Sustainability Report
Operational Emissions / Energy
The operational emissions of the pavilion are drastically minimized through bio-integrated passive design strategies, effectively eliminating the need for conventional HVAC systems. The project's operational efficiency is driven by the Dynamic Algae Photobioreactor Cladding, which functions as a 'fluidic optical filter.' By automatically regulating light transmittance from 80% down to 5% in response to real-time UV radiation sensors, it passively manages thermal gain and cooling loads. Consequently, operational energy consumption is strictly limited to the low-voltage microfluidic pumps and sensors required to circulate the algae and actuate the pneumatic membrane. The minimal carbon footprint generated by this equipment is continuously offset by the active carbon sequestration inherent in the microalgae's biological processes.
Service and maintenance emissions
The service and maintenance emissions are radically minimized through the pavilion's self-sustaining biological systems. By employing a robust hybrid structure of wood frames and mycelium, the design ensures structural integrity while eliminating the need for energy-intensive chemical treatments or regular mechanical maintenance. Instead of traditional HVAC systems, the pavilion relies on a passive Dynamic Algae Photobioreactor Cladding and bio-receptive substrates. These substrates passively circulate atmospheric condensate and algal effluent via capillary action, fostering the natural rooting of moss and native flora without any manual watering or maintenance. The minimal emissions generated stem solely from the low-voltage microfluidic pumps and real-time environmental sensors.
Afterlife
Yes, the very essence of "Let the Space Breathe" is rooted in universal adaptability and temporary deployment. Conceived as a grand-scale nomadic structure, it entirely bypasses the need for permanent site anchoring or rigid floorplans. The primary structural framework—a massive 50-meter Timber Glulam spine—functions as a modular, open logistical grid rather than a traditional fixed enclosure. Because the system is pre-engineered and CNC-milled for rapid assembly and disassembly without heavy foundation work, the entire pavilion can be relocated and reconfigured. Its open-plan nature allows it to seamlessly adapt to diverse future programs, easily transforming from a dense urban cultural pavilion in a city plaza to an ecological observatory at the edge of a forest, continuously adapting its scale to the new context.
Every component of the pavilion is strictly designed for zero-waste reintegration into the circular economy. The architecture utilizes a meticulously engineered disassembly process driven by its tripartite material system. First, the primary Timber Glulam spine is constructed using dry, mechanical joints, ensuring that all timber elements can be fully salvaged, taken apart, and directly reused for local community construction or subsequent pavilion iterations. Second, the responsive envelope—cultivated from agricultural byproducts and fungal mycelium—is fully biodegradable. Upon disassembly, rather than generating landfill waste, these bio-composite membranes are returned directly to the local earth. They decompose into nutrient-rich organic compost, enriching the site's soil and ensuring the architecture's afterlife positively contributes to the natural ecological cycle.
Key products in low carbon design
