It shouldn’t be hard to implement the APIs, the problem would be sourcing the models to sit behind them. You can’t just steal them off Windows or you will have Copyright Problems presumably. I guess you could try and train clones on Windows against the Windows model results?

So Copilot Runtime is… Windows bundling a bunch of models like an OCR model and an image generation model, and then giving your program an API to call them.

It sounds like nobody actually understood what you want.

You have a non-ZFS boot drive, and a big ZFS pool, and you want to save an image of the boot drive to the pool, as a backup for the boot drive.

I guess you don’t want to image the drive while booted off it, because that could produce an image that isn’t fully self-consistent. So then the problem is getting at the pool from something other than the system you have.

I think what you need to do is find something else you can boot that supports ZFS. I think the Ubuntu live images will do it. If not, you can try something like re-installing the setup you have, but onto a USB drive.

Then you have to boot to that and zfs import your pool. ZFS is pretty smart so it should just auto-detect the pool structure and where it wants to be mounted, and you can mount it. Don’t do a ZFS feature upgrade on the pool though, or the other system might not understand it. It’s also possible your live kernel might not have a new enough ZFS to understand the features your pool uses, and you might need to find a newer one.

Then once the pool is mounted you should be able to dd your boot drive block device to a file on the pool.

If you can’t get this to work, you can try using a non-ZFS-speaking live Linux and dding your image to somewhere on the network big enough to hold it, which you may or may not have, and then booting the system and copying back from there to the pool.

I don’t know why your friend doesn’t like it. Ask your friend why they don’t like it.

There are a lot of missing steps people don’t really understand yet R.E. how this all amounts to something complicated like “a liver”. But we think that the basic building block of it is that there are gradients of chemical concentration that some cells set up, and then other cells react to the level of the chemical and decide to different things. There’s a famous analogy of the French Flag Model, where the different stripes of the French flag are imagined to emerge from how far you are from the left edge where a “morphogen” chemical is coming from, because cells detect and react to different concentrations of the chemical in different ways.

And the cells do these things because the DNA programs them to do it. Some genes produce proteins that can turn around and bind to the DNA that encodes other genes, and make those other genes produce more or fewer proteins of their own. Proteins can be made so that they bind or unbind DNA in the presence of other proteins, or particular chemicals, or which can function to turn one chemical into another. So you can have little logic circuits made out of genes that measure chemicals and turn other genes on and off. And you can have little memory circuits based on which genes have things bound to them and which ones are currently on or off, so the cells can remember what it is they decided to be. And so the cells are programmed to differentiate into progressively more specific cell types over time depending on what signals they see, with the morphogen gradients or combinations of them allowing the cells to have some idea of where they are in the body.

And the proteins are these little squishy clicky things, like long strings of magnets that will snap into certain shapes, or that can swap between a few shapes. They can be shaped so they fit really nicely against certain shapes of DNA sequence or other proteins, or so that they fit really nicely against small molecules with a piece pushing on the molecule in just the right place to make it easy for an atom to break off the end of it or whatever. And because they live in this weird tiny world where everything is constantly vibrating around and banging against everything else (because of how tiny the volumes get when you shrink the lengths to cell size), this is enough for them to find and stick to the stuff they are shaped to stick to.

Then depending on genetic variation between people, the proteins involved can e.g. have different set points for the concentrations they react to, and that can translate into the threshold between cells deciding to do one thing or another moving around in the body, and in turn translate into people having e.g. a wider or narrower region of their face decide to be a nose.

I think you can keep doing the SMB shares and use an overlay filesystem on top of those to basically stack them on top of each other, so that server1/dir1/file1.txt and server2/dir1/file2.txt and server3/dir1/file3.txt all show up in the same folder. I’m not sure how happy that is when one of the servers just isn’t there though.

Other than that you probably need some kind of fancy FUSE application to fake a filesystem that works the way you want. Maybe some kind of FUES-over-Git-Annex system exists that could do it already?

I wouldn’t really recommend IPFS for this. It’s tough to get it to actually fetch the blocks promptly for files unless you manually convince it to connect to the machine that has them. It doesn’t really solve the shared-drive problem as far as I know (you’d have like several IPNS paths to juggle for the different libraries, and you’d have to have a way to update them when new files were added). Also it won’t do any encryption or privacy: anyone who has seen the same file that you have, and has the IPFS hash of it, will be able to convince you to distribute the file to them (whether you have a license to do so or not).

