Search papers, labs, and topics across Lattice.
This paper introduces Configured Failure Trapping, a sophisticated backdoor attack methodology targeting Vision-Language-Action (VLA) models, which allows attackers to induce specific failure modes through stealthy textual triggers. The authors develop a data engine for generating high-quality target trajectories and an automated suite for assessing failure fidelity, leading to the creation of two benchmarks, Trap-LIBERO and Trap-RoboTwin. Experimental results demonstrate that the proposed TrapVLA method effectively injects these configured failure modes while maintaining performance on clean data, highlighting the nuanced control attackers can exert over robotic actions.
Attackers can now induce specific failure behaviors in VLA models with unprecedented precision, revealing a new dimension of vulnerability in AI systems.
This work introduces Configured Failure Trapping, a novel backdoor attack task against Vision-Language-Action (VLA) models, which aims to activate attacks through stealthy textual triggers and induce configured failure modes. Unlike prior backdoor attacks that treat any task failure as a successful attack, Configured Failure Trapping requires the attacker to control how the robot fails (e.g., causing the robot to grasp with a specified positional offset), making it substantially more challenging and hard to detect. To support the new task, we propose an effective data engine for synthesizing high-quality target trajectories and an automated suite for measuring configured-failure fidelity. Then, based on this foundation, we construct two new benchmarks, namely Trap-LIBERO and Trap-RoboTwin, that instantiate Configured Failure Trapping across four representative failure modes. To address this task, we identify sparse action deviation as a critical challenge and accordingly propose a novel method named TrapVLA, which explicitly learns trigger-induced action residuals to steer the policy toward the configured failure behavior. Extensive experiments across simulation benchmarks and real-world robotic settings show that TrapVLA effectively injects configured failure modes into VLA models while largely preserving performance on clean data. Project page: https://john-liua.github.io/TrapVLA/