Shake-Table Testing of a Full-Scale 10-Story Resilient Mass Timber BuildingSource: Journal of Structural Engineering:;2024:;Volume ( 150 ):;issue: 012::page 04024183-1Author:Shiling Pei
,
Keri L. Ryan
,
Jeffrey W. Berman
,
John W. van de Lindt
,
Steve Pryor
,
Da Huang
,
Sarah Wichman
,
Aleesha Busch
,
William Roser
,
Sir Lathan Wynn
,
Yi-en Ji
,
Tara Hutchinson
,
Shokrullah Sorosh
,
Reid B. Zimmerman
,
James Dolan
DOI: 10.1061/JSENDH.STENG-13752Publisher: American Society of Civil Engineers
Abstract: As part of a collaborative research effort (The NHERI TallWood Project), an extensive shake table test program was undertaken on a full-scale 10-story mass timber building with a resilient posttensioned mass timber rocking wall lateral system. Over a three-year period, academic and industry partners collaborated on the design, construction, and testing of a 34 m (113 ft) tall, 10-story mass timber building at the world’s largest outdoor shake table facility (NHERI@UC San Diego). The test building incorporated a resilient mass timber rocking wall lateral system, gravity connection details designed to remain damage-free under design level earthquakes as well as innovative nonstructural systems detailed to tolerate moderate building drifts without significant damage. A total of 88 earthquake tests at different intensity levels were conducted, including several at the risk targeted maximum considered earthquake intensity for the building’s design location. Experimental results indicate that a tall wood building with the systems and details employed in this study can withstand design basis and maximum considered earthquake level events repeatedly with no notable residual drift, no structural member or connection damage, while only experiencing moderate nonstructural damage that would be repairable, meeting the intended resilience goals. This paper provides a summary of the design, construction, testing, and primary results from this experimental program.
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contributor author | Shiling Pei | |
contributor author | Keri L. Ryan | |
contributor author | Jeffrey W. Berman | |
contributor author | John W. van de Lindt | |
contributor author | Steve Pryor | |
contributor author | Da Huang | |
contributor author | Sarah Wichman | |
contributor author | Aleesha Busch | |
contributor author | William Roser | |
contributor author | Sir Lathan Wynn | |
contributor author | Yi-en Ji | |
contributor author | Tara Hutchinson | |
contributor author | Shokrullah Sorosh | |
contributor author | Reid B. Zimmerman | |
contributor author | James Dolan | |
date accessioned | 2025-04-20T10:02:54Z | |
date available | 2025-04-20T10:02:54Z | |
date copyright | 10/12/2024 12:00:00 AM | |
date issued | 2024 | |
identifier other | JSENDH.STENG-13752.pdf | |
identifier uri | http://yetl.yabesh.ir/yetl1/handle/yetl/4303895 | |
description abstract | As part of a collaborative research effort (The NHERI TallWood Project), an extensive shake table test program was undertaken on a full-scale 10-story mass timber building with a resilient posttensioned mass timber rocking wall lateral system. Over a three-year period, academic and industry partners collaborated on the design, construction, and testing of a 34 m (113 ft) tall, 10-story mass timber building at the world’s largest outdoor shake table facility (NHERI@UC San Diego). The test building incorporated a resilient mass timber rocking wall lateral system, gravity connection details designed to remain damage-free under design level earthquakes as well as innovative nonstructural systems detailed to tolerate moderate building drifts without significant damage. A total of 88 earthquake tests at different intensity levels were conducted, including several at the risk targeted maximum considered earthquake intensity for the building’s design location. Experimental results indicate that a tall wood building with the systems and details employed in this study can withstand design basis and maximum considered earthquake level events repeatedly with no notable residual drift, no structural member or connection damage, while only experiencing moderate nonstructural damage that would be repairable, meeting the intended resilience goals. This paper provides a summary of the design, construction, testing, and primary results from this experimental program. | |
publisher | American Society of Civil Engineers | |
title | Shake-Table Testing of a Full-Scale 10-Story Resilient Mass Timber Building | |
type | Journal Article | |
journal volume | 150 | |
journal issue | 12 | |
journal title | Journal of Structural Engineering | |
identifier doi | 10.1061/JSENDH.STENG-13752 | |
journal fristpage | 04024183-1 | |
journal lastpage | 04024183-21 | |
page | 21 | |
tree | Journal of Structural Engineering:;2024:;Volume ( 150 ):;issue: 012 | |
contenttype | Fulltext |