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While the length of the battery pack may be similar, the Model 3 is not nearly as wide as a Model S.Yes the M3 is smaller overall but a lot of that is in the front and back. The base for the batteries appears to only be slightly smaller.
It was reported quite some time ago (sorry, I can't remember the source) that Tesla Motors might already be at the $180 per kWh mark. So, I have often used that as the low level point by which Elon's expected 30% savings would come. General Motors has already said that the Chevrolet BOLT has a battery pack that costs them something like $145 per kWh. So, I expect that Tesla Motors cost on Gigafactory assembled battery packs for Model ☰ will be around $126 per kWh. At that amount, a 60 kWh battery pack would be around $7,560 as their internal cost. That amount times four (JB Straubel has said the battery pack represents about 1/4 of their cost per car) comes to $30,240. Which, if it were the build cost for a $35,000 Retail price car would mean there was a 13.6% margin from the outset. So, yes -- I agree.If battery cost is already below $190 / KW, with a full year of development time ahead of us, I would like to think that Tesla will make a 55-60 KW USEABLE CAPACITY battery that is cost effective enough for profits, and good enough to pass the 215 mile criteria, even in less than perfect conditions.
Or tease you to click their wonderful article about the 'Secrets of Warren Buffet' just one more time...in the Internet era, also means they don't get to count your click and their advertisers do not get to show you poorly chosen crap based on your last search or merchandise you've already bought or click bait for naked celebs or how to lose 100 pounds. A good compromise is quote the salient points and attribute the source.
I remember when the Chevrolet Corvette, with a 0.32 coefficient of drag, was the single most slippery production vehicle on the planet.Yes but 0.30 is rubbish. That will have an effect on range. And I agree with the other poster - you're never going to get near a ground up EV design in a retro fitted fossil car.
Everybody? No. But since the Model S was first released the highest capacity battery pack has always been the best seller. I think it has been estimated that the Model S 60 was typically around 25% for the whole time it was available. And the Model S 40 never went over a 5% take rate. Apparently the Model S 70 is now thought to be around 30+% of its sales. And the Model S 85 has gone away in the wake of the release of Model S 90. Tesla Motors may feel as if they 'need' three battery pack sizes to offer, but the market seems to disagree and be fine with just two choices at a time.But not everyone buys the larger battery... Of course I could be thinking way too into the weeds regarding this, but I'm just thinking aloud for discussion.
It would not take much movement away from "about 1/4" to eat up all their profit.That amount times four (JB Straubel has said the battery pack represents about 1/4 of their cost per car) comes to $30,240. Which, if it were the build cost for a $35,000 Retail price car would mean there was a 13.6% margin from the outset. So, yes -- I agree.
Mostly I was mainly arguing two points in favor of a 60 kWh minimum:Some of us have been saying for years that the 3 wouldn't need a 60kWh pack to achieve the desired range, so it's not surprising that Tesla agrees with us. The math has always been there.
The industry average profit margin is admitted to be 6% (though possibly fictional -- I believe most do far better than that) for new car sales. Even at that rate, Tesla Motors would have $32,900 to build the $35,000 car as a whole. Companies that fall below 5% (Suzuki) go out of business in the passenger car segment.It would not take much movement away from "about 1/4" to eat up all their profit.
Well... The Model S 90 does go over 350 miles on a single charge... If you choose to drive at 40 MPH or less... Much further if you drive 25 MPH or less. Neither of those fits the EPA 5-Cycle Range Test, though.The real question is how come the S doesn't get over 350 miles accounting for its weight and a 90kWh pack
I've noted in my other posts why I 'push back' on the notion. I don't like it still. But if it works, to meet both Performance and Range targets, cool.I got a lot of push back from several members here when I predicted a 55KWh pack in the base Model 3. The popular argument being made was that Model 3 SHOULD have at least 60KWh since the Bolt has one as well. Makes no sense to me. Anyway, my bet is still on 55KWh with an EPA rated range of 220 miles.
I figure that one day the Model ☰ P135D Coupe with Falcon Wing Doors and a Liftback will be mine to have, and to hold, and to love, and squeeze, and play with... until it don't move no more. 0-60 MPH in 0# $#!+!!! 1/4 mile in DON'T BLINK... Top speed of 300+ KPH... It's gonna be FUN.So if 55 kWh = 215 miles and 5.9 seconds or better, what would 110 kWh's be able to reach?
