Weave.X Was Built Through the Use of Computational Design
Joey Haar — October 24, 2016 — Art & Design
References: aaschool.ac.uk & archdaily
Weave.X is the final project for this year's Architectural Association Summer DLAB program, a student architectural program that encourages experimental design. The structure, which was made through the collaboration of 21 architecture students from 11 different countries, is a 3D interwoven pattern made entirely of concrete.
In terms of functionality, the structure has a vague purpose, enveloping a nebulous space beneath it. What's more impressive about Weave.X, though, is how the concrete is used. Typically, concrete is a valuable building material because of its inexpensiveness and strength. However, the material is not known for sculptural integrity unless strengthened further with steel rebar. Through computational design and robot fabrication, Weave.X is able to stand on its own just with the use of concrete.
In terms of functionality, the structure has a vague purpose, enveloping a nebulous space beneath it. What's more impressive about Weave.X, though, is how the concrete is used. Typically, concrete is a valuable building material because of its inexpensiveness and strength. However, the material is not known for sculptural integrity unless strengthened further with steel rebar. Through computational design and robot fabrication, Weave.X is able to stand on its own just with the use of concrete.
Trend Themes
1. Computational Design - Exploring the use of computational design in architecture presents disruptive innovation opportunities for creating unique structures without traditional building materials.
2. Robot Fabrication - The application of robot fabrication in construction opens up disruptive innovation opportunities by enabling the creation of complex and intricate designs using unconventional materials.
3. Interdisciplinary Collaboration - Promoting interdisciplinary collaboration in architectural design encourages disruptive innovation opportunities for combining diverse skills and perspectives in creating boundary-pushing structures.
Industry Implications
1. Architecture - The architecture industry can leverage the use of computational design and robot fabrication to disrupt traditional building methods and create innovative structures.
2. Construction - The construction industry can embrace robot fabrication and collaborative approaches to disrupt conventional construction techniques and unlock new possibilities for unique and sustainable structures.
3. Education - The education industry can foster interdisciplinary collaboration in architectural programs, providing aspiring architects with the skills and mindset required for disruptive innovation in the field.
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