Deep in the Canadian Arctic, scientists and entrepreneurs brave sub-zero temperatures, whipping winds and snowstorms to drill holes through the sea ice to pump out the seawater below and freeze it on the surface.
The group from the UK start-up Real Ice is in Cambridge Bay, a tiny coastal village in Nunavut, to try to prove they can grow and restore Arctic sea ice.
Their ultimate plan is to thicken ice over more than 386,000 square miles of the Arctic — an area more than twice the size of California — with the aim of slowing down or even reversing summer ice loss and, in doing so, help to tackle the human-caused climate crisis.
But some Arctic scientists and experts have criticized Real Ice’s methods as unproven at scale, ecologically risky and a distraction from tackling the root cause of climate change: fossil fuels.
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📸 : Real Ice
The global shift towards sustainable construction is advancing from research to measurable implementation through innovations that reshape the built environment. Johnson Matthey’s collaboration in China on biomethanol technology represents a breakthrough for the circular economy in construction, aligning industrial chemistry with the drive to decarbonise the sector and reduce the carbon footprint of construction.
Projects such as the refurbishment of Bell’s Yard in London demonstrate how sustainable building design merges adaptive reuse and low embodied carbon materials to extend building lifecycle performance. The project exemplifies whole life carbon assessment and lifecycle assessment principles, showing that environmental sustainability in construction now informs both design and policy.
Compact housing developments like Ash Mews in Stratford reveal how low carbon design and sustainable building practices can turn limited space into energy-efficient buildings shaped by principles of net zero carbon buildings and circular construction strategies. Each project tests life cycle thinking in construction, highlighting how a detailed understanding of embodied carbon in materials and resource efficiency in construction directly reduces life cycle cost.
Artificial intelligence is increasingly integrated into sustainable design workflows, streamlining lifecycle modelling and improving the accuracy of whole life carbon calculations. Combined with new transparency requirements and environmental product declarations (EPDs), these digital tools promote accountability in sustainable material specification and environmental impact of construction.
The sector’s evolution embodies a commitment to net zero whole life carbon performance. As BREEAM and the forthcoming BREEAM v7 framework drive measurable benchmarks for eco-design for buildings, sustainable architecture is moving toward low carbon building certification rooted in verifiable environmental metrics. The integration of green building products, renewable building materials and end-of-life reuse in construction strengthens circular economy principles, turning sustainable construction into a credible engine of sustainable urban development.
Green construction has progressed from aspirational rhetoric to evidence-based transformation. Through carbon neutral construction strategies focused on low-impact construction, decarbonising the built environment is no longer theoretical; it defines the new baseline for a resilient, responsible and regenerative construction industry.
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