Blast Resilience Enhancement of Cable-Supported Façade Utilizing Super-Elastic Shape Memory Alloy

Due to an increased level of threat, the design of buildings to resist blast loads has gained importance. The most vulnerable component of the building is typically the cladding system, generally being lightweight and directly facing the hazard with large, exposed surface areas. A large number of c...

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Main Authors: Shashank Gupta, Euan Stoddart, Andrew Morrison
Format: Article
Language:English
Published: TU Delft Open 2021-07-01
Series:Journal of Facade Design and Engineering
Subjects:
Online Access:https://journals.open.tudelft.nl/jfde/article/view/5331
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spelling doaj-33367f6cf4cf460f88dd33462144a4ce2021-07-02T12:24:34ZengTU Delft OpenJournal of Facade Design and Engineering2213-302X2213-30382021-07-019210.7480/jfde.2021.2.5331Blast Resilience Enhancement of Cable-Supported Façade Utilizing Super-Elastic Shape Memory AlloyShashank Gupta0Euan Stoddart1Andrew Morrison2University of Wolverhampton, School of Architecture and Built Environment, UKMMI Thornton Tomasetti, UKMMI Thornton Tomasetti Due to an increased level of threat, the design of buildings to resist blast loads has gained importance. The most vulnerable component of the building is typically the cladding system, generally being lightweight and directly facing the hazard with large, exposed surface areas. A large number of cladding materials are available, with architectural intent constantly driving the development of new products and systems. Glazed façades are aesthetically appealing and are popular among architects. In this paper, the use of super-elastic shape memory alloy (SMA) to improve the blast resilience of a cable-supported system is explored. The critical component of these systems is the high strength steel material cable. In the present study it is rendered hybrid (Steel-SMA), by attaching SMA cable(s) to the steel cable at one or both ends, and the dynamic performance under blast is studied. It is shown that the introduction of SMA in the cable has the potential to improve the resilience of the façade system. https://journals.open.tudelft.nl/jfde/article/view/5331Shape memory alloys glazed façadescable supported façadesSMA cablesblast resilient design
collection DOAJ
language English
format Article
sources DOAJ
author Shashank Gupta
Euan Stoddart
Andrew Morrison
spellingShingle Shashank Gupta
Euan Stoddart
Andrew Morrison
Blast Resilience Enhancement of Cable-Supported Façade Utilizing Super-Elastic Shape Memory Alloy
Journal of Facade Design and Engineering
Shape memory alloys
glazed façades
cable supported façades
SMA cables
blast resilient design
author_facet Shashank Gupta
Euan Stoddart
Andrew Morrison
author_sort Shashank Gupta
title Blast Resilience Enhancement of Cable-Supported Façade Utilizing Super-Elastic Shape Memory Alloy
title_short Blast Resilience Enhancement of Cable-Supported Façade Utilizing Super-Elastic Shape Memory Alloy
title_full Blast Resilience Enhancement of Cable-Supported Façade Utilizing Super-Elastic Shape Memory Alloy
title_fullStr Blast Resilience Enhancement of Cable-Supported Façade Utilizing Super-Elastic Shape Memory Alloy
title_full_unstemmed Blast Resilience Enhancement of Cable-Supported Façade Utilizing Super-Elastic Shape Memory Alloy
title_sort blast resilience enhancement of cable-supported façade utilizing super-elastic shape memory alloy
publisher TU Delft Open
series Journal of Facade Design and Engineering
issn 2213-302X
2213-3038
publishDate 2021-07-01
description Due to an increased level of threat, the design of buildings to resist blast loads has gained importance. The most vulnerable component of the building is typically the cladding system, generally being lightweight and directly facing the hazard with large, exposed surface areas. A large number of cladding materials are available, with architectural intent constantly driving the development of new products and systems. Glazed façades are aesthetically appealing and are popular among architects. In this paper, the use of super-elastic shape memory alloy (SMA) to improve the blast resilience of a cable-supported system is explored. The critical component of these systems is the high strength steel material cable. In the present study it is rendered hybrid (Steel-SMA), by attaching SMA cable(s) to the steel cable at one or both ends, and the dynamic performance under blast is studied. It is shown that the introduction of SMA in the cable has the potential to improve the resilience of the façade system.
topic Shape memory alloys
glazed façades
cable supported façades
SMA cables
blast resilient design
url https://journals.open.tudelft.nl/jfde/article/view/5331
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AT euanstoddart blastresilienceenhancementofcablesupportedfacadeutilizingsuperelasticshapememoryalloy
AT andrewmorrison blastresilienceenhancementofcablesupportedfacadeutilizingsuperelasticshapememoryalloy
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