Effect of Interlayer Mechanical Properties on Quasi-static and Free Vibration Response of Laminated Glass

Laminated glass fulfills the demands on safety and security in transparent structural elements used in architecture and other fields of engineering. It can be constructed as forced-entry, bullet, or blast resistant. The basic three-layer configuration consists of two glass panes connected with a po...

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Autores principales: Alena Zemanová, Tomáš Janda, Jan Zeman, Jaroslav Schmidt, Michal Šejnoha
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Lenguaje:EN
Publicado: Challenging Glass Conference 2018
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Acceso en línea:https://doaj.org/article/d281e7cc2d924861a53040f1f5545736
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spelling oai:doaj.org-article:d281e7cc2d924861a53040f1f55457362021-12-04T05:12:05ZEffect of Interlayer Mechanical Properties on Quasi-static and Free Vibration Response of Laminated Glass10.7480/cgc.6.21702589-8019https://doaj.org/article/d281e7cc2d924861a53040f1f55457362018-05-01T00:00:00Zhttps://proceedings.challengingglass.com/index.php/cgc/article/view/246https://doaj.org/toc/2589-8019 Laminated glass fulfills the demands on safety and security in transparent structural elements used in architecture and other fields of engineering. It can be constructed as forced-entry, bullet, or blast resistant. The basic three-layer configuration consists of two glass panes connected with a polymer or ionomer interlayer; the advanced products contain also other layers. The foil ensures shear coupling and provides post-breakage resistance and damping. For the design of laminated glass structures and their analysis, knowledge of mechanical properties of interlayers is essential. In numerical simulations, the interlayer is most typically described by the generalized Maxwell chain ‒ a classical viscoelastic model which can capture the time/temperature-dependent response of polymers under shear. Its parameters can be found for common interlayer types in the literature. However, they differ even for the same material, because of a slightly different content of additives, different test setups, and different data processing procedures. In this contribution, the dependence of the response of a laminated glass element on the material parameters of the polymer interlayer is studied by means of numerical modelling and experiments. Two examples are shown and discussed, i.e., quasi-static analysis of a simply-supported beam and modal analysis of a free-free beam. Numerical predictions are obtained by a layer-wise model based on the finite element method. These predictions are validated against the detailed experimental data. We demonstrate that using the Maxwell model parameters from the literature determined even for the same material type but not for the concrete foil may lead to unrealistic predictions. Alena ZemanováTomáš JandaJan ZemanJaroslav SchmidtMichal ŠejnohaChallenging Glass ConferencearticleLaminated GlassPolymerGeneralized Maxwell ChainQuasi-static AnalysisFree VibrationsClay industries. Ceramics. GlassTP785-869ENChallenging Glass Conference Proceedings, Vol 6, Iss 1 (2018)
institution DOAJ
collection DOAJ
language EN
topic Laminated Glass
Polymer
Generalized Maxwell Chain
Quasi-static Analysis
Free Vibrations
Clay industries. Ceramics. Glass
TP785-869
spellingShingle Laminated Glass
Polymer
Generalized Maxwell Chain
Quasi-static Analysis
Free Vibrations
Clay industries. Ceramics. Glass
TP785-869
Alena Zemanová
Tomáš Janda
Jan Zeman
Jaroslav Schmidt
Michal Šejnoha
Effect of Interlayer Mechanical Properties on Quasi-static and Free Vibration Response of Laminated Glass
description Laminated glass fulfills the demands on safety and security in transparent structural elements used in architecture and other fields of engineering. It can be constructed as forced-entry, bullet, or blast resistant. The basic three-layer configuration consists of two glass panes connected with a polymer or ionomer interlayer; the advanced products contain also other layers. The foil ensures shear coupling and provides post-breakage resistance and damping. For the design of laminated glass structures and their analysis, knowledge of mechanical properties of interlayers is essential. In numerical simulations, the interlayer is most typically described by the generalized Maxwell chain ‒ a classical viscoelastic model which can capture the time/temperature-dependent response of polymers under shear. Its parameters can be found for common interlayer types in the literature. However, they differ even for the same material, because of a slightly different content of additives, different test setups, and different data processing procedures. In this contribution, the dependence of the response of a laminated glass element on the material parameters of the polymer interlayer is studied by means of numerical modelling and experiments. Two examples are shown and discussed, i.e., quasi-static analysis of a simply-supported beam and modal analysis of a free-free beam. Numerical predictions are obtained by a layer-wise model based on the finite element method. These predictions are validated against the detailed experimental data. We demonstrate that using the Maxwell model parameters from the literature determined even for the same material type but not for the concrete foil may lead to unrealistic predictions.
format article
author Alena Zemanová
Tomáš Janda
Jan Zeman
Jaroslav Schmidt
Michal Šejnoha
author_facet Alena Zemanová
Tomáš Janda
Jan Zeman
Jaroslav Schmidt
Michal Šejnoha
author_sort Alena Zemanová
title Effect of Interlayer Mechanical Properties on Quasi-static and Free Vibration Response of Laminated Glass
title_short Effect of Interlayer Mechanical Properties on Quasi-static and Free Vibration Response of Laminated Glass
title_full Effect of Interlayer Mechanical Properties on Quasi-static and Free Vibration Response of Laminated Glass
title_fullStr Effect of Interlayer Mechanical Properties on Quasi-static and Free Vibration Response of Laminated Glass
title_full_unstemmed Effect of Interlayer Mechanical Properties on Quasi-static and Free Vibration Response of Laminated Glass
title_sort effect of interlayer mechanical properties on quasi-static and free vibration response of laminated glass
publisher Challenging Glass Conference
publishDate 2018
url https://doaj.org/article/d281e7cc2d924861a53040f1f5545736
work_keys_str_mv AT alenazemanova effectofinterlayermechanicalpropertiesonquasistaticandfreevibrationresponseoflaminatedglass
AT tomasjanda effectofinterlayermechanicalpropertiesonquasistaticandfreevibrationresponseoflaminatedglass
AT janzeman effectofinterlayermechanicalpropertiesonquasistaticandfreevibrationresponseoflaminatedglass
AT jaroslavschmidt effectofinterlayermechanicalpropertiesonquasistaticandfreevibrationresponseoflaminatedglass
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