Generating Minimalist Adversarial Perturbations to Test Object-Detection Models: An Adaptive Multi-Metric Evolutionary Search Approach
Cristopher McIntyre-Garcia, Adrien Heymans, Beril Borali, Won-Sook Lee, and Shiva Nejati

TL;DR
This paper presents TM-EVO, an evolutionary algorithm that efficiently generates minimal adversarial perturbations to test object-detection models, revealing their vulnerabilities with less noise than existing methods.
Contribution
Introduction of TM-EVO, a multi-metric evolutionary search method for creating minimal adversarial perturbations to evaluate object detection models' robustness.
Findings
TM-EVO outperforms baseline in generating less noisy adversarial examples.
TM-EVO is efficient in evaluating models like DETR and Faster R-CNN.
Adversarial tests reveal vulnerabilities in popular object detection models.
Abstract
Deep Learning (DL) models excel in computer vision tasks but can be susceptible to adversarial examples. This paper introduces Triple-Metric EvoAttack (TM-EVO), an efficient algorithm for evaluating the robustness of object-detection DL models against adversarial attacks. TM-EVO utilizes a multi-metric fitness function to guide an evolutionary search efficiently in creating effective adversarial test inputs with minimal perturbations. We evaluate TM-EVO on widely-used object-detection DL models, DETR and Faster R-CNN, and open-source datasets, COCO and KITTI. Our findings reveal that TM-EVO outperforms the state-of-the-art EvoAttack baseline, leading to adversarial tests with less noise while maintaining efficiency.
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Taxonomy
TopicsAdversarial Robustness in Machine Learning · Gaussian Processes and Bayesian Inference · Machine Learning and Data Classification
MethodsAttention Is All You Need · Dropout · Position-Wise Feed-Forward Layer · Byte Pair Encoding · Absolute Position Encodings · Linear Layer · Region Proposal Network · Feedforward Network · RoIPool · Dense Connections
