Konrad Graser, A. Adel, Marco Baur, Daniel Sanz Pont, A. Thoma
{"title":"Parallel Paths of Inquiry: Detailing for DFAB HOUSE","authors":"Konrad Graser, A. Adel, Marco Baur, Daniel Sanz Pont, A. Thoma","doi":"10.1080/24751448.2021.1863668","DOIUrl":null,"url":null,"abstract":"DFAB HOUSE, a multi-technology demonstrator of digital fabrication in architecture, integrates six full-scale novel construction technologies into a three-story residential building for the first time (Graser et al. 2020) (Figure 1). Rather than a mere showcase of individual digital fabrication technologies, it explores how their synthesis across interfaces can drive the process of architectural design. This account focuses on the co-development of its most interrelated subsystems: Spatial Timber Assemblies (Adel et al. 2018; Thoma et al. 2018) and the Lightweight Translucent Facade (DFAB HOUSE 2020). Each of the subsystems fulfills specific design objectives: the timber structure demonstrates cooperative robotic assembly and its degrees of freedom, and optimizes structural performance and material use; the facade combines thermal performance and daylighting, allows a non-planar geometry optimal for prestressing, and creates an outward perception of the timber frame. However, these two subsystems perform synergistically. The stiffness of the irregular, triangulated timber frame relies on precision and variability of orientations, two strengths of nonstandard robotic fabrication and assembly routines, and permits employing a pliable, translucent membrane facade. Compression studs counterbalance the tensile forces of the facade system allowing its mass and footprint to be minimized (Figure 2). Parallel Paths of Inquiry: Detailing for DFAB HOUSE","PeriodicalId":36812,"journal":{"name":"Technology Architecture and Design","volume":null,"pages":null},"PeriodicalIF":0.5000,"publicationDate":"2021-01-02","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"5","resultStr":null,"platform":"Semanticscholar","paperid":null,"PeriodicalName":"Technology Architecture and Design","FirstCategoryId":"1085","ListUrlMain":"https://doi.org/10.1080/24751448.2021.1863668","RegionNum":0,"RegionCategory":null,"ArticlePicture":[],"TitleCN":null,"AbstractTextCN":null,"PMCID":null,"EPubDate":"","PubModel":"","JCR":"0","JCRName":"ARCHITECTURE","Score":null,"Total":0}
引用次数: 5
Abstract
DFAB HOUSE, a multi-technology demonstrator of digital fabrication in architecture, integrates six full-scale novel construction technologies into a three-story residential building for the first time (Graser et al. 2020) (Figure 1). Rather than a mere showcase of individual digital fabrication technologies, it explores how their synthesis across interfaces can drive the process of architectural design. This account focuses on the co-development of its most interrelated subsystems: Spatial Timber Assemblies (Adel et al. 2018; Thoma et al. 2018) and the Lightweight Translucent Facade (DFAB HOUSE 2020). Each of the subsystems fulfills specific design objectives: the timber structure demonstrates cooperative robotic assembly and its degrees of freedom, and optimizes structural performance and material use; the facade combines thermal performance and daylighting, allows a non-planar geometry optimal for prestressing, and creates an outward perception of the timber frame. However, these two subsystems perform synergistically. The stiffness of the irregular, triangulated timber frame relies on precision and variability of orientations, two strengths of nonstandard robotic fabrication and assembly routines, and permits employing a pliable, translucent membrane facade. Compression studs counterbalance the tensile forces of the facade system allowing its mass and footprint to be minimized (Figure 2). Parallel Paths of Inquiry: Detailing for DFAB HOUSE
DFAB HOUSE是建筑中数字制造的多技术演示者,首次将六种全尺寸新型施工技术集成到三层住宅楼中(Graser等人,2020)(图1)。它不仅仅是单个数字制造技术的展示,而是探索了它们如何跨接口综合驱动建筑设计过程。该帐户侧重于其最相关子系统的共同开发:空间木材组件(Adel等人,2018;Thoma et al. 2018)和轻质半透明立面(DFAB HOUSE 2020)。每个子系统都实现了特定的设计目标:木结构展示了协作机器人装配及其自由度,并优化了结构性能和材料使用;立面结合了热性能和采光,允许非平面几何形状的预应力优化,并创造了木结构的外部感知。然而,这两个子系统协同工作。不规则三角形木框架的刚度依赖于精度和方向的可变性,这是非标准机器人制造和装配程序的两个优势,并允许采用柔韧的半透明膜立面。压缩螺柱平衡了立面系统的拉力,使其质量和占地面积最小化(图2)。平行探索路径:DFAB住宅的细节