Abstract
This paper introduces a series of prototypes investigating a new architectural language in wood that is driven by a critical approach to recent technical developments in design, fabrication and material. Although wood is slowly being recognized as an advanced material for future construction due to its high performance and sustainable nature, its differentiated and unpredictable material characteristics have not only been progressively overlooked, but even been viewed as a negative attribute. Wood’s varied dimensional range has been addressed through standardization, its heterogeneous fiber structure ground and reconstituted into homogeneous composites, and finally its complex aesthetic quality has even been caricaturized into a skin-deep plastic-wood veneer texture. This paper seeks to extend research on the implications of advanced robotic fabrication and its integration into design processes that also integrate cross-disciplinary knowledge into architectural software. As innovation in technology enables architects and engineers to engage with the complexities of the material, the potential of wood is becoming accessible, leading to a new material language. Through a series of full scale, robotically fabricated design prototypes, the material performance of wood is investigated as a driver for form; its fabrication and hygroscopic performance as a driver for assembly, and more importantly, the entire design-to-fabrication-process as a method for investigation into innovation and the structural and architectural potential of future wood.
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References
Alcorn A (1996) Embodied energy coefficients of building materials. Centre for Building Performance Research, Victoria University of Wellington
Antemann M (2013) Complex structures solutions in wood. Vancouver, BC, February
Bechert S, Knippers J, Krieg O, Menges A, Schwinn T, Sonntag D (2016) Textile fabrication techniques for timber shells: elastic bending of custom-laminated veneer for segmented shell construction systems. In: Adriaenssens S, Gramazio F, Kohler M, Menges A, Pauly M (eds) Advances in architectural geometry 2016, vdf Hochschulverlag AG ETH Zurich, Zurich, pp 154–169. ISBN 978-3-7281-3778-4
Boake TM (2012) Understanding steel design: an architectural design manual. Basel, Birkhäuser
Burkhardt B (1978) IL 13: Multihalle Mannheim. Karl Krämer Verlag, Stuttgart
Cheng A, Gaudin T, Meyboom A, Neumann O, Tannert T (2015) Large scale wood surface structures. In: 3rd annual international conference on architecture and civil engineering (ACE 2015). Singapore, pp 13–14
Collins P (1959) Concrete: the vision of a new architecture. Second Edition, 2004. McGill Queens University Press, Montreal & Kingston
Communication from the Commission to the European Parliament, the Council, the European Economic and Social Committee and the Committee of the Regions on Resource Efficiency Opportunities in the Building Sector (2014). COM, European Commission
Correa D, Papadopoulou A, Guberan C, Jhaveri N, Reichert S, Menges A, Tibbits S (2015) 3D printed wood: programming hygroscopic material transformation. 3D printing and additive manufacturing. Mary Ann Liebert 2(3):106–116. https://doi.org/10.1089/3dp.2015.0022
Dinwoodie JM (2000) Timber: its nature and behaviour. E&FN Spon, London
Eckelman CA (1998) The shrinking and swelling of wood and its effect on furniture. Forestry and natural resource 163. Purdue University, West Lafayette, I.N.
Elliott CD (1992) Technics and architecture: the development of materials and systems for building. MIT Press, Cambridge, Massachusetts
Gann DM (2000) Building innovation. Thomas Telford, London
Gengnagel C, Alpermann H, Knippers J, Lienhard J (2012) Active bending, a review on structures where bending is used as a self formation process. In: Proceedings of the international IASS symposium, Seoul, Korea
Gordon JE (2003) Structures: or why things don’t fall down. Da Capo Press, Boston
Holstov A, Bridgens B, Farmer G (2015) Hygromorphic materials for sustainable responsive architecture. Constr Build Mater 98:570–582. https://doi.org/10.1016/j.conbuildmat.2015.08.136
Kieran S, Timberlake J (2004) Refabricating architecture. How manufacturing methodologies are poised to transform building construction. McGraw-Hill, New York
Kolb J (2008) Systems in timber engineering: loadbearing structures and component layers. Birkhäuser, Basel
Krieg O, Menges A (2013) Prototyping robotic production: development of elastically bent wood plate morphologies with curved finger joint seams. In: Gengnagel C, Kilian A, Nembrini J, Scheurer F (eds) Rethinking prototyping, proceedings of the design modelling symposium Berlin 2013, Verlag der Universität der Künste Berlin, pp 479–490. ISBN 978-3-89462-243-5
