Admittedly that was almost 3 years ago, but I still wouldn't have anywhere to charge it at home...
Ubitricity has shown a concept where they have smaller extender posts off the lamp posts, which I guess they'll be able to install if an area gets really busy.
Absolutely. I think there are more on-street charging stations in that neighbourhood than there are in my entire city...
15 amps at 230v won't charge very quickly.
You seem to have hijacked my point with something that's bothering you though :(
If anyone wants to see an example of light pole charging, the Fully Charged YT channel had an episode of one example:
* https://www.youtube.com/watch?v=rKaEhBjt1ls
See also pop-up chargers for streets without poles:
Edit: this article talks about one street in London being the first to have car chargers built in an is from March this year.
https://www.fleeteurope.com/en/new-energies/europe/analysis/...
The main difference is that (a) each street light is actually ~ 10W, and (b) the wiring is massively over-specified. Quoting from a local authority source for street lights, [1], the minimum conductor area allowed (for the 220-270 VAC supply) is 6 mm^2, for a total thermal current limit of around ~55A. If you have, say, 100 lamps on a single "ring main", you still only have a power draw of ~1 kW, where the cable is rated to 55 V x 220 A ≈12.1 kW minimum.
[1] https://www.durham.gov.uk/media/3075/Street-Lighting-Specifi...
How many people in the UK live in a detached or a semi-detached house?
It was sometimes hard to get parked here never mind near your house or by a lamp post. Take a look at the street on Google street maps (Link below). These are old houses built over a century ago and many are now multiple occupancy with 1-3 cars per house. Counting lamp posts and cars (when full) there's probably one lamp post to every 15-20 cars. So lamp post charging is not going to work practically here and this is typical of many such streets.
https://www.google.com/maps/@51.5646881,-0.0087098,3a,75y,68...
is probably their deceptive response.
Imagine if everything adopted this model. Gas at the pump changes price mid fill-up. You'd fret that you'd be gouged for a million dollar gallon in the moment that you glance away. Or if there were TOU in addition to data caps on your internet connection - streaming a movie might be more expensive than you bargained.
So yes, in principle I agree that pricing everything to the most-granular and timely degree is economically correct, but it's also absolutely exhausting as a consumer. There's only so much cognitive burden to be tolerated. At some point apathy takes over.
No, most people in the UK live in terraced housing with no assigned parking spot - it's hit and miss whether they get to park outside their house or not when they come home from work. You also can't trail cables across the sidewalk (or pavement, as they say over there) - that would upset the disability people, for one thing.
However, everywhere where in-street parking is regular over night, there should be power outlets at the street side. They are quite common in the scandinavik countries, as even ICE cars used to be plugged in over night for heating the motor.
Most electrical grids will need to be upgraded to accommodate this. This is doable, but costs money and takes time.
...but the salient point is that if 80% of all passenger cars become electric, this would lead to a total increase of 10-15% in electricity consumption. (Far, far from the "order of magnitude" claim.)
And even this ignores the vehicle-to-grid features of modern EVs, which can actually put power back into the grid during periods of high demand.
Dividing this number by 8760 (the number of hours in 2019) gives us 40,203,196 KW, or 40 GW total energy consumption. Assuming that electric vehicles are 5x more efficient than ICE, gives us about 8GW of electricity needed to replace all petrol and diesel consumption in the UK.
According to [1] the UK's peak consumption is currently 61.9 GW with a theoretical maximum of 75.3 GW. So to replace all non-commercial fuel used would be 13% of the peak usage.
According to [2] the UK's total electricity generation in 2019 was 323.7 TWh which is 3.237x10^11 KWh which is roughly equivalent to the total energy value for non-commercial diesel and petrol calculated above. Assuming again the 5x efficiency gain that would mean a ~20% increase in the amount of energy that would need to be generated.
[0] https://www.ukpra.co.uk/en/about/facts-and-figures
[1] https://www.ofgem.gov.uk/ofgem-publications/76160/13537-elec...
[2] https://assets.publishing.service.gov.uk/government/uploads/...
I expect this is the part which will require more investment than anything else, as it will mean electrifying office car parks — the UK is further north than every American state except Alaska, so winter sunsets happen before the work day ends.
It certainly shouldn’t be impossible, but the current UK government is prone to acting as if they can make things happen just by saying so rather than spending money or doing any planning.
The grid capacity is fine, however.
And "build more power plants"...so simple...part of the problem is that actually building more power plants is more complex than just typing a post out or observing it should be true. This is linked to the issues that I mentioned in the previous post (when the govt moved towards green power a decade or so ago, investment went through the floor...more recently, they have introduced price caps...the reason why the UK hasn't built power plants is because the govt asked companies to build them, and they said no...which is why the govt has had to hand out big subsidies to nuclear).
Btw, if you aren't familiar with something, ask more questions (I know this because I used to work as an analyst, and part of my coverage was these companies) rather than assume that someone has made a basic mistake. The power market is local, not global. What is happening in the US isn't happening everywhere else (the UK is far further down this road than anyone else).
See for example a study from our government about this exact subject (in Dutch): https://www.kimnet.nl/binaries/kimnet/documenten/rapporten/2...
The summary is that if there were 4 million vehicles charging overnight, it would cause a total of 20GW of electricity. Our current total consumption (including industry) is 33GW, so this would cause a significant increase in electricity consumption.
I'm not so sure. Using the province of Ontario, since I have the link handy:
* http://www.ieso.ca/power-data
The demand the last few days peaked at 18:00 (local/ET) at 16.5-17K (MW), while its lowest point is at 02:00 at about 11.5K.
Would overnight car charging really exceed the ~5500 MW of power that needs to be handled already?
Their numbers don't add up. My apartment consumes around 400kWh a month. Assuming I charge a Tesla with 82kWh battery and I use it all in a month, the additional energy consumption is: 82/400 = 20%. And that is only on the fat chance that I will be driving less than I do today.
So prove me wrong.
It's physics. All the energy that the cars consume has to come from somewhere. And people will drive more especially because the car is now somehow 'green'
And when private electricity consumption is very small, wtf was with the move to LED lighting for and the ban of incandescent bulbs?
And the switch from incandescent to CFL/LED did save a lot of energy in total, both for residential and business applications. I once read the number that the net load was reduced by 1 GW due to the change. That is a reasonably sized nuclear power plant.
Far more important than a charging station network is investment in on-street charging for people who don't have access to a garage.
Charging at home is far more important than charging on the road.
In any case, a grid upgrade will not be required. The "grid overload" story is fossil fuel industry propaganda. You can find the details here: https://www.virta.global/blog/myth-buster-electric-vehicles-...
...but the salient point is that if 80% of all passenger cars become electric, this would lead to a total increase of 10-15% in electricity consumption. (Far, far from the "order of magnitude" claim.)
And even this ignores the vehicle-to-grid features of modern EVs, which can actually put power back into the grid during periods of high demand.