Timber robotic fabrication: testing for an integral manufacturing

Authors

  • Chadi El Khoury
  • Marwan Halabi

DOI:

https://doi.org/10.14419/ijet.v7i1.4.9028

Published:

2018-01-04

Keywords:

Integral Manufacturing, Parametric Architecture, Robotic fabrication, Timber,

Abstract

Going beyond sustainability and with the great development of technology, timber has a great potential to be explored as a building material. Its physical-mechanical properties such as lightness and elasticity allow the designing of complex structures and the growing trend in research in robotic fabrication has accelerated the development of dimensional design concepts that demonstrate that wood is absolutely contemporary and at the height of other innovative materials. This paper investigates on computer aided integrated architectural design and production of timber using advanced automated tools, aiming to provide integral solutions for the design and production of geometrically complex free-form architecture. Investigations on computer aided geometric design and integrated manufacturing are carried out with equal importance. This research is considering an integral and interdisciplinary approach, including computer science, robotics and architecture. The studies for translation of the geometrical into constructional elements consider integrated manufacturing. Addressing and numbering of the elements by iterative geometric design are investigated and compared to lexicographically ordered addressing systems, in order to provide an adequate data structure for the design, production and assembly of the constructional elements. The integrated digital design methods studied are tested and verified by the realization of one to one scale prototypes. The main aim of the research is to find ways of shifting the perspective of adventurous high quality architecture robotically produced with correspondingly reduced costs and minimized environmental impact.

References

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[3] I. Stotz, Iterative geometric design for architecture. PhD Thesis N. 4572 École Polytechnique Fédérale De Lausanne, 2009.

[4] H.U. Buri, Timberfabric - Applying Textile Assembly Principles for Wood Construction in Architecture. PhD Thesis N. 5553 École Polytechnique Fédérale De Lausanne, 2013.

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