95 Wh, from the 10% improvement Drew said over the 86.5 Wh from 4680 V1
Once Tesla adds Silicon, it starts getting interesting, 114 Wh with a reasonable Silicon content on the anode (20-30%) is possible, assuming weight stays constant that is 320 Wh/kg
But this is no easy step, Silicon has a huge change in volume between charged and discharged, this requires the polymeric binder presented at battery day do work, else cycle life goes down the drain
Recommend watching or re-watching this video from The Limiting Factor, also, if there is people here that didn't watch his battery day series, do it, great weekend entertainment
No, 500 miles on 180 kWh (likely a bit more gross), would need to get down to 360 Wh/mi, while it's hard, it's possible, Model X is 275 Wh/mi
There is many ways to go about trying to calculate it, but the one I went with for that calculation is to go on each segment Tesla has vehicles, take the most efficient vehicle, and see how much more efficient Tesla is (ignoring Lucid and so on since they are hyper focused on efficiency and doesn't help us figure out how much more efficient CT is compared to Rivian or F150)
That number is 8% more efficient on average, so I applied that to the average of F150 and Rivian, I think we might be surprised since none of those is known for it's efficiency and the pack might end up being smaller or Tesla takes the 500+ miles to the heart and we end up with considerably more, if it was just 8% more efficient it would mean a 216 kWh pack but I see this as a worst case scenario
Big problem in longer cells is thermal management, makes way harder to the heat to go through the electrode foil, into the tabs, to the cell lid and up to the side to make contact with the cooling ribbons