Characterisation of the anisotropic thermoelastic properties of natural fibres for composite reinforcement

James Thomason, Liu Yang, Fiona Gentles

Research output: Contribution to journalArticle

2 Citations (Scopus)

Abstract

There has been a substantial increase in the investigation of the potential of natural fibres as a replacement reinforcement in the traditional fibre reinforced polymer composite application. However, many researchers often overlook the anisotropic properties of these fibres, and the estimation of the potential reinforcement performance. A full understanding of the thermoelastic anisotropy of natural fibres is important for realistically predicting their potential performance in composite applications. In this study, the thermoelastic properties of flax and sisal fibres were determined through a combination of experimental measurements and micromechanical modelling. The results confirm the high degree of anisotropy in properties of the flax and sisal fibres. The implications of these results on using natural fibres as an engineering composite reinforcement are discussed.
LanguageEnglish
Number of pages12
JournalFibers
Volume5
Issue number4
DOIs
Publication statusPublished - 25 Sep 2017

Fingerprint

Natural fibers
Reinforcement
Flax
Fibers
Composite materials
Anisotropy
Polymers

Keywords

  • natural fibres
  • mechanical performance
  • modulus
  • thermal expansion
  • anisotropy

Cite this

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abstract = "There has been a substantial increase in the investigation of the potential of natural fibres as a replacement reinforcement in the traditional fibre reinforced polymer composite application. However, many researchers often overlook the anisotropic properties of these fibres, and the estimation of the potential reinforcement performance. A full understanding of the thermoelastic anisotropy of natural fibres is important for realistically predicting their potential performance in composite applications. In this study, the thermoelastic properties of flax and sisal fibres were determined through a combination of experimental measurements and micromechanical modelling. The results confirm the high degree of anisotropy in properties of the flax and sisal fibres. The implications of these results on using natural fibres as an engineering composite reinforcement are discussed.",
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Characterisation of the anisotropic thermoelastic properties of natural fibres for composite reinforcement. / Thomason, James; Yang, Liu; Gentles, Fiona.

In: Fibers, Vol. 5, No. 4, 25.09.2017.

Research output: Contribution to journalArticle

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AU - Yang, Liu

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AB - There has been a substantial increase in the investigation of the potential of natural fibres as a replacement reinforcement in the traditional fibre reinforced polymer composite application. However, many researchers often overlook the anisotropic properties of these fibres, and the estimation of the potential reinforcement performance. A full understanding of the thermoelastic anisotropy of natural fibres is important for realistically predicting their potential performance in composite applications. In this study, the thermoelastic properties of flax and sisal fibres were determined through a combination of experimental measurements and micromechanical modelling. The results confirm the high degree of anisotropy in properties of the flax and sisal fibres. The implications of these results on using natural fibres as an engineering composite reinforcement are discussed.

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