I don't want you to get an EV, neither suggesting it. For myself I won't.
I'm just trying to show you that your electrical grid can handle a lot of EV's charging from home, even if the current grid is overloaded.
Not going to waste more time on this, but in comparison it is pretty much like your Hayabusa. It has a motor, lets just say 200hp at the crank and it needs that otherwise you won't buy it. But in reality, you can never use all of that, riding on the street you will be lucky if you use even 15% of that. But you need the 200hp to show bragging rights on the strip, even then it is impossible to use the whole 200hp through the entire 1/4 mile.
The same thing goes for electricity at your house. If you had a power outage for a day or so and your supplier switches you back on, everything starts together, everything, your water heaters, your AC, everything draws power at once and your supplier sees a huge power demand. He has to have the capacity to supply that demand. After an hour or so your water heater is up to temperature, it cycles, same with the AC etc., so the demand is a whole lot less.
In electricity, the average power used compared to maximum available is called the "Load Factor" The maximum needs to be within your "Installed capacity" The Busa 200hp.
Canada is pretty bad, you have a load factor of around 30% on average.
The USA on average is around 10%
This is nothing new, but your electrical cables can be used for digital communication and your supplier can switch certain supply points on and off as they wish, with inexpensive technology. My AC for instance is wired that way, if there is too much demand to the grid, my supplier has the ability to cycle it on an off with automatic controls. The cycles are such, that it hardly affects the home temperature. The same would go for a hot water heater. Those are called "off demand" supply points. Things like your stove, oven, etc. are called "on demand" supply points, as you won't be happy baking a cake and all of a sudden we switch off your oven.
It follows that almost all home EV's charge at night, they charge when a whole bunch of factories in your area are shut down for the night, when all your lights are off, when your oven and stove is not working, when your washer and dryer is asleep. So a whole lot of your installed capacity is not being used. And if there is an issue, your EV outlet can be wired with your supplier to cycle on and off should you decide to charge during the middle of the day and the grid is overloaded. Depending on how many EV's are charging in your neighborhood in the middle of the day, it may just take a little longer to charge your battery.
In Canada, industrial consumers are charged usage kWh as well as maximum demand kW. Which means they can save a whole lot of money by not starting all their motors at once and by regulating what runs when. Consumers don't pay for demand kW. This is a huge issue for companies who wish to supply superchargers, as they draw a whole lot of kW when charging a battery in 30 minutes. You guys are going to have to figure out how to handle that, otherwise it will get really expensive.
In the US, they do not charge for maximum demand.
Most of Europe charges maximum demand, even at residential level, as they are not that wasteful as we are. In short it means they are trying to get away with a much smaller motor than 200hp in your Busa, while keeping everyone happy, as it costs a lot less than the depreciation on large turbines.
Bee, if you still don't get it, will be no surprise, but at least I tried.
If you do get it, maybe you want to publish it as your paper under your own name.