Sandstone has been used in construction since ancient times. Until now, if you wanted an impressive structure created from sandstone you only had two approaches to choose between: (slow option) skilled craftsmen spending months painstakingly carving the necessary pieces or (the slower option) a wait of millennia while nature wears natural sandstone deposits into magical shapes like those found in Lower Antelope Canyon.
Masters of Architecture students at the University of Toronto enrolled in a thesis preparation studio under the supervision of Benjamin Dillenburger worked together on a new (much faster) option: 3D printed sandstone tiles. The project, entitled Future Bricks: Digital Stereotomy, was exhibited at the Eric Arthur Gallery in April and the rather dry name belies the beauty of the forms that were created.
The driving idea behind the coursework was to challenge existing notions of possibilities present in prefabrication. The structural capacity for 3D printed sandstone is very similar to that of natural sandstone, but the potential for the modification of the form is greatly expanded by 3D printing techniques. The two prohibitive factors present in the use of sandstone for formal experimentation have been time and cost, both of which are handily addressed through the process developed in this project.
The creation of these new forms required the development of new computational design methods; an updated version of traditional stereotomy. Stereotomy is the set of geometrical knowledge and techniques of drawing and cutting the blocks of stone and their assembly into complex structures. (Alternately, Stereotomy is also the ninth studio album released by the Alan Parsons Project, but that’s neither here nor there.)
The students described their project in an invitation to their thesis show:
“We investigated the potential and limitations of 3D san printing for architecture with a focus on structure, topology, resolution and ornamentation. We speculated about the impact of this fabrication method based on the reciprocal relationship between parts and whole and between surface and volume in architectural constructions.”
Written like true architects, if you can push your way past the language, you will find some truly beautiful 3D printed tiles. A combination of organic and geometric forms ranging from complex surface articulations to simple tracery-like tendrils, these tiles significantly increase the possibilities for the creation of awe inspiring spaces using a building material that humans have used since time immemorial. They are reminiscent of the forms created over millennia by natural forces and I can’t help but wonder what Gaudi’s work would have been like had he had access to this possibility.
I would very much like to see an exploration of the quality of the material be more highly developed. Currently, the form is well explored, but the color and materiality leaves something to be desired. One of the striking aspects of sandstone is the limpid colors that flow through it, creating dancing patterns on its surface. I would also very much like to see an assembly of these tiles as one in isolation is such a different experience than a multitude.
These are some bright students with an impressive eye and quick wit. I look forward to seeing how they bring these ideas forward into their architectural practices.
Let us know what you think of these tiles and this technique in the 3D Printed Sandstone Tiles forum thread at 3DPB.com.
You May Also Like
A Guide to Bioprinting: Understanding a Booming Industry
The success of bioprinting could become the key enabler that personalized medicine, tissue engineering, and regenerative medicine need to become a part of medical arsenals. Breakthroughs in bioprinting will enable...
Cell Culture Bioreactor for Tissue Engineering
Researchers from the US and Portugal are refining tissue engineering applications further, releasing the findings of their study in the recently published ‘A Multimodal Stimulation Cell Culture Bioreactor for Tissue...
3D Printing for Nerve Regeneration: Gelatin Methacrylate-Based Nerve Guidance Conduits
Chinese researchers delve deeply into tissue engineering, releasing the findings of their recent study in ‘3D printing of gelatin methacrylate-based nerve guidance conduits with multiple channels.’ While there have been...
3D Printing: Successful Scaffolds in Bone Regeneration
In ‘Comprehensive Review on Full Bone Regeneration through 3D Printing Approaches,’ the authors review new developments and solutions in tissue engineering for the formation of cells, as well as proposing...
View our broad assortment of in house and third party products.