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Voids in type-IV composite pressure vessels manufactured by a dry filament-winding process

Type-IV high-pressure hydrogen-gas tanks for fuel-cell electric vehicles are made from carbon fiber-reinforced plastic. Their production involves wrapping a carbon-fiber-reinforced thermoset resin towpreg around a plastic liner to form a tank shape, followed by heating in an oven to cure the thermos...

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Published in:The International journal of pressure vessels and piping 2024-04, Vol.208, p.105154, Article 105154
Main Authors: Ueda, Masahito, Hidaka, Tatsuhiro, Ichihara, Naruki, Yang, Haiya, Iwase, Wataru, Matsuda, Tetsuya, Morita, Naoki, Aoki, Ryoma, Yokozeki, Tomohiro
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cited_by cdi_FETCH-LOGICAL-c348t-e397bd84d6f768ea8d8a5bd1b35c03797657f0deecc9b15362230cdcd76c5f643
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container_start_page 105154
container_title The International journal of pressure vessels and piping
container_volume 208
creator Ueda, Masahito
Hidaka, Tatsuhiro
Ichihara, Naruki
Yang, Haiya
Iwase, Wataru
Matsuda, Tetsuya
Morita, Naoki
Aoki, Ryoma
Yokozeki, Tomohiro
description Type-IV high-pressure hydrogen-gas tanks for fuel-cell electric vehicles are made from carbon fiber-reinforced plastic. Their production involves wrapping a carbon-fiber-reinforced thermoset resin towpreg around a plastic liner to form a tank shape, followed by heating in an oven to cure the thermoset resin. The filament-winding process produces many voids in the tank that cause variations in quality and the product lifetime. In this study, the voids in the tank were classified according to their origin. A type-IV high-pressure hydrogen-gas tank with a burst pressure of 70 MPa was fabricated, and the voids produced in the tank were observed. The same filament-winding process was used to fabricate a plate and tank with a simple winding trajectory to identify the voids. The voids produced in the tank by the filament winding were categorized into six groups based on their location, cross-sectional shape, and size, showing the origin of the voids. •Voids in type-IV high-pressure hydrogen-gas tanks were evaluated.•Voids were classified based on their location, cross-sectional shape, and size.•Six characteristic voids were identified.•Towpreg void, towpreg-edge void, crimp void, overlap gap, towpreg gap, interlaminar void.
doi_str_mv 10.1016/j.ijpvp.2024.105154
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subjects Carbon fiber
Composite pressure vessels
Filament winding
Hydrogen gas
Type-IV
Voids
title Voids in type-IV composite pressure vessels manufactured by a dry filament-winding process
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