Space Shingles: Casting bespoke connectors for structural shingles

Publikation: Beitrag in Buch/Bericht/Sammelwerk/KonferenzbandAufsatz in KonferenzbandForschungPeer-Review

Autoren

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  • Hochschule Wismar University of Technology, Business and Design
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Details

OriginalspracheEnglisch
Titel des SammelwerksAdvances in Architectural Geometry 2020
Herausgeber/-innenOlivier Baverel, Cyril Douthe, Romain Mesnil, Caitlin Mueller, Helmut Pottmann, Tomohiro Tachi
Kapitel1
Seiten392
Seitenumfang15
PublikationsstatusVeröffentlicht - 2021

Abstract

metal casting are used in conjunction with 3D-printed moulds for creating geometrically complex structural aluminium connectors. To show the potential of this process we propose a novel connector that differs from bespoke tube connectors and traditional spider fittings. We showcase a connector for joining sheet material to form larger double-layered structural assemblies such as decks and shells without the need of any substructure.
The work lays out the digital process chain including design, engineering, and fabrication. This includes topology optimization of the connectors towards structure, material use, and casting limitations. It describes the production of individually shaped connectors, which are produced indirectly using a large format binder-jet 3D-sand-printer for casting metal cores. It results in bespoke cast metal connectors with approved material properties. The work is situated between direct 3D-metal printing as shown by Arup in 2015 and 3D-printing sand moulds for bespoke metal casting.
A possible novel design application of such a plate connector is demonstrated in a shingled double-layered structure. It would allow for a loose-fit overlapping panel detail and thus eliminate elaborate flank machining. Such varying overlap between panels with relatively large tolerances also opens the possibility for constructing non-standard forms out of standard panels. It also allows to design with reused plates or production-waste material by employing combinatorial methods.

Zitieren

Space Shingles: Casting bespoke connectors for structural shingles. / Becker, Mirco; Fromm, Asko; Mecke, Philipp et al.
Advances in Architectural Geometry 2020. Hrsg. / Olivier Baverel; Cyril Douthe; Romain Mesnil; Caitlin Mueller; Helmut Pottmann; Tomohiro Tachi. 2021. S. 392.

Publikation: Beitrag in Buch/Bericht/Sammelwerk/KonferenzbandAufsatz in KonferenzbandForschungPeer-Review

Becker, M, Fromm, A, Mecke, P & Keller, F 2021, Space Shingles: Casting bespoke connectors for structural shingles. in O Baverel, C Douthe, R Mesnil, C Mueller, H Pottmann & T Tachi (Hrsg.), Advances in Architectural Geometry 2020. S. 392. <https://thinkshell.fr/wp-content/uploads/2019/10/AAG2020_20_Becker.pdf>
Becker, M., Fromm, A., Mecke, P., & Keller, F. (2021). Space Shingles: Casting bespoke connectors for structural shingles. In O. Baverel, C. Douthe, R. Mesnil, C. Mueller, H. Pottmann, & T. Tachi (Hrsg.), Advances in Architectural Geometry 2020 (S. 392) https://thinkshell.fr/wp-content/uploads/2019/10/AAG2020_20_Becker.pdf
Becker M, Fromm A, Mecke P, Keller F. Space Shingles: Casting bespoke connectors for structural shingles. in Baverel O, Douthe C, Mesnil R, Mueller C, Pottmann H, Tachi T, Hrsg., Advances in Architectural Geometry 2020. 2021. S. 392
Becker, Mirco ; Fromm, Asko ; Mecke, Philipp et al. / Space Shingles : Casting bespoke connectors for structural shingles. Advances in Architectural Geometry 2020. Hrsg. / Olivier Baverel ; Cyril Douthe ; Romain Mesnil ; Caitlin Mueller ; Helmut Pottmann ; Tomohiro Tachi. 2021. S. 392
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title = "Space Shingles: Casting bespoke connectors for structural shingles",
abstract = "metal casting are used in conjunction with 3D-printed moulds for creating geometrically complex structural aluminium connectors. To show the potential of this process we propose a novel connector that differs from bespoke tube connectors and traditional spider fittings. We showcase a connector for joining sheet material to form larger double-layered structural assemblies such as decks and shells without the need of any substructure. The work lays out the digital process chain including design, engineering, and fabrication. This includes topology optimization of the connectors towards structure, material use, and casting limitations. It describes the production of individually shaped connectors, which are produced indirectly using a large format binder-jet 3D-sand-printer for casting metal cores. It results in bespoke cast metal connectors with approved material properties. The work is situated between direct 3D-metal printing as shown by Arup in 2015 and 3D-printing sand moulds for bespoke metal casting. A possible novel design application of such a plate connector is demonstrated in a shingled double-layered structure. It would allow for a loose-fit overlapping panel detail and thus eliminate elaborate flank machining. Such varying overlap between panels with relatively large tolerances also opens the possibility for constructing non-standard forms out of standard panels. It also allows to design with reused plates or production-waste material by employing combinatorial methods.",
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T2 - Casting bespoke connectors for structural shingles

AU - Becker, Mirco

AU - Fromm, Asko

AU - Mecke, Philipp

AU - Keller, Florent

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N2 - metal casting are used in conjunction with 3D-printed moulds for creating geometrically complex structural aluminium connectors. To show the potential of this process we propose a novel connector that differs from bespoke tube connectors and traditional spider fittings. We showcase a connector for joining sheet material to form larger double-layered structural assemblies such as decks and shells without the need of any substructure. The work lays out the digital process chain including design, engineering, and fabrication. This includes topology optimization of the connectors towards structure, material use, and casting limitations. It describes the production of individually shaped connectors, which are produced indirectly using a large format binder-jet 3D-sand-printer for casting metal cores. It results in bespoke cast metal connectors with approved material properties. The work is situated between direct 3D-metal printing as shown by Arup in 2015 and 3D-printing sand moulds for bespoke metal casting. A possible novel design application of such a plate connector is demonstrated in a shingled double-layered structure. It would allow for a loose-fit overlapping panel detail and thus eliminate elaborate flank machining. Such varying overlap between panels with relatively large tolerances also opens the possibility for constructing non-standard forms out of standard panels. It also allows to design with reused plates or production-waste material by employing combinatorial methods.

AB - metal casting are used in conjunction with 3D-printed moulds for creating geometrically complex structural aluminium connectors. To show the potential of this process we propose a novel connector that differs from bespoke tube connectors and traditional spider fittings. We showcase a connector for joining sheet material to form larger double-layered structural assemblies such as decks and shells without the need of any substructure. The work lays out the digital process chain including design, engineering, and fabrication. This includes topology optimization of the connectors towards structure, material use, and casting limitations. It describes the production of individually shaped connectors, which are produced indirectly using a large format binder-jet 3D-sand-printer for casting metal cores. It results in bespoke cast metal connectors with approved material properties. The work is situated between direct 3D-metal printing as shown by Arup in 2015 and 3D-printing sand moulds for bespoke metal casting. A possible novel design application of such a plate connector is demonstrated in a shingled double-layered structure. It would allow for a loose-fit overlapping panel detail and thus eliminate elaborate flank machining. Such varying overlap between panels with relatively large tolerances also opens the possibility for constructing non-standard forms out of standard panels. It also allows to design with reused plates or production-waste material by employing combinatorial methods.

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BT - Advances in Architectural Geometry 2020

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ER -

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