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Challenges of a Single-Layer Reticulated Inverted Monk Bowl Dome

 Challenges of a Single-Layer Reticulated Inverted Monk Bowl Dome
Autor(en): , ,
Beitrag für IABSE Conference: Structural Engineering: Providing Solutions to Global Challenges, Geneva, Switzerland, September 2015, veröffentlicht in , S. 574-584
DOI: 10.2749/222137815818357629
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This paper presents the challenges and studies involved in the structural analysis and design of a single-layer reticulated dome. The geometry of the dome is not conventional dome-shaped with large...
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Bibliografische Angaben

Autor(en): (AIT Consulting, Asian Institute of Technology, Bangkok, Thailand)
(AIT Consulting, Asian Institute of Technology, Bangkok, Thailand)
(AIT Consulting, Asian Institute of Technology, Bangkok, Thailand)
Medium: Tagungsbeitrag
Sprache(n): Englisch
Tagung: IABSE Conference: Structural Engineering: Providing Solutions to Global Challenges, Geneva, Switzerland, September 2015
Veröffentlicht in:
Seite(n): 574-584 Anzahl der Seiten (im PDF): 11
Seite(n): 574-584
Anzahl der Seiten (im PDF): 11
Jahr: 2015
DOI: 10.2749/222137815818357629
Abstrakt:

This paper presents the challenges and studies involved in the structural analysis and design of a single-layer reticulated dome. The geometry of the dome is not conventional dome-shaped with largest diameter at the base. The dome is “Inverted monk bowl” in shape with the largest diameter at the quarter height. The dome is used as temple with a tall Buddha statue inside. It is a single-layer latticed steel dome, resting on the reinforced concrete structure. The dome is approximately 65 m in diameter at the base, while the diameter at mid-height is about 86 m. Wind tunnel test was conducted to determine the wind pressure on the surface of the dome which was located in the open terrain. High Frequency Pressure Integration (HFPI) technique was applied in the overall wind load study. Linear response history analysis was conducted to determine the response of the structure under wind load, while response spectrum analysis was conducted for seismic load. Staged construction analysis was performed in order to evaluate the performance of the structural components under construction. The structural components and construction loads were added in accordance with the actual construction sequences to determine the design forces.