project09:S5Main - Revision history

Tzu-Shou: /* Proposal */

2024-04-04T21:48:29Z

Proposal

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	[[Media:Tzu-Shou Huang HPM Abstract.pdf]]		[[Media:Tzu-Shou Huang HPM Abstract.pdf]]

			[[Media:Tzu-Shou Huang HPM Powerpoint on Shallow Foundation Voronoi Research.pdf]]

Veronika Laszlo: /* Proposal */

2024-02-27T11:40:56Z

Proposal

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	=='''Proposal'''==		=='''Proposal'''==

	[[~~File~~:Tzu-Shou Huang HPM Abstract.pdf]]		[[Media:Tzu-Shou Huang HPM Abstract.pdf]]

Veronika Laszlo at 11:38, 27 February 2024

2024-02-27T11:38:23Z

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			[[Project09:S5Main\|'''Proposal''']]
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			[[Project09:S5Report\|'''Report''']]
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			<br>

			=='''Proposal'''==

	[[File:Tzu-Shou Huang HPM Abstract.pdf]]		[[File:Tzu-Shou Huang HPM Abstract.pdf]]

Tzu-Shou: Replaced content with "File:Tzu-Shou Huang HPM Abstract.pdf"

2024-02-27T10:10:02Z

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	~~[[Project09:S5Report\|'''Report''']]~~
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	~~Design and construction approaches of foundations in permafrost with an application for a 3-D printed habitat on Mars.~~

	Tzu-Shou Huang

	Abstract

	This research is part of TUDelft Robotic Lab Rhizome 2.0 and assists Arwin Hidding's Ph.D. research work, Scaling-up Capability of Human-Robot Interaction Supported Approaches for Robotically 3D-printing Extraterrestrial Habitats. The design and construction of buildings on Mars is a significant engineering challenge due to the complexities of the harsh environments and limited construction materials and equipment. A novel exploration is to build habitats through 3-D printing. This paper presents various shallow foundation approaches, ventilation systems and initial Voronoi interlocking shallow foundations for 3-D printed habitats on Mars.

	~~Key words: foundation; permafrost; 3-D printing; Mars terrain; Voronoi base; interlocking~~
	~~Research Methods~~

	First, Mars's terrain and possible environment are reviewed based on the available literature. The review discusses descriptions of the morphology of the surface on Mars and explains the thermal contraction of polygonal terrain and drainage/channel incision.
	Second, the permafrost terrain between Mars and Nordic is compared to. The research investigates Nordic architecture foundation regulations and construction methods due to their similar permafrost condition.
	Third, the typical design construction of shallow foundations on permafrost construction is reviewed through case studies in the Arctic and Nordic. Shallow foundation types include slurred piles, driven piles, slab on grade, continuous, and mat foundations are discussed, and examples of such foundations are presented and discussed what foundations are used for different soil conditions (soft, medium and firm)
	Fourth, the research investigates other case studies of 3D printing foundations on Mars. 'Designing a Habitat for 3D Concrete Printing in Permafrost Regions' by Jose Duarte (July 2023) from the University of Pennsylvania.
	Fifth, describe the general thermal design concept and considerations for the design of a heated, on-grade shallow building foundation on the thaw-unstable ground in a permafrost region; three case studies are discussed this including thermosyphon system, ventilated duct system, heat pump cooling system. Reviews how the new systems are used in the Arctic and Nordic and can be implemented into the Voronoi-based foundation. This research is a preliminary design document for foundations in permafrost for 3-D printing habitat on Mars.
	References Aharonson, O. (2002). The surface of Mars: Morphology and process (Doctoral dissertation, Massachusetts Institute of Technology). Duarte, J. P., Duarte, G., Brown, N., Nazarian, S., Memari, A., Bilén, S., & Radlinska, A. (2023). Designing a Habitat for 3D Concrete Printing in Permafrost Regions. Joelho-Journal of Architectural Culture, (14), 49-70. Estrin, Y., Krishnamurthy, V. R., & Akleman, E. (2021). Design of architectured materials based on topological and geometrical interlocking. Journal of Materials Research and Technology, 15, 1165-1178. Gata, K. M., Mueller, C., & Valiente, E. E. (2019, October). Designing strategies for topological interlocking assemblies in architecture. Flat vaults. In Proceedings of IASS Annual Symposia (Vol. 2019, No. 15, pp. 1-8). International Association for Shell and Spatial Structures (IASS). Lecci, F., Mazzoli, C., Bartolomei, C., & Gulli, R. (2021). Design of flat vaults with topological interlocking solids. Nexus Network Journal, 23(3), 607-627. Tessmann, O. (2012). Topological interlocking assemblies. Digital Physicality: Proceedings of ECAADe, 211-219. Jorgenson, M. T., Yoshikawa, K., Kanevskiy, M., Shur, Y., Romanovsky, V., Marchenko, S., ... & Jones, B. (2008, June). Permafrost characteristics of Alaska. In Proceedings of the ninth international conference on permafrost (Vol. 3, pp. 121-122). Fairbanks: University of Alaska.
	Wang, Zi-Yi, Ming Xiao, Ali Memari, and Xinlei Na. (2023) "Design and construction approaches of foundations in permafrost with an application for a 3-D printed habitat in the Arctic." Zhang, G., & Horne, W. B. T. (2012). Thermal design of shallow building foundations in permafrost regions. In Cold Regions Engineering 2012: Sustainable Infrastructure Development in a Changing Cold Environment (pp. 337-347).

