Jinchun Zhu

Mr. Jinchun Zhu


Research Focus & Metrics

Academic Career Length

14Years (2013-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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12 November 2013 in Materials
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Journal Article
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JZJinchun Zhu
Jinchun Zhu
HZHuijun Zhu
Huijun Zhu
JNJames Njuguna
James Njuguna
HAHrushikesh Abhyankar
Hrushikesh Abhyankar
This work describes flax fibre reinforced polymeric composites with recent developments. The properties of flax fibres, as well as advanced fibre treatments such as mercerization, silane treatment, acylation, peroxide treatment and coatings for the enhancement of flax/matrix incompatibility are presented. The characteristic properties and characterizations of flax composites on various polymers including polypropylene (PP) and polylactic acid, epoxy, bio-epoxy and bio-phenolic resin are discussed. A brief overview is also given on the recent nanotechnology applied in flax composites.

19 March 2015 in Fibers
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Journal Article
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JZJinchun Zhu
Jinchun Zhu
KIKirsi Immonen
Kirsi Immonen
CAChristophe Avril
Christophe Avril
JBJames Brighton
James Brighton
HZHuijun Zhu
Huijun Zhu
HAHrushikesh Abhyankar
Hrushikesh Abhyankar
Flax fibre bio-epoxy composites have not found many commercial uses in structural applications on account of their lack of cost efficiency and high susceptibility to environmental changes. Non-woven flax mats were subjected to alkali, acetylation, silane and enzymatic treatment, and then combined with untreated unidirectional (UD) flax fabrics to make hybrid flax bio-epoxy composites. Mechanical and environmental resistance (aging) tests were performed on the treated flax fibres. The glass transition temperature was detected at about 75 °C with little effect of treatments. Untreated composites were found to have a tensile strength of 180 MPa while no significant improvement was observed for any of the treatments, which are also not environmentally friendly. The amiopropyltriethoxysilane (APS) composites after Xenon aging, retained the tensile strength of 175 MPa and a modulus of 11.5 GPa, while untreated composites showed 35% reduction in elastic modulus.