Analysis of Validation and Simplification of Timber-Frame Structure Design Stage with PU-Foam Insulation

The transition from experimental studies to the realm of numerical simulations is often necessary for further studies, but very difficult at the same time. This is especially the case for extended seismic analysis and earthquake-resistant design. This paper describes an approach to moving from the e...

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Main Authors: Marcin Szczepański, Wojciech Migda
Format: Article
Language:English
Published: MDPI AG 2020-07-01
Series:Sustainability
Subjects:
Online Access:https://www.mdpi.com/2071-1050/12/15/5990
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spelling doaj-96a17aa901284b18ad8536d617d5615d2020-11-25T03:06:01ZengMDPI AGSustainability2071-10502020-07-01125990599010.3390/su12155990Analysis of Validation and Simplification of Timber-Frame Structure Design Stage with PU-Foam InsulationMarcin Szczepański0Wojciech Migda1Faculty of Civil and Environmental Engineering, Gdansk University of Technology, 80-233 Gdansk, PolandFaculty of Civil and Environmental Engineering, Gdansk University of Technology, 80-233 Gdansk, PolandThe transition from experimental studies to the realm of numerical simulations is often necessary for further studies, but very difficult at the same time. This is especially the case for extended seismic analysis and earthquake-resistant design. This paper describes an approach to moving from the experimental testing of an elementary part of a wood-frame building structure to a numerical model, with the use of a commercial engineering analysis software. In the presented approach, a timber-frame structure with polyurethane (PU)-foam insulation and OSB (oriented strand board) sheathing was exposed to dynamic excitation. The results were then used to generate a numerical 3D model of the wooden frame element. The process of creating the 3D model is explained with the necessary steps to reach validation. The details of the model, material properties, boundary conditions, and used elements are presented. Furthermore, the authors explain the technical possibilities for simplifying the numerical model in used software. Simplifying the model leads to a substantial reduction of calculation time without the loss of accuracy of results. Such a simplification is especially useful when conducting advanced numerical calculations in the field of seismic and dynamic resistant object design.https://www.mdpi.com/2071-1050/12/15/5990earthquake designnumerical simulationstimber-frame structure designnon-linear analysisdynamical loadingseismic
collection DOAJ
language English
format Article
sources DOAJ
author Marcin Szczepański
Wojciech Migda
spellingShingle Marcin Szczepański
Wojciech Migda
Analysis of Validation and Simplification of Timber-Frame Structure Design Stage with PU-Foam Insulation
Sustainability
earthquake design
numerical simulations
timber-frame structure design
non-linear analysis
dynamical loading
seismic
author_facet Marcin Szczepański
Wojciech Migda
author_sort Marcin Szczepański
title Analysis of Validation and Simplification of Timber-Frame Structure Design Stage with PU-Foam Insulation
title_short Analysis of Validation and Simplification of Timber-Frame Structure Design Stage with PU-Foam Insulation
title_full Analysis of Validation and Simplification of Timber-Frame Structure Design Stage with PU-Foam Insulation
title_fullStr Analysis of Validation and Simplification of Timber-Frame Structure Design Stage with PU-Foam Insulation
title_full_unstemmed Analysis of Validation and Simplification of Timber-Frame Structure Design Stage with PU-Foam Insulation
title_sort analysis of validation and simplification of timber-frame structure design stage with pu-foam insulation
publisher MDPI AG
series Sustainability
issn 2071-1050
publishDate 2020-07-01
description The transition from experimental studies to the realm of numerical simulations is often necessary for further studies, but very difficult at the same time. This is especially the case for extended seismic analysis and earthquake-resistant design. This paper describes an approach to moving from the experimental testing of an elementary part of a wood-frame building structure to a numerical model, with the use of a commercial engineering analysis software. In the presented approach, a timber-frame structure with polyurethane (PU)-foam insulation and OSB (oriented strand board) sheathing was exposed to dynamic excitation. The results were then used to generate a numerical 3D model of the wooden frame element. The process of creating the 3D model is explained with the necessary steps to reach validation. The details of the model, material properties, boundary conditions, and used elements are presented. Furthermore, the authors explain the technical possibilities for simplifying the numerical model in used software. Simplifying the model leads to a substantial reduction of calculation time without the loss of accuracy of results. Such a simplification is especially useful when conducting advanced numerical calculations in the field of seismic and dynamic resistant object design.
topic earthquake design
numerical simulations
timber-frame structure design
non-linear analysis
dynamical loading
seismic
url https://www.mdpi.com/2071-1050/12/15/5990
work_keys_str_mv AT marcinszczepanski analysisofvalidationandsimplificationoftimberframestructuredesignstagewithpufoaminsulation
AT wojciechmigda analysisofvalidationandsimplificationoftimberframestructuredesignstagewithpufoaminsulation
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