journal article·2024-07-23Open access

Analysis of Planar Double-Layer Timber Spatial Frames by Using Parametric Tools

Maddi Manterola-Ubillos, Francisco Gonzalez-Quintial, Jose Miguel Rico-Martinez, Josu Benito Ayucar, Jon Andoni Begiristain-Mitxelena

Applied Sciences· Volume 14· Issue 15

Abstract

It is in the preliminary design phase of a project that the designer makes decisions concerning the global geometry of the structure. When working with space frames, the choice of the frame topology is key for the structural behavior. It is difficult to find manuals that provide guidance on which of the most common topologies is the right one for the project, let alone in wood construction. In response to this shortcoming, the use of parametric software is proposed (Grasshopper build1.0.0007 and Karamba 3D 2.2.0.16-220828). The aim is to create a dynamic catalog that responds instantaneously to changes in the parameters to provide information on structural behavior, pre-dimensioning and metrics. With the display of all this information, the architect will have enough technical argumentation to choose or reject options. The proposal is developed through a case study: the early design and analysis stages of flat double-layer timber spatial frames as for rectangular medium-span roofs.
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Research context

OpenAlex topics: Architecture and Computational Design · Innovations in Concrete and Construction Materials · BIM and Construction Integration

SciVX discovery tags are terminology-based. OpenAlex topics are source-provided classifications.

Affiliations

Independent Researcher, 20018 Donostia-San Sebastián, Spain

Architecture Department, School of Architecture, University of the Basque Country (UPV/EHU), Oñati Plaza 2, 20018 Donostia-San Sebastián, Spain

TECNALIA, Basque Research and Technology Alliance (BRTA), Construction Materials—Lab Services, Polígono Lasao—Área Anardi, 5, 20730 Azpeitia, Spain

Funding

HAZI and the Basque Country Government, Vice-Ministry of Agriculture, Fisheries and Food Policy in the frame of the Timber Structures, Construction and Design Master

References (44)

