Flow-speed-controlled quality optimisation for one-shot-hybrid RTM parts

This work describes a model-based methodology to improve the bonding quality between the metal and composite constituents of one-shot-hybrid resin transfer moulding (OSH-RTM) parts. In order to reduce void induced defects in the interface an ideal flow front velocity needs to be achieved. This ideal...

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Main Authors: Patrick Hergan, Ewald Fauster, Daniela Perkonigg, Gerald Pinter, Ralf Schledjewski
Format: Article
Language:English
Published: Taylor & Francis Group 2020-01-01
Series:Advanced Manufacturing: Polymer & Composites Science
Subjects:
Online Access:http://dx.doi.org/10.1080/20550340.2020.1722910
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spelling doaj-76a2e54a201c4a5cba39d68a11b89bd82020-11-25T02:37:47ZengTaylor & Francis GroupAdvanced Manufacturing: Polymer & Composites Science2055-03592020-01-0161293710.1080/20550340.2020.17229101722910Flow-speed-controlled quality optimisation for one-shot-hybrid RTM partsPatrick Hergan0Ewald Fauster1Daniela Perkonigg2Gerald Pinter3Ralf Schledjewski4Montanuniversität LeobenMontanuniversität LeobenMontanuniversität LeobenMontanuniversität LeobenMontanuniversität LeobenThis work describes a model-based methodology to improve the bonding quality between the metal and composite constituents of one-shot-hybrid resin transfer moulding (OSH-RTM) parts. In order to reduce void induced defects in the interface an ideal flow front velocity needs to be achieved. This ideal flow front velocity is characterised by capillary rise experiments at the used carbon fibre textile. The flow front velocity during mould filling is controlled by the use of pressure sensors and Darcy’s law. Therefore, viscosity characterisation of the resin system and permeability measurements of the preform were carried out. The interface of the produced OSH-RTM roof bar for a car is tested on a component test rig imitating the load of a side impact at a car. A t-test was carried out to prove that the flow-speed-controlled injection strategy is advantageous compared to a constant mass flow injection by means of a higher maximum load transferable by the interface of the hybrid part.http://dx.doi.org/10.1080/20550340.2020.1722910resin transfer mouldinghybrid materialsmodel-based processingvoid reductioninterface strength
collection DOAJ
language English
format Article
sources DOAJ
author Patrick Hergan
Ewald Fauster
Daniela Perkonigg
Gerald Pinter
Ralf Schledjewski
spellingShingle Patrick Hergan
Ewald Fauster
Daniela Perkonigg
Gerald Pinter
Ralf Schledjewski
Flow-speed-controlled quality optimisation for one-shot-hybrid RTM parts
Advanced Manufacturing: Polymer & Composites Science
resin transfer moulding
hybrid materials
model-based processing
void reduction
interface strength
author_facet Patrick Hergan
Ewald Fauster
Daniela Perkonigg
Gerald Pinter
Ralf Schledjewski
author_sort Patrick Hergan
title Flow-speed-controlled quality optimisation for one-shot-hybrid RTM parts
title_short Flow-speed-controlled quality optimisation for one-shot-hybrid RTM parts
title_full Flow-speed-controlled quality optimisation for one-shot-hybrid RTM parts
title_fullStr Flow-speed-controlled quality optimisation for one-shot-hybrid RTM parts
title_full_unstemmed Flow-speed-controlled quality optimisation for one-shot-hybrid RTM parts
title_sort flow-speed-controlled quality optimisation for one-shot-hybrid rtm parts
publisher Taylor & Francis Group
series Advanced Manufacturing: Polymer & Composites Science
issn 2055-0359
publishDate 2020-01-01
description This work describes a model-based methodology to improve the bonding quality between the metal and composite constituents of one-shot-hybrid resin transfer moulding (OSH-RTM) parts. In order to reduce void induced defects in the interface an ideal flow front velocity needs to be achieved. This ideal flow front velocity is characterised by capillary rise experiments at the used carbon fibre textile. The flow front velocity during mould filling is controlled by the use of pressure sensors and Darcy’s law. Therefore, viscosity characterisation of the resin system and permeability measurements of the preform were carried out. The interface of the produced OSH-RTM roof bar for a car is tested on a component test rig imitating the load of a side impact at a car. A t-test was carried out to prove that the flow-speed-controlled injection strategy is advantageous compared to a constant mass flow injection by means of a higher maximum load transferable by the interface of the hybrid part.
topic resin transfer moulding
hybrid materials
model-based processing
void reduction
interface strength
url http://dx.doi.org/10.1080/20550340.2020.1722910
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AT ewaldfauster flowspeedcontrolledqualityoptimisationforoneshothybridrtmparts
AT danielaperkonigg flowspeedcontrolledqualityoptimisationforoneshothybridrtmparts
AT geraldpinter flowspeedcontrolledqualityoptimisationforoneshothybridrtmparts
AT ralfschledjewski flowspeedcontrolledqualityoptimisationforoneshothybridrtmparts
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