| So where's the "solar spills" or "wind contamination?" One of these solutions is encumbered by problems of safety, the other capacity. It's easier to scale up capacity than it is to scale safety. If I had to make long term bets, radioactive materials will continue to be radioactive, green capture, storage and transmission will get cheaper and more reliable. Speaking of transmission, that's another huge problem. You can't go plopping powerplants just anywhere, and power generation needs to be somewhat close to those consuming it. Distributed collection and storage helps reduce challenges around transmission infrastructure in low density or hard to travel areas. Consider Puerto Rico, their investments in solar have skyrocketed, especially with the need to rebuild so much infrastructure. They had nuclear, and they were cleaning up contamination for decades after shutting it down. Also part of the issue with power there is transmission. You don't get the efficiency out of tiny boilers to make them cost effective for these folks. I think you're pushing a bit hard for a tech that has a lot of problems and while it could play a role in our future, it's unlikely to be a dominant force. |
At the factories that produce silicon and composites for the windblades.
> One of these solutions is encumbered by problems of safety, the other capacity. It's easier to scale up capacity than it is to scale safety.
So far, no large country has managed to move to 100% carbon-free renewable generation. And I'm not seeing this changing.
> Distributed collection and storage helps reduce challenges around transmission infrastructure in low density or hard to travel areas.
If we're talking about Europe, they are facing the problem of Dunkelflaute - long periods of no wind, no sun, and low temperatures in the middle of the winter. A worst-case once-in-century scenario would require around a _month_ of storage.
So far no technology is even close to that.