On the roof of the O2 Arena, one of London’s largest indoor venues, there’s a small cluster of very peculiar wind turbines.
They look nothing like the tall, imposing ones that are increasingly deployed both inland and offshore around the world — at less than six feet in height, they’re a fraction of their size and produce much less energy.
But being small gives them a strategic advantage: they can be deployed almost anywhere and were designed to be retrofitted onto existing streetlights, where they can be powered not just by the wind, but also by the artificial breeze created by passing vehicles.
After the successful trial at the O2, Alpha 331, the company that designed the turbines, is preparing to launch a refined version of the turbine that will be suitable for commercial installations.
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📸: Alpha 311
Progress towards sustainable construction is uneven yet gathering momentum. The UK government has launched Great British Energy, aimed at publicly owned clean energy generation. While not construction-specific, its success by 2030 could transform the carbon footprint of construction by providing a cleaner grid. A stable low-carbon energy supply underpins sustainable building design and supports net zero whole life carbon ambitions across the built environment.
In the United States, financial close on Massachusetts’ largest battery energy storage project promises better grid stability for low carbon design. Enhanced storage capacity creates more reliable access to renewable electricity, improving whole life carbon assessment outcomes for housing and commercial development. This shift towards energy-efficient buildings demonstrates how infrastructure investment feeds directly into sustainable architecture and sustainable building practices worldwide.
Macquarie’s US$350 million investment in solar and storage via Nexamp reinforces the integration of renewable building materials and decentralised clean energy into urban development. Sourcing electricity from localised systems allows eco-design for buildings to achieve measurable carbon footprint reduction. For large-scale projects, life cycle cost thinking in construction is increasingly impossible without accounting for such infrastructure, linked directly to lifecycle assessment and future BREEAM v7 updates.
Hydrostor has attracted major funding for compressed air energy storage, providing long-duration capacity essential for decarbonising the built environment. This kind of resilience directly supports sustainable construction by ensuring clean energy availability through both build and operational phases. It also complements whole life carbon strategies, reducing reliance on fossil fuels while supporting environmental sustainability in construction and measurable building lifecycle performance.
On resilience, Flood Risk America has developed an automatic flood gate that eliminates the need for manual intervention. This technology represents circular construction strategies in disaster adaptation, ensuring eco-friendly construction can withstand climate extremes. As urban areas pursue sustainable urban development, such measures demonstrate how resource efficiency in construction can align with climate resilience.
Warnings from the Environmental Services Association highlight the hidden risks in electrification. Battery disposal fires, costing billions annually, underline the environmental impact of construction supply chains beyond embodied carbon in materials and end-of-life reuse in construction. Safe disposal and sustainable material specification are critical to maintaining environmental product declarations (EPDs) credibility, reinforcing the broader shift toward circular economy in construction.
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