A Novel Physical World Adversarial Patch Attack for Infrared Pedestrian Detector

As deep learning continues to evolve, infrared pedestrian detection technology has experienced significant advancements. However, infrared pedestrian detectors remain susceptible to adversarial attacks, potentially causing detection failures. To address the challenges of implementing physical world adversarial patch attacks on infrared images, such as difficult implementation, poor naturalness, and complex content, a novel physical world adversarial patch attack for infrared pedestrian detectors is developed. An expectation over transformation of the infrared image is added to the input image, and the naturalness of the adversarial patch is improved by adding nonlinear transformation and brightness transformation in the training process. Subsequently, mask regularization is designed in the training process to reduce content complexity and enhance practicality. Considering the deformation problem of the adversarial patch in the physical world, thin-plate spline interpolation is introduced in the training process to make the trained adversarial patch more suitable for the physical world. The experimental results show that the proposed method solves the problems of high complexity and poor naturalness of the adversarial patch effectively, and realizes effective counterattack in the physical world.

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Publication Details

Published
2024-10-18
DOI
https://doi.org/10.1109/icus61736.2024.10840169
Primary Topic
Infrared Target Detection Methodologies
Type
article
Field-Weighted Citation Impact
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article

A Novel Physical World Adversarial Patch Attack for Infrared Pedestrian Detector

Jiaxin Dai, Jie Geng, Zichen Liu
Infrared Target Detection Methodologies
article

A Novel Physical World Adversarial Patch Attack for Infrared Pedestrian Detector

Jiaxin Dai, Jie Geng, Zichen Liu
article en

Abstract

As deep learning continues to evolve, infrared pedestrian detection technology has experienced significant advancements. However, infrared pedestrian detectors remain susceptible to adversarial attacks, potentially causing detection failures. To address the challenges of implementing physical world adversarial patch attacks on infrared images, such as difficult implementation, poor naturalness, and complex content, a novel physical world adversarial patch attack for infrared pedestrian detectors is developed. An expectation over transformation of the infrared image is added to the input image, and the naturalness of the adversarial patch is improved by adding nonlinear transformation and brightness transformation in the training process. Subsequently, mask regularization is designed in the training process to reduce content complexity and enhance practicality. Considering the deformation problem of the adversarial patch in the physical world, thin-plate spline interpolation is introduced in the training process to make the trained adversarial patch more suitable for the physical world. The experimental results show that the proposed method solves the problems of high complexity and poor naturalness of the adversarial patch effectively, and realizes effective counterattack in the physical world.

Northwestern Polytechnical University (CN)
Sustainable cities and communities
Openalex Percentile: Top 56%
Infrared Target Detection Methodologies
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A Novel Physical World Adversarial Patch Attack for Infrared Pedestrian Detector — Jiaxin Dai, Jie Geng, et al. · (2024) | TGRS Research Map | TGRS