Unlocking azobenzene isomerization mechanisms via an LLM agent-driven workflow integrating simulation, experiment, and machine learning

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Authors: Yixi Shen, Ledu Wang, Yan Huang, Xiaolong Zhang, MENG HUANG, Huirong Li, Jing He, Aoran Cai, Yang Wang, Pieter Smith, Jun Jiang, Zhuoying Zhu
+1 more Linjiang Chen
Cited by: 3
References: 35

Abstract

= 0.99 and MAE = 5°. Attention maps highlight mechanistically informative bands and support holistic (non-marker-dependent) interpretation; transfer learning extends performance across chemical environments and experimental datasets. LLM agents formulated the research plan and coordinated automated simulations and measurements, whereas neural-network architecture design, training, and comparative benchmarking were performed by human researchers to retain full flexibility for model exploration and ensure rigorous interpretation. To our knowledge, this is the first LLM-agent-planned and -orchestrated mechanistic study unifying literature synthesis, theory, experiment, and machine learning. The resulting strategy advances quantitative insight into azobenzene photoisomerization and provides a generalizable blueprint for AI-driven investigations of dynamic molecular systems.

Fields of Study & Subjects

Photochromic and Fluorescence Chemistry Machine Learning in Materials Science Click Chemistry and Applications

Publication details

Journal / source
Chemical Science
Publisher
Royal Society of Chemistry (RSC)
Volume
17
Issue
19
Pages
9663–9673
Publication date
1 January 2026
Language
EN