Automated physical model building from literature sources: Combining equations based on four predefined requirements

Constructing physical models from equations extracted from scientific literature databases is a challenging task due to the presence of redundant, intermediate, or inconsistent equations. This study formalizes model building as the combination of equations to form desired models that satisfy criteria such as input–output completeness and consistency. To address this problem, we propose a refined gradual method, an efficient algorithm that iteratively refines candidate equation groups while ensuring perfect recall and avoiding unnecessary computations. Evaluation of the proposed method on eight case studies, including noisy datasets, complex systems, and diverse equation structures, demonstrated that the refined gradual method reduced computational time compared to existing methods and successfully constructed all desired models. The study also identifies limitations of the proposed method and suggests improvements to enhance efficiency and adaptability. By providing a general framework for solving equation combination problems, this study advances automated model-building techniques and offers a robust approach for handling complex and noisy datasets in scientific and engineering disciplines. • Automated physical model building is formalized as an equation combination problem. • A refined gradual method ensures perfect recall and computational efficiency. • Eight case studies demonstrated robustness to complex and noisy datasets. • The proposed method advances automated modeling in scientific and engineering fields.

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Publication Details

Journal
Computers & Chemical Engineering
Published
2025-05-09
DOI
https://doi.org/10.1016/j.compchemeng.2025.109147
Primary Topic
Modeling and Simulation Systems
Type
article
Field-Weighted Citation Impact
0.00

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article

Automated physical model building from literature sources: Combining equations based on four predefined requirements

Shota Kato, Manabu Kano
Computers & Chemical Engineering
Modeling and Simulation Systems
article

Automated physical model building from literature sources: Combining equations based on four predefined requirements

Shota Kato, Manabu Kano
article en

Abstract

Constructing physical models from equations extracted from scientific literature databases is a challenging task due to the presence of redundant, intermediate, or inconsistent equations. This study formalizes model building as the combination of equations to form desired models that satisfy criteria such as input–output completeness and consistency. To address this problem, we propose a refined gradual method, an efficient algorithm that iteratively refines candidate equation groups while ensuring perfect recall and avoiding unnecessary computations. Evaluation of the proposed method on eight case studies, including noisy datasets, complex systems, and diverse equation structures, demonstrated that the refined gradual method reduced computational time compared to existing methods and successfully constructed all desired models. The study also identifies limitations of the proposed method and suggests improvements to enhance efficiency and adaptability. By providing a general framework for solving equation combination problems, this study advances automated model-building techniques and offers a robust approach for handling complex and noisy datasets in scientific and engineering disciplines. • Automated physical model building is formalized as an equation combination problem. • A refined gradual method ensures perfect recall and computational efficiency. • Eight case studies demonstrated robustness to complex and noisy datasets. • The proposed method advances automated modeling in scientific and engineering fields.

Computers & Chemical EngineeringVol. 200
Kyoto University (JP)
Japan Society for the Promotion of Science
Openalex Percentile: Top 89%
Modeling and Simulation Systems
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Automated physical model building from literature sources: Combining equations based on four predefined requirements — Shota Kato, Manabu Kano · Computers & Chemical Engineering (2025) | TGRS Research Map | TGRS