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B.L.U.R. envisions a future where we subvert the industrial cycle of overproduction and obsolescence through the use of abundant natural materials. This project proposes a system where materials are temporarily diverted from healthy ecosystems, integrated into human made designs, and eventually returned to the environment through natural decomposition, fuelling new cycles of growth. By leveraging digital design and fabrication tools, we aim to create systems that incentivise the protection and strengthening of ecosystems, embracing ageing and weathering as shaping forces of nature rather than resisting them. Offering a new frontier for design and production, this approach challenges traditional building practices that segregate the environment from built elements and prioritise newness and cleanliness over adaptation, integration, and ecological continuity.
Material research and fabrication tests inform a design framework that is reconfigurable, adaptable, and regenerative, placing the material lifecycle at the centre of the design process.
Designing with biomaterial subverts the linear lifecycles of obsolescence and demolition. This project extends design thinking across the building’s life cycle, from birth to decay, embedding sustainability at both the cellular and urban scales.
The amalgamation of different cross-section timber elements creates a corbelling effect in the prototype, accentuating the multi-scalar language of the project.
Bacterial Cellulose is synthesised as a by-product of the fermentation of a kombucha culture. The SCOBY grows through microorganisms’ metabolic processes at the liquid-air interface of the tea medium.
Dried SCOBYS possess a leather-like finish, which, depending on the drying method and age of the dried sample, varies in stickiness or moisture levels. The more hydrated the dried sample, the more flexible and strong it will be.
The project explores various BC pulp application methods, examining casting, robotic printing, and biomaterial spraying as methods for conversations of scale and resolution.
Additive manufacturing enables the hybrid assembly to adapt and bind seamlessly along geometric edges resulting in a complex layered structure.
Initial procedural models exploring multi-material assembly logic generated through iterative digital combinations that respond to environmental data such as wind or force vectors combining three functional material elements.
Hybrid fabrication processes require the establishment of strategies for assembly, both geometrically and biologically.
A digitally developed scalar fabrication framework produces interlocking timber assemblies, 3D-printed BC, and dried BC sheets simulating material performance over time.
The project advanced towards understanding how BC could be tended within an integrated design framework. This inquiry focused on developing protocols for care and adaptation.
A month-long study recorded material performance and environmental interaction, embracing the unruly tectonics of wear.
Environmental feedback, material behavior, and computational simulation are interwoven to sustain adaptability, allowing the built environment to emerge as a co-evolving system of biological and architectural interactions.
As the architecture engages with the environment , processes of community monitoring and care become integral to its evolution. Actively reshaping the ageing of materials and transforming decay into a site of renewal, redefining the material cycle.