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Predicting Student Performance Using a Cost-Sensitive Deep Learning Network With Sparse Attention Mechanism
DOI:10.1109/TE.2025.3637343.png)
Abstract
En 中文
Contribution: This study proposes a student performance prediction model that leverages real-world data on students' daily academic activities to forecast their academic outcomes. The predicted results can be used to provide students with personalized and adaptive support. Background: Traditional educational assessment systems face systemic challenges such as weak data support, high subjectivity, lack of scientific rigor, and insufficient personalized guidance. As a result, these assessments struggle to objectively, comprehensively, and accurately reflect the learning process and outcomes. In contrast, artificial intelligence (AI) technologies have demonstrated significant potential, with empirical research preliminarily validating their advantages in enhancing assessment effectiveness. Research Question: Given a range of student-related data collected through academic management systems, can we accurately predict a student's future academic performance? Method: Diverse student data are fed into the proposed model. A sparse attention mechanism is then employed to automatically identify the most discriminative features. These extracted learning features are further processed by a deep neural network, which incorporates a Cost-Sensitive Combined Loss function. A multilayer perceptron is used to derive the final grade prediction results. Findings: The experimental results show that the proposed model attains a recall rate of 74.52% across tasks. In comparison with selected baseline models, it yields recall improvements ranging from 3% to 20%, depending on the specific evaluation setting. The model is designed with considerations for deployment adaptability and data privacy, indicating its potential applicability in real-world educational scenarios.
Keywords:
Artificial intelligence
Predictive models
Feature extraction
Data models
Adaptation models
Attention mechanisms
Accuracy
Computer architecture
Transformers
Multilayer perceptrons
Cost-Sensitive Combined Loss
educational data mining
grade prediction
real-world data
sparse attention mechanism
Journal
I
IF:
2
Papers:
41
Citations:
2.0K

