DSWorld: A Data Science World Model for Efficient Autonomous Agents
TLDR
Introduces DSWorld, a data science world model for predicting execution outcomes, accelerating RL agent training and search-based inference.
Reasoning
The paper presents a novel framework (DSWorld) that models data science environment transitions, combining structured state construction, cost-aware routing, and an LLM simulator. Strengths include a clear problem motivation, a new dataset, and strong empirical results (14x training speedup, 35.6% improvement over LLM baseline). Weaknesses: the abstract lacks details on generalization or limitations of the simulator, and the 'world model' terminology is specific to data science rather than general domains.
Read-first score
Read-first score 43.6, weighted from topical fit, citation, graph, method, reproducibility, and recency signals. Original total remains 41.
Field roles
Rank sensitivity
Stability: volatile; rank range: 396.
Keyword Scores
Deep Analysis
Innovations
- Introduction of the Data Science World Model concept for predicting environment state transitions in data science workflows
- DSWorld framework combining structured state construction, cost-aware routing, lightweight real execution, and an LLM-based simulator for expensive operations
- Construction of an 8K-scale transition trajectory dataset for training
- Reflective World Model Optimization, an error-aware reinforcement learning strategy for transition prediction improvement
Methodology
DSWorld models the data science execution environment by predicting state transitions given current workflow states and candidate operations. The framework uses structured state construction, cost-aware routing to decide between lightweight real execution and LLM-based simulation, and is trained on an 8K trajectory dataset with an error-aware RL strategy (Reflective World Model Optimization).
Key Results
DSWorld accelerates RL-based agent training by approximately 14x and search-based inference by 3-6x while maintaining competitive performance, and outperforms the strongest LLM baseline by 35.6% on transition prediction tasks.