Thin Glass Sandwich

A thermal study of regular and semiregular tessellations in bi-directional sandwiches

Master Thesis (2019)
Author(s)

A.J. den Heijer (TU Delft - Architecture and the Built Environment)

Contributor(s)

Martin J. Tenpierik – Mentor (TU Delft - Building Physics)

M Turrin – Mentor (TU Delft - Design Informatics)

C. Louter – Mentor (TU Delft - OLD Structural Design)

H. Plomp – Coach (TU Delft - Education and Student Affairs)

Faculty
Architecture and the Built Environment, Architecture and the Built Environment
Copyright
© 2019 Marc den Heijer
More Info
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Publication Year
2019
Language
English
Copyright
© 2019 Marc den Heijer
Graduation Date
05-07-2019
Awarding Institution
Delft University of Technology
Programme
Architecture, Urbanism and Building Sciences
Faculty
Architecture and the Built Environment, Architecture and the Built Environment
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Abstract

Since the oil crises during the 1970s, there has been a growing awareness of thermal losses through windows in buildings. Nowadays, double-glazing is a common product for moderate maritime climate. In the Netherlands two permit requirements are calculations regarding nearly zero energy and environmental performance of a building. In order to reach nearly zero energy buildings, triple glazing and even quadruple glazing is considered as possibility. This has negative affects on the environmental performance of a building, because glass does need a lot of resources for production. A solution to that challenge could be the application of thin glass sandwiches, a structural sandwich with two ultra-thin faces (0.5mm) of glass. The structural sandwich is common in the aviation industry to stiffen and strengthen an element without adding significant weight. Downside is the increased conduction through the core material. Question is: to what extent can a thin glass sandwich panel, compared to regular insulated glass units, counterbalance its decreased thermal performance by reducing embodied energy during production? This research focusses on the material choice, quantity and distribution in the core of a sandwich panel in order to maximize thermal performance for a moderate maritime climate. In order to do so, materials from the CES library are evaluated. Detailed analytical calculations are used to determine the thermal performance regarding different patterns. FEA simulation software is used to determine the thermal performance regarding the cross-section of the actual thermal bridge between the two faces. From this research, the best solution is picked and evaluated on energy consumption, order to identify the effects on a building scale. General trends are identified and transformed into a design for a thin glass sandwich. Next to that, design guidelines are extracted for designers in order to design a thin glass sandwich without the need of calculating.

Files

4220153_Report.pdf
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4220153_Presentation.pdf
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4220153_Reflection.pdf
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