社论:通过机器学习塑造材料科学的未来

Dezhen Xue, Turab Lookman
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引用次数: 0

摘要

本期MGE进展特刊聚焦于机器学习(ML)对材料科学的革命性影响。当我们在科学创新的新时代的门槛上航行时,本期整理了一系列研究文章,这些文章集中体现了机器学习是材料科学与工程的基础支柱。机器学习和传统材料科学方法之间的协同作用不仅加速了新材料的发现,而且改进了材料特性的预测,简化了制造过程。这些进步为技术进步和可持续性提供了无与伦比的机会。作为客座编辑,我们很高兴能够通过高级分析和计算能力的棱镜介绍新的方法,并增强我们对材料行为的理解。这个问题涵盖了各种各样的研究,展示了机器学习应用程序在该领域各种规模和复杂性的强大能力。每篇文章都对如何将机器学习集成到材料科学的不同方面进行了广泛的探索。它们的范围从量子计算到增强材料设计,再到影响复杂材料性能和行为的预测模型。这些贡献展示了预测关键物理性质的有效策略,并说明了ML在优化技术和工业材料开发过程中的实际实现。当我们面对需要更高效、可持续和高性能材料的全球挑战时,这里展示的研究提供了有希望的新途径和工具。将机器学习与材料科学相结合,不仅提高了我们的分析能力,而且加快了发现和应用的周期,有效地弥合了理论科学与实际应用之间的差距。接下来的几页代表了这一跨学科联系的前沿文章,提供了有望影响广泛领域的见解,包括电子、航空航天、汽车等。薛德珍:写作——审稿和编辑。Turab Lookman:写作-评论和编辑。不存在利益冲突。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Editorial: Shaping the future of materials science through machine learning

This special issue of MGE advances focuses on the revolutionary impact of machine learning (ML) on materials science. As we navigate the threshold of a new era in scientific innovation, this issue collates a series of research articles that epitomize machine learning as a foundational pillar in materials science and engineering. The synergy between ML and conventional materials science methodologies not only accelerates the discovery of novel materials but also refines the prediction of material properties and streamlines manufacturing processes. These advances offer unparalleled opportunities for technological progress and sustainability. We, as the guest editors, are excited to present these contributions that introduce new methodologies and enhance our understanding of material behavior through the prism of advanced analytics and computational power.

This issue spans a diverse array of studies demonstrating the robust capabilities of ML applications across various scales and complexities within the field. Each article contributes to a broad exploration of how machine learning can be integrated into different facets of materials science. They range from quantum computing to enhancing materials design to predictive models that impact the properties and behavior of complex materials. The contributions showcase effective strategies to predict critical physical properties and illustrate the practical implementations of ML in optimizing the development processes of technological and industrial materials.

As we confront global challenges that demand more efficient, sustainable, and high performance materials, the research showcased here offers promising new pathways and tools. The integration of ML into materials science not only boosts our analytical capabilities but also accelerates the cycle of discovery and application, effectively bridging the gap between theoretical science and practical implementation.

The pages that follow represent articles at the forefront of this interdisciplinary nexus, providing insights expected to influence a broad spectrum of sectors, including electronics, aerospace, automotive, and beyond.

Dezhen Xue: Writing—review and editing. Turab Lookman: Writing—review and editing.

There is no conflict of interest.

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