Opinion Mining by Convolutional Neural Networks for Maximizing Discoverability of Nanomaterials

The scientific literature contains valuable information that can be used for future applications, but manual analysis presents challenges due to its size and disciplinary boundaries. The prevailing solution involves natural language processing (NLP) techniques such as information retrieval. Nonethel...

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Veröffentlicht in:Journal of chemical information and modeling 2024-04, Vol.64 (7), p.2746-2759
Hauptverfasser: Xie, Tong, Wan, Yuwei, Wang, Haoran, Østrøm, Ina, Wang, Shaozhou, He, Mingrui, Deng, Rong, Wu, Xinyuan, Grazian, Clara, Kit, Chunyu, Hoex, Bram
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container_end_page 2759
container_issue 7
container_start_page 2746
container_title Journal of chemical information and modeling
container_volume 64
creator Xie, Tong
Wan, Yuwei
Wang, Haoran
Østrøm, Ina
Wang, Shaozhou
He, Mingrui
Deng, Rong
Wu, Xinyuan
Grazian, Clara
Kit, Chunyu
Hoex, Bram
description The scientific literature contains valuable information that can be used for future applications, but manual analysis presents challenges due to its size and disciplinary boundaries. The prevailing solution involves natural language processing (NLP) techniques such as information retrieval. Nonetheless, existing automated systems primarily provide either statistically based shallow information or deep information without traceability, thereby falling short of delivering high-quality and reliable insights. To address this, we propose an innovative approach of leveraging sentiment information embedded within the literature to track the opinions toward materials. In this study, we integrated material knowledge into text representation and constructed opinion data sets to hierarchically train deep learning models, named as Scientific Sentiment Network (SSNet). SSNet can effectively extract knowledge from the energy material literature and accurately categorize expert opinions into challenges and opportunities (94% and 92% accuracy, respectively). By incorporating sentiment features determined by SSNet, we can predict the ranking of emerging thermoelectric materials with a 70% correlation to experimental outcomes. Furthermore, our model achieves a commendable 68% accuracy in predicting suitable nanomaterials for atomic layer deposition (ALD) over time. These promising results offer a practical framework to extract and synthesize knowledge from the scientific literature, thereby accelerating research in the field of nanomaterials.
doi_str_mv 10.1021/acs.jcim.3c00746
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The prevailing solution involves natural language processing (NLP) techniques such as information retrieval. Nonetheless, existing automated systems primarily provide either statistically based shallow information or deep information without traceability, thereby falling short of delivering high-quality and reliable insights. To address this, we propose an innovative approach of leveraging sentiment information embedded within the literature to track the opinions toward materials. In this study, we integrated material knowledge into text representation and constructed opinion data sets to hierarchically train deep learning models, named as Scientific Sentiment Network (SSNet). SSNet can effectively extract knowledge from the energy material literature and accurately categorize expert opinions into challenges and opportunities (94% and 92% accuracy, respectively). By incorporating sentiment features determined by SSNet, we can predict the ranking of emerging thermoelectric materials with a 70% correlation to experimental outcomes. Furthermore, our model achieves a commendable 68% accuracy in predicting suitable nanomaterials for atomic layer deposition (ALD) over time. 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subjects Accuracy
Artificial neural networks
Atomic layer epitaxy
Chemical Information
Data mining
Information retrieval
Information Storage and Retrieval
Knowledge representation
Nanomaterials
Natural language processing
Neural Networks, Computer
Sentiment Analysis
Thermoelectric materials
title Opinion Mining by Convolutional Neural Networks for Maximizing Discoverability of Nanomaterials
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