Deep learning driven personalized paths for TCM graduate education

Traditional Chinese Medicine (TCM) graduate education struggles to balance classical knowledge and modern medical integration. This study developed and validated a deep learning-based personalized learning path system. Due to the sequential nature of graduate program enrollment, a true randomized controlled trial was not feasible. We therefore conducted a rigorously controlled quasi-experimental non-randomized controlled trial involving 120 TCM graduate students (2019–2025, Anhui Medical University). Participants were assigned to the AI-personalized group (n = 60) or traditional learning group (n = 60) via stratified alternating allocation—a standard quasi-randomization method recommended by the Cochrane Handbook—stratified by prior education background and baseline TCM knowledge score to ensure baseline balance. The study followed the CONSORT 2010 Extension for Non-Randomized Trials (TREND statement) for standardized reporting. The system achieved 87.3% (95% CI:84.2–90.1) accuracy in predicting optimal learning paths. Students in the AI-personalized group showed significant improvements across all three domains: the proportion of students achieving “good” proficiency increased from an initial 26%–35% (TCM knowledge: 35.2%, clinical skills: 26.7%, research capability: 28.3%) to 46%–68% (TCM knowledge: 68.3%, clinical skills: 58.3%, research capability: 46.7%) (Cohen’s d = 0.71–0.91; all p < 0.001). Deep learning personalization enhances TCM education outcomes, suggesting a potentially scalable framework for integrative medicine programs.

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Publication Details

Journal
Scientific Reports
Published
2026-04-17
DOI
https://doi.org/10.1038/s41598-026-48811-w
Primary Topic
Traditional Chinese Medicine Studies
Type
article
Field-Weighted Citation Impact
0.00
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article

Deep learning driven personalized paths for TCM graduate education

Junsong Wen, Ziwei Pan, T Wang, Yaodong Zhu et al.
Scientific Reports
Traditional Chinese Medicine Studies
article

Deep learning driven personalized paths for TCM graduate education

Junsong Wen, Ziwei Pan, T Wang, Yaodong Zhu, Xiaoze Zhang
article en

Abstract

Traditional Chinese Medicine (TCM) graduate education struggles to balance classical knowledge and modern medical integration. This study developed and validated a deep learning-based personalized learning path system. Due to the sequential nature of graduate program enrollment, a true randomized controlled trial was not feasible. We therefore conducted a rigorously controlled quasi-experimental non-randomized controlled trial involving 120 TCM graduate students (2019–2025, Anhui Medical University). Participants were assigned to the AI-personalized group (n = 60) or traditional learning group (n = 60) via stratified alternating allocation—a standard quasi-randomization method recommended by the Cochrane Handbook—stratified by prior education background and baseline TCM knowledge score to ensure baseline balance. The study followed the CONSORT 2010 Extension for Non-Randomized Trials (TREND statement) for standardized reporting. The system achieved 87.3% (95% CI:84.2–90.1) accuracy in predicting optimal learning paths. Students in the AI-personalized group showed significant improvements across all three domains: the proportion of students achieving “good” proficiency increased from an initial 26%–35% (TCM knowledge: 35.2%, clinical skills: 26.7%, research capability: 28.3%) to 46%–68% (TCM knowledge: 68.3%, clinical skills: 58.3%, research capability: 46.7%) (Cohen’s d = 0.71–0.91; all p < 0.001). Deep learning personalization enhances TCM education outcomes, suggesting a potentially scalable framework for integrative medicine programs.

Scientific Reports
Anhui Medical University (CN), Anhui University of Traditional Chinese Medicine (CN), First Affiliated Hospital of Anhui Medical University (CN)
Quality Education
Openalex Percentile: Top 4%
Traditional Chinese Medicine Studies
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