This summer, @nasa scientists went to northern Greenland to study how clouds and atmospheric particles may be contributing to the ongoing loss of multiyear sea ice in the Arctic. 🌊🧊
For decades, scientists have tracked sea ice extent and thickness from spring to fall as the melt season unfolds. They’ve found that the minimum extent of Arctic sea ice has declined by about 12% per decade. In addition, much of that ice loss is thick, multiyear ice. Temperatures in the Arctic have risen at least twice as fast—and possibly nearly four times faster—compared to the average for the rest of the world, a phenomenon known as Arctic amplification.
But there are some questions still unanswered. For one, how certain clouds and atmospheric particles affect ice loss. The Arctic Radiation-Cloud-Aerosol-Surface Interaction Experiment (ARCSIX) team used three aircraft to measure cloud, atmosphere, ocean, and sea ice properties. Field measurements like these will help scientists understand how the Arctic is changing, and improve models to project what may happen in the future.
#Earth #Arctic #Greenland #SeaIce #Climate #ClimateChange #Science #NASA #EarthFromOrbit
Image descriptions:
1: Aerial photo. A glacier ends in a blue inlet of exposed ocean water. The water and glacier are surrounded by gray mountains covered in white snow and ice.
2: Satellite image of the Pituffik Space Base in Greenland. The base is on the right side of the image next to an expanse of white ice on the right and chunky broken sea ice below it. The dark blue ocean water is exposed in the center of the image. Opaque clouds obscure it partially.
3: Photo of four people in an airplane cockpit. Through the windows, blue ocean water is visible with white chunks of sea ice floating in it.
4: Video out an airplane window flying over white chunks of sea ice.
5: Photo of low, thin clouds in the Arctic. Most of the image is blue-gray ocean water with a large chunk of thick white sea ice in the lower right corner. There is a thin gap between the ocean water and the clouds on the horizon. The gray clouds cover the top of the image.
Sustainable construction is moving from ambition to enforceable systems change, with electrified buildings, resilience and whole life carbon now shaping development strategy. Calls for a UK 2035 electrification target covering heat pumps, solar, batteries and clean technologies put pressure on developers to align sustainable building design with low-carbon power, flexible demand and on-site generation. Fabric-first design remains vital, but net zero carbon buildings will increasingly depend on operational performance, smart controls and credible whole life carbon assessment.
Global energy markets are accelerating the shift. Forecasts of a 4,800GW rise in renewable capacity by 2035, supported by China’s clean-tech export strength, are changing the economics of building services. Heat pumps, battery storage and intelligent controls are becoming core infrastructure for energy-efficient buildings, not optional upgrades. Future-ready assets will need low carbon design capable of using variable clean electricity while protecting occupiers from volatile fossil fuel costs and reducing the carbon footprint of construction over time.
Regulation is tightening around measurable performance. The Future Homes Standard is forcing design teams to reassess roofs, floors, comfort, ventilation and commissioning, while building-controls specialists are urging ministers to turn efficiency policy into practical support for businesses. BREEAM, BREEAM v7 and lifecycle assessment frameworks are becoming more important for demonstrating environmental sustainability in construction, linking embodied carbon, operational energy, life cycle cost and building lifecycle performance in a single evidence base.
The next phase of green construction will demand stronger action on embodied carbon in materials, low carbon construction materials and sustainable material specification. Developers, architects and contractors face growing pressure to use environmental product declarations (EPDs), low embodied carbon materials, renewable building materials and green building products to prove carbon footprint reduction. Circular economy in construction is also moving up the agenda, with circular construction strategies, resource efficiency in construction and end-of-life reuse in construction becoming central to net zero whole life carbon delivery.
Climate adaptation is now a capital planning issue. New flood and coastal-defence schemes in England and Wales show that green infrastructure, sustainable urban development and low-impact construction must protect assets from climate risks already locked in. Sustainable architecture and eco-design for buildings can no longer treat resilience separately from decarbonising the built environment. The industry must deliver eco-friendly construction, carbon neutral construction and sustainable building practices that reduce the environmental impact of construction while preparing communities for more extreme weather.
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