NMIT艺术与媒体大楼——三层后张式木结构建筑的创新结构设计

Tony Holden , Carl Devereux , Shane Haydon , Andrew Buchanan , Stefano Pampanin
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引用次数: 22

摘要

NMIT艺术&;新西兰尼尔森的媒体大厦是新一代多层木结构建筑中的第一座。它采用了许多创新的木材技术,包括先进的防震设计,这是世界上第一个木结构建筑。Aurecon结构工程师率先使用了坎特伯雷大学开发的这种革命性的pre - lam技术。这项技术标志着设计理念的根本改变。多层结构的常规抗震设计通常取决于构件的延性和对梁、柱或墙的一定程度损伤的接受程度。NMIT抗震系统依赖于一对耦合的木材剪力墙,这些剪力墙结合了高强度钢筋,通过中央管道后张。这些墙是中央固定的,可以在地震发生时晃动。墙之间放置的一系列u形钢板形成了耦合机制,并作为减震器吸收地震能量。这种设计使主要结构在大地震中基本不受损坏,而易于更换的连接充当塑料保险丝。木材和工程木产品的广泛使用,如层压单板木材(LVL),利用了当地的自然资源,所有这些都是在纳尔逊80公里半径内种植和生产的。这个获得IstructE奖项的项目表明,现在有成本效益高、可持续和创新的多层木结构建筑解决方案,对世界各地地震地区的建筑业主有潜在的应用前景。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
NMIT Arts & Media Building—Innovative structural design of a three storey post-tensioned timber building

The NMIT Arts & Media Building in Nelson, New Zealand is the first in a new generation of multi-storey timber structures. It employs a number of innovative timber technologies including an advanced damage avoidance earthquake design that is a world first for a timber building. Aurecon structural engineers are the first to use this revolutionary Pres-Lam technology developed at the University of Canterbury.

This technology marks a fundamental change in design philosophy. Conventional seismic design of multi-storey structures typically depends on member ductility and the acceptance of a certain amount of damage to beams, columns or walls. The NMIT seismic system relies on pairs of coupled timber shear walls that incorporate high strength steel tendons post-tensioned through a central duct. The walls are centrally fixed allowing them to rock during a seismic event. A series of U-shaped steel plates placed between the walls form a coupling mechanism, and act as dissipaters to absorb seismic energy. The design allows the primary structure to remain essentially undamaged in a major earthquake while readily replaceable connections act as plastic fuses.

With a key focus on sustainability the extensive use of timber and engineered-wood products such as laminated veneer lumber (LVL) makes use of a local natural resource, all grown and manufactured within an 80 km radius of Nelson.

This IstructE award winning project demonstrates that there are now cost effective, sustainable and innovative solutions for multi-storey timber buildings with potential applications for building owners in seismic areas around the world.

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