Chinese manufacturer Gotion High-Tech has announced a new battery pack will go into mass production in 2024 that it says will deliver range of up to 1,000kms for a single charge and could last two million kms.Get more news about Lithium Battery Pack,you can vist our website!

The company says the manganese doped L600 LMFP Astroinno will be able to do 4,000 full cycles at room temperature, and at high temperature will get 1800 cycles and over 1500 cycles of 18-minute fast charging.These incredibly high cycle numbers mean the battery could essentially last 2 million km before it starts to deteriorate. To put that into context, the average Australian car travels around 15,000 km per year so it would take 130 years worth of average driving to reach 2 million km mark.

Gotion High-Tech says the battery single-cell density is 240Wh/kg and that improvements in pack design have increased overall battery pack energy density to a point where 1000km range pack is possible with the highly durable chemistry.

"Astroinno L600 LMFP battery cell, which has passed all safety tests, has a weight energy density of 240Wh/kg, a volume energy density of 525Wh/L, a cycle life of 4000 times at room temperature, and a cycle life of 1800 times at high temperatures," said executive president of the international business unit of Gotion High-Tech Dr. Cheng Qian.

The the volumetric cell to pack ratio has reached 76% after adopting the L600 cell, and the system energy density has reached 190Wh/kg, surpassing the pack energy density of current mass-produced NCM (Nickel Cobalt Manganese) cells." said Dr Cheng.

"In recent years, lithium iron phosphate (LFP) technology has regained the recognition of the market with market share continuing to increase.

"Meanwhile, the energy density growth of mass-produced LFP batteries has encountered bottlenecks, and further improvement requires an upgrade of the chemical system, so manganese doped as called lithium iron manganese phosphate (LMFP) was developed." said Dr Cheng.

According to Dr Cheng, Gotion High-Tech has solved the challenges of Mn dissolution at high temperatures, low conductivity and low compaction density through utilising co-precipitation doping encapsulation technology, new granulation technology and new electrolyte additives.