>
Melania Trump Denies Ties to Epstein. Former Brazilian Model Threatens to Expose Mrs. Trump
Iran war as a cage Trump can't escape
Iran's Determination to Break Out From the Panopticon of Western 360° Containment
The Most Dangerous Race on Earth Isn't Nuclear - It's Quantum.
This Plasma Stove Cooks Hotter Than The Sun
Energy storage breakthrough traps sunlight in a molecule
Steel rebar may have met its match – in the form of wavy plastic
Video: Semicircular wings give Cyclone VTOL a different kind of lift
After 20 Years, Wave Energy Finally Works
FCC Set To "Supercharge" Starlink Space Internet With "Seven-Fold More Capacity"
'World's First' Humanoid Robot For Real Household Chores Launched With 16-Hour Battery
XAI Training 10 Trillion Parameter Model – Likely Out in Mid 2026

In 2015, a group of physicists at MIT did some calculations to rethink how we're approaching the problem of fusion power. High-temperature, nonmetallic superconductors were finally commercially available and could allow the generation of stronger magnetic fields, enabling a simpler, more compact fusion reactor. But the physicists behind the work didn't stop when the calculating was done; instead, they formed a company, Commonwealth Fusion Systems, and set out to put their calculations to the test.
On Tuesday, Commonwealth Fusion Systems announced that it hit a key milestone on its quest to bring a demonstration fusion plant online in 2025. The company used commercial high-temperature superconductors to build a three-meter-tall magnet that could operate stably at a 20-tesla magnetic field strength. The magnet is identical in design to the ones that will contain the plasma at the core of the company's planned reactor.
Aggressive roadmap
Giving yourself less than 10 years to solve a problem that an entire research field has been struggling with for decades is ambitious, but it reflects how relevant fusion could be to the climate crisis we're facing. Several of the company's leaders mentioned climate change as an inspiration for their work.