Tzu-Shou: /* Proposal */

2024-02-27T10:07:29Z

Proposal

← Older revision		Revision as of 12:07, 27 February 2024
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	<br>		<br>

	=='''~~Proposal~~'~~''==~~		Design and construction approaches of foundations in permafrost with an application for a 3-D printed habitat on Mars.

			Tzu-Shou Huang

			Abstract

			This research is part of TUDelft Robotic Lab Rhizome 2.0 and assists Arwin Hidding's Ph.D. research work, Scaling-up Capability of Human-Robot Interaction Supported Approaches for Robotically 3D-printing Extraterrestrial Habitats. The design and construction of buildings on Mars is a significant engineering challenge due to the complexities of the harsh environments and limited construction materials and equipment. A novel exploration is to build habitats through 3-D printing. This paper presents various shallow foundation approaches, ventilation systems and initial Voronoi interlocking shallow foundations for 3-D printed habitats on Mars.

			Key words: foundation; permafrost; 3-D printing; Mars terrain; Voronoi base; interlocking
			Research Methods

			First, Mars's terrain and possible environment are reviewed based on the available literature. The review discusses descriptions of the morphology of the surface on Mars and explains the thermal contraction of polygonal terrain and drainage/channel incision.
			Second, the permafrost terrain between Mars and Nordic is compared to. The research investigates Nordic architecture foundation regulations and construction methods due to their similar permafrost condition.
			Third, the typical design construction of shallow foundations on permafrost construction is reviewed through case studies in the Arctic and Nordic. Shallow foundation types include slurred piles, driven piles, slab on grade, continuous, and mat foundations are discussed, and examples of such foundations are presented and discussed what foundations are used for different soil conditions (soft, medium and firm)
			Fourth, the research investigates other case studies of 3D printing foundations on Mars. 'Designing a Habitat for 3D Concrete Printing in Permafrost Regions' by Jose Duarte (July 2023) from the University of Pennsylvania.
			Fifth, describe the general thermal design concept and considerations for the design of a heated, on-grade shallow building foundation on the thaw-unstable ground in a permafrost region; three case studies are discussed this including thermosyphon system, ventilated duct system, heat pump cooling system. Reviews how the new systems are used in the Arctic and Nordic and can be implemented into the Voronoi-based foundation. This research is a preliminary design document for foundations in permafrost for 3-D printing habitat on Mars.
			References Aharonson, O. (2002). The surface of Mars: Morphology and process (Doctoral dissertation, Massachusetts Institute of Technology). Duarte, J. P., Duarte, G., Brown, N., Nazarian, S., Memari, A., Bilén, S., & Radlinska, A. (2023). Designing a Habitat for 3D Concrete Printing in Permafrost Regions. Joelho-Journal of Architectural Culture, (14), 49-70. Estrin, Y., Krishnamurthy, V. R., & Akleman, E. (2021). Design of architectured materials based on topological and geometrical interlocking. Journal of Materials Research and Technology, 15, 1165-1178. Gata, K. M., Mueller, C., & Valiente, E. E. (2019, October). Designing strategies for topological interlocking assemblies in architecture. Flat vaults. In Proceedings of IASS Annual Symposia (Vol. 2019, No. 15, pp. 1-8). International Association for Shell and Spatial Structures (IASS). Lecci, F., Mazzoli, C., Bartolomei, C., & Gulli, R. (2021). Design of flat vaults with topological interlocking solids. Nexus Network Journal, 23(3), 607-627. Tessmann, O. (2012). Topological interlocking assemblies. Digital Physicality: Proceedings of ECAADe, 211-219. Jorgenson, M. T., Yoshikawa, K., Kanevskiy, M., Shur, Y., Romanovsky, V., Marchenko, S., ... & Jones, B. (2008, June). Permafrost characteristics of Alaska. In Proceedings of the ninth international conference on permafrost (Vol. 3, pp. 121-122). Fairbanks: University of Alaska.
			Wang, Zi-Yi, Ming Xiao, Ali Memari, and Xinlei Na. (2023) "Design and construction approaches of foundations in permafrost with an application for a 3-D printed habitat in the Arctic." Zhang, G., & Horne, W. B. T. (2012). Thermal design of shallow building foundations in permafrost regions. In Cold Regions Engineering 2012: Sustainable Infrastructure Development in a Changing Cold Environment (pp. 337-347).

Veronika Laszlo: Created page with "NOTITLE NOTOC 850px

2024-02-26T12:10:07Z

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[[Project09:S5Main|'''Proposal''']]
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[[Project09:S5Report|'''Report''']]
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=='''Proposal'''==