Reclaiming timber waste poses a significant challenge for wood-intensive industries such as construction and design, where it is rarely reused and of-ten downcycled or landfilled. Biofabrication with natural fibers has emerged as a promising method to transform wood debris into high-value products, extending its lifecycle. It is already demonstrated how biopoly-mer composites – blends of water, glycerol, organic binders, and fillers – can be 3D-printed to create full-scale architectural and design components. Despite this potential, however, further research is needed to address mate-rial limitations, assess environmental impacts, and explore design applica-tions. In this sense, a deeper understanding of biopolymers’ material prop-erties and performance is critical for realizing their full potential. This interdisciplinary study bridges Architectural Technology and Engi-neering, and Material Science to investigate biofabrication with wood waste at material, environmental, and design scales. It proposes and tests a methodology for evaluating the performance of 3D-printed biopolymers, employing a Life Cycle Assessment (LCA) framework to measure envi-ronmental impacts. Additionally, it identifies application scenarios for ar-chitecture and design, offering a foundation for scaling this technology. Starting from previous studies on “Bone Glue”, a protein-based biopoly-mer, novel bioprinting was implemented incorporating wood waste deriv-ing from a local sawmill. Results demonstrate promising potential for ar-chitectural applications in dry and controlled environments, but also exhib-it significant limitations in water-rich or high-humid conditions. Design application can find places where its biodegradability, lightweight struc-ture, and renewable origin are prioritized, but improvements in water re-sistance and bio-deterioration prevention are necessary for broader adop-tion, while preserving its eco-friendly attributes.
Saeli, M., Galluccio, G., Leone, R., Nicholas, P., Tamke, M. (2025). Experimenting Bioprinting for Wood Waste Upcycling in Architecture and Design Preliminary Assessments and Application Scenarios. In R. Albatici, M. Dalprà, M.P. Gatti, G. Maracchini, S. Torresin (a cura di), Envisioning the Futures. Designing and Building for People and the Environment (pp. 766-789). Springer Nature [10.1007/978-3-032-06993-1_43].
Experimenting Bioprinting for Wood Waste Upcycling in Architecture and Design Preliminary Assessments and Application Scenarios
Saeli, Manfredi
;Leone, Rosanna;
2025-01-01
Abstract
Reclaiming timber waste poses a significant challenge for wood-intensive industries such as construction and design, where it is rarely reused and of-ten downcycled or landfilled. Biofabrication with natural fibers has emerged as a promising method to transform wood debris into high-value products, extending its lifecycle. It is already demonstrated how biopoly-mer composites – blends of water, glycerol, organic binders, and fillers – can be 3D-printed to create full-scale architectural and design components. Despite this potential, however, further research is needed to address mate-rial limitations, assess environmental impacts, and explore design applica-tions. In this sense, a deeper understanding of biopolymers’ material prop-erties and performance is critical for realizing their full potential. This interdisciplinary study bridges Architectural Technology and Engi-neering, and Material Science to investigate biofabrication with wood waste at material, environmental, and design scales. It proposes and tests a methodology for evaluating the performance of 3D-printed biopolymers, employing a Life Cycle Assessment (LCA) framework to measure envi-ronmental impacts. Additionally, it identifies application scenarios for ar-chitecture and design, offering a foundation for scaling this technology. Starting from previous studies on “Bone Glue”, a protein-based biopoly-mer, novel bioprinting was implemented incorporating wood waste deriv-ing from a local sawmill. Results demonstrate promising potential for ar-chitectural applications in dry and controlled environments, but also exhib-it significant limitations in water-rich or high-humid conditions. Design application can find places where its biodegradability, lightweight struc-ture, and renewable origin are prioritized, but improvements in water re-sistance and bio-deterioration prevention are necessary for broader adop-tion, while preserving its eco-friendly attributes.| File | Dimensione | Formato | |
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