A long term problem is that in remote areas of the high latitudes — Alaska, Nunavut, Siberia — fossil fuels are the only reasonable energy where geothermal isn’t available. It’s a good thing fusion is only 20 years away.
A long term problem is that in remote areas of the high latitudes — Alaska, Nunavut, Siberia — fossil fuels are the only reasonable energy where geothermal isn’t available. It’s a good thing fusion is only 20 years away.
People don’t really like wells near them, nor do the like the waste water from hydraulic fracking. Without a big industry to back it up, people will want to ban oil extraction.
All of which is to say that supply and demand only go so far when an industry collapses from lack of demand. Look at camera film. Shouldn’t it be cheaper because no one is buying it and it’s a niche product? Nope, the economies of scale no longer work.
Is it? This sounds exciting. Can you say more?
https://www.youtube.com/results?search_query=mit+sparc+denni...
https://en.wikipedia.org/wiki/SPARC_(tokamak)
and the STEP project in the UK
https://en.wikipedia.org/wiki/Spherical_Tokamak_for_Energy_P...
Both are very promising, and unlike all previous experiments, if their core design goals are met they would quickly lead to commercialization, quite plausibly within 20 years.
Carbon is one such atom.
https://old.reddit.com/r/energy/comments/22gryt/seawater_pow...
https://old.reddit.com/r/dredmorbius/comments/22k71x/us_navy...
Fischer-Tropsh (creating synthetic analogues of petrol, kerosene/jet fuel, or diesel), or Sabatier process (creating alcohol) are two options.
Yes, it's a net energy sink. You're trading cheap surplus electricity for high-density, long-term storable, stable, dispatchable thermal fuel.
You can store hydrogen in underground salt caverns. We could store years' worth of energy demand.