Automates monitoring of arXiv for LLM and RL research focused on control applications. Benefits operations teams by identifying relevant papers and facilitating contributions via PRs. Connects to research workflows and documentation tools.
git clone https://github.com/WindyLab/LLM-RL-Papers.gitAutomates monitoring of arXiv for LLM and RL research focused on control applications. Benefits operations teams by identifying relevant papers and facilitating contributions via PRs. Connects to research workflows and documentation tools.
[{"step":"Set up automated monitoring","action":"Use a tool like [Zapier](https://zapier.com/) or [Make (Integromat)](https://www.make.com/) to trigger the arXiv API query daily/weekly. Alternatively, use a Python script with the `arxiv` library to fetch papers programmatically.","tip":"Filter results by relevance score (e.g., >7/10) to avoid noise. Adjust keywords based on your specific control applications (e.g., add 'PID' or 'MPC' for broader coverage)."},{"step":"Extract and summarize papers","action":"Use the AI to parse the fetched papers, extract key details, and generate a structured summary. Tools like [Claude](https://claude.ai/) or [ChatGPT](https://chat.openai.com/) can handle this step with the provided prompt template.","tip":"For large batches, split the work into chunks (e.g., 10 papers per session) to ensure accuracy. Cross-check extracted data with the arXiv page for errors."},{"step":"Identify contribution opportunities","action":"Review the 'Suggested PRs' column in the output and prioritize based on your team's expertise and resources. Focus on gaps like real-time constraints, safety guarantees, or benchmarking.","tip":"Prioritize papers with open-source code or datasets to accelerate contributions. Use tools like [GitHub Copilot](https://github.com/features/copilot) to draft PR descriptions or code snippets."},{"step":"Integrate into workflow","action":"Share the report with your research team via Slack/Teams or a shared document (e.g., Notion, Google Docs). Use the insights to guide literature reviews, grant proposals, or internal R&D sprints.","tip":"Tag relevant team members in the report to encourage collaboration. Link papers to your internal documentation (e.g., Confluence) for future reference."},{"step":"Follow up on contributions","action":"If a PR is submitted, track its progress and engage with reviewers. Use the AI to draft responses to feedback or generate additional experiments to strengthen the contribution.","tip":"Set a reminder to revisit the paper in 3-6 months to check for citations or follow-up work from the authors."}]
Automate the monitoring of new research papers on LLM and RL for timely updates.
Facilitate collaboration by allowing users to submit pull requests for noteworthy papers.
Enhance control systems in robotics by integrating insights from the latest research.
Support game development by applying findings from LLM and RL research to character behavior.
No install command available. Check the GitHub repository for manual installation instructions.
git clone https://github.com/WindyLab/LLM-RL-PapersCopy the install command above and run it in your terminal.
Launch Claude Code, Cursor, or your preferred AI coding agent.
Use the prompt template or examples below to test the skill.
Adapt the skill to your specific use case and workflow.
Monitor arXiv for new papers matching the query '[LLM OR "large language model" OR "reinforcement learning"] AND [control OR "control systems" OR "robotics"]' with a frequency of [DAILY/WEEKLY]. For each relevant paper, extract: title, authors, abstract, arXiv ID, publication date, and direct PDF link. Then, generate a structured summary highlighting: 1) Key contributions, 2) Methodology, 3) Control applications addressed, 4) Relevance score (1-10) for our research focus. Finally, suggest potential contributions or PRs by identifying gaps in the paper's approach or areas for extension. Format the output as a markdown table with clickable links for easy reference.
### Weekly arXiv Monitoring Report: LLM & RL for Control Applications *Generated on: October 12, 2023* | **Title** | **Authors** | **arXiv ID** | **Date** | **Relevance** | **Key Contributions** | **Control Applications** | **Suggested PRs** | |-----------|------------|--------------|----------|---------------|-----------------------|--------------------------|-------------------| | **Language Models as Zero-Shot Controllers for Robotics** | Smith et al. | [2310.04463](https://arxiv.org/abs/2310.04463) | Oct 6, 2023 | 9/10 | Introduces a framework for using LLMs to generate control policies for robotic systems without task-specific training. | Robotics (manipulation, navigation), Adaptive control | Extend to multi-robot coordination; Integrate with model predictive control (MPC) for real-time adjustments. | | **Reinforcement Learning for Adaptive Cruise Control in Autonomous Vehicles** | Lee et al. | [2310.04512](https://arxiv.org/abs/2310.04512) | Oct 5, 2023 | 8/10 | Proposes a DDPG-based RL agent for adaptive cruise control (ACC) with improved safety and fuel efficiency. | Autonomous vehicles, Adaptive control | Implement in a high-fidelity simulator; Compare against PID controllers for robustness. | | **Hierarchical Reinforcement Learning for Industrial Process Control** | Chen et al. | [2310.04689](https://arxiv.org/abs/2310.04689) | Oct 4, 2023 | 7/10 | Presents a hierarchical RL approach to optimize industrial process control with reduced computational overhead. | Industrial control systems, Hierarchical control | Validate on a benchmark process (e.g., Tennessee Eastman); Explore transfer learning to new processes. | **Summary:** This week’s papers highlight growing interest in combining LLMs with control systems, particularly in robotics and autonomous vehicles. The Smith et al. paper stands out for its zero-shot applicability, while Lee et al. and Chen et al. focus on improving RL-based control in specific domains. **Actionable next steps:** 1) Review the Smith et al. paper for potential integration with our existing robotic control stack, 2) Replicate the ACC experiment in CARLA for benchmarking, 3) Explore hierarchical RL for our chemical process control use case. **Notes:** - All papers are open-access and include code repositories (linked in the PDF). - The Chen et al. paper includes a supplementary GitHub repo with pre-trained models. - Consider reaching out to authors for collaboration opportunities, especially for the Smith et al. work.
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