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3nwf248 | 3 years ago
That's 8 * 173 = 1.384 kW, or 1.86 horsepower under wildly optimistic circumstances.
I call bullshit.
3nwf248 | 3 years ago
That's 8 * 173 = 1.384 kW, or 1.86 horsepower under wildly optimistic circumstances.
I call bullshit.
keithnz|3 years ago
jseutter|3 years ago
That same amount of solar on a Tesla would only give about 8 miles of range per day.
Rich Rebuilds has an interview/test with them. One of the people from the company mentioned that you have more aerodynamic drag on a bicycle than you do driving their vehicle.
For reference: https://www.youtube.com/watch?v=I-KdsjVQhu0
moralestapia|3 years ago
A Tesla Model S Long Range has a 95kWh battery, following the logic you present (which makes sense, btw) that energy is equivalent to a 127hp motor working for an hour. A Tesla definitely has more power than this, and it can definitely run for more than hour, so there's something else obviously missing (is regen braking THAT good?).
That aside, your 1.34kW should be enough to charge a big battery like this one in about two weeks, since that Tesla gets about 400 miles of range and Apteras are supposedly much more efficient, I think one should be fine if you expect to drive no more than 20-30 miles per day.
I believe them.
mwint|3 years ago
My Nissan Leaf (which is decidedly more brick-shaped than a Tesla) cruises at 50mph at something like 10-15hp, or less than 12kW.
It takes surprisingly small amounts of power to maintain cruise speed on level ground.
(Obviously cruise power scales with the cube(?) of speed, so it’s not like 10x power gets you 10x speed)
crooked-v|3 years ago
Take a look at the shape of the car. Pretty much the entire thing is designed around minimizing drag.
namlem|3 years ago
moralestapia|3 years ago
That's doable: https://ecocostsavings.com/electric-car-kwh-per-mile-list/
mwint|3 years ago