Sustainability Report
Embodied carbon
The design reduces embodied carbon through:
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Locally sourced masonry (white volumetric brick modules), limiting transport emissions.
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Long-life envelope materials—AAC block, fired brick, and stone—chosen for thermal mass, durability, and low maintenance.
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Reduced glazing ratio, lowering the amount of high-carbon aluminum and glass typically used in urban infill buildings.
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Passive shading integrated into the structure (angled brick louvers), eliminating the need for secondary aluminum shading systems.
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Reusing the existing mature tree as a functional environmental asset rather than replacing it with new built components.
Operational Emissions / Energy
Operational emissions are minimized through a network of passive systems:
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Cross-ventilation enabled by the central void, angled windows, and terraced air-channels.
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Micro-shading from the brick lattice, lowering indoor solar gain.
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Vegetation-driven cooling through the preserved plane trees and planted terraces.
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Reduced need for artificial lighting due to controlled daylight penetration.
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Thermal buffering from AAC block and brick mass, moderating interior temperatures across daily cycles.
As a result, the building’s cooling energy demand is significantly reduced compared to conventional infill construction.
Service and maintenance emissions
The project limits long-term material replacement and maintenance emissions by using:
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Low-maintenance natural materials (brick, stone, thermowood).
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Replaceable façade elements—brick modules and movable leaf-shell elements can be repaired individually without dismantling the entire elevation.
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Accessible terraces and louvers for straightforward cleaning and upkeep.
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Minimal mechanical systems, reducing long-term service interventions and reliance on high-carbon equipment.
Afterlife
The plan incorporates functional adaptability across all floors:
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Typical floors feature a central convertible bay that can alternate between workspace, dining, prep area, or additional living functions without architectural changes.
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Duplex unit uses platforms and intermediate landings that can shift over time—a strategy that reduces renovation cycles and material waste.
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Terrace-to-room sequencing mirrors traditional courtyard typologies, offering long-term reprogrammable thresholds.
Several building elements support circular material flows:
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Volumetric brick modules are dry-set where possible and can be removed or reused during future alterations.
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Thermowood cladding is fully recyclable and repairable.
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Leaf-shell louvers operate as modular units with reversible fixings.
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AAC blocks can be reused as aggregate with minimal downcycling.
The building’s structural clarity—frame + infill—allows for selective disassembly without damaging adjacent systems.