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Improving Knowledge Tracing via Pre-training Question Embeddings
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Knowledge tracing (KT) defines the task of predicting whether students can correctly answer questions based on their historical response. Although much research has been devoted to exploiting the question information, plentiful advanced information among questions and skills hasn't been well extracted, making it challenging for previous work to perform adequately. In this paper, we demonstrate that large gains on KT can be realized by pre-training embeddings for each question on abundant side information, followed by training deep KT models on the obtained embeddings. To be specific, the side information includes question difficulty and three kinds of relations contained in a bipartite graph between questions and skills. To pre-train the question embeddings, we propose to use product-based neural networks to recover the side information. As a result, adopting the pre-trained embeddings in existing deep KT models significantly outperforms state-of-the-art baselines on three common KT datasets.
Forward citations
Cited by 3 Pith papers
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Uncertainty-aware Knowledge Tracing
UKT models student knowledge as Gaussian distributions, uses Wasserstein self-attention and an aleatory-uncertainty contrastive loss, and reports improved knowledge tracing prediction on six datasets.
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DKT2: Revisiting Applicable and Comprehensive Knowledge Tracing in Large-Scale Data
DKT2, an xLSTM-based model with Rasch embeddings and an IRT-style decomposition, generally beats 18 knowledge tracing baselines on three large datasets, though not on every metric or task.
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Sparse Binary Representation Learning for Knowledge Tracing
SBRKT learns sparse binary auxiliary knowledge concepts per exercise and uses them to boost Bayesian Knowledge Tracing on standard datasets.
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