ROBOGATE: Adaptive Failure Discovery for Safe Robot Policy Deployment via Two-Stage Boundary-Focused Sampling
Azuki Kim

TL;DR
ROBOGATE is a framework that efficiently identifies failure boundaries in robot deployment scenarios using adaptive sampling and physics simulation, aiding safe policy deployment.
Contribution
It introduces a two-stage boundary-focused sampling method combined with simulation to discover failure regions in high-dimensional parameter spaces.
Findings
Achieved a 0.780 AUC in failure risk modeling.
Discovered a closed-form failure boundary equation.
Highlighted a significant cross-simulator performance gap for policies.
Abstract
Deploying learned robot manipulation policies in industrial settings requires rigorous pre-deployment validation, yet exhaustive testing across high-dimensional parameter spaces is intractable. We present ROBOGATE, a deployment risk management framework that combines physics-based simulation with a two-stage adaptive sampling strategy to efficiently discover failure boundaries in the operational parameter space. Stage 1 employs Latin Hypercube Sampling (LHS) across an 8-dimensional parameter space; Stage 2 applies boundary-focused sampling concentrated in the 30-70% success rate transition zone. Using NVIDIA Isaac Sim with Newton physics, we evaluate a scripted pick-and-place controller across four robot embodiments -- Franka Panda (7-DOF), UR3e (6-DOF), UR5e (6-DOF), and UR10e (6-DOF) -- totaling over 50,000 experiments. Our logistic regression risk model achieves AUC 0.780 and…
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