Interpretable Research Replication Prediction via Variational Contextual Consistency Sentence Masking
Tianyi Luo, Rui Meng, Xin Eric Wang, Yang Liu

TL;DR
This paper introduces VCCSM, a novel method for interpretable research replication prediction that leverages sentence masking and unlabeled data to improve model transparency and performance on long documents.
Contribution
It proposes a weakly supervised, sentence-level explanation method for RRP that utilizes both labeled and unlabeled data to enhance interpretability and prediction accuracy.
Findings
VCCSM improves interpretability as shown by perturbation curve metrics.
The method enhances prediction accuracy on long research papers.
VCCSM effectively leverages unlabeled datasets for better explanations.
Abstract
Research Replication Prediction (RRP) is the task of predicting whether a published research result can be replicated or not. Building an interpretable neural text classifier for RRP promotes the understanding of why a research paper is predicted as replicable or non-replicable and therefore makes its real-world application more reliable and trustworthy. However, the prior works on model interpretation mainly focused on improving the model interpretability at the word/phrase level, which are insufficient especially for long research papers in RRP. Furthermore, the existing methods cannot utilize a large size of unlabeled dataset to further improve the model interpretability. To address these limitations, we aim to build an interpretable neural model which can provide sentence-level explanations and apply weakly supervised approach to further leverage the large corpus of unlabeled…
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Taxonomy
TopicsTopic Modeling · Explainable Artificial Intelligence (XAI) · Machine Learning in Materials Science
