Adversarial Examples in Self-Driving: A Review of Available Datasets and Attacks

Mohammad R. Alam, C. Ward
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引用次数: 1

Abstract

Autonomous vehicles rely on computer vision models for perception, which have been shown to be vulnerable to adversarial attacks. These attacks pose various risks from reducing user confidence in the technology to directly influencing the technology to make a particular action [1]. Research in adversarial machine learning (ML) has led to increased awareness of ML’s vulnerabilities to such attacks and strategies to mitigate their effects and enhance ML generalizability [1]. Although there exists a dataset for assessing a computer vision model’s efficacy against adversarial attacks in the real-world [2], there is no such dataset for benchmarking computer vision algorithms for autonomous vehicles. This effort is a preliminary study on publicly available datasets for self-driving applications through the lens of adversarial ML. We include a discussion of attacks that have been performed in this space. From black-box to white-box attacks, the more knowledge is available to the adversary, the more they can leverage to employ the attack [1]. Adversaries are fully capable of utilizing the publicly available datasets to test their own black-box attacks [3], [4]. Adversarial examples can be useful in both enhancing algorithm resilience to these attacks through inclusion in training [5] as well as for use in benchmarking current approaches against the attacks [2]. Building resilient autonomy in transportation will require mitigation of any vulnerabilities, especially those from potential adversaries. This survey of datasets and attacks on self-driving vehicles is a first step in developing a dataset of adversarial attacks in this domain. The dataset can assist current and future computer vision research in self-driving to benchmark algorithm effectiveness against such attacks in the real-world.
自动驾驶中的对抗性示例:对可用数据集和攻击的回顾
自动驾驶汽车依赖计算机视觉模型进行感知,但事实证明,这种模型很容易受到对抗性攻击。这些攻击会带来各种风险,从降低用户对技术的信心到直接影响技术做出特定的动作[1]。对抗性机器学习(ML)的研究已经导致人们越来越意识到ML对此类攻击的脆弱性,以及减轻其影响和增强ML泛化性的策略[1]。虽然存在用于评估计算机视觉模型在现实世界中对对抗性攻击的有效性的数据集[2],但没有这样的数据集用于对自动驾驶汽车的计算机视觉算法进行基准测试。这项工作是通过对抗性机器学习对自动驾驶应用程序的公开可用数据集进行的初步研究。我们包括对在该领域进行的攻击的讨论。从黑盒攻击到白盒攻击,攻击者获得的知识越多,他们就越能利用攻击[1]。攻击者完全有能力利用公开可用的数据集来测试他们自己的黑盒攻击[3],[4]。对抗性示例可以通过包含在训练中[5]来增强算法对这些攻击的弹性,也可以用于对当前针对攻击的方法进行基准测试[2]。在交通运输中建立弹性自治将需要减轻任何脆弱性,特别是来自潜在对手的脆弱性。对自动驾驶汽车的数据集和攻击的调查是在该领域开发对抗性攻击数据集的第一步。该数据集可以帮助当前和未来的自动驾驶计算机视觉研究,以基准算法在现实世界中对抗此类攻击的有效性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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