Effects of compaction and UV exposure on performance of acrylate/glass-fiber composites cured layer by layer

With an aim to reducing manufacturing costs, in general and specifically to provide a solution to the thick laminate curing depth issue for composite materials, UV curing technology was combined with a fiber placement process to fabricate acrylate/glass‐fiber composites. A novel layer‐by‐layer UV in...

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Veröffentlicht in:Journal of applied polymer science 2012-03, Vol.123 (6), p.3799-3805
Hauptverfasser: Duan, Yugang, Li, Jia, Zhong, Weihong, Maguire, Russell G., Zhao, Guoqiang, Xie, Hong, Li, Dichen, Lu, Bingheng
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container_end_page 3805
container_issue 6
container_start_page 3799
container_title Journal of applied polymer science
container_volume 123
creator Duan, Yugang
Li, Jia
Zhong, Weihong
Maguire, Russell G.
Zhao, Guoqiang
Xie, Hong
Li, Dichen
Lu, Bingheng
description With an aim to reducing manufacturing costs, in general and specifically to provide a solution to the thick laminate curing depth issue for composite materials, UV curing technology was combined with a fiber placement process to fabricate acrylate/glass‐fiber composites. A novel layer‐by‐layer UV in situ curing method was employed in this article and interlaminar shear strength (ILSS) tests and SEM were used to evaluate the effect of processing parameters, including compaction force and UV exposure dose, on ILSS. The SEM images from short‐beam strength test samples and the results of ILSS showed that the fibers' distribution was uniform in the cured matrix resin resulting from the compaction forces and that beneficially influenced the ILSS of the composite greatly. However, the matrix resin produced large shrinkage stresses when it reached a high degree of conversion (DC) in one‐step, which resulted in poor interlaminar adhesion. In addition, the fast curing speed of UV on the composite resulted in poor wetting between fiber and resin, and accordingly resulted in lower ILSS. To overcome these problems and obtain high ILSS value composites, an optimized compaction force and UV exposure dose were determined experimentally. © 2011 Wiley Periodicals, Inc. J Appl Polym Sci, 2012
doi_str_mv 10.1002/app.34909
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Appl. Polym. Sci</addtitle><description>With an aim to reducing manufacturing costs, in general and specifically to provide a solution to the thick laminate curing depth issue for composite materials, UV curing technology was combined with a fiber placement process to fabricate acrylate/glass‐fiber composites. A novel layer‐by‐layer UV in situ curing method was employed in this article and interlaminar shear strength (ILSS) tests and SEM were used to evaluate the effect of processing parameters, including compaction force and UV exposure dose, on ILSS. The SEM images from short‐beam strength test samples and the results of ILSS showed that the fibers' distribution was uniform in the cured matrix resin resulting from the compaction forces and that beneficially influenced the ILSS of the composite greatly. However, the matrix resin produced large shrinkage stresses when it reached a high degree of conversion (DC) in one‐step, which resulted in poor interlaminar adhesion. 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subjects acrylate
Applied sciences
composites
Curing
Exact sciences and technology
Fibers
Forms of application and semi-finished materials
Glass fiber reinforced plastics
Laminates
Materials science
mechanical properties
Polymer industry, paints, wood
Polymer matrix composites
Polymers
Resins
Scanning electron microscopy
Technology of polymers
UV curing
title Effects of compaction and UV exposure on performance of acrylate/glass-fiber composites cured layer by layer
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