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Awesome Safe Learning for Contact-rich Robotic Tasks

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Welcome to the Awesome-Safe Learning for Contact-Rich Robotic Tasks repository! This project collecting research papers in area of learning based methods for safe contact-rich robotics tasks since the last 5 years. For more details, please refer to our survey paper : Safe Learning for Contact-Rich Robot Tasks: A Survey from classical Learning-Based Methods to Safe Foundation Models Authers: Heng Zhang, Rui Dai, Gokhan Solak, Pokuang Zhou, Yu She, Arash Ajoudani, under review on npj Robotics, 2026. Any contribution is welcome! We encourage you to submit pull requests to add relevant papers or resources to this collection or reach out if you find any errors, mistakes or typos.

And we would appreciate it if you could star Star this repository to help others discover it.

This is a comprehensive paper collection of safe learning for contact-rich robotic tasks, aiming to contribute to the robotics and embodied AI communities. The main contributions are as below:

Our contribution:

framework

A Safety-Centric Taxonomy We introduce a structured taxonomy that categorizes safe learning approaches based on key dimensions, including learning phase (exploration vs. execution), level of safety integration (planning, control, or end-to-end), and modalities used (force/torque, vision, etc.). This survey provides a comprehensive lens through which researchers can analyze existing methods and identify safety design trade-offs.


Contextualization Within Contact-Rich Tasks Beyond general safe learning, we focus on its application to contact-rich robotic tasks such as insertion, polishing, and assembly. We detail how safety constraints are embedded in these tasks, and map the methods used to specific operational challenges (e.g., compliance, contact-inavatiable tasks, collision avoidance, and force control).

overview2
Identification of Gaps, Challenges, and Future Directions We synthesize open research questions and outline critical challenges such as sim-to-real transfer under safety constraints, the scarcity of standardized benchmarks, and the need for provably safe generalization. We also discuss underexplored directions, including hybrid control-learning frameworks and human-in-the-loop safety mechanisms. Most importantly, we highlight the challenges and future opportunities in integrating safe contact-rich learning with large robotic foundation models, particularly VLM and VLA.

future

Table of Contents

Surveys

Papers

safe learning for contact-rich robotic tasks

Safe Exploration This section introduces safe learning before executing the task, highlighting its importance in ensuring reliable and risk-free performance prior to real execution.
Safe Execution Safe execution is crucial in contact-rich robotic tasks, as robots must interact not only with complex and uncertain environments but often also in close proximity to humans . This section focuses on learning methods that ensure safety during the execution of contact-rich tasks, addressing challenges such as safe contact, force control, and compliance.
Provable Safety Methods
Safe foundation models Foundation Models & General Large Models (e.g., VLMs, VLAs) have shown great potential in robotics, but ensuring their safety in contact-rich tasks remains a significant challenge. This section explores recent advancements in integrating safety mechanisms into foundation models for robotic applications.

surveys on safe foundation models:

Recent Safe Foundation Models for Contact-Rich Tasks:

Language Conditioned / Text-Guided / LLM Agents for Contact-Rich Tasks:

Contact-rich tasks

Assembly and Insertion
Surface Interaction
Object Manipulation
Physical HRI
Other tasks

Sensing And Policy Modalities

Pose and Proprioceptive
Force and Torque sensing
Vision Sensing
Tactile Sensing

Data Acquisition

Simulation-Based Data Generation
Real-World Data Collection
Hybrid Data Approaches

Safety Evaluation Metrics

Safety, Efficiency and Task Objectives
Trade-off Between Objectives
Improved Evaluation

Safety Abstraction Level

High-Level Safety Constraints
Low-Level Safety Implementations Low-level safety control focuses on ensuring safe interactions at the actuation and feedback level. This includes real-time enforcement of physical constraints such as force, torque, impedance, and stability, which are especially critical in contact-rich scenarios. Learning-based methods here typically involve adaptive impedance control, learning CBFs, model-predictive safety filters, or robust policy adaptation techniques

Compliant control and impedance learning

Safety filters and barriers

Robust and adaptive safety

End-to-End Safety Enhancement
Hybrid Safety Approaches

Safety Enforcement Spaces

Task Space
Joint Space
Dual-Space Safety Enforcement
Policy Spaces

Cite

bibtex
@article{Zhang_2025,
   title={Safe Learning for Contact-Rich Robot Tasks: A Survey From Classical Learning-Based Methods to Safe Foundation Models},
   author={Zhang, Heng and Dai, Rui and Solak, Gokhan and Zhou, Pokuang and She, Yu and Ajoudani, Arash},
   url={http://arxiv.org/abs/2512.11908},
   journal={arXiv preprint},
   year={2025} }

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MIT

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A paper collection for learning based methods for safe contact-rich robotics tasks

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