OK, if we're going to talk about dependence on home charging and centralized control, let's look at what it takes to get a diesel
out of centralized control of charging. Let's assume you can buy any equipment you want, but you've gotta source your own consumables from your own land.
You need cropland that you can grow oil crops on. Let's use canola. You'll get
75-240 gallons of oil per acre. Let's assume 80% yield from the oil to the biodiesel, as that's consistent with the numbers I'm finding around. So, if you're doing 15,000 miles per year, and you're getting 36 MPG combined (yes I know, "diesels always beat EPA", but I'll use EPA for the 2017 Jaguar XE 2.0d anyway), at the low end of oil yield, you'll need 7 acres to get a year's worth of oil.
You'll also need harvesting equipment, which burns its own fuel, so you'll actually need more cropland than that.
You'll also need an alcohol. Let's use ethanol from corn, simply because that's gonna be a lot easier to get than methanol. You'll need about 328 galons of that, and that's about an acre of corn. And, of course, you'll need harvesting equipment and a still for
that.
Oh, and you need some lye, which means time for the chloralkali process, so you need a source of salt. And you're emitting some chlorine gas as a byproduct, hope you have some way of dealing with that.
Finally, you can react the oil with the ethanol and lye, in a reactor, and then wash it, and you can now charge your diesel with your own resources. You are, however, very much tied to your farm, which has 8 acres of cropland just for the fuel your car needs, ignoring the fuel the harvesting and production processes need.
So, let's compare to a Model 3. I'll use the Standard Range Plus, the cheapest one you can order off the website. 24 kWh/100 mi, I'll assume 41 miles per day (that's the 15,000 miles divided by 365 days), so about 10 kWh recharge energy. If "Coastal Empire" is Savannah, GA, the
PVWatts Calculator says that in the worst month, December, you'll generate 366 kWh, or about 11.8 kWh per day, with an average 4 kW solar setup. That 4 kW solar setup... if you use Tesla's current solar panels, would be 12 Tesla panels, which weigh 47.4 lbs - you could fit those in the car (admittedly, with a loss of efficiency, but you have some efficiency to give up, given that it's 11.8 kWh per day in the worst month, and you only need 10 kWh per day otherwise). Toss a frame to support the panels wherever you park, and the inverters, in the back seat, and you now have a charging solution that fits in the car and can recharge your daily usage. And, because it fits in the car, you're not tied to your acres upon acres of cropland and the reactors and the oil storage. Just set up the panels facing the sun, hook it all up, and plug in the EVSE.