A Deep Learning Framework for Adaptive E-Learning: Integrating Learning Style Detection in Web-Based Platforms

Modern digital learning has made the creation of the adaptive e-learning systems a priority because different needs of learners require individual approaches. The conventional approaches usually do not consider the learning styles of individual students, therefore, leading to less engagement and unequal academic results. To solve this, a deep learning-based model is proposed, which combines learning style identification with student performance forecasting with the Student Feedback Dataset of Kaggle. The framework uses sophisticated text preprocessing, extraction of features based on Word2Vec, as well as the classification based on LSTM model that is optimized on sequential data. The LSTM has excellent performance on experimental evaluation, reaching 99.29% accuracy (ACC), 94% precision (PRE), 95% recall (REC), and a 95% F1-score (F1) and validation loss of 0.2-0.4. Relative analysis indicates that LSTM is much better than SVM (75.55% ACC), BPNN (78.83), and ANN (79.11%). The framework is more inclusive, knowledge-retaining, and motivating by dynamically adjusting course delivery to personal learning preferences. Moreover, it provides teachers with practical knowledge to formulate powerful learning plans. Deep learning can transform online learning environments to be smarter, more customized and larger. This could be translated to better performance in school in the long-term.

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Publication Details

Journal
International Journal of Advanced Research in Science Communication and Technology
Published
2024-08-30
DOI
https://doi.org/10.48175/ijarsct-19397
Primary Topic
Learning Styles and Cognitive Differences
Type
article
Field-Weighted Citation Impact
0.00
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article

A Deep Learning Framework for Adaptive E-Learning: Integrating Learning Style Detection in Web-Based Platforms

Siddhesh Amrale, Satyadhar Kumar Chintagunta
International Journal of Advanced Research in Science Communication and Technology
Learning Styles and Cognitive Differences
article

A Deep Learning Framework for Adaptive E-Learning: Integrating Learning Style Detection in Web-Based Platforms

Siddhesh Amrale, Satyadhar Kumar Chintagunta
article en

Abstract

Modern digital learning has made the creation of the adaptive e-learning systems a priority because different needs of learners require individual approaches. The conventional approaches usually do not consider the learning styles of individual students, therefore, leading to less engagement and unequal academic results. To solve this, a deep learning-based model is proposed, which combines learning style identification with student performance forecasting with the Student Feedback Dataset of Kaggle. The framework uses sophisticated text preprocessing, extraction of features based on Word2Vec, as well as the classification based on LSTM model that is optimized on sequential data. The LSTM has excellent performance on experimental evaluation, reaching 99.29% accuracy (ACC), 94% precision (PRE), 95% recall (REC), and a 95% F1-score (F1) and validation loss of 0.2-0.4. Relative analysis indicates that LSTM is much better than SVM (75.55% ACC), BPNN (78.83), and ANN (79.11%). The framework is more inclusive, knowledge-retaining, and motivating by dynamically adjusting course delivery to personal learning preferences. Moreover, it provides teachers with practical knowledge to formulate powerful learning plans. Deep learning can transform online learning environments to be smarter, more customized and larger. This could be translated to better performance in school in the long-term.

International Journal of Advanced Research in Science Communication and Technology
Openalex Percentile: Top 61%
Learning Styles and Cognitive Differences
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