Machine learning for mechanical design of composite materials and composite structures

In recent years, artificial intelligence (AI) has become deeply integrated into composite materials science and engineering, and it can contribute to new material discovery and performance optimization. This article first summarizes the trends of integration of machine learning algorithms, databases, and specialist knowledge about composite materials and composite structures with the design, fabrication, characterization, and service performance evaluation of these materials and structures. The physical essence and classification of mechanical metamaterials are elaborated as a special category of composite structures. The article then reviews the integration of machine learning-based and data-driven computational engineering of composite materials with intelligent design of composite materials, including machine learning for resins and matrix materials and for interface design and analysis of composite materials, forward prediction and inverse design of composite materials, structural damage characterization and analysis, long-term service safety and duality evaluation of composite materials. It then reviews the application of machine learning to composite structures (especially mechanical metamaterials), including forward prediction for traditional multiscale computations empowered by AI, intelligent structure–performance predictive modeling, pure data-driven approaches for prediction of material properties, physics-embedded machine learning for intelligent design of composite structures, and generative design and inverse design of composite structures. Furthermore, recent advances in machine learning and data-driven design of multifunctional applications of mechanical metamaterials are briefly introduced. Finally, perspectives and future trends of composite materials and structures are briefly discussed, including tailoring of multitopological features on demand and long-term structural integrity of composite materials and composite structures.

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Publication Details

Journal
MechanoEngineering
Published
2026-01-06
DOI
https://doi.org/10.1063/5.0285502
Primary Topic
Machine Learning in Materials Science
Type
article
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article

Machine learning for mechanical design of composite materials and composite structures

Dongjie Jiang, Huabin Yu, Jian Xiong, Xueqin Yang et al.
MechanoEngineering
Machine Learning in Materials Science
article

Machine learning for mechanical design of composite materials and composite structures

Dongjie Jiang, Huabin Yu, Jian Xiong, Xueqin Yang, Jian Zhao, Wenwang Wu, Zhenhua Song, Kang Xu, Huihui Yang
article en

Abstract

In recent years, artificial intelligence (AI) has become deeply integrated into composite materials science and engineering, and it can contribute to new material discovery and performance optimization. This article first summarizes the trends of integration of machine learning algorithms, databases, and specialist knowledge about composite materials and composite structures with the design, fabrication, characterization, and service performance evaluation of these materials and structures. The physical essence and classification of mechanical metamaterials are elaborated as a special category of composite structures. The article then reviews the integration of machine learning-based and data-driven computational engineering of composite materials with intelligent design of composite materials, including machine learning for resins and matrix materials and for interface design and analysis of composite materials, forward prediction and inverse design of composite materials, structural damage characterization and analysis, long-term service safety and duality evaluation of composite materials. It then reviews the application of machine learning to composite structures (especially mechanical metamaterials), including forward prediction for traditional multiscale computations empowered by AI, intelligent structure–performance predictive modeling, pure data-driven approaches for prediction of material properties, physics-embedded machine learning for intelligent design of composite structures, and generative design and inverse design of composite structures. Furthermore, recent advances in machine learning and data-driven design of multifunctional applications of mechanical metamaterials are briefly introduced. Finally, perspectives and future trends of composite materials and structures are briefly discussed, including tailoring of multitopological features on demand and long-term structural integrity of composite materials and composite structures.

MechanoEngineeringVol. 1(1)
Harbin Institute of Technology (CN), Suzhou Industrial Park Vocational Technical College (CN), Nanjing University of Aeronautics and Astronautics (CN)
Openalex Percentile: Top 95%
Machine Learning in Materials Science
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