Sustainability Report
Embodied carbon
The project incorporates several strategies aimed at reducing embodied carbon:
1. Engineered Timber Structural Systems
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Use of Nailed Laminated Timber (NLT) slabs and glued laminated timber beams significantly reduces embodied carbon compared to reinforced concrete or steel structural alternatives.
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Timber acts as a carbon storage medium during its service life.
2. Prefabrication and Industrialized Construction
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Off-site production of structural timber components improves material optimization and reduces construction waste.
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Prefabrication minimizes on-site energy consumption and reduces transportation inefficiencies.
3. Lightweight Structural Enclosure
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Light Steel Framing (LSF) walls reduce overall structural mass and material consumption while maintaining recyclability.
4. Reclaimed and Durable Materials
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Use of reclaimed peroba rosa wood reduces demand for newly harvested hardwood.
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Shou Sugi Ban charred wood cladding extends façade lifespan without chemical preservatives, lowering replacement frequency.
5. Site Preservation as Carbon Strategy
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Retention of over 70% native forest preserves existing carbon sequestration capacity and avoids emissions associated with land clearing.
Operational Emissions / Energy
1. Forest-Based Microclimate Control
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Preservation of dense native vegetation provides shading, evapotranspiration cooling, and wind filtration.
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This significantly stabilizes indoor temperatures and reduces mechanical cooling demand.
2. Elevated Pavilion Design
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The raised structure enhances airflow beneath the building and supports passive cooling.
3. Cross Ventilation and Open Spatial Planning
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Open veranda-style living areas allow continuous air movement and daylight penetration.
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Bedrooms directly connected to shared spaces increase natural ventilation efficiency.
4. Reduced Mechanical Cooling Demand
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The building achieves thermal comfort conditions throughout most of the year without reliance on air conditioning.
Service and maintenance emissions
The project reduces maintenance-related emissions through:
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Carbonized Pine Cladding (shou sugi ban)
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Increased resistance to weathering, insects, and fire
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Eliminates need for chemical sealants or frequent replacement
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Polished Concrete Flooring
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High durability and minimal finishing replacement cycles
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Natural Stone Pool Cladding (Brazilian Limestone)
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Long lifecycle exterior material with low maintenance demand
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Exposed Structural Materials
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Reduces additional finishing layers and associated maintenance emissions
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Afterlife
The building incorporates flexibility through:
Light steel frame partition walls
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Drywall interior systems
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Prefabricated timber structural elements can be dismantled or reused.
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Light steel framing components are recyclable.
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Industrialized construction allows improved material recovery potential compared to conventional monolithic systems.