>
Pentagon To Send 200 Troops to Nigeria
Trump Says He May Send Second Aircraft Carrier to Middle East To Prepare for Potential Attack...
A Market Crash and Recession Are Bullish, Not Bearish
What Are They Still Hiding? New Epstein Questions Point to a Much Bigger Cover-Up
Drone-launching underwater drone hitches a ride on ship and sub hulls
Humanoid Robots Get "Brains" As Dual-Use Fears Mount
SpaceX Authorized to Increase High Speed Internet Download Speeds 5X Through 2026
Space AI is the Key to the Technological Singularity
Velocitor X-1 eVTOL could be beating the traffic in just a year
Starlink smasher? China claims world's best high-powered microwave weapon
Wood scraps turn 'useless' desert sand into concrete
Let's Do a Detailed Review of Zorin -- Is This Good for Ex-Windows Users?
The World's First Sodium-Ion Battery EV Is A Winter Range Monster
China's CATL 5C Battery Breakthrough will Make Most Combustion Engine Vehicles OBSOLETE

Scientists have pioneered a method to enable the reversible chemistry of magnesium metal in the noncorrosive carbonate-based electrolytes and tested the concept in a prototype cell. The technology possesses potential advantages over lithium-ion batteries—notably, higher energy density, greater stability, and lower cost.
Magnesium (Mg) batteries theoretically contain almost twice as much energy per volume as lithium-ion batteries. But previous research encountered an obstacle: chemical reactions of the conventional carbonate electrolyte created a barrier on the surface of magnesium that prevented the battery from recharging. The magnesium ions could flow in a reverse direction through a highly corrosive liquid electrolyte, but that barred the possibility of a successful high-voltage magnesium battery.