Imagine a wall made of mud and natural fibers, but designed by a computer to be as strong as industrial materials. It's like a 3D-printed skeleton made of plants that holds the clay together, making it lightweight and sturdy. When the building is no longer needed, the whole wall can simply decompose back into the earth.
Modern construction relies on high-carbon industrial materials that contribute significantly to greenhouse gas emissions and create waste at the end of a building's life.
A self-supporting, biodegradable loam wall system featuring algorithmically generated 3D natural fiber reinforcements and accompanying digital twin models.
If you are a design firm dealing with high carbon footprints in new builds — this project developed a self-supporting loam wall system that reduces greenhouse gas emissions. It uses digital twins to optimize material use from sourcing to end-of-life.
If you are a manufacturer dealing with the heavy weight and high cost of traditional panels — this project developed prefabricated light loam modules. These elements are designed for easier transport and installation while remaining fully biodegradable.
If you are a contractor dealing with toxic industrial materials in indoor spaces — this project developed a natural composite wall solution. It uses biomimetic 3D reinforcements to create structurally efficient and healthy indoor environments.
Based on available project data, specific pricing is not provided, but the system aims to reduce costs associated with greenhouse gas emissions and uses locally sourced, renewable resources.
The project focuses on prefabricated modules and digital fabrication to ensure the model is scalable for the construction industry.
Based on available project data, there is no specific mention of licensing terms, though it is developed by a consortium of 10 partners including 5 industry members.
It uses digital twins and computational models to integrate into the design, construction, and decommissioning phases of a building's life cycle.
The project period runs from 2024-10-01 to 2028-09-30, suggesting the technology will be refined through 2028.
The project is well-balanced for commercialization, featuring a 50% industry ratio with 5 industrial partners and 5 universities. With 3 SMEs involved and a spread across 5 countries (AT, DE, NL, RS, SE), the consortium combines academic research in biomimetics and programming with practical industrial expertise in textiles and clay products.
Contact the Technische Universität Wien
Contact us to connect with the AlgoLoam consortium for early adoption pilots.
