University at Buffalo/Alfred University

The prototype explores a ceramic application of a reconfigurable stack-Interlock system derived from traditional wood joinery. While we celebrate the permanence of the terra cotta, the study suggests exploring the impermanence of the built environment by a unique reconfigurable stacking method. Users can build and unbuild meaningful structural support using modularized terra cotta blocks.

The team aims to achieve geometric freedom based on limited block types. While we control the modularity of the block geometry, the 3d printed dowels allow continuously changing contact surfaces. In this prototype study, the top and bottom parts provide an identical surface to surface load transfer and the geometry of the side opening is free from the stacking mechanism. Therefore, we can allow customized porosity of the wall construction and minimize the waterjet cutting process for the precise interlocking mechanism. On top of the porosity control, this stacking behavior works with a wide range of thicknesses which can provide a more refined structural solution.