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MatSci-NLP

MatSci-NLP is a specialized evaluation benchmark designed to measure the performance of natural language processing models on scientific text within the materials science domain. Built to test how effectively language models comprehend domain-specific terminology and semantic structures, it encompasses a diverse set of tasks ranging from standard natural language processing objectives like named entity recognition and relation classification to specialized tasks such as synthesis action retrieval. The benchmark provides a standardized framework to assess both general and scientifically pretrained language models, helping researchers evaluate model capabilities particularly in low-resource data environments where annotated domain-specific training corpora are scarce.

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MatSci-NLP: Evaluating Scientific Language Models on Materials Science Language Tasks Using Text-to-Schema Modeling

MatSci-NLP: Evaluating Scientific Language Models on Materials Science Language Tasks Using Text-to-Schema Modeling

Yu Song, Santiago Miret, Bang Liu

OrganizationsIntelMila – Québec Artificial Intelligence Institute

Why you should read this

Presents a benchmark spanning seven materials science NLP tasks and introduces a unified text-to-schema modeling approach that improves low-resource multitask performance across domain-specific language models.

We present MatSci-NLP, a natural language benchmark for evaluating the performance of natural language processing (NLP) models on materials science text. We construct the benchmark from publicly available materials science text data to encompass seven different NLP tasks, including conventional NLP tasks like named entity recognition and relation classification, as well as NLP tasks specific to materials science, such as synthesis action retrieval which relates to creating synthesis procedures for materials. We study various BERT-based models pretrained on different scientific text corpora on MatSci-NLP to understand the impact of pre-training strategies on understanding materials science text. Given the scarcity of high-quality annotated data in the materials science domain, we perform our fine-tuning experiments with limited training data to encourage the generalize across MatSci-NLP tasks. Our experiments in this low-resource training setting show that language models pretrained on scientific text outperform BERT trained on general text. Mat-BERT, a model pretrained specifically on materials science journals, generally performs best for most tasks. Moreover, we propose a unified text-to-schema for multitask learning on MatSci-NLP and compare its performance with traditional fine-tuning methods. In our analysis of different training methods, we find that our proposed text-to-schema methods inspired by question-answering consistently outperform single and multitask NLP fine-tuning methods. The code and datasets are publicly available¹.

Added

2026-10-03