Exploring Possible Applications of Robotic Fabrication for Architecture
Introduction to Robotic Fabrication introduces students to robotic fabrication as a design-driven approach that integrates making, assembly, and architectural production within the digital manufacturing paradigm. The seminar, conducted in a workshop format, situates robotics within the broader transformation of the construction sector, highlighting how automation and computational fabrication can enhance productivity, sustainability, customization, and building performance. Through hands-on experimentation in an open fabrication environment, students develop robotic design protocols and produce a robotically fabricated prototype that translates manufacturing logic into architectural-scale applications.
Robotics has opened up new avenues of designing, making, assembling and indeed the whole spectrum of architectural production. Although robots, particularly industrial robots, have been around since the 1960s, have not yet been directly linked to the design process.
The construction sector has not yet taken full advantage of the digital revolution that is happening in other manufacturing sectors, such as in the automobile and aerospatial engineering industries. While studies predict that Automation, Robotics, and AI will possibly increase productivity by 60% in the construction sector, they also open new opportunities for design and increased building performance.
In this context, today we find ourselves looking at the midst of a significant transformation regarding the way we produce products thanks to the digitization of manufacturing. This brings us to the emergence of a community of research and education centres including IAAC exploring new fabrication methods that can be more efficient, sustainable, and customisable thanks to the use of robotic fabrication within its educational programs, consolidating an emerging paradigm within the current production system.
To quote Richard Sennett, “Making is thinking”, this seminar will focus on a manufacturing-driven design approach towards conceiving spaces. Students are offered the opportunity to learn and explore robotic fabrication within IAAC’s particularly open environment for direct manipulation and testing. In parallel, students are encouraged to develop a design protocol suitable for robotic fabrication that could serve to envision an application at an architectural scale.
In this connection, with Robotic fabrication, tackling architecture details becomes an exciting new field of exploration for designers. The seminar invites students to explore additive manufacturing through robotic systems in architectural elements. Therefore, the seminar will conclude with a robotically fabricated prototype, together with a video of the design process, the prototype fabrication and the envisioned architecture.
At course completion the student will:
B. The Waves explores robotic additive manufacturing using ceramic clay to create a ripple-driven parametric facade. Developed in the IAAC Master in Advanced Architecture, the project utilizes an ABB IRB 6700 robot and WASP extruder to 3D print wall cladding tiles. The computational logic employs Grasshopper and attractor points to simulate water droplets, generating continuous … Read more
ESTADO DEL ARTE Inspired by the movement of water and the ripples created by raindrops, our design replicates these natural patterns in its structure. The goal was to create a smooth, continuous surface where elements flow into each other without visible connections, reflecting the fluidity and harmony found in nature. DESIGN EXPLANATION FABRICATION METHODOLOGY ASSEMBLY … Read more
CONCEPT Double-Skin Façade STRATEGY TO CURVE CURVE ITERATIONS FINAL DESIGN THERMAL SIMULATIONS LOAD APPLICATIONS ROBOTIC FABRICATION Layer Height – 2.0 Clay thickness – 10mm Pressure – 3.95 Nozzle Diameter – 6mm FINAL BLOCK FABRICATION FRAME ASSEMBLY Final Assembly
Fa(ça)de explores robotic clay fabrication as a method for producing expressive, materially efficient façade modules. Starting from a 2D patterned surface, the project develops a parametric workflow that transforms mesh-based geometries into 3D printed clay elements with controlled relief, wave amplitude, and module rotation. Through iterative prototyping, the design responds to fabrication limits such as … Read more
