Jul 2026· Statistics, Optimization & Information Computing· Vol 16· 0 citations· 37 references
TL;DR
A hybrid prediction framework that integrates deep neural representation learning with stacked ensemble architecture provides a robust and effective framework for early student dropout prediction, supporting data-driven educational interventions and informed decision-making in higher education.
Abstract
Student dropout remains a major challenge for higher education institutions due to its academic, social, and economic consequences. Early identification of students at risk of dropping out is essential for implementing timely interventions; however, existing prediction approaches often rely on standalone machine learning models that inadequately capture the complex, nonlinear relationships within heterogeneous educational data and exhibit reduced performance under class imbalance. To address these limitations, this study proposes a hybrid prediction framework that integrates deep neural representation learning with a stacked ensemble architecture to improve the accuracy and robustness of student dropout prediction.
The proposed framework is evaluated on three benchmark educational datasets. A deep neural network is employed to learn latent feature representations from preprocessed student data, and the resulting embeddings are used to train heterogeneous machine learning classifiers, including XGBoost, Decision Tree, AdaBoost, Extra Trees, and K-Nearest Neighbors. Their probabilistic predictions are subsequently combined through a logistic regression meta-learner to generate the final prediction. To investigate the impact of class imbalance, both class weighting and the Synthetic Minority Over-sampling Technique (SMOTE) are incorporated and systematically evaluated. Model performance is assessed using accuracy, balanced accuracy, precision, recall, F1-score, and ROC-AUC, while permutation feature importance is employed to examine the influence of the original input variables on the overall prediction pipeline, and McNemar's test is used to assess the statistical significance of performance differences.
Experimental results demonstrate that the proposed framework consistently outperforms standalone machine learning models, a standalone deep neural network, and conventional stacking approaches across all three datasets. These findings demonstrate that combining deep representation learning with stacked ensemble learning provides a robust and effective framework for early student dropout prediction, supporting data-driven educational interventions and informed decision-making in higher education.
The results show that the eSDP framework achieves good predictive performance and high interpretability and comparative performance assessment for predicting student dropout and providing educational decision support.
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Student dropout rates in higher education have become a significant problem for universities worldwide, impacting both student academic achievement and institutional stability. To address this problem, this research proposes the Student Dropout Risk Prediction and Early Warning System (SDRP-EWS), a machine learning fra...
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The findings demonstrate the capability of AI models in minimising dropout risks and enhancing academic performance through prompt, data-informed assistance.
The findings indicate that machine learning methods can effectively support early dropout prediction and decision-support systems in higher education institutions.
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