Scientist Veerabhadran Ramanathan yearned for the American dream while growing...

CNN Climate 7 months ago

Scientist Veerabhadran Ramanathan yearned for the American dream while growing up in southern India in the 1960s: specifically, a Chevrolet Impala, a muscle car he learned about from his father, a tire salesman. Ramanathan made it to the United States in his 20s, but he never bought his gas guzzler, largely because his scientific knowledge of global warming quickly eclipsed his income. Fast-forward to the 1970s and Ramanathan, now a newly minted postdoctoral fellow in planetary sciences, was spending his days working as a visiting researcher at NASA Langley Research Center in Hampton, Virginia, and his evenings on a side project he hid from his supervisors. His solitary nighttime research would end up changing how scientists viewed global warming. The young scientist had discovered that chlorofluorocarbons, or CFCs, then widely used in the manufacture of refrigerators, air-conditioning units and spray cans, had a significant greenhouse effect. Ramanathan had briefly encountered these industrial chemicals in his first job at a refrigeration company. Like carbon dioxide, CFCs trapped heat in the atmosphere. In fact, Ramanathan's calculations suggested, they were more potent: One molecule of a CFC could have the same warming effect as up to 10,000 molecules of carbon dioxide. For three months, he repeated the calculations looking for an alternative explanation. He found none. "I was just a postdoc immigrant from India. I didn't know if I should tell NASA about this or not. I just sent the paper off," Ramanathan recalled. Tap the link in bio for more. 📸: V. Ramanathan

layersDaily Sustainability Digest

Published about 6 hours ago



England’s summer water stress is resetting sustainable building design. Projects are moving from passive consumption to active water stewardship through leakage reduction, smart metering, rainwater and greywater reuse, drought‑resilient landscapes and green infrastructure. Specifications are shifting to sustainable material specification and eco-design for buildings that tolerate heat and shrink–swell cycles, tying water resilience to building lifecycle performance, lifecycle assessment and whole life carbon assessment. Clients are demanding measurable carbon footprint reduction and life cycle cost certainty across design, build and operation.

Climate risk extends to cold regions as permafrost degradation destabilises foundations, roads and pipelines. Geotechnical strategies now require continuous monitoring, adaptable detailing and low carbon design aligned with environmental sustainability in construction. Frameworks such as BREEAM, including breeam v7, are expected to hard‑wire resilience, whole life carbon and sustainable building practices into procurement. Designers are prioritising low embodied carbon materials evidenced by environmental product declarations (epds), together with green building materials and renewable building materials, to reduce embodied carbon in materials and the carbon footprint of construction while supporting circular economy goals.

Market responses are consolidating around retrofit‑first and industrialised delivery. Adaptive reuse of offices in London, exemplified by deep retrofits such as 75 London Wall, preserves structure, slashes embodied carbon, advances circular economy in construction and enables end-of-life reuse in construction through circular construction strategies. Modular and offsite expansion across the Benelux is improving resource efficiency in construction, cutting waste and accelerating programmes with low carbon construction materials and green building products, supporting eco‑friendly construction and green construction. Energy volatility is accelerating net zero carbon buildings and energy-efficient buildings through electrification, on‑site generation and storage, and long‑term power purchase agreements. Briefs now target net zero whole life carbon and carbon neutral construction, integrating sustainable design, low carbon building strategies and decarbonising the built environment with robust life cycle thinking in construction.

The direction of travel is clear: rigorous whole life carbon, embodied carbon and lifecycle assessment embedded in sustainable construction, backed by metered water budgets and verifiable performance data, will define sustainable urban development, drive the circular economy and deliver net zero carbon goals across building and construction.

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