ADAPTABLE WOOD STRUCTURE

This design project was initiated and conceptually developed at BioMat Studio, University of Stuttgart, exploring adaptive load-bearing structures made from renewable materials. The work was carried out by student Kristína Balušíková during the Material Matter Lab seminar (WS 2017/18) as part of a design investigation into integrating live actuation into structural systems to enable adaptability, reduce material use, and expand functional capabilities.

The concept leveraged the principle of kerf-cut wood to create long lever arms and strategically placed gaps, granting the demonstrator a controlled degree of flexibility. This flexibility was harnessed through the use of electromagnets to steer movement. While in its current prototype stage the actuation was manually controlled, future iterations envisioned automated responsiveness through structure-integrated sensors.

The research demonstrated how adaptable structural capacity could be applied to architectural and product design, with potential examples including a form-adaptive chair and a bridge capable of altering its load-bearing behaviour on demand. By combining renewable materials with smart actuation systems, the project highlighted new pathways for resource-efficient, responsive structural design.