We've had this discussion here on lemmy a few days ago: practically all electricity generation is by making turbines spin.
Hydropower means river makes turbine spin.
Wind power means wind makes turbine spin.
Coal/gas power means combustion makes turbine spin.
Nuclear means hot steam makes turbine spin.
However, that doesn't mean that all electricity sources are spinny things.
ironically, large grid tie systems are starting to "emulate" the spinning mass behavior of turbine generators, since there's an exponential failure issue waiting to crop up if you aren't careful, as texas has already learned, a very significant part of your solar generation can just, go offline, if it decides grid conditions aren't suitable, which can lead to LARGE drops in power production and frequency, which is likely to kill even more generation.
So the solution is to make it emulate the physical mass tied to a turbine, or at least, more generously provide power in fault like conditions, to prevent this sort of exponential breakdown of the grid. You could of course, use a large spinning flywheel to regulate grid frequency, as is being used in a few places right now. I'm not sure how popular that is, outside of wind energy. It's likely to get more popular though.
weird little side tangent, but the frequency of electricity on the grid is essentially directly tied to the rotational speed of all turbines currently on the grid, meaning there is a very large inertia in the grid frequency, it's weird to think about, but makes perfect sense, and it provides for an interesting problem to solve at large scales like this.
Batteries are really fucking cool btw, the fact that you can just chemically store electricity, and then use it, is really fucking crazy. The fact that it's the most accessible technology is also insane to me. But maybe it's just the adoption being the way it is.
Also, solar trackers are a big deal for large farms when you start to scale above residential. Those trackers physically moving the panels to optimize generation are moving pieces.
I think people underestimate the value of intertia in power generation. I liken it to the way capacitors regulate voltage changes or coilovers absorb bumps and vibrations.
The inertia of the generators connected to the grid helps stabilize frequency changes caused by blackouts, power plant issues, etc. by resisting and thereby slowing down frequency decline. It buys time for grid operators to find a way to balance loads in a way that doesn't weaken or disable the grid as a whole.
Here's a great NREL report explaining how this all works, and what other systems we use to stabilize grid frequency.
I think it's note-worthy that while the list is long, only 3 of them are practical to supply/regulate electricity on a large/industrial scale: solar, spinny things, and acid batteries.
We use all three of them in today's and in the future's electricity network.
Producing acid batteries, or any batteries isn't power generation. It's turning chemical potential (which was generally produced in an energy-consuming process) into a storage device for electrical potential.
Induction is just changing the properties of your electricity, not generation.
Other examples of solid state electronic devices are the microprocessor chip, LED lamp, solar cell, charge coupled device (CCD) image sensor used in cameras, and semiconductor laser.
So. When I was in my junior year of college, the dorm I lived in was built more like a high occupancy apartment rather than a college dorm room, it had a living room and a kitchenette. No built-in stove but we were allowed to have a hot plate, so I went to K-Mart and bought a double burner one.
For some reason, one of my roommates had a cereal bowl that was in the shape of a saucepan. It was made of plastic, but it was black and had a handle. One day I walk into the apartment to an ungodly chemical smell and exactly the image above.
Probably the plastic "pan" was a children's toy that made its way into an alternate use. I probably still have a few lying around from the toddler days.
There's also that one guy who touched the hot part and is now using that tiny blister to conduct a decades-long smear campaign against the kinds of pots used at Three Mile Island.
I agree. We should deal with nuclear waste in the same way we handle the waste from other fossil fuels: by spreading it over the entire planet in a thin, even coating so that everyone is equally affected!
It is not the top one in the typical usage of the word "nuclear energy." Sure, it is nuclear energy, but that normally refers to electrical infrastructure, not nuclear weapons. Nuclear electricity is pretty much always just heating water up in a safe and controlled manner, and using that to spin a turbine.
hydro works in the exact same way, just with water instead of steam, solar works using PV technology, so it's fairly novel.
And wind is basically the same thing, just using the air, instead of steam.
It's all mechanically the same at the end of the day, excluding solar. The primary difference is that we don't burn fuel for heat to make steam, we use potential, or kinetic energy from our environment instead.
Also to be clear, if we're being pedantic and nitpicky, when i say most i mean percent of production. The vast majority of production globally is through coal, oil, and natural gas. All using thermal processes. And some nuclear, though not as much as solar/wind though.
If it hasn't been already said: the issue is public perception. If you ask any American in the street what they relate to nuclear power the majority will tell you: Chorynobyl.
Even though anyone that's looked up anything knows that technology is leaps ahead of that disaster, that's the fear mongering that everyone jumps to.
anywhere from thousands of years to millions of years
only in a strictly thermal reactor environment, if you're using a fast reactor, something like the SSR that is currently being worked on in canada, it can both burn waste, and reduce it's lifespan to a much more reasonable length.
As always, development is the problem, if we had more energy being focused on this, we would be farther along, but such is scientific development.
Yeah, but keep in mind that nuclear waste has some time left to do damage. It’s not like a hydro plant is going to come back and haunt you in a 100 years from now. That’s what worries me with nuclear, aside from the fact that it’s too slow to build to be a solution to the climate crisis.
Solar, wind and hydro should be top priority in my opinion.
Edit: Want to add energy storage to top prio as well, as that is needed to balance the grid.
TMI was entirely a skill issue, and didn't even release any significant radiation as far as we can tell. Didn't even breakthrough the PCV, so this probably shouldn't even be on the list.
chernobyl was a bad design, and a skill issue, plus a few other skill issues.
the runit dome was from atomic bomb testing right? Not even real nuclear power, it may have been a fission bomb, but i'm not looking into it far enough. Weird that you don't mention nagasaki or hiroshima in that case.
the hanford site, i'm not familiar with, but im guessing this is a development plant? And probably just procedural skill issues? There have been a number of smaller accidents, most of which are due to people being stupid.
I mean, there's barely any difference between the heating of the earth's mantle, i.e. geothermal, to the heating by fission. We are just kind of doing the process manually on the surface of the planet where a tiny mistake will cover it in contamination.