VISION-SLS: Safe Perception-Based Control from Learned Visual Representations via System Level Synthesis

Fuente: arXiv
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Auteurs principaux: Leeman, Antoine P., Zhan, Shuyu, Zeilinger, Melanie N., Chou, Glen
Format: Preprint
Publié: 2026
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author Leeman, Antoine P.
Zhan, Shuyu
Zeilinger, Melanie N.
Chou, Glen
author_facet Leeman, Antoine P.
Zhan, Shuyu
Zeilinger, Melanie N.
Chou, Glen
contents We propose VISION-SLS, a method for nonlinear output-feedback control from high-resolution RGB images which provides robust constraint satisfaction guarantees under calibrated uncertainty bounds despite partial observability, sensor noise, and nonlinear dynamics. To enable scalability while retaining guarantees, we propose: (i) a learned low-dimensional observation map from pretrained visual features with state-dependent error bounds, and (ii) a causal affine time-varying output-feedback policy optimized via System Level Synthesis (SLS). We develop a scalable, novel solver for the resulting nonconvex program that leverages sequential convex programming coupled with efficient Riccati recursions. On two simulated visuomotor tasks (a 4D car and a 10D quadrotor) with >= 512 x 512 pixels and a 59D humanoid task with partial observability, our method enables safe, information-gathering behavior that reduces uncertainty while guaranteeing constraint satisfaction with empirically-calibrated error bounds. We also validate our method on hardware, safely controlling a ground vehicle from onboard images, outperforming baselines in safety rate and solve times. Together, these results show that learned visual abstractions coupled with an efficient solver make SLS-based safe visuomotor output-feedback practical at scale. The code implementation of our method is available at https://github.com/trustworthyrobotics/VISION-SLS.
format Preprint
id arxiv_https___arxiv_org_abs_2604_24894
institution arXiv
publishDate 2026
record_format arxiv
spellingShingle VISION-SLS: Safe Perception-Based Control from Learned Visual Representations via System Level Synthesis
Leeman, Antoine P.
Zhan, Shuyu
Zeilinger, Melanie N.
Chou, Glen
Robotics
Computer Vision and Pattern Recognition
Machine Learning
Systems and Control
Optimization and Control
We propose VISION-SLS, a method for nonlinear output-feedback control from high-resolution RGB images which provides robust constraint satisfaction guarantees under calibrated uncertainty bounds despite partial observability, sensor noise, and nonlinear dynamics. To enable scalability while retaining guarantees, we propose: (i) a learned low-dimensional observation map from pretrained visual features with state-dependent error bounds, and (ii) a causal affine time-varying output-feedback policy optimized via System Level Synthesis (SLS). We develop a scalable, novel solver for the resulting nonconvex program that leverages sequential convex programming coupled with efficient Riccati recursions. On two simulated visuomotor tasks (a 4D car and a 10D quadrotor) with >= 512 x 512 pixels and a 59D humanoid task with partial observability, our method enables safe, information-gathering behavior that reduces uncertainty while guaranteeing constraint satisfaction with empirically-calibrated error bounds. We also validate our method on hardware, safely controlling a ground vehicle from onboard images, outperforming baselines in safety rate and solve times. Together, these results show that learned visual abstractions coupled with an efficient solver make SLS-based safe visuomotor output-feedback practical at scale. The code implementation of our method is available at https://github.com/trustworthyrobotics/VISION-SLS.
title VISION-SLS: Safe Perception-Based Control from Learned Visual Representations via System Level Synthesis
topic Robotics
Computer Vision and Pattern Recognition
Machine Learning
Systems and Control
Optimization and Control
url https://arxiv.org/abs/2604.24894