Self-Guided Function Calling in Large Language Models via Stepwise Experience Recall
Sijia Cui, Aiyao He, Shuai Xu, Hongming Zhang, Yanna Wang, Qingyang Zhang, Yajing Wang, Bo Xu

TL;DR
This paper introduces SEER, a self-guided, stepwise experience recall method that incrementally improves large language models' ability to perform multi-step tool usage by continually expanding its experience pool.
Contribution
The paper presents SEER, a novel approach that dynamically updates an experience pool for LLMs, reducing manual effort and enhancing multi-step tool interaction performance.
Findings
SEER improves accuracy by 6.1% on easy questions and 4.7% on hard questions.
SEER achieves 7.44% and 23.38% accuracy gains on real-world domains with different models.
The method reduces reliance on manual demonstrations and curates experience dynamically.
Abstract
Function calling enables large language models (LLMs) to interact with external systems by leveraging tools and APIs. When faced with multi-step tool usage, LLMs still struggle with tool selection, parameter generation, and tool-chain planning. Existing methods typically rely on manually designing task-specific demonstrations, or retrieving from a curated library. These approaches demand substantial expert effort and prompt engineering becomes increasingly complex and inefficient as tool diversity and task difficulty scale. To address these challenges, we propose a self-guided method, Stepwise Experience Recall (SEER), which performs fine-grained, stepwise retrieval from a continually updated experience pool. Instead of relying on static or manually curated library, SEER incrementally augments the experience pool with past successful trajectories, enabling continuous expansion of the…
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Taxonomy
TopicsTopic Modeling · Multimodal Machine Learning Applications · Machine Learning in Materials Science
