A Perspective on High-performance CNT fibres for Structural Composites
arXiv:2004.13352 · doi:10.1016/j.carbon.2019.04.113
Abstract
This review summarizes progress on structural composites with carbon nanotube fibres. It starts by analyzing their development towards a macroscopic ensemble of elongated and aligned crystalline domains, alongside the evolution of the structure of traditional high-performance fibres. Literature on tensile properties suggests that there are two emerging grades: highly aligned fibres spun from liquid crystalline solutions, with high modulus and strength, and spun from aerogels of ultra long-nanotubes, combining high strength and fracture energy. The fabrication of large unidirectional fabrics with similar properties as the fibres is presently a challenge, which CNT alignment remaining a key factor. A promising approach is to produce fabrics directly from aerogel filaments without having to densify and handle individual CNT fibres. Structural composites of CNT fibres have reached high longitudinal properties, however, on relatively small samples. In general, there is need to demonstrate fabrication of large CNT fibre laminate composites using standard fabrication routes and to study longitudinal and transverse mechanical properties in tension and compression. Complementary areas of development are interlaminar reinforcement with CNT fabric interleaves, and multifunctional structural composites with energy storage or harvesting functions.
79 pages, 26 figures
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- Local ultra-densification of single-walled carbon nanotube films: modeling and experiment
- Interlaminar toughening in structural carbon fiber/epoxy composites interleaved with carbon nanotube veils