基于三维交互式矢量图形静力学(VGS)的木结构塑性发展

Sylvain Rasneur, Denis Zastavni, Jean-Charles Misson, Jean-Philippe Jasienski
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引用次数: 0

摘要

首先,本手稿解释了图形静力学的最新发展及其在木材连接和结构中的应用如何改善由这种低碳材料制成的结构的设计。文中详尽回顾了木材组件的可持续性及其结构行为。随后,阐述了本研究的理论框架。利用塑性理论的下界定理,介绍了使用图形静力学和木材支撑-绑扎模型(STM)的主要假设。此外,还使用代数尺寸法评估了单凹槽连接的结构行为。文章指出了这种方法的局限性,并提出了一种使用支柱和拉杆建模(STM)和应力场研究问题的综合通用方法。这一理论框架的结果通过 1/1 比例的实验室测试得到了验证。最后,第三章通过设计研究方法说明了 VGS 的潜力。为了测试在使用 VGS 的同时能否有效地设计出既有创意又高效的木结构,建筑工程专业的学生被要求重点关注主要承重结构和连接系统。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
On plastic development of timber structures based on 3D interactive vector-based graphic statics (VGS)

The present contribution addresses both the topics of the design of timber-to-timber joints and the design of innovative and structurally efficient timber structures with the aid of a computational tool based on vector-based graphic statics (VGS).

First, this manuscript explains how the latest developments of graphic statics and its use applied to both timber joints and structures can improve the design of structures made of this low embodied carbon material. An exhaustive review of timber assemblies focussing on their sustainability and their structural behaviour is presented. Among these is the notch joint specifically identified in the context of digital fabrication and circular use of timber.

Afterwards, the theoretical framework of this research is explained. Taking advantage of the lower bound theorem of the theory of plasticity, the main hypotheses that enable the use of graphic statics and strut-and-tie modelling (STM) for timber are then presented. In addition, the structural behaviour of the single notch joint is evaluated using algebraic dimensioning method. The limitations of this method are pointed out and the article proposes an integrated universal approach to investigate the problem using Strut and Tie Modelling (STM) and stress fields. The results of this theoretical framework are validated trough 1/1 scale lab tests. Finally, the third chapter illustrates the potential of VGS via a Research-by-Design approach. In the aim of testing if designing simultaneously creative and efficient timber structures could be effective while using the VGS, architectural engineering student were asked to focus on both the primary load-bearing structure and the joint-systems.

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