关注可持续性的自适应承重结构可靠设计

Andreas Ostertag, M. Dazer, B. Bertsche, Friederike Schlegl, S. Albrecht, P. Leistner, A. Gienger, J. Wagner, C. Tarín, O. Sawodny
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引用次数: 13

摘要

如今,建筑行业使用了大量的原材料。传统的被动式建筑设计方法在其设计寿命的大部分时间内都处于标准允许的极限和超大。为了减少原材料的消耗和生产过程中对环境造成的影响,驱动承重结构是一种可能的发展方向。这种结构能够适应不同的负载情况,通过使用安装在结构中的致动器专门操纵内应力。本文介绍了一种适用于自适应高层承重结构的设计方法,该结构在考虑环境变化影响的情况下具有一定的可靠性。对于数量为1的独特结构,需要解决超大尺寸之间的权衡,这可以带来高可靠性和节省原材料,从而减少对环境的影响。采用线弹性模型模拟了风荷载的影响,计算了作动器的力和张力。在总平衡中,执行器的能源消耗及其相关的温室气体排放以及由于生产中原材料需求减少而预期的节省都包括在内。总之,在不久的将来,电能将变得越来越环保,而材料的自然资源是有限的,在这种情况下,用能源代替建筑材料是一种很有前途的方式。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Reliable Design of Adaptive Load-Bearing Structures with Focus on Sustainability
Nowadays large amounts of raw materials are used in the building industry. Conventional design methods for passive constructions are at the limit of what’s permissible according to standard and oversized for most of their design life. In order to reduce the consumption of raw material and the environmental impact caused by its production, an actuation of the load-bearing structure is a possible way forward. Such a structure is able to adapt to different load cases by specifically manipulating internal stresses using actuators installed in the structure. This paper introduces a design procedure applied to an adaptive high-rise load-bearing structure demonstrating reliability and includes the changing environmental impact. The trade-off between oversizing, which leads to high reliability and savings of raw material for minimal environmental impact needs to be solved for unique structures with quantity one. By use of a linear-elastic model the effect of wind loads is simulated and actuator forces and tensions were calculated. In the total balance the energy consumption of the actuators and its related greenhouse gas emissions as well as the intended savings due to the reduced need for raw materials in production is included. In conclusion, replacing building material with energy can be a promising way forward on the condition, that electric energy will become increasingly environmentally friendly in the near future, whereas natural resources for materials are limited.
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