← Projects/Timber Building Block Modular Assembly
Bridge Concept as an application of the TBBMA
Bridge Concept as an application of the TBBMA
Multi-story building application
Multi-story building application
Assembly Growth Sequences
Assembly Growth Sequences
Biomimetic Bridge Aerial View
Biomimetic Bridge Aerial View
Biomimetic Bridge Plan
Biomimetic Bridge Plan
Individual Module Assembly (b, c), Assembly Between Modules (d, e)
Individual Module Assembly (b, c), Assembly Between Modules (d, e)
a) Microscopic images of Scleractinia's structure, b) Polyp cavities on skeleton surfaces, c) & d) Skeleton morphology at micro level
a) Microscopic images of Scleractinia's structure, b) Polyp cavities on skeleton surfaces, c) & d) Skeleton morphology at micro level
a) Corallite's skeleton's section geometric adaptation into the section of the TBBMA, b) & c) Morphologic transfer of branching structures at mezzo level
a) Corallite's skeleton's section geometric adaptation into the section of the TBBMA, b) & c) Morphologic transfer of branching structures at mezzo level
Simplified growth rules that were investigated and transferred to the technological system (a), Potential growth mapping on a surface based on transferred rules (b)
Simplified growth rules that were investigated and transferred to the technological system (a), Potential growth mapping on a surface based on transferred rules (b)
1 / 9

Timber Building Block Modular Assembly

A Biomimetic Development for Construction

Research Scope

A biological role model was studied to develop a biomimetic application.

The chosen organism was the Scleractinia (corallite), whose polyps growth results in skeleton structures with captivating morphological conditions at the macro, mezzo, and micro levels. The branch derivation of skeletal cavities was of special interest, as these keep track of the polyp growth behavior in response to their environment. Images of skeletons at different amplitudes and biological mechanisms were studied among biologists from the University of Tübingen, providing insights into polyps’ morphological responses to available light, nutrients, wave stresses, and competition.

Biomimetic Abstraction

The structural principles of the polyp cavities are transferred as self-shaping timber panels assembled into a reinforced hexagonal hollow section. The stacking principle of walls and the connection principle of transversal mural pores shared between cavities are transferred into the lateral connections between modules, resulting in parallel panels being connected via transversely placed carbon fibers. The branching growth principle is transferred into the subdivision and direction of modules at the global scale, where the branching of modules allows for reducing stress and reducing variation between components. Two uses for the system are proposed: the construction of multilevel structures and spanning structures.

Materials
Timber, Fiber
Team
Alan Eskildsen Michel, Carolina Leite Vieira, Gianmarco Rossi, Yuxi Liu, Lina Ried, Paula Eisnecker, Xenia Steinmann
Year
2020-2021
Course
Architectural Biomimetics, WS 2020 /2021
Professors
Prof. Dr.-Ing. Jan Knippers, Prof. Dr. Oliver Betz, Dr. Manfred Drack
Tutor
Dr.-Ing. Axel Köerner
Institutes
ITKE (Institute of Building Structures and Structural Design), ICD (Institute for Computational Design and Construction)
University
Universität Stuttgart, Universität Tübingen
Project Gallery