Natural Adversaries: Fuzzing Autonomous Vehicles with Realistic Roadside Object Placements
Yang Sun, Haoyu Wang, Christopher M. Poskitt, Jun Sun

TL;DR
This paper introduces TrashFuzz, a black-box fuzzing method that creates realistic roadside object placements to test autonomous vehicle perception systems, revealing vulnerabilities that cause traffic law violations.
Contribution
The work presents a novel approach to generate realistic adversarial scenarios for AVs by manipulating roadside object positions according to regulatory guidelines, without using unnatural patches.
Findings
Induced 15 out of 24 traffic law violations in tests
Created realistic adversarial scenarios respecting road design rules
Demonstrated effectiveness on Apollo autonomous driving system
Abstract
The emergence of Autonomous Vehicles (AVs) has spurred research into testing the resilience of their perception systems, i.e., ensuring that they are not susceptible to critical misjudgements. It is important that these systems are tested not only with respect to other vehicles on the road, but also with respect to objects placed on the roadside. Trash bins, billboards, and greenery are examples of such objects, typically positioned according to guidelines developed for the human visual system, which may not align perfectly with the needs of AVs. Existing tests, however, usually focus on adversarial objects with conspicuous shapes or patches, which are ultimately unrealistic due to their unnatural appearance and reliance on white-box knowledge. In this work, we introduce a black-box attack on AV perception systems that creates realistic adversarial scenarios (i.e., satisfying road…
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Taxonomy
TopicsSafety Systems Engineering in Autonomy
MethodsAdaptive Parameter-wise Diagonal Quasi-Newton Method · Focus · ALIGN
