I've always been curious why a cost-effective widespread implementation of geothermal energy has never been considered a holy grail of energy production, at least not in the public debate. Much of the discussion is so focussed on nuclear fusion, which seems so much harder and less likely to be reliable.
I was wondering how feasible it would be to reuse abandoned oil pumps for geothermal energy. A closed loop system [1] would probably be the most appropriate, with energy generation by spinning of a turbine by steam that gets recycled. I don't have the expertise and was wondering if someone can share a bit of knowledge with the rest of us.
Instead of drilling deep, there is also an intersting case for storing cheap solar energy as hat in piles of dirts in the summer to power turbines in the winter: https://austinvernon.site/blog/standardthermal.html
That Newberry Crater one is really close to where I live and... it'd be so amazing if it came to fruition. It sounds almost 'too good to be true'.
People across the road from have geothermal, driven by a 1.5m-deep pond right near their house. Their heat never costs more than $100 a month in the winter.
Iceland's hot water was a culture shock to me in 2 ways:
1. The host at our apartment encouraged us to leave the windows cracked and the heat on for good air circulation.
2. The hot water (at the taps) has a sulfer smell, because it's (also) piped geothermal water. My host explained they also had a water heater upstairs in their home because they preferred "heated cold water" over "hot water", which is a funny distinction to those of us who do not have the latter.
Drill baby drill!
Seriously this would be such a dream!
Turns out that the best battery is literally 10 feet away* - and you don't even need to charge it!
*if you want to make steam its a few thousand, but for heating and cooling its literally just 10 feet!
The problem is how do you remove the incumbents. Oil lobby is pretty strong. Imagine what would happen to car lobby once we have teleportation.
It's nuclear fission. It's always been nuclear fission (well, at least since the '50s) and it will continue to be until we commercialize fusion reactors. Everything else is nice to have but it's like NIH syndrome.
It always has been. Our problem is switching over existing infrastructure without asinine complainers ruining the revolution. We can't even declare total victory with LED bulbs over incandescent. The war to have solar plants over more coal is falling back to coal thanks mostly to AI. Pushback on geothermal will arrive, I guarantee it.
at some point we will figure out that because we took some much energy out of earths core that it stops spinning and causes the magnetic field to collapse ;-)
Baseload generation is useless in 2025. It's in the name; it's called "base load", not "base generation".
Base generation was a cost optimization. Planners noticed that load never dropped below a specific level, and that cheapest power was from a plant designed to run 100% of the time rather than one designed to turn on and off frequently. So they could reduce cost by building a mix of base and peaker generation plants.
In 2025, that's no longer the case. The cheapest power is solar & wind, which produces power intermittently. And the next cheapest power is dispatchable.
To take advantage of this cheap intermittent power, we need a way to provide power when the sun isn't shining and the wind isn't blowing. Which is provided by storage and/or peaker plants.
That's what we need. If added non-dispatchable power to that mix than we're displacing cheap solar/wind with more expensive mix, and still not eliminating the need for further storage/peaker plants.
If non-dispatchable power is significantly cheaper than storage and/or peaker power than it's useful in a modern grid. That's not the case in 2025. The next cheapest power is natural gas, and it's dispatchable. If you restrict to clean options, storage & geographical diversity is cheaper than other options. Batteries for short term storage and pumped hydro for long term storage.