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High strength metallurgical graphene as an additional reinforcing phase for carbon fibre composites

Authors
  • Kunikowska, A.1
  • Szymanski, W.1
  • Jedrzejczak, A.1
  • Lipa, S.1
  • Galazka, M.2
  • Szlachetka, M.3
  • Kula, P.1
  • 1 Lodz University of Technology, 1/15 Stefanowskiego St., Lodz, Poland , Lodz (Poland)
  • 2 Advanced Graphene Products Sp. z o.o., Antoniego Wysockiego 4 St., Kisielin, Zielona Gora, Poland , Zielona Gora (Poland)
  • 3 Engineo Sp. z o.o., Leszno 59 St., Przasnysz, Poland , Przasnysz (Poland)
Type
Published Article
Journal
Archives of Civil and Mechanical Engineering
Publisher
Springer London
Publication Date
Feb 24, 2020
Volume
20
Issue
1
Identifiers
DOI: 10.1007/s43452-020-00024-2
Source
Springer Nature
Keywords
License
Green

Abstract

The main objective of the present study is an elaboration of a method for a transfer of high strength metallurgical graphene (HSMG) and its introduction into the structure of fibre laminates. In this work, two transfer procedures have been established: a transfer onto structural adhesive film (SAF) and a direct transfer onto two types of carbon fibre pre-impregnates (uniaxial and biaxial cloth). An important novelty of the presented experimental work is a use of scanning electron microscopy (SEM) operating in the absorbed electrons (AE) mode. This technique enables the evaluation of graphene continuity on a large area within a relatively short time. The SEM/AE technique made it possible to ascertain that the transferred graphene was characterised by a low level of defects, indicating that it could be used as a reinforcing phase in composites. Both transfer procedures, one onto SAF and the other directly onto the pre-impregnates were used for manufacturing flat laminates as well as tubular profiles. The flat samples, containing 0.68 ppm HSMG by weight, exhibited a 9% increase of low cycle fatigue strength. The tubular profiles (bicycle components) with approximately 0.22 ppm of HSMG exhibited a significant increase of fatigue wear during initial tests. In addition, no fatigue delamination was observed at interfaces between the pre-impregnates separated with HSMG graphene.

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