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Application of Artificial Intelligence Techniques for Predicting Academic Performance in Mathematics Courses

Published 2026-01-01
Articles

Abstract

Low academic performance in mathematics courses in higher education is a recurring cause of failure and student dropout, particularly in science, technology, and engineering programs. This article presents the development of a predictive model based on machine learning techniques, aimed at early identification of students at risk of failing such courses. An institutional dataset comprising information from 2,932 students admitted to Universidad del Valle between 2021 and 2023 was used. The dataset includes demographic, socioeconomic, and academic variables, as well as the results of a mathematics diagnostic test. Neural networks, decision trees, and support vector machines were trained and evaluated using preprocessing, class balancing, and cross-validation techniques. The neural network model achieved the best performance, with an AUC of 70.6%, accuracy of 64.9%, sensitivity of 64.4%, and specificity of 65.1%, outperforming decision tree models (AUC of 46.7%) and SVMs (AUC of 66.1%). Compared to previous studies, the results are competitive given the heterogeneity of the data and the model's practical integration. Unlike other approaches that rely on data generated during the semester, this model operates solely with information available at the time of admission, enabling timely interventions before the academic term begins. The solution was integrated into the institutional ASES system through an API, allowing real-time prediction queries and the generation of personalized alerts. As such, it serves as a valuable tool for strengthening academic support strategies and enhancing student retention in high-risk areas such as mathematics.

Authors

  • Mavelyn Sterling Londoño

    Colombia

  • Fabio Andrés Barbosa Gómez

    Colombia

  • Oscar Fernando Bedoya Leiva

    Colombia

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