True --load_model all_dla34.pth --conf_thres 0.3 --data_dir ${DATA_DIR} --output_dir ${OUTPUT_DIR} --attack multiple
python track.py mot --test_mot17 True --load_model all_dla34.pth --conf_thres 0.4 --data_dir ${DATA_DIR} --output_dir ${OUTPUT_DIR} --attack multiple
python track.py mot --test_mot20 True --load_model all_dla34.pth --conf_thres 0.3 --data_dir ${DATA_DIR} --output_dir ${OUTPUT_DIR} --attack multiple

Acknowledgement

This source code is based on FairMOT. Thanks for their wonderful works.

Citation

@misc{lin2021trasw,
      title={TraSw: Tracklet-Switch Adversarial Attacks against Multi-Object Tracking}, 
      author={Delv Lin and Qi Chen and Chengyu Zhou and Kun He},
      year={2021},
      eprint={2111.08954},
      archivePrefix={arXiv},
      primaryClass={cs.CV}
}
Owner
Derry Lin
Derry Lin
Implementation of the GVP-Transformer, which was used in the paper "Learning inverse folding from millions of predicted structures" for de novo protein design alongside Alphafold2

GVP Transformer (wip) Implementation of the GVP-Transformer, which was used in the paper Learning inverse folding from millions of predicted structure

Phil Wang 19 May 06, 2022
OcclusionFusion: realtime dynamic 3D reconstruction based on single-view RGB-D

OcclusionFusion (CVPR'2022) Project Page | Paper | Video Overview This repository contains the code for the CVPR 2022 paper OcclusionFusion, where we

Wenbin Lin 193 Dec 15, 2022
Roadmap to becoming a machine learning engineer in 2020

Roadmap to becoming a machine learning engineer in 2020, inspired by web-developer-roadmap.

Chris Hoyean Song 1.7k Dec 29, 2022
Implementation of Ag-Grid component for Streamlit

streamlit-aggrid AgGrid is an awsome grid for web frontend. More information in https://www.ag-grid.com/. Consider purchasing a license from Ag-Grid i

Pablo Fonseca 556 Dec 31, 2022
The fastest way to visualize GradCAM with your Keras models.

VizGradCAM VizGradCam is the fastest way to visualize GradCAM in Keras models. GradCAM helps with providing visual explainability of trained models an

58 Nov 19, 2022
OpenMMLab Model Deployment Toolset

Introduction English | 简体中文 MMDeploy is an open-source deep learning model deployment toolset. It is a part of the OpenMMLab project. Major features F

OpenMMLab 1.5k Dec 30, 2022
This is a work in progress reimplementation of Instant Neural Graphics Primitives

Neural Hash Encoding This is a work in progress reimplementation of Instant Neural Graphics Primitives Currently this can train an implicit representa

Penn 79 Sep 01, 2022
Source code of AAAI 2022 paper "Towards End-to-End Image Compression and Analysis with Transformers".

Towards End-to-End Image Compression and Analysis with Transformers Source code of our AAAI 2022 paper "Towards End-to-End Image Compression and Analy

37 Dec 21, 2022
A library for finding knowledge neurons in pretrained transformer models.

knowledge-neurons An open source repository replicating the 2021 paper Knowledge Neurons in Pretrained Transformers by Dai et al., and extending the t

EleutherAI 96 Dec 21, 2022
A simple program for training and testing vit

Vit This is a simple program for training and testing vit. Key requirements: torch, torchvision and timm. Dataset I put 5 categories of the cub classi

xiezhenyu 2 Oct 11, 2022
Attention over nodes in Graph Neural Networks using PyTorch (NeurIPS 2019)

Intro This repository contains code to generate data and reproduce experiments from our NeurIPS 2019 paper: Boris Knyazev, Graham W. Taylor, Mohamed R

Boris Knyazev 242 Jan 06, 2023
Intrinsic Image Harmonization

Intrinsic Image Harmonization [Paper] Zonghui Guo, Haiyong Zheng, Yufeng Jiang, Zhaorui Gu, Bing Zheng Here we provide PyTorch implementation and the

VISION @ OUC 44 Dec 21, 2022
IhoneyBakFileScan Modify - 批量网站备份文件扫描器,增加文件规则,优化内存占用

ihoneyBakFileScan_Modify 批量网站备份文件泄露扫描工具 2022.2.8 添加、修改内容 增加备份文件fuzz规则 修改备份文件大小判断

VMsec 220 Jan 05, 2023
[EMNLP 2021] Distantly-Supervised Named Entity Recognition with Noise-Robust Learning and Language Model Augmented Self-Training

RoSTER The source code used for Distantly-Supervised Named Entity Recognition with Noise-Robust Learning and Language Model Augmented Self-Training, p

Yu Meng 60 Dec 30, 2022
Framework to build and train RL algorithms

RayLink RayLink is a RL framework used to build and train RL algorithms. RayLink was used to build a RL framework, and tested in a large-scale multi-a

Bytedance Inc. 32 Oct 07, 2022
Source code, datasets and trained models for the paper Learning Advanced Mathematical Computations from Examples (ICLR 2021), by François Charton, Amaury Hayat (ENPC-Rutgers) and Guillaume Lample

Maths from examples - Learning advanced mathematical computations from examples This is the source code and data sets relevant to the paper Learning a

Facebook Research 171 Nov 23, 2022
Prml - Repository of notes, code and notebooks in Python for the book Pattern Recognition and Machine Learning by Christopher Bishop

Pattern Recognition and Machine Learning (PRML) This project contains Jupyter notebooks of many the algorithms presented in Christopher Bishop's Patte

Gerardo Durán-Martín 1k Jan 07, 2023
Official implementation of the paper DeFlow: Learning Complex Image Degradations from Unpaired Data with Conditional Flows

DeFlow: Learning Complex Image Degradations from Unpaired Data with Conditional Flows Official implementation of the paper DeFlow: Learning Complex Im

Valentin Wolf 86 Nov 16, 2022
Applications using the GTN library and code to reproduce experiments in "Differentiable Weighted Finite-State Transducers"

gtn_applications An applications library using GTN. Current examples include: Offline handwriting recognition Automatic speech recognition Installing

Facebook Research 68 Dec 29, 2022
Mask-invariant Face Recognition through Template-level Knowledge Distillation

Mask-invariant Face Recognition through Template-level Knowledge Distillation This is the official repository of "Mask-invariant Face Recognition thro

Fadi Boutros 35 Dec 06, 2022