Liquid electrolytes enable fast ion transport but can raise safety concerns, and lithium metal anodes—despite their high capacity—can grow dendrites that trigger short circuits and rapid failure.
Unlike much of the news in the energy storage field, which often focuses on cathode breakthroughs, this study zeroes in on the chemistry of electrolytes – ...
Lithium was supposed to be soft. The metal bends easily in bulk form, stretches before it breaks, and deforms the way you ...
A new solvent-based technique could change how lithium is extracted from brines, potentially making the process faster, ...
Researchers have uncovered the mechanical properties of the nanoscale "thorns" that develop inside lithium-ion batteries, which can cause them to short circuit and die – or worse, such as ...
Lithium-metal batteries, which use metallic lithium as the anode, show great promise as the next generation of rechargeable batteries. It is generally thought that ‘calendar ageing’ of these batteries ...
Despite their potential, solid-state batteries struggle to replace lithium-ion due to manufacturing hurdles and performance ...
For the first time, scientists have observed how tiny metal "thorns" called dendrites sprout inside lithium-ion batteries, ...
Pure Lithium Corporation, a disruptive lithium metal battery technology company, is pleased to announce that Japan has issued a notice of allowance, granting the company its foundational patent titled ...
The boom in phones, laptops and other personal devices over the last few decades has been made possible by the lithium-ion (Li-ion) battery, but as climate change demands more powerful batteries for ...
Engineers report progress toward lithium-metal batteries that charge fast -- as fast as an hour. This fast charging is thanks to lithium metal crystals that can be seeded and grown -- quickly and ...
Many consider lithium metal to be the most crucial material for negative electrodes in lithium-based batteries. This is because it has an extremely high capacity to store energy—3,860 mAh g −1 —which ...