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Main Authors: He, Mingfeng, Jiang, Fayu, Jiao, Junkun, Li, Mingrun, Li, Ke, Liao, Yipu, Liu, Beijiang, Liu, Tong, Qi, Fazhi, Shang, Zijie, Song, Weimin, Sun, Yue, Wang, Xiongfei, Wang, Hong, Xiong, Dongbo, Yuan, Changzheng, Zhang, Bolun, Zhang, Zhengde, Zhu, Xuliang
Format: Preprint
Published: 2026
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Online Access:https://arxiv.org/abs/2604.22541
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author He, Mingfeng
Jiang, Fayu
Jiao, Junkun
Li, Mingrun
Li, Ke
Liao, Yipu
Liu, Beijiang
Liu, Tong
Qi, Fazhi
Shang, Zijie
Song, Weimin
Sun, Yue
Wang, Xiongfei
Wang, Hong
Xiong, Dongbo
Yuan, Changzheng
Zhang, Bolun
Zhang, Zhengde
Zhu, Xuliang
author_facet He, Mingfeng
Jiang, Fayu
Jiao, Junkun
Li, Mingrun
Li, Ke
Liao, Yipu
Liu, Beijiang
Liu, Tong
Qi, Fazhi
Shang, Zijie
Song, Weimin
Sun, Yue
Wang, Xiongfei
Wang, Hong
Xiong, Dongbo
Yuan, Changzheng
Zhang, Bolun
Zhang, Zhengde
Zhu, Xuliang
contents High Energy Physics (HEP) experiments like BESIII produce petabyte-scale data. Extracting physics results requires complex workflows (simulation, reconstruction, statistical analysis, etc.) that traditionally take experts months or years. Current manual methods are labor-intensive, prone to bias, and limit large-scale systematic scans. As data grows, this paradigm slows discovery. Large Language Models (LLMs) offer a solution. Their natural language understanding and code generation capabilities allow them to interpret scientific tasks and integrate with HEP tools (e.g., ROOT, BOSS) to act as an "AI partner" for autonomous analysis. We present Dr.Sai, an LLM-powered multi-agent system that translates natural language into rigorous physics workflows. As validation, Dr.Sai performed large-scale re-measurements of ten J/psi decay branching fractions - without manual coding. It successfully navigated the real BESIII computing environment and produced results matching established benchmarks. The article details Dr.Sai's architecture, the validation results, and performance evaluation. This work provides a blueprint for autonomous discovery, with relevance to other data-intensive fields like astronomy and genomics.
format Preprint
id arxiv_https___arxiv_org_abs_2604_22541
institution arXiv
publishDate 2026
record_format arxiv
spellingShingle Dr.Sai: An agentic AI for real-world physics analysis at BESIII
He, Mingfeng
Jiang, Fayu
Jiao, Junkun
Li, Mingrun
Li, Ke
Liao, Yipu
Liu, Beijiang
Liu, Tong
Qi, Fazhi
Shang, Zijie
Song, Weimin
Sun, Yue
Wang, Xiongfei
Wang, Hong
Xiong, Dongbo
Yuan, Changzheng
Zhang, Bolun
Zhang, Zhengde
Zhu, Xuliang
High Energy Physics - Experiment
High Energy Physics (HEP) experiments like BESIII produce petabyte-scale data. Extracting physics results requires complex workflows (simulation, reconstruction, statistical analysis, etc.) that traditionally take experts months or years. Current manual methods are labor-intensive, prone to bias, and limit large-scale systematic scans. As data grows, this paradigm slows discovery. Large Language Models (LLMs) offer a solution. Their natural language understanding and code generation capabilities allow them to interpret scientific tasks and integrate with HEP tools (e.g., ROOT, BOSS) to act as an "AI partner" for autonomous analysis. We present Dr.Sai, an LLM-powered multi-agent system that translates natural language into rigorous physics workflows. As validation, Dr.Sai performed large-scale re-measurements of ten J/psi decay branching fractions - without manual coding. It successfully navigated the real BESIII computing environment and produced results matching established benchmarks. The article details Dr.Sai's architecture, the validation results, and performance evaluation. This work provides a blueprint for autonomous discovery, with relevance to other data-intensive fields like astronomy and genomics.
title Dr.Sai: An agentic AI for real-world physics analysis at BESIII
topic High Energy Physics - Experiment
url https://arxiv.org/abs/2604.22541