>
The Philosophy of Self-Governance
Morocco Convicts Individuals for Ceuta Invasion
THE OCCULT: Alex Jones Unravels The Truth Behind The Mystery Schools And The Freemasons...
What could possibly go wrong? Scientists use AI to design new viruses
Dual-motor suitcase drive underpins 3,000-hp hypercar
DoorDash Wins Federal Approval To Fly Its Own Delivery Drones
Shade-Resistant Solar Cells Retain 97% Efficiency After 2,000 Hours of Testing
20 Ancient Engineering SECRETS
Stonehenge Was Reanalyzed by AI -- And the Findings Are Hard to Explain
After Years Of Delays, Aptera Is Finally Preparing To Build Customer Cars
'When you kill it, it doesn't die': the jellyfish that has cracked the secret of immorta
Archer Aviation debuts Halo autonomous VTOL, Thunder's commercial twin
US Telecoms Slide On Starlink Mobile Threat; Bernstein Sees It As A "Jab, But No Knockout Yet**

Quanan Pang, who led the research while a PhD candidate at Waterloo, and his fellow researchers made a breakthrough involving the use of negative electrodes made of lithium metal. The material has the potential to dramatically increase battery storage technology.
With increased energy density and therefore energy capacity, electric vehicles could see as much as three times the range on a single charge.
"This will mean cheap, safe, long-lasting batteries that give people much more range in their electric vehicles," said Pang.
In developing the technology, two challenges arose for researchers. The first involved a risk of fires and explosions caused by microscopic structural changes to the lithium metal during repeated charge-discharge cycles. The second involved a reaction that creates corrosion and limits both how well the electrodes work and how long they last.
Researchers were able to solve both problems by adding a compound of phosphorus and sulfur to the electrolyte liquid carrying a charge within batteries.