Krieg O, Schwinn T, Menges A (2015) Integrative design computation for local resource effectiveness in architecture. In: Wang F, Prominski M (eds) Urbanization and locality: strengthening identity and sustainability by site-specific planning and design. Springer Science and Business Media, pp 123–143. ISBN 978-3-662-48492-0
Lienhard J, Fleischmann M, Menges A (2011) Computational design synthesis: embedding material behaviour in generative computational processes. In: Proceedings of the 29th eCAADE conference, Ljubljana (Slovenia) 21–24 Sept 2011, pp 759-767. ISBN 978-9491207013
Lienhard J, Schleicher S, Knippers J (2011) Bending-active structures. In: Research Pavilion ICD/ITKE, in symposium of the international association for shell and spatial structures 2011, London, United Kingdom
Menges A (2011) Integrative design computation: integrating material behaviour and robotic manufacturing processes in computational design for performative wood constructions. In: Proceedings of the 31st annual conference of the ACADIA, pp 72–81
Peters TF (1996) Building the 19th century. MIT Press, Cambridge, Massachusetts
Picon A (2010) The first steps of construction in iron: problems posed by the introduction of a new construction material. In: Before steel. Niggli, Zürich
Reichert S, Menges A, Correa D (2015) Meteorosensitive architecture: biomimetic building skins based on materially embedded and hygroscopically enabled responsiveness. Comput Aided Des 60:50–69
Rinke M, Schwartz J (2010) (a). The ambivalence of the revolution: an introduction. In: Before steel. Niggli, Zürich. In: Before steel: the introduction of structural iron and its consequences. Verlag Niggli, Zürich
Rinke M, Schwartz J (2010) (b) The ambivalence of the revolution: an introduction. In: Before steel. Niggli, Zürich
Robeller C, Weinand Y, Helm V, Thoma A, Gramazio F, Kohler M (2017) Robotic integral attachment. In: Menges A, Sheil B, Glynn R, Skavara M (eds) Fabricate 2017 conference proceedings. UCL Press, London, pp 92–97
Rowell RM (1995) One way to keep wood from going this way and that. Am Rec XXXVI:12–16
Rüggeberg M, Burgert I (2015) Bio-inspired wooden actuators for large scale applications. Plos One 10(4)
Self M, Vercruysse E (2017) Infinite variations, radical strategies. In: Menges A, Sheil B, Glynn R, Skavara M (eds) Fabricate 2017 conference proceedings. UCL Press, London, pp 30–35
Simonson C, Salonvaara M, Ojanen T (2001) Improving indoor climate and comfort with wooden structures. VTT Publications
Slaughter ES (1998) Models of construction innovation. J Constr Eng Manag 124(3):226–231
Stamm AJ (1964) Wood and cellulose science. Ronald Press Co., New York, NY
Tarkow H, Turner HD (1958) The swelling pressure of wood. For Prod J 8(7):193–197
Taylor JE (2006) Three perspectives on innovation in interorganizational networks: systemic innovation, boundary object change, and the alignment of innovations and networks. Stanford University, Stanford
Taylor JE, Levitt RE (2005) Inter-organizational knowledge flow and innovation diffusion in project-based industries. In: System sciences HICSS’05 proceedings of the 38th annual hawaii international conference on system sciences. IEEE, pp 1–10
Wagenführ R (1999) Anatomie des Holzes. DRW Verlag, Leinfelden-Echterdingen
Winch G (1998) Zephyrs of creative destruction: understanding the management of innovation in construction. Build Res Inf 26(5):268–279
Acknowledgements
The workshops presented in this paper were organized and supported by the Centre for Advanced Wood Processing, as well as the School of Architecture and Landscape Architecture at the University of British Columbia. Funding was provided by the Forestry Innovation Investment, Perkins+Will Vancouver, Perkins+Will Building Technology Lab, and the UBC SEEDS Sustainability Program.
The authors would like to express their gratitude to Iain MacDonald, Jason Chiu and Jörn Dettmer from the Centre for Advanced Wood Processing, as well as Dean Gregory from the UBC Campus and Community Planning, and David Gill from the SEEDS Sustainability Program. Further, the authors would like to thank all the participants of both workshops without whom the results would not have been that successful.
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Correa, D., Krieg, O.D., Meyboom, A. (2019). Beyond Form Definition: Material Informed Digital Fabrication in Timber Construction. In: Bianconi, F., Filippucci, M. (eds) Digital Wood Design. Lecture Notes in Civil Engineering, vol 24. Springer, Cham. https://doi.org/10.1007/978-3-030-03676-8_2
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