Sustainability Report
Embodied carbon
The project incorporates several design measures that reduce embodied carbon impacts:
Material Efficiency and Structural Planning
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Shading devices designed to achieve solar protection using reduced material quantities compared to conventional shading systems.
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Structural planning concentrates columns within the building core, allowing open floorplates and reducing future structural alterations.
Durable and Long-Life Materials
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Mineral silicate coatings increase façade durability and reduce repainting cycles.
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Powder-coated finishes provide corrosion resistance, lowering replacement frequency.
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Natural granite stone selected for long service life.
Locally Sourced Materials
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Use of locally sourced Tallowwood reduces transportation emissions.
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Regional procurement supports lower embodied transport carbon.
High-Performance Envelope
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Triple low-E glazing improves thermal performance, reducing lifecycle operational demand and associated embodied replacement impacts
Operational Emissions / Energy
Passive Environmental Design
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North-oriented core provides solar buffering.
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Elliptical façade shading reduces solar heat gain.
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High-performance glazing limits glare and thermal transmission.
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Outdoor terraces improve natural ventilation opportunities.
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Subtropical “Shade House” design integrates layered environmental transitions.
Energy-Efficient Building Systems
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Advanced mechanical systems integrated with façade performance.
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Internal stair-linked workplace communities reduce lift reliance.
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Daylight optimisation reduces artificial lighting demand.
Water Efficiency
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Systems designed to reduce potable water consumption.
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NABERS 4-Star water performance target.
Service and maintenance emissions
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Mineral silicate coatings extend maintenance cycles.
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Powder-coated metals reduce corrosion and repainting frequency.
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Natural stone surfaces reduce replacement needs.
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Durable glazing and shading systems designed for extended service life.
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Adaptable floorplates reduce refurbishment frequency.
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Vertical campus organisation allows internal reconfiguration without major structural changes.
Afterlife
The project incorporates adaptability strategies such as:
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Open floorplates allow conversion to alternative workplace layouts.
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Structural columns concentrated in the core maximise future planning flexibility.
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Floors allow future vertical interconnections.