My top picks currently for distros that support KDE are the following:

• ArchLinux
• Debian
• Fedora KDE
• OpenSUSE Leap
• OpenSUSE Tumbleweed

For your use case (Nvidia, Wayland preferential), the better choices among these will likely be the rolling releases (OpenSUSE Tumbleweed, ArchLinux) or 6 month point releases (Fedora KDE). Debian and OpenSUSE Leap are solid choices for LTS, but given the state of Nvidia and Wayland, it’s best to use the latest releases of KDE and the proprietary Nvidia drivers. If you switch GPUs to AMD or Intel in the future, you should have no issues using any of the distros listed.

To put points against some of the distros your contending list:

Many of the direct Ubuntu-based distros tend to have a certain level of lesser quality in packages (such as many releases never end up pushing bugfix patches that get patched in many other distros including Debian). Additionally, there is no guarantee that Ubuntu-derivative distros that don’t directly source from Ubuntu software repos may have breakages when using PPA repos or developer-distributed .deb packages.

I’m sure you’re aware of this bit as well, but the mainline Canonical-maintained distros (Ubuntu, Xubuntu, Kubuntu, etc.) rely heavily on Snap: a containerized application platform similar to flatpak, but with no freedom of choice of package sourcing. Every Snap package will be pulled from Canonical’s proprietary publishing platform. A lot of derivative distros (Linux Mint, Pop! OS, etc.) end up stripping out Snap from default installations and removing package redirects, recommends for Snap.

For Arch derivatives (Endeavour, Manjaro, etc.), don’t expect to be able to use AUR packages without issues unless your derivative directly sources from the ArchLinux repos. Many AUR packages explicitly expect the latest packages, which some derivatives defer updates to, causing breakages.

In particular, Manjaro has a track record of poor maintenance and questionable choices (recommending users to roll back system clocks after forgetting to renew TLS certs, shipping outright broken versions of Asahi Linux in order to tout support for Apple hardware, DDOS’ing the AUR, etc.)

Debian Sid (the unstable (rolling) variant Debian) is an option, but it’s really not recommended for end-use, and mostly only for testing.

To put points against some of the distros on my recommendation list:

Fedora explicitly only ships with FOSS software. This does mean that initial NVidia driver setup is more involved compared to most distros. The process shortlist is initial boot with nomodeset, install rpmfusion repos, and then install the NVidia drivers from RPMFusion-nonfree. Once that is done, the proprietary drivers should be installed and all configurations necessary should already be made. Simply rebooting should allow using the system accordingly.

Installing ArchLinux specifically expects some knowledge of the inner workings of a Linux system. Modern Arch live images do come with Archinstall: a utility that assists in getting an installation from configuration options. In general, an Arch install is a more involved process. ArchLinux also expects that you read from the news page before pushing updates to your system. While this kind of practice can also be true for many other rolling systems/point releases between feature upgrades, it is fairly imperative that due diligence and backups are taken on Arch systems when updating.

For the most part, you won’t be able to escape Unix-like paradigms when using Unix-like systems. Notably, users have to exist in some form. You don’t necessarily need to give them passwords for the frontend signage, but they need to exist. The shortlist of setting up cage would be:

• install your favorite server distro of choice
• Have a rootless, sudoless user available to use
• install cage and your app(s) of choice
• Add autologin for the user and edit the user’s BASH profile to autolaunch cage
• Attend to any other backend setup (remote access, only allowing tty1 to exist, etc.)
• reboot

It’s not quite a few clicks, but this can in contrast also be fully automated trivially if it’s something you need to setup more than once.

In what way does Windows fulfill a ‘kiosk’ display mode better than Linux for you? Are you looking for permanent installations or just temporary lockdown to a single application. One of the more modern and straightforward methods currently is using cage.

Cage lets you spawn a Wayland compositor from command-line (or via system service, obviously) that launches either a singular or multiple exclusively-fullscreen applications.

What hardware, audio interface, and sound server is in use for your 5.1 Surround setup?

I am under the presumption that the current state of the Intel Arc Alchemist GPUs will likely remain about the same under Mesa even if support is dropped today by Intel. Am I mistaken in the amount of continued driver effort Intel has been putting in for the Mesa GPU drivers?

Obviously if this is true, one should probably remain wary of upcoming Battlemage GPUs.

A key list of compatible/incompatible components to look for:

• GPU
• Network Interfaces (Ethernet and Wi-Fi)
• Audio Interfaces (not that much of an issue anymore)
• Disks
• Motherboards
• CPU (excluding x86 ecosystem)
• Peripherals

The explanations for this are pretty long, but are meant to be fairly exhaustive in order to catch most if any pitfalls one could possibly encounter.

GPU:

A big one is the choice between AMD, Intel, and NVidia. I am going to leave out Intel for compute as I know little about the state it is in. For desktop and gaming usage, go with AMD or Intel. NVidia is better than it used to be, but still lags behind in proper Wayland support and the lack of in-tree kernel drivers still makes it more cumbersome to install and update on many distros whereas using an AMD or Intel GPU is fairly effortless.

