Efficient Agentic Reasoning Through Self-Regulated Simulative Planning
TLDR
Proposes self-regulated simulative planning with three systems, using LLM as world model, achieving efficient reasoning competitive with much larger models.
Reasoning
Strengths: novel three-system decomposition for efficient planning, self-regulation reduces token use, competitive results with smaller models. Weaknesses: reliance on LLM as world model may limit generalization; abstract lacks detailed methodology and limitations.
Read-first score
Read-first score 49, weighted from topical fit, citation, graph, method, reproducibility, and recency signals. Original total remains 30.
Field roles
Rank sensitivity
Stability: volatile; rank range: 337.
Keyword Scores
Deep Analysis
Innovations
- Decomposition of decision-making into three systems: simulative reasoning (System II), self-regulation (System III), and reactive execution (System I)
- SR^2^AM (Self-Regulated Simulative Reasoning Agentic LLM) realizing these as distinct stages within an LLM's chain-of-thought, with the LLM as world model
- Two instantiations: v0.1 (prompted multi-module) and v1.0 (reconstructed from traces of pretrained reasoning LLMs, trained via supervised then RL)
- Self-regulation decides when and how deeply to plan, leading to efficient token use
Methodology
The paper develops SR^2^AM, an agentic LLM that decomposes reasoning into three systems: reactive execution (System I), simulative reasoning (System II) using a world model, and self-regulation (System III) via a learned configurator. Two instantiations are explored: v0.1 uses a prompted multi-module system, while v1.0 reconstructs structured plans from traces of pretrained reasoning LLMs and is trained via supervised learning followed by reinforcement learning. Evaluation is conducted across math, science, tabular analysis, and web information seeking tasks.
Key Results
v0.1-8B and v1.0-30B achieve Pass@1 competitive with 120-355B and 685B-1T parameter systems respectively, while v1.0-30B uses 25.8-95.3% fewer reasoning tokens than comparable agentic LLMs. RL increases average planning horizon by 22.8% while planning frequency grows only 2.0%, showing it learns to plan further ahead rather than more often.