>
Planned Muslim mega city in the heart of Texas wins huge victory and gets a step closer...
Donald Trump Jr in talks to host Apprentice reboot
The longest solar eclipse of the century is coming: Day will turn into night and it won't return
US Economy Expands at 2.0 Percent in 2026 Q1, a Look at the Numbers
Researcher wins 1 bitcoin bounty for 'largest quantum attack' on underlying tech
Interceptor-Drone Arms-Race Emerges
A startup called Inversion has introduced Arc, a space-based vehicle...
Mining companies are using cosmic rays to find critical minerals
They regrew a severed nerve - by shortening a bone.
New Robot Ants Work Like Real Insects To Build And Dismantle On Their Own
Russian scientists 'are developing the world's first drug to delay ageing' months after
Sam Altman's World ID Expands Biometric Identity Checks
China Tests Directed Energy Beam That Recharges Drones Mid-Flight
Jurassic Park might arrive sooner than expected, just with Dinobots.

Nextbigfuture has been constantly tracking nuclear fusion and advanced nuclear fission every week for the past 13 years.
The popular question is when will we have commercial nuclear fusion that has a significant impact on the energy production of the world?
MIT has spunout a tokomak fusion project into Commonwealth Fusion systems. They want to apply modular designs to high-temperature superconductors. They want to get to stronger magnets that will shrink the size and cost of the potential nuclear fusion reactor. Improved magnets would improve any nuclear fusion design that involves confinement of plasma. There is less science risk to this MIT approach but more technological risk. They are trying to accelerate the commercial use of high-temperature superconducting magnets and trying to contain their costs. Cost for superconducting magnets for past fusion projects have been $20 per watt but other applications have seen costs of $1.4 to $1.8 per watt.