An energy-active façade element from mineralized foam (MF) and micro-reinforced, ultra-high-performance concrete (mrUHPC)

Today, an increase of the energy efficiency in the industry is typically achieved by separate, parallel measures, primarily on the level of the individual machines. Energy efficiency can be improved by a holistic, integrated approach, which links the machines, the production process, the technical i...

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Main Author: Andreas Maier
Format: Article
Language:English
Published: TU Delft Open 2016-06-01
Series:Journal of Facade Design and Engineering
Subjects:
Online Access:https://journals.open.tudelft.nl/index.php/jfde/article/view/984
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spelling doaj-261c86e805b04de8b49e4c9c57e0dbd92020-11-25T02:42:12ZengTU Delft OpenJournal of Facade Design and Engineering2213-302X2213-30382016-06-0133-428930110.7480/jfde.2015.3-4.984984An energy-active façade element from mineralized foam (MF) and micro-reinforced, ultra-high-performance concrete (mrUHPC)Andreas Maier0Technische Universität Darmstadt Institute of Structural Mechanics and Design (ISM+D)Today, an increase of the energy efficiency in the industry is typically achieved by separate, parallel measures, primarily on the level of the individual machines. Energy efficiency can be improved by a holistic, integrated approach, which links the machines, the production process, the technical infrastructure and the building and its envelope. The subject of this paper is the development of a new prefabricated element for façades and roofs, which was developed and built in the context of a research project called eta-Fabrik (i.e. energy-efficient factory, www.eta-fabrik.de) at TU Darmstadt, Germany. The element consists of purely mineral materials (concrete) and can be energetically activated by capillary tubes integrated in the surface layer. This surface layer consists of a micro-reinforced, ultra-high-performance concrete (mrUHPC) to achieve a low component thickness due to its high mechanical capacity, resistance against thermal changes, surface quality and low permeability. The core of the element is responsible for insulation. For this, a mineralized protein foam (MF) is used. It provides very good thermal insulation properties due to its eminently low density allowing low heat transfer coefficients. The final façade element thus combines limiting, bearing, insulating and thermal activation using concrete.https://journals.open.tudelft.nl/index.php/jfde/article/view/984Facade element, micro-reinforced UHPC, mineralized protein foam concrete, energy efficiency, thermal insulation, energy management, energy activation
collection DOAJ
language English
format Article
sources DOAJ
author Andreas Maier
spellingShingle Andreas Maier
An energy-active façade element from mineralized foam (MF) and micro-reinforced, ultra-high-performance concrete (mrUHPC)
Journal of Facade Design and Engineering
Facade element, micro-reinforced UHPC, mineralized protein foam concrete, energy efficiency, thermal insulation, energy management, energy activation
author_facet Andreas Maier
author_sort Andreas Maier
title An energy-active façade element from mineralized foam (MF) and micro-reinforced, ultra-high-performance concrete (mrUHPC)
title_short An energy-active façade element from mineralized foam (MF) and micro-reinforced, ultra-high-performance concrete (mrUHPC)
title_full An energy-active façade element from mineralized foam (MF) and micro-reinforced, ultra-high-performance concrete (mrUHPC)
title_fullStr An energy-active façade element from mineralized foam (MF) and micro-reinforced, ultra-high-performance concrete (mrUHPC)
title_full_unstemmed An energy-active façade element from mineralized foam (MF) and micro-reinforced, ultra-high-performance concrete (mrUHPC)
title_sort energy-active façade element from mineralized foam (mf) and micro-reinforced, ultra-high-performance concrete (mruhpc)
publisher TU Delft Open
series Journal of Facade Design and Engineering
issn 2213-302X
2213-3038
publishDate 2016-06-01
description Today, an increase of the energy efficiency in the industry is typically achieved by separate, parallel measures, primarily on the level of the individual machines. Energy efficiency can be improved by a holistic, integrated approach, which links the machines, the production process, the technical infrastructure and the building and its envelope. The subject of this paper is the development of a new prefabricated element for façades and roofs, which was developed and built in the context of a research project called eta-Fabrik (i.e. energy-efficient factory, www.eta-fabrik.de) at TU Darmstadt, Germany. The element consists of purely mineral materials (concrete) and can be energetically activated by capillary tubes integrated in the surface layer. This surface layer consists of a micro-reinforced, ultra-high-performance concrete (mrUHPC) to achieve a low component thickness due to its high mechanical capacity, resistance against thermal changes, surface quality and low permeability. The core of the element is responsible for insulation. For this, a mineralized protein foam (MF) is used. It provides very good thermal insulation properties due to its eminently low density allowing low heat transfer coefficients. The final façade element thus combines limiting, bearing, insulating and thermal activation using concrete.
topic Facade element, micro-reinforced UHPC, mineralized protein foam concrete, energy efficiency, thermal insulation, energy management, energy activation
url https://journals.open.tudelft.nl/index.php/jfde/article/view/984
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