Yes, LFP is more thermally stable so you can safely make bigger cells with LFP (something that’s not so easy with NMC), and these bigger cells are usually in prismatic format. It also helps that when you pack prismatic cells together, you can pack them closely minimizing wasted since between cells (not the case with cylindrical cells for…
Yes, LFP is more thermally stable so you can safely make bigger cells with LFP (something that’s not so easy with NMC), and these bigger cells are usually in prismatic format. It also helps that when you pack prismatic cells together, you can pack them closely minimizing wasted since between cells (not the case with cylindrical cells for example).
On the dry processing of LFP/LMFP, several companies are actively developing it, but no one has it really working on the mass scale (despite claiming it).
Some learnings from NMC dry processing can likely be translated to LFP dry processing. But ultimately NMC and LFP are different materials and will behave differently when dry processed.
Yes, LFP is more thermally stable so you can safely make bigger cells with LFP (something that’s not so easy with NMC), and these bigger cells are usually in prismatic format. It also helps that when you pack prismatic cells together, you can pack them closely minimizing wasted since between cells (not the case with cylindrical cells for example).
On the dry processing of LFP/LMFP, several companies are actively developing it, but no one has it really working on the mass scale (despite claiming it).
Would is better tremendously difficult for Tesla to use the dry process already developed for NMC and switch it to LFP?
Some learnings from NMC dry processing can likely be translated to LFP dry processing. But ultimately NMC and LFP are different materials and will behave differently when dry processed.
Thanks!