Paper Titles
Preface
On the Evaluation of Behavioural Models of Buildings' Inhabitants
p.3
Thermal Performance Testing for Window with Vacuum Glazing
p.13
Development of Prefabricated Timber-Steel-Concrete Ribbed Decks
p.21
Development of Timber-Wood Lightweight Concrete-Glass Composite for Multi-Story Façades
p.30
Utilization of Waste Packaging Glass as Progressive Filler in Polymer Anchor Material Based on Epoxy Resin
p.40
Assessment of Color Degradation of Wood Plastic Composites in Outdoor Applications
p.48
Evaluative Case Study in Lightweight Wooden Wall Research
p.56
Influence of High Temperatures on Concrete Pillars Confined with CFRP
p.64

Development of Timber-Wood Lightweight Concrete-Glass Composite for Multi-Story Façades

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Abstract:

Within several research projects and with the aim to optimize structural performance, energy efficiency and ecological characteristics of structural building components the Department of Structural Design and Timber Engineering (ITI) at the Vienna University of Technology (TU Wien) developed several wood-based composite systems, which combine timber products with other conventional building materials and components. As a representative example for these developments, this paper illustrates the results of the joint research project “Wood-based concrete: building construction with composite elements of wood-concrete compounds and timber (WooCon)”. The objective of the research project “WooCon” is to develop a multi-layer wall system composed of wood lightweight concrete (WLC), connected timber sections, textile reinforcement as well as glass layers on the exterior to gain and use advantages of each used material - lightweight, structural, thermal storage and insulation, ecological and economic benefits - to name the most important ones. In order to assess the structural physical properties of wood-based composite wall elements, in a first step measurements of the thermal properties with respect to thermal-insulating properties and thermal storage capacity are carried out. In following step, the results obtained are used further to simulate the thermodynamic and hygrothermal building behavior. The aim of the simulations is to investigate the effect of the wood-based composite wall elements to the annual heating demand as well as to the operative room temperature of a typical south-orientated living space.

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Periodical:

Applied Mechanics and Materials (Volume 887)

Pages:

30-39

DOI:

https://doi.org/10.4028/www.scientific.net/AMM.887.30

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Online since:

January 2019

Authors:

Alireza Fadai*, Matthias Rinnhofer, Wolfgang Winter

Keywords:

Composite, Facades, Glass, Sustainable Building, Timber, Wood-Based Construction

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© 2019 Trans Tech Publications Ltd. All Rights Reserved

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