From Coarse to Fine: Investigating root growth for architecture

Abstract This paper proposes plant root systems as biological role models and active biomaterials for innovative architectural design. Focusing on both coarse and fine root systems, the research combines biomimetic analysis, material-driven design, and experimental biodesign methods to explore how root growth principles can inform structural, anchoring, and connective systems. A temporary biolab enabled cultivation experiments, including root entanglement in granular media, hydroponic connectivity studies, embedded growth in 3D-printed soil structures, and the fabrication of patterned root mats. In parallel, digital modelling and analysis of scanned root systems supported the development of simulation workflows and speculative design applications. The project follows a radical exploration methodology integrating biological research, computational tools, and hands-on experimentation. Preliminary insights suggest roots’ capacity to stabilise substrates, connect inert components, and generate adaptive material systems. The findings establish a foundation for scalable, bio-integrated, and bio-inspired construction strategies and contribute to sustainable, resilient, and ecologically responsive practices.

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Publication Details

Journal
Research Directions Biotechnology Design
Published
2026-07-28
DOI
https://doi.org/10.1017/s2977905726100687
Primary Topic
Tree Root and Stability Studies
Type
article
Field-Weighted Citation Impact
0.00
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article

From Coarse to Fine: Investigating root growth for architecture

Camille Breuil, Clemens Preisinger, Thibaut Houette, Andreas Koerner et al.
Research Directions Biotechnology Design
Tree Root and Stability Studies
article

From Coarse to Fine: Investigating root growth for architecture

Camille Breuil, Clemens Preisinger, Thibaut Houette, Andreas Koerner, Petra Gruber, Damjan Minovski, Dominik Einfalt, Rebekka Waters
article en

Abstract

Abstract This paper proposes plant root systems as biological role models and active biomaterials for innovative architectural design. Focusing on both coarse and fine root systems, the research combines biomimetic analysis, material-driven design, and experimental biodesign methods to explore how root growth principles can inform structural, anchoring, and connective systems. A temporary biolab enabled cultivation experiments, including root entanglement in granular media, hydroponic connectivity studies, embedded growth in 3D-printed soil structures, and the fabrication of patterned root mats. In parallel, digital modelling and analysis of scanned root systems supported the development of simulation workflows and speculative design applications. The project follows a radical exploration methodology integrating biological research, computational tools, and hands-on experimentation. Preliminary insights suggest roots’ capacity to stabilise substrates, connect inert components, and generate adaptive material systems. The findings establish a foundation for scalable, bio-integrated, and bio-inspired construction strategies and contribute to sustainable, resilient, and ecologically responsive practices.

Research Directions Biotechnology Design
University of Akron (US), University of Applied Arts Vienna (AT), Universität Innsbruck (AT)
Openalex Percentile: Top 16%
Tree Root and Stability Studies
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