Advanced additive manufacturing of self-healing composites: Exploiting shape memory alloys for autonomous restoration under mixed-mode loading

Ameri, B.; Taheri-Behrooz, F.

doi:10.1016/j.matdes.2023.112379

Materials & Design

2023

DOI: 10.1016/j.matdes.2023.112379

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Advanced additive manufacturing of self-healing composites: Exploiting shape memory alloys for autonomous restoration under mixed-mode loading

B. Ameri,

F. Taheri-Behrooz

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2024

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Cited by 3 publications

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Quantifying nonlinear fracture parameters in bituminous SCB specimens: A compliance-based approach

Ince,

Yalcin,

Yilmaz

2024

Case Studies in Construction Materials

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Quantifying nonlinear fracture parameters in bituminous SCB specimens: A compliance-based approach

Ince,

Yalcin,

Yilmaz

2024

Case Studies in Construction Materials

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A Review of Additively Manufactured Iron-Based Shape Memory Alloys

Sun,

Tan,

Ding

et al. 2024

Crystals

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Iron-based shape memory alloys (Fe-SMAs), traditionally manufactured, are favored in engineering applications owing to their cost-effectiveness and ease of fabrication. However, the conventional manufacturing process of Fe-SMAs is time-consuming and raw-material-wasting. In contrast, additive manufacturing (AM) technology offers a streamlined approach to the integral molding of materials, significantly reducing raw material usage and fabrication time. Despite its potential, research on AMed Fe-SMAs remains in its early stages. This review provides updated information on current AM technologies utilized for Fe-SMAs and their applications. It provides an in-depth discussion on how printing parameters, defects, and post-printing microstructure control affect the mechanical properties and shape memory effect (SME) of AMed Fe-SMAs. Furthermore, this review identifies existing challenges in the AMed Fe-SMA approach and proposes future research directions, highlighting potential areas for development. The insights presented aim to guide improvements in the material properties of AMed Fe-SMAs by optimizing printing parameters and enhancing the SME through microstructure adjustment.

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Smart Composite Materials with Self-Healing Properties: A Review on Design and Applications

Kontiza,

Kartsonakis

2024

Polymers

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Research on self-healing materials spans multiple academic disciplines and employs a variety of methodologies. Nature has been a major source of inspiration for developing self-healing materials and will likely continue to inspire innovative ideas in this field. This review article covers the principles of self-healing mechanisms, focusing on both autonomous and non-autonomous procedures. It explores both intrinsic and extrinsic self-healing abilities by considering their components, structures, and design. Additionally, a detailed analysis of the application of these materials across various sectors is provided, including aerospace, automotive, marine, energy, medical and healthcare, military, and construction. Finally, the review paper highlights the advancements in encapsulation technologies for microcapsules, their thermal stability, their mechanical properties, and the compatibility of healing agents with the matrix, which play a crucial role in the effectiveness of self-healing processes.

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Advanced additive manufacturing of self-healing composites: Exploiting shape memory alloys for autonomous restoration under mixed-mode loading

Cited by 3 publications

References 58 publications

Quantifying nonlinear fracture parameters in bituminous SCB specimens: A compliance-based approach

Quantifying nonlinear fracture parameters in bituminous SCB specimens: A compliance-based approach

A Review of Additively Manufactured Iron-Based Shape Memory Alloys

Smart Composite Materials with Self-Healing Properties: A Review on Design and Applications

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