A complete overview of self-healing composites including its models in aeronautical systems

ABSTRACT

In adherence to component matrices, mixtures fall into three categories: polymeric, metallic, and ceramic. Microscopic cracks lead to laminated substance failure, reducing reliability and durability. Self-healing methods, exemplified by the latest advancements, mitigate substance breakdown and extend lifespan without compromising functionality. Despite limited research on self-repair in various matrices, this study comprehensively covers all combination categories. Developed to repair fractures, prevent abandonment, and enhance building lifespan, self-healing mixtures exhibit promising potential. The article enlightens readers on contemporary self-healer applications across industries, encompassing aeronautics and automotive. It details recent developments, including micro-capsule encapsulated, fiber, and vascular system self-healer constructions, alongside evaluation and treatment strategies.

Graphical abstract

KEYWORDS:

• Aeuronautics
• fracture
• microcapsules
• self-healer

Disclosure statement

No potential conflict of interest was reported by the author(s).

Additional information

Notes on contributors

Jeen Robert Rb

Jeen Robert RB is currently working as Professor and his field of intrest includes Surface Coatings and Composite materials.

Joemax Agu M

Joemax Agu M is currently working as an Associate Professor and his research area includes computational fracture mechanics and Engineering Design Analysis.

Rajeev D

Rajeev D is currently working as Professor and his research interest includes Condition Monitoring and Polymer composite materials.

Sivakumar A

Sivakumar A is currently working as a professor and his area of research includes Thermal Engineering, Electrochemical machining and biocomposites.

Senthil Maharaj Kennedy

Senthil Maharaj Kennedy is an Assistant Professor and his research expertise includes Biomechanics, FEA and Implants.