In two years the S/X should have a 110 kWh option so why not offer it in the 3 if someone is willing to pay the premium. My math would say the cost for a 110 upgrade could be $15k (Tesla Cost: 55 extra @ $160/kWh = $8,800)
Precisely my point. I'd rather have those 'extra' 5 kWh 'in the tank' so as to hold off any potential regulatory or testing procedure changes by the EPA that might crop up at the eleventh hour. If Tesla Motors can build a car with an actual average consumption as low as 194 Wh per mile during the 5-Cycle test procedure, that would be awesome. Of course, when I drive the car it isn't likely to ever do better than 330 Wh per mile... But that is beside the point.I still maintain that 55 won't suffice for more than 215 EPA range. As it may sound just a few kWh, its approaching 10%... same difference as between 215 and 194.
6% would probably be the industry average operating margin (including overhead; Tesla had never made a operating margin, except for one quarter AFAIK). Average gross margin for the industry is significantly higher (10-20%). Tesla had guided 15% gross margin on average for Model 3. I think Tesla will avoid dipping below 10% on any model.The industry average profit margin is admitted to be 6% (though possibly fictional -- I believe most do far better than that) for new car sales. Even at that rate, Tesla Motors would have $32,900 to build the $35,000 car as a whole. Companies that fall below 5% (Suzuki) go out of business in the passenger car segment.
I've always taken it as an article of faith that car prices to be delivered in a couple of years are based on some estimates of future price (reductions) and that price could not be possible today.This can be done profitably.
Well argued, yet I still disagree with the first sentence. The cost per kWh to Tesla Motors is what is important, because that is what allows them to pack as much as possible into the car while remaining profitable even at a $35,000 price point. The retail amount for an entire battery pack is of no consequence until it is necessary to sell one as a replacement part. And that is unlikely to be necessary before an 8-year warranty period is completed.It's not the cost/kWh that's saved it's the retail pricing/kWh that lowers the cost of the car to the consumer, and allows Tesla to hit the $35K mark. Getting the needed range from a smaller pack is only a good thing, it means they built an efficient platform.
Tesla Motors knows where the 'about' falls... It could be 22.5% instead, for instance. And if it were 27.5% then they have a choice to make: 1) reduce the size of the standard battery pack; 2) leave the battery pack alone and hit your build price target by removing something else from the base car (that then becomes an option); 3) eat the difference and expect to make it up with sales of profitable options; 4) allow for a lower, but still acceptable profit margin (even if it is 'razor thin') on the base car; or 5) don't worry about it, because the whole thing is amortized across about 3,400,000 units you expect to build over the course of eight years, the grand majority of which will be optioned to the nines while your internal costs are constantly going down.As for the 'about 1/4rth,' if the actual fraction is say 27.5% rather than 25%, then the final price at 4x wipes out the profit. In terms of the car, that is somewhere in the range of $500 - $1000 excess costs.
Yes, but Tesla already started down the wrong path with its model numbering (Model S 70/85/90/etc) based on battery size. That will be on the buyer's mind, top and center. So the larger-than-Bolt battery (at about the same price!) will be essential in order to be able to even start the conversation about efficiency and range. Without it, Tesla will be starting out at a disadvantage.
Recall what Intel had to do when all people seemed to care about as how many gigahertz the processor ran at. Microcode efficiency, cache size, and all that, made a bigger difference, but they were losing out to chips with faster clocks. Now we have meaningless processor and family names.
I wouldn't worry about it. Because by then, the 90 kWh battery pack will be the base version, and a 120 kWh battery pack will be the top-of-the-line. No one who buys a BMW 5-Series cares that they share an engine with a 3-Series. No one that gets a BMW 7-Series cares that they share an engine with the 5-Series. People buy what they want, need, or can afford. And people who buy the Tesla Model S will do so to blow the doors off of AUDI A8L, BMW 7-Series, Mercedes-Benz S-Class, and Porsche Panamera -- because they can.Let's argue that Tesla hits $35k on time, makes the amazing car everybody expects and demands, and collects a nice profit per car along the way.
Then, how much will a MS with an 80 kWh pack cost, or why will people spend $70+ USD for it ?