Delayed Homomorphic Reinforcement Learning for Environments with Delayed Feedback
📰 ArXiv cs.AI
Researchers propose a delayed homomorphic reinforcement learning approach to handle environments with delayed feedback, addressing the Markov assumption and state-space explosion issues
Action Steps
- Identify environments with delayed feedback and the resulting state-space explosion
- Apply canonical state augmentation approaches and assess their limitations
- Implement delayed homomorphic reinforcement learning to address the Markov assumption and sample-complexity burden
- Evaluate the performance of the proposed approach in various environments and scenarios
Who Needs to Know This
This research benefits AI engineers and ML researchers working on reinforcement learning and control systems, as it provides a novel approach to handling delayed feedback in real-world environments
Key Insight
💡 Delayed homomorphic reinforcement learning can effectively handle environments with delayed feedback, reducing the state-space explosion and improving learning and control
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🤖 New approach to reinforcement learning: delayed homomorphic RL for environments with delayed feedback! 📊
Key Takeaways
Researchers propose a delayed homomorphic reinforcement learning approach to handle environments with delayed feedback, addressing the Markov assumption and state-space explosion issues
Full Article
Title: Delayed Homomorphic Reinforcement Learning for Environments with Delayed Feedback
Abstract:
arXiv:2604.03641v1 Announce Type: cross Abstract: Reinforcement learning in real-world systems is often accompanied by delayed feedback, which breaks the Markov assumption and impedes both learning and control. Canonical state augmentation approaches cause the state-space explosion, which introduces a severe sample-complexity burden. Despite recent progress, the state-of-the-art augmentation-based baselines remain incomplete: they either predominantly reduce the burden on the critic or adopt non
Abstract:
arXiv:2604.03641v1 Announce Type: cross Abstract: Reinforcement learning in real-world systems is often accompanied by delayed feedback, which breaks the Markov assumption and impedes both learning and control. Canonical state augmentation approaches cause the state-space explosion, which introduces a severe sample-complexity burden. Despite recent progress, the state-of-the-art augmentation-based baselines remain incomplete: they either predominantly reduce the burden on the critic or adopt non
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