Published Mar 4, 2026, 2:31 PM EST
Afam's experience in tech publishing dates back to 2018, when he worked for Make Tech Easier. Over the years, he has built a reputation for publishing high-quality guides, reviews, tips, and explainer articles, covering Windows, Linux, and open source tools. His work has been featured on top websites, including Technical Ustad, Windows Report, Guiding Tech, Alphr, and Next of Windows.
He holds a first degree in Computer Science and is a strong advocate for data privacy and security, with several tips, videos, and tutorials on the subject published on the Fuzo Tech YouTube channel.
When he is not working, he loves to spend time with his family, cycling, or tending to his garden.
A lot of what we see in Windows vs. Linux debates centers around what I like to describe as surface features. These are elements like snapping, theming, and workflow tweaks. There have been great strides in both ecosystems, and Windows 11 particularly has improved virtual desktops and has made Snap layouts smarter.
However, compared with Linux, there are still concrete architectural differences. Windows is an integrated environment, and Linux has a modular design that allows you to take out and replace layers. This makes it hard for Windows to match all the core capabilities that Linux offers, and I'll point out the most significant ones.
True desktop environment interchangeability
Linux's full shell replacement
On Linux, I can have a computer with the GNOME, KDE Plasma and Xfce desktop environments installed, and choose my desired option when I log in. Just so you get the full extent of what this means, none of these are merely themes. Windows already has a lot of theme options. For example, you can make Windows 11 look like Windows 7.
These Linux desktop environments are unique, representing totally different philosophies, shipping with their own window manager, compositor, panels, workflow logic, and configuration models. Linux gives you this level of variety sitting on top of the same operating system without any hacks.
On one of my Windows computers, I recently installed a program called Cairo Shell. This was one of the best attempts I've made at changing the Windows desktop environment. It replaced the default Windows shell, Explorer, with something new, but in doing this, it had to alter the registry. This means editing certain values tied to core Windows components. This moves you outside regular, supported system behavior and can cause unpredictable system actions.
Windows sets the boundaries for customization, and anything outside that can be catastrophic. On Linux, your customizations can replace the boundaries.
Architectural tiling and dynamic workspaces
Tiling is additive in Windows
Credit: Roine Bertelson/MakeUseOf
The Virtual Desktop and Snap layouts are two Windows features I use a lot. But these are only added on top of the traditional floating-window model, which remains the base model. When you contrast this with Linux, where tiling can be the model, you start to see the real difference.
I have used Linux window managers like i3 and Sway extensively. They basically treat tiling as a default state where every window has to obey certain rules. With these tools, I can make my browser automatically open on workspace two. The customization options are almost limitless; my editor may always tile left, terminals may launch floating, and the best part is I can have dynamic workspaces that are destroyed once empty.
However, aside from third-party options, mainstream Linux desktop environments ship with their native tiling systems. KDE Plasma comes with one, and in GNOME's workflow, you get keyboard-driven workspace movement. The best implementation you get on Windows is PowerToys FancyZones, and even though it's a great option, once again, it's only an overlay added on top of Explorer and DWM.
Atomic system updates with reliable rollback
Transactional updates change system reliability
Windows Update has improved, but System Restore still doesn't represent a total system snapshot. You don't recover the exact previous system state when you roll back an update. Also, it's not a straightforward process to figure out what was reverted.
The Linux approach is fundamentally different, with several modern distros treating the OS as an immutable image. Here, directories that make up the OS are mounted as read-only. New updates deploy new snapshots without modifying the current system. This architecture makes it possible to select the previous stable system from the bootloader during a system reboot. It eliminates the need to guess which components failed. Most people on Linux still do not run atomic distros, but what's important is that it's a core desktop option that works.
Replaceable display server and compositor layer
Wayland’s modular model vs. Windows DWM
On Windows, how animations, window behavior, and transparency are rendered on the screen is determined by Desktop Window Manager (DWM). DWM is a fixed infrastructure that you do not choose and can't replace. It's simply offered to you with Windows, and you can't change how it behaves.
On Linux, the responsibility of rendering is separated into distinct layers, with the compositor doing the actual rendering work. Under Wayland, there is a protocol that defines the way an application can communicate with the compositor. However, you can replace the current compositor. Even though KWin ships with KDE Plasma and Mutter ships with GNOME, I can choose to run independent compositors like Sway or Hyprland. Doing this will redefine animation logic, window rules, and input behavior.
Linux's architecture has made it possible for Hyprland to become widely adopted, even though it was built by an independent developer.
Persistent TTY layer and GUI independence
Linux desktops can survive graphical failure without reboot
When we talk about the operating system, we often are referring to certain elements like the windows, the taskbar, and the mouse cursor. However, in Linux, this is not the case. These elements, the graphical desktop, are only layered on the OS, and the OS doesn't actually need them to function. By pressing Ctrl + Alt + F3, you are instantly dropped into a TTY (text console).
This design means that even when there is a desktop freeze, a reboot isn't necessary. Once you enter the TTY layer, you can restart your display manager and fix any underlying issues. This clean separation ensures that GUI failures do not feel as frustrating.
This is a different story on Windows, where user sessions and the graphical environment are practically inseparable. This leaves hard resets as the more common and practical fixes whenever you face a DWM crash that an automatic recovery doesn't fix. The graphical layer is an integrated environment on Windows, but in Linux, it's just one of the replaceable layers.
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The real significance of these differences
At this point, it's clear that Linux is simply better at some things. However, the goal isn't to say one OS is the superior one. In fact, I have recently started abandoning the concept of a daily driver, as I seem to have an almost equal need for Windows and Linux. However, if you have had multiple years of breaking and fixing both operating systems, you realize that the structural control of Linux gives you a solid advantage.
That said, what Windows offers is structured customization. Linux makes swapping layers straightforward, whereas Windows allows tuning within certain limits. Choosing one over the other usually depends on the kind of ownership you prefer.