Empowering AI agents to autonomously achieve Recursive Self-Improvement (RSI) through ongoing environmental interaction is a cornerstone of artificial general intelligence. However, practical RSI pipelines are severely constrained by two fundamental bottlenecks: scarce and expensive ground-truth feedback, and the degradation of predictive world models as evolving policies induce out-of-distribution drift. Researchers from HKUST, Shanghai AI Laboratory, Peking University, and CUHK introduce RSI-Anything (arXiv:2610.13912, code: github.com/Gen-Verse/RSI-Anything), a domain-general framework unlocking recursive self-improvement via predictive world models. Built upon the JEPA-Anything architecture, RSI-Anything establishes a disciplined six-stage paradigm: Propose → Predict → Select → Evaluate → Learn → Retain. By enforcing rigorous compatibility and safety gates governing policy-world model retention, the system continuously converts interaction logs into persistent capability upgrades. Across diverse domains, RSI-Anything drives substantial performance gains: boosting automated code repair success from a 26.3% baseline to 31.2% (+4.9 points), reducing GUI navigation action footprints by 39.4%, more than doubling laboratory planning scores from 21.80% to 46.01% over five iterations, and achieving a 96.15% chemical yield, with codebase fully open-sourced.
Key Takeaways
- ✓RSI-Anything open-sources a domain-general recursive self-improvement framework powered by predictive world models
- ✓Six-stage P-P-S-E-L-R loop lifts code repair from 26.3% to 31.2% and cuts GUI navigation action footprints by 39.4%
- ✓Doubles laboratory planning scores across 5 rounds (21.80% to 46.01%) and achieves 96.15% chemical yield over Bayesian optimization

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Background and the Problem
Recursive Self-Improvement (RSI) offers the theoretical promise of AI systems autonomously scaling toward superintelligence through continuous interaction. However, practical RSI algorithms fail due to two bottlenecks:
- Scarce and Costly Ground-Truth Feedback: Interacting with real execution environments (running test suites, executing wet-lab experiments, or performing GUI operations) is slow and financially prohibitive.
- Co-drift Collapse of World Models: Simulating environments using predictive world models frequently breaks down as evolving policies wander out-of-distribution, producing hallucinations and leading to catastrophic reward hacking.
- Domain-Specific Brittleness: Prior self-improvement techniques relied on rigid game rules (e.g., AlphaZero) and failed to generalize to open domains like code repair and physical sciences.
Architecture and How It Works
Researchers from HKUST, Shanghai AI Lab, Peking University, and CUHK introduce RSI-Anything (arXiv:2610.13912, code: github.com/Gen-Verse/RSI-Anything):
- Six-Stage P-P-S-E-L-R Paradigm: Implements a disciplined lifecycle: Propose (policy generates diverse actions) → Predict (JEPA world model anticipates outcomes in latent space) → Select (filters top candidates via predictive confidence) → Evaluate (anchors against scarce ground-truth execution) → Learn (co-adapts policy and world model) → Retain (enforces compatibility gates).
- Conditional World-Model Adaptation: Dynamically updates the predictive world model using freshly acquired interaction traces, preventing representation drift across policy iterations.
- Unified Latent Architecture: Built on JEPA-Anything, predicting high-level representations rather than low-level pixel/token tokens to minimize compute overhead.
Benchmarks and Measured Results
Evaluated across code repair, GUI navigation, laboratory planning, and reaction optimization:
- Code Repair SOTA (31.2%): Raises automated code repair accuracy from a 26.3% static verifier baseline to 29.2% via predictive selection, reaching 31.2% after world-model adaptation (+4.9 percentage points).
- 39.4% Reduction in GUI Action Footprint: On OSWorld and GUI benchmarks, cuts average interaction steps by 39.4% while maintaining superior task completion rates.
- Laboratory Planning Doubled (21.80% to 46.01%): Over five recursive policy iterations, planning task performance surges from 21.80% to 46.01% (a >111% relative increase).
- Chemical Reaction Yield (96.15% vs 82.16%): Surpasses Bayesian optimization under equivalent exploration budgets, attaining a 96.15% mean best yield.
Getting Started for Developers
RSI-Anything is fully open-sourced on GitHub (Gen-Verse/RSI-Anything). AI teams building autonomous agents can deploy JEPA-based world models as lookahead verifiers before invoking expensive real-world executions, integrate strict Retain gating to avoid policy regression, and harness domain-general self-evolution workflows across coding, UI automation, and scientific discovery.
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