A neural knowledge tracing model with a KL penalty on latent dynamics matches or beats strong baselines on most datasets and provides interpretable skill-level proficiency estimates.
Deep Knowledge Tracing
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abstract
Knowledge tracing---where a machine models the knowledge of a student as they interact with coursework---is a well established problem in computer supported education. Though effectively modeling student knowledge would have high educational impact, the task has many inherent challenges. In this paper we explore the utility of using Recurrent Neural Networks (RNNs) to model student learning. The RNN family of models have important advantages over previous methods in that they do not require the explicit encoding of human domain knowledge, and can capture more complex representations of student knowledge. Using neural networks results in substantial improvements in prediction performance on a range of knowledge tracing datasets. Moreover the learned model can be used for intelligent curriculum design and allows straightforward interpretation and discovery of structure in student tasks. These results suggest a promising new line of research for knowledge tracing and an exemplary application task for RNNs.
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UNVaMP: Neural Knowledge Tracing with Variational Regularization of Latent Knowledge Dynamics
A neural knowledge tracing model with a KL penalty on latent dynamics matches or beats strong baselines on most datasets and provides interpretable skill-level proficiency estimates.