RICE: Breaking Through the Training Bottlenecks of Reinforcement Learning with Explanation
Not on the map. Why?
Abstract (arXiv)
Deep reinforcement learning (DRL) is playing an increasingly important role in real-world applications. However, obtaining an optimally performing DRL agent for complex tasks, especially with sparse rewards, remains a significant challenge. The training of a DRL agent can be often trapped in a bottleneck without further progress. In this paper, we propose RICE, an innovative refining scheme for reinforcement learning that incorporates explanation methods to break through the training bottlenecks. The high-level idea of RICE is to construct a new initial state distribution that combines both the default initial states and critical states identified through explanation methods, thereby encouraging the agent to explore from the mixed initial states. Through careful design, we can theoretically guarantee that our refining scheme has a tighter sub-optimality bound. We evaluate RICE in various popular RL environments and real-world applications. The results demonstrate that RICE significantly outperforms existing refining schemes in enhancing agent performance.
Key facts. Cited by 7 papers in the map (data through 7 Oct 2026). Builds on 34 of its 56 references that are in the map. First posted on arXiv 5 May 2024.
Builds on
34 of 56 references.
References · 34
- 2019PyTorch: An Imperative Style, High-Performance Deep Learning Librarycited by 20,160
- 2017Proximal Policy Optimization Algorithmscited by 14,441
- 2018Soft Actor-Critic: Off-Policy Maximum Entropy Deep Reinforcement Learning with a Stochastic Actorcited by 4,635
- 2017Axiomatic Attribution for Deep Networkscited by 3,350
- 2013Playing Atari with Deep Reinforcement Learningcited by 3,211
- 2016Generative Adversarial Imitation Learningcited by 1,576
- 2018Exploration by Random Network Distillationcited by 966
- 2016Unifying Count-Based Exploration and Intrinsic Motivationcited by 632
- 2021MetaDrive: Composing Diverse Driving Scenarios for Generalizable Reinforcement Learningcited by 281
- 2021Bridging Offline Reinforcement Learning and Imitation Learning: A Tale of Pessimismcited by 275
- 2020First return, then explorecited by 256
- 2017Count-Based Exploration with Neural Density Modelscited by 255
22 more
- 2019Go-Explore: a New Approach for Hard-Exploration Problemscited by 207
- 2021End-to-End Urban Driving by Imitating a Reinforcement Learning Coachcited by 191
- 2021Policy Finetuning: Bridging Sample-Efficient Offline and Online Reinforcement Learningcited by 157
- 2021Tianshou: a Highly Modularized Deep Reinforcement Learning Librarycited by 139
- 2018Self-Imitation Learningcited by 135
- 2017Malware Detection by Eating a Whole EXEcited by 114
- 2022Jump-Start Reinforcement Learningcited by 102
- 2020PC-PG: Policy Cover Directed Exploration for Provable Policy Gradient Learningcited by 91
- 2022Reincarnating Reinforcement Learning: Reusing Prior Computation to Accelerate Progresscited by 63
- 2016Control of Memory, Active Perception, and Action in Minecraftcited by 61
- 2018Learning to Evade Static PE Machine Learning Malware Models via Reinforcement Learningcited by 60
- 2019Exploration via Hindsight Goal Generationcited by 53
- 2019Explain Your Move: Understanding Agent Actions Using Specific and Relevant Feature Attributioncited by 50
- 2023Learning to Generate Better Than Your LLMcited by 49
- 2019Leveraging exploration in off-policy algorithms via normalizing flowscited by 45
- 2020Widening the Pipeline in Human-Guided Reinforcement Learning with Explanation and Context-Aware Data Augmentationcited by 42
- 2021The Information Geometry of Unsupervised Reinforcement Learningcited by 36
- 2022imitation: Clean Imitation Learning Implementationscited by 34
- 2021Safe Driving via Expert Guided Policy Optimizationcited by 29
- 2023Automated Cyber Defence: A Reviewcited by 19
- 2022Understanding the Complexity Gains of Single-Task RL with a Curriculumcited by 16
- 2021Seeing Differently, Acting Similarly: Heterogeneously Observable Imitation Learningcited by 4
Built on by
Citing papers per year: 2024: 1; 2025: 6.
7 papers.
- 2025PaperBench: Evaluating AI's Ability to Replicate AI Researchcited by 286
- 2024Optimal Defender Strategies for CAGE-2 using Causal Modeling and Tree Searchcited by 12
- 2025A Snapshot of Influence: A Local Data Attribution Framework for Online Reinforcement Learningcited by 11
- 2025GPO: Learning from Critical Steps to Improve LLM Reasoningcited by 10
- 2025Behaviour Discovery and Attribution for Explainable Reinforcement Learningcited by 2
- 2025LLM-Guided Reinforcement Learning: Addressing Training Bottlenecks through Policy Modulationcited by 2
- 2025Explainable reinforcement learning from human feedback to improve alignmentcited by 1
- 2025Explainable reinforcement learning from human feedback to improve alignment15 Dec 2025
- 2025GPO: Learning from Critical Steps to Improve LLM Reasoning19 Sep 2025
- 2025LLM-Guided Reinforcement Learning: Addressing Training Bottlenecks through Policy Modulation27 May 2025
- 2025A Snapshot of Influence: A Local Data Attribution Framework for Online Reinforcement Learning25 May 2025
- 2025PaperBench: Evaluating AI's Ability to Replicate AI Research2 Apr 2025
- 2025Behaviour Discovery and Attribution for Explainable Reinforcement Learning19 Mar 2025
- 2024Optimal Defender Strategies for CAGE-2 using Causal Modeling and Tree Search12 Jul 2024