I think the article is probably right. A software developer should be able to make software to do whatever needs doing. Maybe not good at any given thing, but able to do it. Eventually. Nobody wants a software developer who isn’t themselves Turing-complete.

Will they always do it the Right Way if they spent 10 years learning compiler design and you want them to program an ESP32? Of course not. But if you hired a compiler engineer who cannot teach themself to solve a user’s ESP32-shaped problem, then you have hired a compiler engineer who can be completely incapacitated by a sufficiently leaky abstraction.

Sooner or later when doing any one thing in software development, you are going to run into a problem that requires you to dig into something else that you don’t actually know how to do. The abstraction leaks and suddenly how file handles work or the fact that an ESP32 needs to go to sleep sometimes is now impinging on your compiler design problem and the users are not able to do the things because of it. If you have an expert on whatever the thing is, sure, you call them in and they help you out. But if not, you learn enough to make yourself useful and you hit the problem with research and analytical thinking until it stops bothering the users.

We could end the era of the developer as a specialized caste. Our tools should be powerful enough that they allow people with problems to collaborate on software to solve those problems, without having to let that become their full time job.

The death of the device and the return of the system.

A device is a sealed thing provided on a take it or leave it basis, often designed to oppose the interests of the person using it. Like hybrid corn, a device is infertile by design: you cannot use a device to develop, test, and program more devices.

A system is a curated collection of interchangeable hardware and software parts. Some parts are only compatible with certain other parts, but there is no part that cannot be replaced with an alternative from a different manufacturer. Like heirloom seeds, systems are fertile: systems can be used to design and program both other systems and devices.

A system is a liberatory technology for manipulating information, while a device is a carceral technology for manipulating people.

And it doesn’t cause other problems like outsmarting the brain systems that are supposed to be attaching your intelligence to the interests of your body? Or the people inconveniently stopping you from snorting cocaine constantly until you die? And there’s no level of intelligence you reach where you note that higher levels are unlikely to be any more use to you in achieving your actual goals, versus spending that button-pushing time on other tasks? And all this intelligence is free and doesn’t require any energy input to run in your head? And at some level you become intelligent enough to impart these abilities to your descendants or to just never die? And you reach a level of intelligence where you can fight off the CIA before you reach a level of intelligence where you interest the CIA?

People don’t generally reason about things like “intelligence” as an abstract value from zero to infinity, because we don’t encounter such things very often. What we do encounter is people trying to scam us. If you present someone with something that appears to be a 100% obvious perfect move with absolutely no drawbacks whatsoever, they mostly correctly conclude that they just aren’t smart enough to understand the catch.

Alice is a pretty good 3D programming environment aimed at kids, with little programming blocks to snap together.

You might want to try going back into the archives and pulling out something like MS-DOS and QBasic, or Logo. You can find a good tutorial in book form, and you can get a system that was designed to be programmed offline, with things like local help in the editor instead of behind a Google search, so it should be 100% safe to leave the kid alone with the machine.

Getting stuff onto F-Droid is hard; you have to design for their build system.

Google Play has a thing where if you design for their build system, they will do all the builds and hold the signing keys. So then you don’t have to worry about keeping a signing key safe from various malicious government agencies.

“Excuse me ma’am, please keep doing your cool dance move, I just gotta check something reeeeal quick…”

Because it makes it seem like you are thinking of the people involved first and foremost as objects of biological study, and that you are the kind of person to whom that sort of thinking comes most naturally.

You might want to try Openstack. It is set up for running a multi-tenant cloud.

The crack might not actually be protected by copyright, unless there’s substantial new code added.

They build and set ablaze a giant man! It’s eponymous!

Isn’t unnecessarily lighting stuff on fire kind of the point?

Seems to not be paying off though; having whole communities and instances close is pretty inconvenient.

Why does Lemmy even ship its own image host? There are plenty of places to upload images you want to post that are already good at hosting images, arguably better than pictrs is for some applications. Running your own opens up whole categories of new problems like this that are inessential to running a federated link aggregator. People selfhost Lemmy and turn around and dump the images for “their” image host in S3 anyway.

We should all get out of the image hosting business unless we really want to be there.