Yes, I know that there are
many different types of "Lithium-Ion" batteries.
But, again, I have to ask, why do you care?
No matter what the exact chemistry is, that
does not matter in the important areas.
The purity, the exact mixture, and so many other aspects go into the real-life concerns.
Big deal if the battery is made from unicorn horns. A simple bad choice for even the anode could spell death for the people using that item.
So, no matter what the chemistry is, the end-user doesn't have any clue at all how safe, how reliable, how good, etc the battery really is. Sorry, that's how things are.
Just look at the many generations of the Tesla battery, or even it's containing cell. The latest containing cell, and it's features, are done because of what Tesla has learned, and their desire to not have their cars burst into flames.
More battery stuff:
https://www.fool.com/investing/2018/06/07/how-general-motors-and-honda-will-fight-teslas-bat.aspx
Bolt uses what GM calls its "first-generation" battery system, developed by GM with Korean supplier LG Chem. LG Chem produces the battery cells and packs for the Bolt, using a unique battery chemistry owned by GM.
https://www.idtechex.com/research/r...-beyond-li-ion-batteries-2018-2028-000566.asp
The truth is that battery innovation takes place gradually and long validation cycles are needed before a new material can find its way into the mainstream market. Car companies are extremely cautious when adopting new battery technologies, as they do not want to set the whole industry on a collision course because of battery-related incidents. As an example, the adoption of high-nickel-content cathode materials like NMC622 and NMC811 has long been delayed, however according to recent announcements by LGChem and rumours about the new Nissan LEAF, NMC811 may enter the market as soon as 2018. On the other hand, the Chinese government has issued policy regulations that encourage battery companies in the country to switch from LFP cathodes to others that are more energy-dense, such as NMC and NCA, the one currently found in Tesla's electric cars.
The advanced Li-ion industry is analysed in terms of cathode, anode, and electrolyte innovation, not to mention other key components like electrode binders, current collectors, additives, and conductive agents. A thorough analysis of graphite, both natural and synthetic, as well as silicon-based anodes, lithium titanate, lithium metal; LCO, NMC, LFP, NCA, and sulphur presents advantages and disadvantages of each material from both a technological and a strategic standpoint.
Fwiw, with a
quick search, I didn't find anything on sae.org.
If someone does know the chemistry used, it'd be interesting.
However, other than NiMH (and it's pseudo "memory effect problem") and Lithium-Ion, *I* see the difference within a technology as mostly a moot point, for the reasons I stated above.
So, again,
imho, for a hybrid or a plug-in, *I* say go with a company that has proven to be focused on reliability.
Just my two cents.
