Keep in mind that there are several chemistries of lithium batteries, each has unique benefits and drawbacks. For instance, Lithium Iron Phosphate benefits are high thermally stability (need to get to 518F for thermal runaway), have a large number of recharge cycles (2000+ ), and can charge and discharge under high loads. But they can't pack as much energy as other lithium chemistries and can't be charged below about ~25F. I have two of these batteries in my truck camper, they are under my seat in the dinette.
Lithium Cobalt Oxide is used in cell phones, laptops, tablets, cameras. They can hold a lot of energy in a small battery. But they have a relatively short number of recharge cycles (500-1000) and have a relatively low thermal stability, so other battery chemistries are taking their place.
Lithium Manganese Oxide is used for battery power tools, medical instruments, and some hybrid vehicles. Benefits are better thermal stability than LCO and can provide higher current than LCO Drawback is primarily short lifespan. Expect 300-700 charge cycles.
The three primary chemistries used in electric cars are Lithium Nickel Cobalt Aluminum Oxide (Tesla) (Higher energy density, reasonable lifespan, but more expensive and not as safe as other chemistries), Lithium Nickel Manganese Cobalt Oxide (High energy density, lower cost, and longer lifecycle, but lower voltage than others) and Lithium Titanate (Extremely safe, long lifespan, fast charging, but low energy density so heavier, and very expensive) also used in military and aerospace applications.