A Multimodal Ensemble Learning Framework for Early Detection of Adolescent Depression Using Multi-Source Real-World Data
Article Information
Abstract
Depression and academic stress undermine students' attendance, performance, and retention, yet educational institutions lack reliable early-alert tools. Because about three-quarters of lifetime psychiatric conditions emerge before age 25, timely automated screening is critical for early intervention. This paper proposes a multi-source ensemble learning framework for distinguishing {\it depression} (DP) from {\it non-depression} (ND) using 1,547 harmonized samples drawn from six real-world sources: occupational surveys, student academic stress records, Twitter sentiment data, Reddit depression posts, fine-grained emotion corpora, and behavioural monitoring signals. Academic stress and behavioural records serve as the core educational sources, while the remaining sources broaden linguistic and affective coverage. Six {\it machine learning} (ML) classifiers were benchmarked under 10-fold cross-validation: {\it decision tree} (DT), {\it support vector machine} (SVM), {\it random forest} (RF), {\it adaptive boosting} (AdaBoost), {\it extreme gradient boosting} (XGBoost), and {\it light gradient boosting machine} (LightGBM). RF performed best, achieving 97.996% accuracy, the highest sensitivity (96.741%), only 6 false positives, and 25 missed DP cases. LightGBM recorded the highest specificity (99.615%), making it suitable for precision-oriented screening, whereas the boosting ensembles performed comparably to the linear SVM and all ensembles clearly outperformed the DT baseline. These findings support ensemble learning, particularly bagging, for heterogeneous, multi-source student mental health data and suggest practical value for counsellors and student support services in identifying at-risk students early.
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References
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Cite This Article
TY - JOUR
AU - Bhukya, Ramesh K.
AU - Singh, Nirbhay
AU - Tiwari, Aniket
PY - 2026
DA - 2026/10/01
TI - A Multimodal Ensemble Learning Framework for Early Detection of Adolescent Depression Using Multi-Source Real-World Data
JO - ICCK Transactions on Educational Data Mining
T2 - ICCK Transactions on Educational Data Mining
JF - ICCK Transactions on Educational Data Mining
VL - 2
IS - 2
SP - 63
EP - 84
DO - 10.62762/TEDM.2026.244050
UR - https://www.icck.org/article/abs/TEDM.2026.244050
KW - educational data mining
KW - student depression
KW - academic stress
KW - student well-being
KW - learning analytics
KW - early warning systems
AB - Depression and academic stress undermine students' attendance, performance, and retention, yet educational institutions lack reliable early-alert tools. Because about three-quarters of lifetime psychiatric conditions emerge before age 25, timely automated screening is critical for early intervention. This paper proposes a multi-source ensemble learning framework for distinguishing {\it depression} (DP) from {\it non-depression} (ND) using 1,547 harmonized samples drawn from six real-world sources: occupational surveys, student academic stress records, Twitter sentiment data, Reddit depression posts, fine-grained emotion corpora, and behavioural monitoring signals. Academic stress and behavioural records serve as the core educational sources, while the remaining sources broaden linguistic and affective coverage. Six {\it machine learning} (ML) classifiers were benchmarked under 10-fold cross-validation: {\it decision tree} (DT), {\it support vector machine} (SVM), {\it random forest} (RF), {\it adaptive boosting} (AdaBoost), {\it extreme gradient boosting} (XGBoost), and {\it light gradient boosting machine} (LightGBM). RF performed best, achieving 97.996% accuracy, the highest sensitivity (96.741%), only 6 false positives, and 25 missed DP cases. LightGBM recorded the highest specificity (99.615%), making it suitable for precision-oriented screening, whereas the boosting ensembles performed comparably to the linear SVM and all ensembles clearly outperformed the DT baseline. These findings support ensemble learning, particularly bagging, for heterogeneous, multi-source student mental health data and suggest practical value for counsellors and student support services in identifying at-risk students early.
SN - 3070-5843
PB - Institute of Central Computation and Knowledge
LA - English
ER -
@article{Bhukya2026A,
author = {Ramesh K. Bhukya and Nirbhay Singh and Aniket Tiwari},
title = {A Multimodal Ensemble Learning Framework for Early Detection of Adolescent Depression Using Multi-Source Real-World Data},
journal = {ICCK Transactions on Educational Data Mining},
year = {2026},
volume = {2},
number = {2},
pages = {63-84},
doi = {10.62762/TEDM.2026.244050},
url = {https://www.icck.org/article/abs/TEDM.2026.244050},
abstract = {Depression and academic stress undermine students' attendance, performance, and retention, yet educational institutions lack reliable early-alert tools. Because about three-quarters of lifetime psychiatric conditions emerge before age 25, timely automated screening is critical for early intervention. This paper proposes a multi-source ensemble learning framework for distinguishing {\it depression} (DP) from {\it non-depression} (ND) using 1,547 harmonized samples drawn from six real-world sources: occupational surveys, student academic stress records, Twitter sentiment data, Reddit depression posts, fine-grained emotion corpora, and behavioural monitoring signals. Academic stress and behavioural records serve as the core educational sources, while the remaining sources broaden linguistic and affective coverage. Six {\it machine learning} (ML) classifiers were benchmarked under 10-fold cross-validation: {\it decision tree} (DT), {\it support vector machine} (SVM), {\it random forest} (RF), {\it adaptive boosting} (AdaBoost), {\it extreme gradient boosting} (XGBoost), and {\it light gradient boosting machine} (LightGBM). RF performed best, achieving 97.996\% accuracy, the highest sensitivity (96.741\%), only 6 false positives, and 25 missed DP cases. LightGBM recorded the highest specificity (99.615\%), making it suitable for precision-oriented screening, whereas the boosting ensembles performed comparably to the linear SVM and all ensembles clearly outperformed the DT baseline. These findings support ensemble learning, particularly bagging, for heterogeneous, multi-source student mental health data and suggest practical value for counsellors and student support services in identifying at-risk students early.},
keywords = {educational data mining, student depression, academic stress, student well-being, learning analytics, early warning systems},
issn = {3070-5843},
publisher = {Institute of Central Computation and Knowledge}
}
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