Towards a Workflow for Safe Simulation-to-Reality Transfer of Robot Control Policies

Learning-Based robot controllers often omit safety constraints during training, as their implementation can hinder the learning process and requires additional effort. We present a modular workflow to enable the safe deployment of control policies trained in simulation to physical hardware consisting of three key components: a standardized interface for exporting control models, a ROS 2 environment for deployment, and a safety controller that enforces joint-space limits consistently across simulation and real-world execution. We provide the first systematic evaluation of three practical safety formulations for highly parallelized training using canonical benchmarks to capture large- and small-action-space settings. Our experiments show that including a safety controller during training does not slow convergence or reduce peak performance, but significantly improves transferability for broad, free-space motion tasks. Although, training without safety constraints applying corrections only at deployment still proves effective for fine-grained assembly tasks. The implementation is available on GitHub.

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Publication Details

Published
2025-11-24
DOI
https://doi.org/10.1109/iccma67641.2025.11369675
Primary Topic
Robot Manipulation and Learning
Type
article
Field-Weighted Citation Impact
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article

Towards a Workflow for Safe Simulation-to-Reality Transfer of Robot Control Policies

Petra Schneider, D. Mayer, Konstantin Wrede, Sebastian Zarnack et al.
Robot Manipulation and Learning
article

Towards a Workflow for Safe Simulation-to-Reality Transfer of Robot Control Policies

Petra Schneider, D. Mayer, Konstantin Wrede, Sebastian Zarnack, Yibo Di, Ron Martin, Julius Neumann, Martin Dehmel
article en

Abstract

Learning-Based robot controllers often omit safety constraints during training, as their implementation can hinder the learning process and requires additional effort. We present a modular workflow to enable the safe deployment of control policies trained in simulation to physical hardware consisting of three key components: a standardized interface for exporting control models, a ROS 2 environment for deployment, and a safety controller that enforces joint-space limits consistently across simulation and real-world execution. We provide the first systematic evaluation of three practical safety formulations for highly parallelized training using canonical benchmarks to capture large- and small-action-space settings. Our experiments show that including a safety controller during training does not slow convergence or reduce peak performance, but significantly improves transferability for broad, free-space motion tasks. Although, training without safety constraints applying corrections only at deployment still proves effective for fine-grained assembly tasks. The implementation is available on GitHub.

Fraunhofer Institute for Integrated Circuits IIS, Division Engineering of Adaptive Systems EAS (DE)
Openalex Percentile: Top 30%
Robot Manipulation and Learning
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Towards a Workflow for Safe Simulation-to-Reality Transfer of Robot Control Policies — Petra Schneider, D. Mayer, et al. · (2025) | TGRS Research Map | TGRS