Show source-provided references
1. Margarit, J., Buxadé, C., Buxadé i Ribot, C., and Margarit, J. (1972). Las Mallas Espaciales en Arquitectura, Gustavo Gili.
2. Analysis and assessment of life-cycle carbon emissions of space frame structures10.1016/j.jclepro.2022.135521 ↗
3. (2023, March 12). Robotic Manufacturing of Timber Space-Frames—DigitalFUTURES. Available online: https://digitalfutures.international/workshop/robotic-manufacturing-of-timber-space-frames/.
4. Robotic additive construction of bar structures: Unified sequence and motion planning10.1007/s41693-021-00062-z ↗
5. Finch, G., and Marriage, G. (2018, January 10–12). Reducing Building Waste through Light Timber Frame Design. Proceedings of the PLEA 2018 HONG KONG, Hong Kong, China.
6. Rationalization of freeform space-frame structures: Reducing variability in the joints
7. Finch, G., Marriage, G., Pelosi, A., and Gjerde, M. (2019, January 17–21). Applications and Opportunities for Timber Space Frames in the Circular Economy. Proceedings of the CIB World Building Congress, Hong Kong, China.
8. Structural rigidity theory applied to the scaffold-free (dis)assembly of space frames using cooperative robotics10.1016/j.autcon.2022.104405 ↗
9. Baverel, O. (2000). Nexorade: A Family of Interwoven Structures, University of Surrey (United Kingdom).
10. Gutiérrez-Astudillo, N.C., Flores, A., and Preciado, A. (2016, January 26–30). Reciprocal frame structures, a first academic approach to sustainable structures. Proceedings of the IASS Annual Symposia, Tokyo, Japan. Available online: https://www.semanticscholar.org/paper/Reciprocal-frame-structures%2C-a-first-academic-to-Guti%C3%A9rrez-Astudillo-Flores/bad4f5510e8ebd89e009c3bd8d9762e3132616e5.
11. Adriaenssens, S., Block, P., Veenendaal, D., and Williams, C. (2014). Shell Structures for Architecture: Form Finding and Optimization, Routledge.10.4324/9781315849270 ↗
12. Vázquez, J.A. (2001). Las Barras Huecas de Madera en la Construcción de Estructuras Espaciales, Universidade da Coruña.
13. Ghavami, K., and Moreira, L.E. (1993). 61. Double-layer bamboo space structures. Space Structures 4, Thomas Telford Publishing.10.1680/ss4v1.19683.0061 ↗
14. Palos de madera como elementos de estructuras espaciales
15. Finch, G., Marriage, G., Gjerde, M., and Pelosi, A. (2019, January 15–18). Experiments in Timber Space Frame Design: Fabrication, Construction and Structural Performance. Proceedings of the 24th International Conference of the Association for Computer-Aided Architectural Design Research in Asia (CAADRIA), Hong Kong, China.10.52842/conf.caadria.2019.1.153 ↗
16. Lan, T.T. (1999). Space Frame Structures, CRC Press.
17. Mupona, G.T. (2004). Development of Space Truss Systems in Timber. [Master’s Thesis, Faculty of Engineering and the Built Environment, University of Cape Town]. Available online: https://www.semanticscholar.org/paper/Development-of-space-truss-systems-in-timber-Mupona/211102da0a241e41447b23fcb658ca3a7b9fd99b.
18. Moggio, N. (2012). Glued Laminated Timber Space Truss Systems. [Master’s Thesis, Università di Trento]. Available online: http://lup.lub.lu.se/student-papers/record/3131142.
19. Álvarez Pablos, J. (1998). Mallas Planas y Cilíndricas de Módulos Apilables de Madera Laminada, Universidade da Coruña. Escola Técnica Superior de Arquitectura. Available online: https://ruc.udc.es/dspace/handle/2183/5561.
20. Chilton, J. (2000). Space Grid Structures, Architectural Press.
21. Eekhout, M. (1989). Architecture in Space Structures, Uitgeverij 010 Publishers.
22. Gengnagel, C., Baverel, O., Burry, J., Ramsgaard Thomsen, M., and Weinzierl, S. (2020). An Interactive Structural Optimization of Space Frame Structures Using Machine Learning. Impact: Design with All Senses, Springer International Publishing.10.1007/978-3-030-29829-6 ↗
23. Jormakka, K. (2017). Basics Design Methods, Birkhäuser.10.1515/9783035612387 ↗
24. Koronaki, A., Shepherd, P., and Evernden, M. (2017, January 25–28). Layout Optimization of Space Frame Structures. Proceedings of the IASS Annual Symposium 2017, Hamburg, Germany.
25. Gordon, J.E. (2004). Estructuras o Por qué las Cosas no se Caen, Calamar. [2nd ed.].
26. Comparative analysis of the mechanical performance of timber trusses structural typologies applying computational intelligence10.1590/1806-908820220000004 ↗
27. Apolinarska, A.A. (2018). Complex Timber Structures from Simple Elements: Computational Design of Novel Bar Structures for Robotic Fabrication and Assembly. [Ph.D. Thesis, ETH Zurich].
28. Andrén Jakobsson, N., and Bohman, S. (2019). A Generative Design of Timber Structures according to Eurocode. Development of a Parametric Model in Grasshopper, KTH Royal Institute of Technology. Available online: http://urn.kb.se/resolve?urn=urn:nbn:se:kth:diva-255661.
29. Almaraz, A. (2015). Evolutionary Optimization of Parametric Structures: Understanding Structure and Architecture as a Whole from Early Design Stages. [Master’s Thesis, University of A Coruña]. Available online: https://ruc.udc.es/dspace/handle/2183/15965.
30. Martínez Villarroya, D. (2023, March 12). Arquitectura Fractal: Optimización Topológica. Available online: https://oa.upm.es/55874/.
31. Muñoz Ávila, D.A. (2023, March 12). Implementación de un Algoritmo de Optimización Multi—Objeto de una red de Barras Utilizando un Lenguaje de Programa-ción Visual en “Rhinoceros’ y sus Extensiones. Available online: https://repositorio.uisek.edu.ec/handle/123456789/4519.
32. Navarro Mateu, D. (2017). Procesos Naturales Aplicados a la Arquitectura Mediante Computación: Ciencia Evo-Devo y Modelado Algorítmico a Través de Grasshopper. [Ph.D. Thesis, Universitat Internacional de Catalunya]. Available online: https://www.tdx.cat/handle/10803/552427.
33. Villar Monteagudo, I. (2023, March 12). Estudio Paramétrico Sobre Mallas de Doble Capa. Available online: https://ruc.udc.es/dspace/handle/2183/16171.
34. Weldegiorgis, F., and Dhungana, A.R. (2023, March 12). Parametric Design and Optimization of Steel and Timber Truss Structures: Development of a Workflow for Design and Optimization Processes in Grasshopper 3D Environment. Available online: http://urn.kb.se/resolve?urn=urn:nbn:se:kth:diva-277901.
35. Detail control strategies for topology optimization in architectural design and development10.1016/j.foar.2021.11.001 ↗
36. Linking Structure and Parametric Geometry
37. (2023, April 29). Network, Scott Davidson Created This Ning Network. Grasshopper. Available online: https://www.grasshopper3d.com/.
38. (2023, April 29). Associates, Robert McNeel & Associates. Rhinoceros 3D. Available online: https://www.rhino3d.com/es/.
39. (2023, April 29). Karamba3D. Available online: https://karamba3d.com/.
40. (2023, April 29). Software Para Análisis Estructural y Dimensionado|Dlubal Software. Available online: https://www.dlubal.com/es.
41. (2023, May 01). UNE-EN 1995-1-1:2016 Eurocódigo 5. Proyecto de Estructuras de Madera. Parte 1-1: Reglas Generales y Reglas para Edificación. Available online: https://www.une.org/encuentra-tu-norma/busca-tu-norma/norma?c=N0056510.
42. Muñoz-Vidal, M. (1993). Generación y Cálculo de Mallas Espaciales, Universidad, Departamento de Tecnolog’ia de la Construcción.
43. Navarro Carrasco, S. (2023, March 12). Cálculo Estructural de Una Gran Marquesina Espacial Ejecutada Íntegramente Mediante una Malla Espacial de Doble Capa de Acuerdo con los Eurocódigos que Disponen de Anejo Nacional; Cartagena, Spain. Available online: https://repositorio.upct.es/handle/10317/4912.
44. Las mallas espaciales y su aplicación en cubiertas de grandes luces