>
Beak careful down there! Parrot goes viral for exploring the Bahamas in a custom-built...
NATO chief BACKS Trump and says allies 'were slow to say the least' to support US in Iran...
House Democrats Threaten Contempt For Bondi If She Doesn't Testify In Epstein Probe
"That Is Not The Agreement We Have!" President Trump Slams Aya-TOLL-Ah Charging Fees...
Anthropic says its latest AI model is too powerful for public release and that it broke...
The CIA used a futuristic new tool called "Ghost Murmur" to find and rescue...
This Plant Replaces All Fertilizer FOREVER. Why Did the FDA Ban It?
China Introduces Pistol-Like Coil-Gun Based On Electromagnetic-Launch Systems
NEXT STOP: MARS IN JUST 30 DAYS?!
Poland's researchers discovered a bacteria strain that destroys pancreatic cancer.
Intel Partners with Tesla and SpaceX on Terafab
Anthropic Number One AI in Ranking and Revenue - Making $30 Billion Per Year
India's indigenous fast breeder reactor achieves critical stage: PM Modi

This allows the batteries to last longer between charges while also charging faster. These achievements are due to both the material structure and the use of tin as the active material. Tin is known to have much higher energy density than the current graphite technology, but until now its commercial success has been limited due to its tendency to swell during charging, causing stress in the electrode material and leading to a rapid loss in energy. Current commercial lithium ion batteries employ a foil/particle system as the electrode structure. The capability of such electrodes to deal with volume expansion of high energy materials is limited, because as the particles swell, the electrode expands.
The Tin Nanode's™ integrated electrode structure contributes to the relaxation of stress associated with electrode materials undergoing high volume expansion. This is possible because thin films of active material are spread over a 3D and porous network of fibres, rather than stacking particles on a flat copper foil.