For compute, NVidia is still the optimal choice for Blender, Resolve, and LLM. Though that isn’t to say that modern AMD cards don’t work with these tasks. For Blender and Davinci Resolve, you can get them to use RDNA+ AMD cards through ROCm + HIP, without requiring the proprietary AMD drivers. For resolve especially, there is some serious setup involved, but is made easier through this flatpak for resolve and this flatpak for rocm runtime. ML tasks depend on the software used. For instance, Pytorch has alternate versions that can make use of ROCm instead of CUDA. Tools depending on Pytorch will often have you change the Pytorch source or you may have to manually patch in the ROCm Pytorch for the tool to work correctly on an AMD card.

Additionally, I don’t have performance benchmarks, but I would have to guess all of these tasks aren’t as performant if compared to closely equivalent NVidia hardware currently.

Network Interfaces:

One section of hardware I don’t see brought up much is NICs (including the ones on the motherboard). Not all NICs play as nicely as others. Typically I will recommend getting Ethernet and Wireless network interfaces from Intel and Qualcomm over others like Realtek, Broadcom, Ralink/Mediatek. Many Realtek and Mediatek NICs are hit-or-miss and a majority of Broadcom NICs I have seen are just garbage. I have not tested AMD+Mediatek’s collaboration Wi-Fi cards so I can’t say how well they work.

Bluetooth also generally sits into this category as well. Bluetooth provided by a reputable PCIe/M.2 wireless card is often much more reliable than most of the Realtek, Broadcom, Mediatek USB dongles.

Audio Interfaces:

This one isn’t as much of a problem as it used to be. For a lot of cards that worked but had many quirks using PulseAudio (a wide variety of Realtek on-board chipsets mainly), they tend to work just fine with Pipewire. For external audio interfaces: if it is compliant to spec, it likely works just fine. Avoid those that require proprietary drivers to function.

Disks:

Hard drives and SSDs are mostly fine. I would personally avoid general cheap-quality SSDs and those manufactured by Samsung. A lot of various SATA drives have various issues, though I haven’t seen many new products from reputable companies actually releasing with broken behavior as documented by the kernel. If you wish to take a detailed look of devices the kernel has restricted broken functionality on, here is the list.

Additionally, drives may be one component beside the motherboard where you might actually see firmware updates for the product. Many vendors only release EXE files for Windows to update device firmware, but many nicer vendors actually publish to the LVFS. You can search if a vendor/device is supplied firmware here.

Motherboards:

In particular, motherboards are included mainly because they have audio chipsets and network interfaces soldered and/or socketed to them. Like disks, motherboards may or may not have firmware updates available in LVFS. However, most motherboard manufacturers allow for updating the BIOS via USB stick. Some laptops I have seen only publish EXE files to do so. For most desktop boards however, one should be able to always update the motherboard BIOS fine from a Linux PC.

Some motherboards have quirky Secure Boot behavior that denies them being able to work on a Linux machine. Additionally some boards (mostly on laptops again) have either broken or adjustable power state modes. Those with adjustable allow for switching between Windows and standard-compliant modes.

Besides getting a Framework laptop ‘Chromebook edition’, I don’t think there is much you will find for modern boards supporting coreboot or libreboot.

CPUs:

For your use case, this doesn’t really matter. Pretty much every modern x86 CPU will work fine on Linux. One only has to hunt for device support if you are running on ARM or RiscV. Not every kernel supports every ARM or RiscV CPU or SoC.

Peripherals:

Obviously one of the biggest factors for many new users switching to Linux is their existing peripherals that require proprietary software on Windows missing functionality or not working on Linux. Some peripherals have been reverse engineered to work on Linux (see Piper, ckb-next, OpenRazer, StreamController, OpenRGB).

Some peripherals like printers may just not work on Linux or may even work better than they ever did on Windows. For problematic printers, there is a helpful megalist on ArchWiki.

For any other peripherals, it’s best to just do a quick search to see if anyone else has used it and if problems have occurred.

A couple things to check using a quick bash script:

#!/usr/bin/env bash

cd /sys/class/power_supply/BAT*/
echo "Charge cycles: $(cat cycle_count)"
printf '%s\0' 'Health: ' &
bc <<< "scale=3; ($(cat charge_full) / $(cat charge_full_design)) * 100"

That should print out the wear cycles the battery has endured and its reported capacity over design capacity. If your battery has less than 1000 cycles and the health reported from the battery is less than 80%, it might be best to contact Framework for warranty replacement as the battery is likely defective.

I know ArchLinuxArm (a fork of the ArchLinux project) supports the Hisense C11. It does seem to be a fairly involved procesd, and (potentially?) requires using external media rather than the onboard eMMC storage to boot a Linux system.

Your particular Chromebook contains the same SoC (Rockchip RK3288) as an Asus C201, which Debian has an install guide for. Once again, a fairly involved process and this one may not be guaranteed to work if the C11 has some quirks not present in the C201.

