Data-driven analysis and visualization of dielectric properties curated from scientific literature

Data-driven methods are powerful tools for understanding and discovering materials. However, in certain domains of materials science, the lack of available datasets significantly restricts the research scope. To address this issue, we utilized Starrydata2 web system to compile a comprehensive dataset on dielectric materials, collecting experimental data on over 20,000 samples across a wide compositional space. This dataset enabled the development of machine learning models with high predictive performance and facilitated the identification of important descriptors through recursive feature eliminations. Since the models worked as complete black boxes and hindered intuitive understanding, we employed additional techniques such as dimensionality reduction and clustering to visualize compositional landscape and trends in dielectric properties. By combining the identified important factors with material clustering, we attempted to visualize the effect of crystal lattice on dielectric permittivity within ABO3 systems, revealing a roughly linear relationship. Our preliminary analyses and visualizations demonstrate the potential of the Starrydata dielectric dataset collected in this study, offering an important foundation for advanced data-driven materials research.

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Publication Details

Journal
Science and Technology of Advanced Materials Methods
Published
2025-04-04
DOI
https://doi.org/10.1080/27660400.2025.2485018
Citations
3
Primary Topic
Machine Learning in Materials Science
Type
article
Field-Weighted Citation Impact
1.55

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article

Data-driven analysis and visualization of dielectric properties curated from scientific literature

Satoshi Yokomizo, Ryusuke Misawa, Tomoki Murata, Eiji Koyama et al.
3 citations
Science and Technology of Advanced Materials Methods
Machine Learning in Materials Science
1.55
article

Data-driven analysis and visualization of dielectric properties curated from scientific literature

Satoshi Yokomizo, Ryusuke Misawa, Tomoki Murata, Eiji Koyama, S. Hirose, Tomoya Mato, Noriko Saito, T. Phuong, Yukari Katsura, Yu Takada
article en
3 citations

Abstract

Data-driven methods are powerful tools for understanding and discovering materials. However, in certain domains of materials science, the lack of available datasets significantly restricts the research scope. To address this issue, we utilized Starrydata2 web system to compile a comprehensive dataset on dielectric materials, collecting experimental data on over 20,000 samples across a wide compositional space. This dataset enabled the development of machine learning models with high predictive performance and facilitated the identification of important descriptors through recursive feature eliminations. Since the models worked as complete black boxes and hindered intuitive understanding, we employed additional techniques such as dimensionality reduction and clustering to visualize compositional landscape and trends in dielectric properties. By combining the identified important factors with material clustering, we attempted to visualize the effect of crystal lattice on dielectric permittivity within ABO3 systems, revealing a roughly linear relationship. Our preliminary analyses and visualizations demonstrate the potential of the Starrydata dielectric dataset collected in this study, offering an important foundation for advanced data-driven materials research.

Science and Technology of Advanced Materials MethodsVol. 5(1)
University of Tsukuba (JP), National Institute for Materials Science (JP), RIKEN Center for Advanced Intelligence Project (JP), Murata (Japan) (JP)
Japan Science and Technology Agency
Openalex Percentile: Top 19%
Machine Learning in Materials Science
1.55
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