Aug 2026· Zenodo (CERN European Organization for Nuclear Research)
Machine Learning in Materials Science
Abstract
This paper presents an innovative framework for material design utilizing adaptive topology, leveraging generative artificial intelligence to automatically generate and optimize material topologies. Traditional materials design relies heavily on trial-and-error experimentation, often leading to suboptimal material properties and manufacturing challenges. Our approach addresses these limitations by employing a dynamic, iterative process guided by computational simulations, specifically focusing on the interplay between structural integrity and desired material characteristics. We introduce a novel method for generating topology, incorporating feedback loops that continuously refine the resulting structures based on established material science principles and predictive modeling. The framework's core mechanism centers on the synergistic integration of generative AI and established simulation techniques to achieve a significant improvement in material design efficiency and predictive accuracy. This work demonstrates the potential of adaptive topology to unlock new possibilities in material science, pushing the boundaries of material design and facilitating the creation of materials with tailored properties for a diverse range of applications.
The adoption of generative artificial intelligence among communication practitioners and researchers surged after the launch of ChatGPT in November 2022, urging practitioners to critically engage in exploring pathways for fostering socially responsible and environmentally sustainable AI practices.
This R script (make_kessan10_csv.R) converts the Local Government Financial Settlement Survey (市町村別決算状況調), published by the Ministry of Internal Affairs and Communications on its annual pages of local government financial status survey materials, into machine-readable CSV. The source workbooks are print-oriented Excel files with multi-row merged headers, issued as four separate files per fiscal year (overview and expenditure, for cities and for towns and villages). The script consolidates them into long-format panels carrying fiscal year and municipality type as columns, and also writes one file per fiscal year. The output of a run over ten fiscal years (FY2015–FY2024) is deposited alongside it: all 1,741 municipalities, with 33 overview indicators and 94 expenditure items classified by purpose, giving panels of 17,410 rows each. Every municipality and every year is checked for internal consistency: the components of each expenditure category sum to that category's total, and the sum of all categories matches the total expenditure reported in the overview table. All checks passed for all ten years. Amounts are in thousands of yen, as published; blank cells are left blank rather than filled with zero. The column structure of the source data does not change over the period covered. One definitional change affects the adjusted ratio of current expenditure to current revenue: for FY2020 and FY2021 the special bonds issued for deferred tax collection are removed from current general revenue as well. Four changes of municipality occurred: Tomiya and Nakagawa became cities in FY2016 and FY2018 respectively, each receiving a new municipality code; Sasayama was renamed Tamba-Sasayama in FY2019, and Aogashima was renamed in FY2018 in the written form of its name only, both keeping their codes. The code was written with generative AI: Claude (Anthropic) was used to write and revise it. The author has verified the output and takes responsibility for the content. Version 1.1 corrects the reading of the census population change column in the overview table, where a small negative rate written with the triangle sign used in Japanese official statistics was left blank instead of being read as a number. 56 cells across the ten years were affected; no other value changed.
Yasutoshi Moteki· Zenodo (CERN European Organi...· 1 citation
A new method for surgically removing training examples from a model reveals that as datasets grow, the link between what a model learns and what it produces dissolves.
