Hate to break it to you, but you’re intending to work in Rust or Go, immutable distros are the wrong place to be unless they center on that. Switch to something else that doesn’t have hurdles.

Similar chipset, try this: https://www.amirootyet.com/post/how-to-get-wifi-to-work-after/

Broadcom chips aren’t open source, and depending on which model of Mac you have, YMMV. Can you at least lock down the year or model number?

Huh…

Other comments are just giving you solutions without explaining the actual underlying question you’re asking, so let me break it down a bit:

Linux is the underlying system that runs everything, and the desktop you’re seeing is just a Desktop Environment (aka: DE) running on top of that. Mint has its own DE called Cinnamon. The other big DE’s are Gnome and KDE.

The user experience of how each DE handles mounting other drives varies, sometimes depending on how they are specifically setting defaults for each distro. For instance, Gnome and KDE will proactively mount other drives which you can access in their respective file explorers by default, while Cinnamon does not AFAIK. For things like removable storage, all of them should work as Windows does and be automatic.

If you really like Cinnamon and want to stick with Mint, look into a search like “cinnamon automount windows volume” or similar. There’s tons of instructions out there, and some responses here have links as well.

Otherwise, maybe try a LiveUSB of Fedora for a solid Gnome desktop, or KDE Neon for a KDE desktop and see if either of those appeals to you.

That’ll work just fine. If you just want a test run, a LiveUSB is pretty sufficient for more things.

Another startup claiming a breakthrough on old tech. This isn’t anything new, and barely an improvement on elctrolyzers from the 50’s.

The same problem exists with this as any other seawater extraction process: there will be byproducts that need to be disposed of. Desalinization creates a toxic brine, and this process will create a solution of seawater minus character components. This process takes seawater and removes Magnesium Chloride, keeps it in a molten state, then removes the magnesium. So you’re left with Magnesium, Magnesium Oxide as the useful byproducts, BUT…also Mercury, Lead, Sulphurous waste…etc.

While they say they intend to run “net-zero emissions”, I believe they are strictly speaking about the energy needed to run the machines, NOT the toxic byproducts that are left behind. Desalinization projects all over the world have cause ecological disasters in their attempts to manage and deal with the waste products leftover, and this will be no different unless they also plan to process every seawater component down to its component form and use or sequester that…somehow.

The resume message suggests otherwise…

Are you POSITIVE your BIOS supports S3 and not S4?

…and???

It almost looks like an old BeOS theme maybe? This Haiku one for GTK isn’t too far off, so maybe you can start with this and alter it how you like: https://github.com/B00merang-Project/Haiku

I saw your comment that you don’t have swap enabled, and you’re trying to hibernate. This won’t work. Create a swapfile equal to your memory size.

https://linuxize.com/post/create-a-linux-swap-file/

It didn’t format as a logical drive, a logical drive was created then partitioned, then formatted with whatever filesystem you chose. A logical drive is just an easy to “handle” or representation of storage that makes it easy to work with instead of having to directly address many devices at once. It’s like a grouping of things.

That being said, you just need to expand the partition to use all available space: https://www.redhat.com/en/blog/resize-lvm-simple

I will tell this to anyone on any OS who ends up here without a free printer: Brother printers.

Every damn time. Work flawlessly on any platform, and last for decades. I’ve still got a Brother laser from 2002 that works perfectly fine, and I’ve never had to perform any major work on it.

Check dmesg and system logs and post relevant entries.

Examples here: https://github.com/Alexays/Waybar/wiki/Configuration

There are no “defaults”. If it’s just media, and you don’t care who can read it: chmod -R 755 /your/directory

That sets your user to full access, and all other users to read and execute whatever files are in there. That’s as close to a default as you can get. Switch it to 744 for strict read-only for other users aside from yourself.

Steam Deck is a Linux desktop.

Alas, this game is currently “borked”. Some people say switch to Proton Experimental. https://www.protondb.com/app/2918300

I guess, but not simply. Probably easier to look it up, but I’ll take a stab at it:

The CPU is informed how much memory is available to use, and the address spaces across the memory provisioned when it is assigned work, so it “decides” what it’s supposed to work with by using its own logic gates.

The memory controller has a logic system of its own that decides how read/write work happens when it’s assigned work.

Between the two there are no gates that measure how much traffic is flowing between them. This is just a bus that passes signals back and forth (caching gets more complex so I’ll skip that).

So the signals passed back and forth between these two pieces of hardware doesn’t have a place where it can measure exactly what is passed back and forth, it just exists to provide a pathway to allow the signals.

ECC memory passes parity bits with its payload, sort of like a TCP conversation, so it’s controller knows what is passed to it and if the expected payload is intact. Because this exists on the memory controller, you can read those values and find out what is passing through it to measure what OP is sort of asking about (though it’s so fast it wouldn’t make sense without sanitizing the data into a normalized measure somehow).

Non-ECC memory controllers don’t really track the flow of information in and out, the same way your CPU can’t track that as well until it hits a register. CPU and Memory use clock speed regulated by voltage to pass data back and forth with no gates between, so there isn’t a way to directly monitor and get feedback about the flow of information until it hits a destination that does report back or gatekeep for whatever it is (performance registers for example).

You can view the frequency of your running memory, which should give you an idea of the speed at which things will pass in/out, but that’s about all you’re going to get unless you find a utility that pulls a bunch of information from /proc and consolidates it all, but even then I believe you’d only be seeing an approximation and not live feedback about what’s passing through memory.

Not even a fucking chance.