TL;DR
This paper introduces Sequential Key-Value Memory Networks (SKVMN), a deep learning model that improves knowledge tracing by capturing long-term dependencies and concept mastery, outperforming existing models across multiple datasets.
Contribution
The paper proposes SKVMN, a novel deep learning model that combines recurrent and memory networks to enhance knowledge tracing accuracy and interpretability.
Findings
SKVMN outperforms state-of-the-art models on five benchmark datasets.
SKVMN better discovers correlations between concepts and questions.
SKVMN effectively traces student knowledge dynamics using sequential dependencies.
Abstract
Can machines trace human knowledge like humans? Knowledge tracing (KT) is a fundamental task in a wide range of applications in education, such as massive open online courses (MOOCs), intelligent tutoring systems, educational games, and learning management systems. It models dynamics in a student's knowledge states in relation to different learning concepts through their interactions with learning activities. Recently, several attempts have been made to use deep learning models for tackling the KT problem. Although these deep learning models have shown promising results, they have limitations: either lack the ability to go deeper to trace how specific concepts in a knowledge state are mastered by a student, or fail to capture long-term dependencies in an exercise sequence. In this paper, we address these limitations by proposing a novel deep learning model for knowledge tracing, namely…
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