And they will be right to do so. The Dems are fully complicit in enabling this.
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That’s the tricky part, innit?
A few good options:
A) Set up your backup/restore procedures immediately after setting up your fresh new system. And then immediately test them to see if you can successfully restore, before you’ve done anything important on the new system that you can’t afford to lose. If the restoration completely fails, no biggie. You just have to start over on setting up your fresh new system.
B) Attempt to restore your backup to a different system, not your primary one. You’ll need a second set of hardware to do that, but if you’ve got the hardware lying around, it’s a great way to test your restore procedure. If you’re upgrading your hardware anyway, it could be a good time to do this test – use your backup restoration procedure to move your data to the new hardware. (As an extra bonus, this doesn’t require any downtime on the primary system.)
C) Simulate a complete hard drive failure and replacement by replacing your primary system’s drive(s) with a blank new one. If the backup restoration fails, you should (fingers crossed) be able to just plug the old hard drive back in and everything will go back to how it was before your test.
D) Have multiple backups and multiple restore plans, and just hope to fuck that at least one of them actually works during your testing.
Option A can only be done if you’re proactive about it and do it at the right time.
Options B and C require extra hardware, but are probably the best choice if you have the hardware or can afford it.
And Option D will always have at least a tiny amount of risk associated with it.
Do you know how to transfer the files back if your OS has completely failed?
Verifying the files are there in your backup is only, like 10% of verifying that it’s a real, usable backup.
The important question is: can you successfully restore those files from the backup? Can you successfully put them back where they’re supposed to be after losing your primary copy?
Is someone in pain here?
Maybe I could recommend touching some grass?
Just because this trans woman is drawn explicitly to make
Futa is not trans. Futa girls were not assigned male at birth. It’s a different thing entirely.
Why would I want to translate it?
My guy, trans women are real,
And furry futa women are not.
“futa” is a slur
Maybe if you’re using it to refer to trans women.
But that’s not what I’m talking about. I’m talking about imaginary furry girls who were either born that way or magicked up a dick somehow.
Progressive in so many ways except when it comes to porn.
What’s so non-progressive about futa furry chicks with massive dicks?
Transmission doesn’t really require any new technology that’s not already in use. Just need to build more of what we already use every day. More high tension power lines, over longer distances, more interconnects between grids, more capacity in those interconnects.
If you really want to go full power on this (and especially if you want your solar power to be continuous generation 24/7) you’ll need to develop a bit of new tech. Well, not so much new tech as just scaling existing tech to be massive. A truly gargantuan transmission line across the Bering Strait could link the two hemispheres into a single worldwide grid. (Though Australia and other more isolated islands might still have to have separate grids and couldn’t take advantage of this as ‘easily’.) If you build that, then you can have a global power grid that the sun is shining on 24 hours a day, so even if solar power was your only power source and even if you had no grid storage capacity, the power grid could still operate all day every day, with that big hemisphere interconnect transmitting power from the day side to the night side, switching direction of flow twice a day.
i read articles about improved battery technology monthly
For grid-level energy storage, we don’t really need any new battery technology. Yes, it might be nice to have cheaper, greener, higher-capacity, more durable batteries, but we don’t need that to make grid-scale storage work. Even our lunky old lead-acid batteries that have been around for over 100 years would do just fine. We just need to build MORE of them. Like, a lot more. (Plus chargers and inverters to change the AC grid power to storable DC and back again.)
But lead-acid batteries have limited life cycles!
They do. But you don’t throw them away when they reach the end of their life cycle – you recycle them. Even completely worn-out and absolutely useless lead-acid batteries can be recycled, recovering 99% of the materials in them. And you can use those materials to build fresh new batteries, likely on a massive scale, running continuously, always recycling the oldest batteries on the grid and shipping out fresh newly made batteries to replace them. Aside from the energy the recycling (and transportation) processes use, it’s pretty much a closed loop system. Recycling and replacing the batteries just becomes a regular maintenance task.
figure out grid scale storage, fusion or build nuclear power
You don’t necessarily need that, actually. Another option is to invest in a larger, wider grid with more interconnects and more long-range transmission capacity.
Maybe the sun isn’t shining and the wind isn’t blowing where you are … but the sun is shining somewhere, and the wind is blowing somewhere. If you can transmit the power from those places to where you are (and vice versa) then you really don’t need nearly as much storage capacity or continuous generation. If you can transmit power from farther away, that can really help even out the random variability in renewable power sources by averaging them out over a much wider area.
Another often-overlooked constant source of renewable energy is geothermal. Geothermal power plants can be extremely green and efficient, and their power capacity basically never changes at all. They’re only viable in certain places that have geothermal hot spots, of course … but once again, you can solve that by increasing long-range transmission capacity. Build massive geothermal plants in the few places where they’re viable, and then transmit that power to all the places where geothermal isn’t viable.
It can also be hazardous for electricians or DIY home repairs if they don’t know about it.
Oh, you think you’re safe because you turned the house’s power off at the main breaker? Forgot about the solar panels backfeeding into the panel – all the circuits are still live!
(Or, even more fun, only half the breakers in the panel are still live, since the solar panels are only feeding into one of the two phases. So maybe you test to make sure the power is off by turning on the lights, and the lights don’t turn on so you think you’re safe. But the power outlets you’re about to work on are on a different circuit, one that’s on the same phase as the solar, so they’re still live. Fun stuff!)
All that’s to say… You should definitely still do home solar if you can. But document it well, and establish ways to disconnect power to ensure safety!
Well, they could be cheaper.
Or the power company – the only one you’re allowed to do business with – could lower their production costs but leave your rates the same, pocketing the difference as profit.





Would you rather have 1 of option A or 1000 of option B?
Kind of depends on what your specific goals are, but 1000 to 1 odds tend to tilt things in option B’s favor.