>
The Paradox of Mamdani's Paradise
Stomach Acid Is Vital for Health
Nancy Pelosi to Retire. Her Net Worth Surged 2,297% Since First Taking Office 38 Years Ago
Blue Origin New Glenn 2 Next Launch and How Many Launches in 2026 and 2027
China's thorium reactor aims to fuse power and parity
Ancient way to create penicillin, a medicine from ancient era
Goodbye, Cavities? Scientists Just Found a Way to Regrow Tooth Enamel
Scientists Say They've Figured Out How to Transcribe Your Thoughts From an MRI Scan
SanDisk stuffed 1 TB of storage into the smallest Type-C thumb drive ever
Calling Dr. Grok. Can AI Do Better than Your Primary Physician?
HUGE 32kWh LiFePO4 DIY Battery w/ 628Ah Cells! 90 Minute Build
What Has Bitcoin Become 17 Years After Satoshi Nakamoto Published The Whitepaper?

A novel adaptation of this pre-stressing technique has been used to produce concrete that is lighter but with comparable strength, an advance that if widely applied, could save significant amounts of CO2.
As the most commonly used construction material in the world, the carbon footprint of concrete is massive, with the billions of tonnes produced each year requiring vast amounts of energy. For this reason, scientists all around the world are looking to tweak the production processes to make them more environmentally friendly, with even small improvements potentially having big ramifications.
The latest breakthrough comes from scientists at the Swiss Federal Laboratories for Materials Science and Technology (EMPA), where ways to improve on pre-stressed concrete technology are being investigated. This technique is often used when the material is required to withstand especially high loads, such as a beam or a bridge, with the tensioned steel tendons generating forces that compress the material from within.