>
Evacuations begin as 'blockbuster' nor'easter barrels toward millions in 12 US states
Trump's military prepares for Cuba as leaked Pentagon memo sends telling signal...
Ford v. Hyundai: Henry Ford Must Be Turning In His Grave After New Report
Switzerland Is Still The Most Expensive Place In The World To Eat Out
Tesla Model 3 killer charges from 10 to 97% in just 9 minutes
World-first unpowered DNA computer sets speed record
I Power 5 Buildings Off-Grid. Here's How
The US government is pushing hard to get a working nuclear fission reactor into space by late 2028
SpaceX Starmind AI in Space Radiator
China Will Dominate Global Nuclear Energy Through 2035, Analyst Says
These Absolutely Wild-Looking EVs Are Saudi Arabia's First Homegrown Cars
BEYOND THE MOON: NASA plans a nuclear-powered fleet to push DEEPER into space
Big Oil Backs Mazama's $135 Million Bet On Superhot Geothermal

Theorists have predicted other hydride compounds which could work at lower pressures. There is race to find versions stable at ambient pressure and room temperature.
In 2004, Ashcroft suggested that adding other elements to hydrogen might add a "chemical precompression," stabilizing the hydrogen lattice at lower pressures. The race was on to make superconducting hydrides. In 2015, researchers including Mikhail Eremets, a physicist at the Max Planck Institute for Chemistry, reported in Nature that a mix of sulfur and hydrogen superconducted at 203 K when pressurized to 155 GPa. Over the next 3 years, Eremets and others boosted the Tc as high as 250 K in hydrides containing the heavy metal lanthanum. Then came Dias's CSH compound, reported late last year in Nature, which superconducts at 287 K—or 14°C, the temperature of a wine cellar—under 267 GPa of pressure, followed by an yttrium hydride that superconducts at nearly as warm a temperature, announced by multiple groups this year.