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Yuan-Hao Jiang

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TIST Journal 2026 Journal Article

Interpretable Structure Learning for Knowledge Components in Education

  • Yuang Wei
  • Yuan-Hao Jiang
  • Changyong Qi
  • Wei Zhang
  • Bo Jiang

Structural relationships among Knowledge Components (KCs) are essential for adaptive learning systems, as they support accurate cognitive diagnosis, personalized path planning, and targeted resource recommendation. However, existing approaches frequently capture correlations instead of reliable directional dependency signals and tend to converge prematurely or become inefficient as graph dimensionality grows. These limitations weaken the reliable modeling of KC-level structure, which in turn reduces interpretability and limits downstream benefits for diagnosis, planning, and recommendation. To this end, we propose a novel structure learning framework that integrates psychometric modeling with structural search. First, we design the I tem R esponse T heory (IRT)-based I nformation C riterion ( IRIC ), an interpretable scoring function that combines information entropy with causal effect estimation grounded in IRT, jointly capturing statistical associations and directionality-sensitive signals under latent ability control. Second, we develop C o- E volutionary O ptimization for S tructural S earch ( CEO-SS ), a multi-population evolutionary algorithm with a game-inspired co-evolution mechanism that balances exploration and exploitation, avoiding premature convergence and showing robust search behavior as graph dimensionality increases within the evaluated benchmarks. Extensive experiments on three types of datasets—including benchmark causal discovery datasets, the public educational dataset, and real-world classroom data—demonstrate that our framework consistently outperforms strong baselines in accuracy and stability, with especially clear gains in adjacency recovery and more modest improvements in edge-direction recovery. In addition, expert evaluation suggests that the learned structures are more diagnostically useful, more actionable for remediation, and more pedagogically plausible than those produced by alternative scoring methods. Overall, the proposed framework provides an interpretable and practically valuable approach to learning KC structures for adaptive learning.

EAAI Journal 2023 Journal Article

A control system of rail-guided vehicle assisted by transdifferentiation strategy of lower organisms

  • Yuan-Hao Jiang
  • Shang Gao
  • Yu-Hang Yin
  • Zi-Fan Xu
  • Shao-Yong Wang

Rail-guided vehicle is a logistics management device widely used to perform various material handling operations instead of manual labor. In processing scenarios, the dimensions of the material transfer path of a rail-guided vehicle are typically very large, which makes the optimization of the material transfer path very difficult. The transdifferentiation behavior of lower organisms was introduced into the evolutionary algorithm, and a large-scale differential evolution algorithm based on the transdifferentiation strategy was proposed, for achieving high-efficiency processing. This strategy makes it possible for some individuals with poor fitness to reach maturity again and be selected for the next iteration after losing some information and returning to their juvenile stage, which helps maintain the diversity of the population. Simulation results show that the proposed algorithm not only achieves an average 25. 68% higher output rate than the comparison algorithms on the test cases but also has an excellent and stable effect distribution level on the extended problem space, which shows that the superiority of the proposed algorithm is not affected by the processing parameters. This research is expected to provide technical guidance for the processing of key components in the ship and aviation manufacturing industries. The code with a 31-page manual is available on our project homepage https: //github. com/MLNST-JUST/DE-TS.

v2026.09.13