RLaGA: A Reinforcement Learning Augmented Genetic Algorithm For
Searching Real and Diverse Marker-Based Landing Violations
- URL: http://arxiv.org/abs/2310.07378v2
- Date: Thu, 12 Oct 2023 00:49:09 GMT
- Title: RLaGA: A Reinforcement Learning Augmented Genetic Algorithm For
Searching Real and Diverse Marker-Based Landing Violations
- Authors: Linfeng Liang, Yao Deng, Kye Morton, Valtteri Kallinen, Alice James,
Avishkar Seth, Endrowednes Kuantama, Subhas Mukhopadhyay, Richard Han, Xi
Zheng
- Abstract summary: It's important to fully test auto-landing systems before deploying them in the real-world to ensure safety.
This paper proposes RLaGA, a reinforcement learning (RL) augmented search-based testing framework.
Our method generates up to 22.19% more violation cases and nearly doubles the diversity of generated violation cases.
- Score: 0.7709288517758135
- License: http://arxiv.org/licenses/nonexclusive-distrib/1.0/
- Abstract: Automated landing for Unmanned Aerial Vehicles (UAVs), like multirotor
drones, requires intricate software encompassing control algorithms, obstacle
avoidance, and machine vision, especially when landing markers assist. Failed
landings can lead to significant costs from damaged drones or payloads and the
time spent seeking alternative landing solutions. Therefore, it's important to
fully test auto-landing systems through simulations before deploying them in
the real-world to ensure safety. This paper proposes RLaGA, a reinforcement
learning (RL) augmented search-based testing framework, which constructs
diverse and real marker-based landing cases that involve safety violations.
Specifically, RLaGA introduces a genetic algorithm (GA) to conservatively
search for diverse static environment configurations offline and RL to
aggressively manipulate dynamic objects' trajectories online to find potential
vulnerabilities in the target deployment environment. Quantitative results
reveal that our method generates up to 22.19% more violation cases and nearly
doubles the diversity of generated violation cases compared to baseline
methods. Qualitatively, our method can discover those corner cases which would
be missed by state-of-the-art algorithms. We demonstrate that select types of
these corner cases can be confirmed via real-world testing with drones in the
field.
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