I wouldn't exactly say the range issue is not a problem around town. For example, at 25 MPG and $2.25/gallow, that's $0.09 per mile. The national average electricity price is about $0.14 per kWh. Also there are efficiency losses in charging, somewhere in the 90% efficient range. For simplicity lets say 95%, which is generous. So, that means the car has to get less than 610 Wh/mi in order to be less expensive on fuel per mile than a 25 MPG ICE vehicle, using national average electricity prices.
My grid power is only $0.09 here, so, that puts the same comparison around 1000 Wh/mi, so not a huge issue just yet...
However, let's look at California, Tesla's home state. Average cost the Dept. of Energy shows is $0.1545 per kWh. Gas average in CA is also $2.65/gal right now. So, our 25 MPG hog costs $0.106/mi. All math done, 651 Wh/mi break even point.
Then look at San Francisco, where the average cost per kWh is $0.213. 472 Wh/mi would be the same cost per mile as a 25 MPG ICE in this case...
All of it is pretty sad when I note my average consumption with my P85 was 320 Wh/mi... nearly half the cost to operate vs. ICE even with falling gas prices on a national average, and a third less where I'm at.
Just another data point, in any case, and some food for thought.
Edit: Doing the math backwards for SF area numbers, lets say we get 200 miles out of a charge (about right, real world, with the P85D), which is about 385 Wh/mi 100% to 0%, no climate control. 385 Wh + 5% charging inefficiency = ~404 Wh/mi from the wall. This costs $0.086/mi. If gasoline is $2.65, that's the equivalent fuel costs of a 30.1 MPG ICE vehicle... at the EPA range of 242 comes to equivalent cost of a 37.3 MPG ICE vehicle. Actually, I think the moral of this portion is to only use superchargers if you live near SF... lol. For my own area, at a 200 mile range I'm at least the same cost as a 62 MPG ICE. 75 MPG if I could get 242 miles...