Just took a couple minutes to install and setup the fork to try it out. Turns out there is a flatpak on Flathub under the id dog.unix.cantata.Cantata that looks to be maintained directly by nullobsi. I’ll have to see where rough edges show up, but this fork looks good thus far. A full port from Qt5 -> Qt6 isn’t a trivial amount of effort, so mad respect to everyone working on this ported version.

It was indeed carrier locked, which was why I used it as trade-in value for a phone rather just selling it and later buying a newer phone.

In my case, AT&T sent me a Galaxy Note 9 to replace my Google Pixel XL, which I ended up never using and just used as trade-in value to get a Pixel 5a.

The flatpak documentation has a semi-relevant page on setting up a flatpak repo utilizing gitlab pages and gitlab’s CI runners on a pipeline. Obviously, you’d need to substitute Gitlab Pages for a webserver of your choice and to port the CI logic over to Gitea Actions (ensuring your Gitea instance is setup for it).

A flatpak repo itself is little more than a web server with a related GPG key for checking the signatures of assembled packages. The docs recommend setting up the CI pipeline to run less on-commit to the package repos and more on the lines of checking for available updates on interval, though I imagine other scenarios in a fully-controlled environment such as a selfhosted one might offer some flexibility.

As I am teaching myself right now maintainable selfhost setups using popular apps (admittedly with Kubernetes vs something minimal in functionality like Docker Desktop), there is a lot of complexity involved in getting these services both functional and maintainable while also having to consider the security implications of various setups.

While I agree the concept of self-host is a good thing to advocate, I think the complexity and difficulty involved not just to do it, but to do it right is going to be a straight cliff of a learning curve for those not already technically inclined in databases, networking, and filesystems/block storage.

Honestly, taking the burden of being IT for a reasonable subscription cost for your efforts is a better way to go, especially if the setup allows for expanding your offerings to other members in a localized community.

Alongside many others, I agree that using QEMU through GUI frontends like virt-manager or GNOME Boxes, or even server-focused solutions like Cockpit+VM plugin or Proxmox layered on top of your installation.

I just want to note a decent point against other solutions like VirtualBox or the VMWare products that work on Linux: these solutions that don’t rely on QEMU almost certainly need the user to install out-of-tree kernel modules (that in some cases may also be proprietary). QEMU and its frontends don’t need out-of-tree modules in a majority of distros and can work out of the box with all features (given BIOS configuration of the host and hardware supports them).

I started dual booting Linux after an upgrade to an insider preview of Windows 10 soft-bricked my Windows 7 install. I later stopped booting into Windows and eventually reclaimed the partitions to extend whatever distro was installed at that point when the actual release of Windows 10 decided to attempt automatically upgrading my Windows 7 system, soft-bricking it a second time. 2016 onwards, I haven’t used Windows on my systems outside of occasionally booting LTSC in a VM.

Running the same memory constraints on a 1.18 vanilla instance, most of the stack memory allocation largely comes from ramping the render distance from 12 chunks to 32 chunks. The game only uses ~0.7 GiB memory non-heap at a sane render distance in vanilla whereas ~2.0 GiB at 32 chunks. I did forget the the render distance no longer caps out in vanilla at 16 chunks. Far render distances like 32 chunks will naturally balloon the stack memory size.

For clarification, this is Vanilla, a performance mod Fabric pack, a Fabric content modpack, Forge modpack, etc. that you are launching? If it’s the modpack that you describe needing 8gb of heap memory allocated, I wouldn’t be surprised the java stack memory taking ~2.7 GiB. If it’s plain vanilla, that memory usage does seem excessive.

Depending on version and if modded with content mods, you can easily expect Minecraft to utilize a significant portion memory more than what you give for its heap. Java processes have a statically / dynamically (with bounds) allocated heap from system memory as well as memory used in the stack of the process. Additionally Minecraft might show using more memory in some process monitors due to any external shared libraries being utilized by the application.

My recommendation: don’t allocate more memory to the game than you need to run it without noticeable stutters from garbage collection. If you are running modded Minecraft, one or more mods might be causing stack-related memory leaks (or just being large and complex enough to genuinely require large amounts of memory. We might be able to get a better picture if you shared your launch arguments, game version, total system memory, memory used by the game in the process monitor you are using (and modlist if applicable).

In general, it’s also a good idea to setup and enable ZRAM and disable Swap if in use.

The VRR problems are specifically related to either monitors not supporting Freesync over HDMI or the user running a monitor expecting HDMI VRR to work on HDMI 2.1 specs (>4k@60hz or equivalent bandwidth negotiation requirements). I would concur a small subset of users is correct for the use-cases where this becomes a problem.

Generally, yes. It’s not nearly as bad as say 2015 but NVidia has a long standing history of being difficult to deal with, and users having to make constant compromises. For instance, NVidia hasn’t had properly working Wayland support on most environments until recently due to the awful flickering that many users experienced. Things like power saving, dual GPU handoff, general OpenGL performance, frame stability and tearing (X.Org), etc. have been either historical and/or current pain points for using NVidia GPUs vs AMD or Intel GPUs.