- The paper introduces a framework that uses agent-environment interactions to autonomously generate high-quality data, reducing reliance on human annotations.
- It employs backward construction to retrofit task instructions from LLM-generated trajectories, enhancing data alignment and model performance.
- Experimental results across multiple benchmarks showed improvements up to 12.2% in ICL and 19.5% in training, demonstrating the framework's robust adaptability.
Learn-by-interact: A Data-Centric Framework for Self-Adaptive Agents in Realistic Environments
The paper, "Learn-by-interact: A Data-Centric Framework for Self-Adaptive Agents in Realistic Environments," presents a framework to enhance the adaptability of LLM agents within diverse environments. The core idea revolves around synthesizing agent-specific data autonomously through agent-environment interactions, thereby removing the dependency on costly human annotations.
Overview and Methodology
The paper introduces Learn-by-interact, a framework designed to generate high-quality agentic data without human involvement. The framework leverages existing environment-related resources such as documentations and tutorials to synthesize task instructions. To address the typical misalignment between these instructions and the trajectories generated by LLMs, the authors propose a concept called backward construction. This involves the retrospective creation of new instructions based on the generated trajectories, aiming to match the actual agent-environment interactions closely.
The synthesized data, once generated, is used in both In-Context Learning (ICL) and training-based scenarios to enhance model performance. For ICL, the paper introduces agentic retrieval, blending observation-based and model-based approaches to effectively utilize synthesized data. In training-based setups, the synthesized data serves directly as training material.
Experimental Results
The researchers conducted extensive experiments across various benchmarks including SWE-bench, WebArena, OSWorld, and Spider2-V, which cover coding, web, and desktop environments. The results demonstrated notable improvements over baseline approaches, including enhancements up to 12.2% and 19.5% in ICL and training scenarios, respectively, with Claude-3.5 and Codestral-22B.
The experimental findings indicate that the synthesized data significantly boosts the performance of LLMs, surpassing both human-annotated baselines and alternative synthesized approaches. Backward construction, in particular, plays a critical role by not only increasing data volume but also improving data quality.
Implications and Future Directions
The framework's implications are substantial for advancing the autonomous adaptation of LLMs in realistic environments, reducing the reliance on human-labeled datasets. This approach presents a scalable solution for deploying LLMs across varied environments by enhancing their situational understanding and adaptability through interaction-driven data synthesis.
The paper paves the way for future research exploring more efficient ways of synthesizing data, potentially integrating multi-modal capabilities and extending the approach to scenarios like robotics and other domains requiring intricate environment interactions.
Conclusion
"Learn-by-interact" represents a significant stride in reducing the human annotation burden associated with agent data. By synthesizing data through environment interactions and employing innovative retrieval methods in ICL, this framework offers a robust solution for facilitating the adaptability of LLMs. This approach hints at promising directions for deploying intelligent agents in practical applications, impacting areas from autonomous digital assistants to complex task-oriented systems.