I suspect we'll still have ICE for a long time in specialty applications. For simplicity little beats a small petrol genset for emergency / worksite power for instance. And diesel trucks will probably outpace electric trucks on some routes. However, these will need to run on carbon neutral fuels, either synthetic or biofuel, and/or have a carbon offsetting tax applied to them that pays for the carbon produced to be removed. This will make such fuels uneconomical for all but the most difficult use cases to use batteries and fuel cells in.
Correct. It’s not about converting everything instantly to BEVs it’s about converting what’s possible. It’s possible now and the near future to move personal cars away from ice. That’s needs to be done
Incorrect. The whole goal is to move to renewable, non-poluting energy sources. ICE in itself isn't bad. It is the fuel that is being used that makes it bad. Alternatives can even be worse (like BEVs powered indirectly from coal).
People are obsessing over CO2 but the reality is that CO2 emissions are not today's problem. The emission of toxic gasses like SO2 and NOx (which cause respiratory and other health issues) are. Just look up the number of annual deaths due to producing electricity from coal as published by the WHO. Even in small countries like the NL, the number exceeds over 100 persons per year that die prematurely. Nuclear is far better and it boggles the mind how environmentalists can be against it...
As I wrote before, I ran the numbers a long time ago to show that moving the BEVs is not a good idea if electricity is (partly) generated by coal plants (which are also likely to provide the cheap night time power to have a base load):
Gasoline has a density of 0.72kg/litre and contains a maximum of 10ppm of sulphur (this limit is adopted world wide nowadays and rumour has it, it is significantly less in a lot of places). So 1000 grams of gasoline contains (up to) 10 milligrams of sulphur. 10 * 0.720 = 7.2 milligrams of sulphur per liter of gasoline.
One liter of gasoline takes you 20km in an efficient hybrid (going from realistic numbers). SO2 consists of 1 sulphur atom and two oxygen atoms. In totaal this molecule weighs about twice as much as a sulphur atom. 7.2 * 2 = 14 milligrams of SO2 per liter. Divide by 20 => 0.72 milligrams per km.
In 2019 the NL SO2 emissons for electricity production are 2400 metric tonnes (2.400.000 kg = 2.400.000.000 gram)
https://opendata.cbs.nl/statline/#/CBS/nl/dataset/83390NED/table?ts=1610469052046In the same year 121TWh was produced.
https://www.cbs.nl/nl-nl/nieuws/2020/12/elektriciteitsproductie-naar-recordhoogte2.400.000.000 / 121TWh=19,8 microgram/Wh
With a realistic use of 225Wh/km for a BEV that brings you to 225 * 19.8 microgram = 4.5 milligrams per km
4.5 milligrams / 0.72 milligrams = 6
So in the NL a BEV causes the emission of 6 times more SO2 compared to an efficient hybrid per distance travelled.
You can do a similar calculation for NOx and you'll see a BEV barely meets the Euro6 limit for NOx.