Adversarial Infrared Geometry: Using Geometry to Perform Adversarial Attack against Infrared Pedestrian Detectors
Kalibinuer Tiliwalidi

TL;DR
This paper introduces AdvIG, a novel geometric-based physical attack method against infrared pedestrian detectors, utilizing simple shapes optimized via PSO for high success rates and efficiency in digital and physical scenarios.
Contribution
The study presents a new geometric adversarial attack framework for infrared detectors that is simple, efficient, and effective, outperforming previous complex perturbation techniques.
Findings
High attack success rates in digital experiments (up to 100%)
Effective physical attacks at various distances with success rates over 60%
AdvIG demonstrates robustness and transferability in diverse scenarios
Abstract
Currently, infrared imaging technology enjoys widespread usage, with infrared object detection technology experiencing a surge in prominence. While previous studies have delved into physical attacks on infrared object detectors, the implementation of these techniques remains complex. For instance, some approaches entail the use of bulb boards or infrared QR suits as perturbations to execute attacks, which entail costly optimization and cumbersome deployment processes. Other methodologies involve the utilization of irregular aerogel as physical perturbations for infrared attacks, albeit at the expense of optimization expenses and perceptibility issues. In this study, we propose a novel infrared physical attack termed Adversarial Infrared Geometry (\textbf{AdvIG}), which facilitates efficient black-box query attacks by modeling diverse geometric shapes (lines, triangles, ellipses) and…
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Taxonomy
TopicsInfrared Target Detection Methodologies · Advanced Measurement and Detection Methods · Ocular and Laser Science Research
