3D Printing and Topology Optimization of Building Envelope
3D Printing and Topology Optimization of Building Envelope
PRINCIPAL INVESTIGATORS:Assistant Professor Dr. Mania Aghaei Meibodi, Associate Professor Wes McGee
This research examined how 3D printing with thermoplastics can revolutionize building envelopes by incorporating topology optimization for wind loads into the design process. The project, part of the Plastic Architecture exhibition at Copper Union in New York, explores the potential for large-scale additive manufacturing technologies to transform the high-performance building facade industry. The study presents topology optimization as a design method that, when combined with 3D printing, enables the creation of material-efficient, geometrically complex building envelopes. The focus was on producing a lightweight yet strong building envelope that could withstand wind and gravity loads. Through functional integration and optimization, future facade systems are expected to have improved thermal and structural performance while being faster and easier to produce and install.
Principal Investigators
Assistant professor Dr. Mania Aghaei Meibodi (DART laboratory)
Associate Professor Wes McGee (Matter Design)
Contributing Students
Mackenzie Bruce, Gabby Clune, Chris Humphrey, Ben Lawson, Colleen Ludwig, Sarah Nail, Mehdi Shirvani, Ruxin Xie
Funding Suppot
Master of Science Digital and Material Technologies Program and PI’s start-up budget