Paper Overview
Field: Machine Learning Authors: Python Song, Zhixuan Liang, Kelsey Fu, Mengdi Wang, Junfeng Yang, Shilong Liu Published: 2026-10-07 arXiv: 2610.10498
Abstract
Robot foundation models provide strong visuomotor control, yet their performance can degrade when object positions or task instructions change. Further improvements often require post-training on substantial robot data, which can be costly to collect through methods such as teleoperation. Agentic harnesses can adapt around the model, but current self-evolving harnesses use robot trials inefficiently when deciding which code and skill changes to pursue.
We introduce EmbodiedRSI, a self-evolving agentic harness that autonomously decides where to explore next and turns the resulting physical interaction into improved code and skills.
Fast-Slow Dual-System Architecture
- Competing code and skill hypotheses are maintained in a Hypothesis Graph.
- Value-of-information experiments select physical experiments that can discriminate between competing hypotheses.
- Experimental results guide code-skill co-evolution.
- The slow system builds hierarchical memory; reward-anchored memory learning selects effective memories based on their value for subsequent improvements of the fast system.
Results
| Benchmark | EmbodiedRSI | Best Baseline | |---|---|---| | RoboCasa365 (overall) | 77.0% | 40.1% | | RoboCasa365 (composite unseen) | 71.3% | — | | LIBERO-Pro (overall) | 86.8% | — | | Real robot (zero-shot) | 71.3% | — |
Beyond benchmark performance, EmbodiedRSI transfers zero-shot to real robots, achieving a 71.3% overall success rate across multiple challenging tasks.
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*Auto-collected on 2026-10-09.*