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Nano-enabled Multifunctional Materials: Mechanical Behavior and Multi-scale Modeling

  • Konstantinos TserpesEmail author
  • Spiros Pantelakis
Chapter
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Abstract

This chapter discusses the status and prospective of the nano-enabled MM developed for aircraft applications by focusing on the mechanical behavior and multi-scale modeling. After a general introduction on MM and a description of the existing aircraft applications, results on the mechanical behavior of four different nano-enabled MM are presented and discussed by exploiting observations from scanning electron microscopy images. The materials discussed in this chapter are the MWCNT/PA6 nanocomposite designed for improved mechanical properties and hydrothermal aging resistance; the MWCNT/RTM6-2/GPOSS nanocomposite and the MWCNT/CFRP/GPOSS composite designed for improved mechanical properties, electrical conductivity, and flame resistance; and the CFRP/microcapsule material designed with self-healing characteristics. In the second part of the chapter, multi-scale models developed to predict the properties of nano-enabled MM as functions of material and processing parameters are described, and the basic results are presented.

Keywords

Multifunctional materials Nanocomposites Carbon nanotubes Graphene Multi-scale modeling Self-healing materials 

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Copyright information

© Springer Nature Switzerland AG 2020

Authors and Affiliations

  1. 1.Laboratory of Technology and Strength of Materials, Department of Mechanical Engineering and AeronauticsUniversity of PatrasPatrasGreece

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