Artix Linux
Artix Linux is a rolling-release Linux distribution forked from Arch Linux in 2017, designed to provide users with freedom from the systemd init system by supporting alternative init and service managers such as OpenRC, runit, s6, and dinit.[1][2] It maintains Arch Linux's core philosophy of simplicity, modernity, and user-centric design while emphasizing lightweight operation, security, and stability for the PID 1 process.[3][1] Developed by a global community of contributors, Artix Linux originated as a response to the growing adoption of systemd in mainstream distributions, aiming to preserve traditional Unix init principles and offer customizable system initialization options.[2][1] The project uses the pacman package manager and largely mirrors Arch's repositories, but it maintains a separate "galaxy" repository for packages adapted to non-systemd environments, including legacy GTK2 support for certain desktop environments.[1][3] Artix Linux offers installation media in base, graphical, and community editions to accommodate different user expertise levels.[4] The base edition provides a minimal TTY-based installer for advanced users, allowing selection of init systems during setup.[4] Graphical editions include preconfigured desktops like LXQt, LXDE, MATE, Cinnamon, KDE Plasma, and XFCE, utilizing the Calamares installer for easier setup.[4] Community editions feature fully prepared environments, such as GTK-based (XFCE and MATE) and Qt-based (KDE Plasma) flavors, complete with graphical package management tools.[4] Notably, support for GNOME was discontinued due to its heavy reliance on systemd components.[3] The distribution prioritizes ongoing updates through weekly ISO builds and a backup package archive to ensure reliability and accessibility.[5] Community resources include an official forum, IRC channels, and a wiki for migration guides from Arch or other distributions, fostering active development and user support.[2][6]Overview
Origins and Development
Artix Linux was founded in 2017 as a fork and continuation of the Arch-OpenRC and Manjaro-OpenRC projects, which began in 2012, aimed at providing a systemd-free variant of Arch Linux that prioritizes alternative init systems for enhanced simplicity and stability.[7] The project emerged from the merger of these earlier efforts, which had sought to adapt Arch-based distributions to use OpenRC instead of systemd, addressing concerns over the latter's complexity and resource usage. Initial development was led by contributors from the Arch Linux community, with the Artix Development Team taking over leadership to maintain and expand the distribution as an independent endeavor starting in July 2017.[8][1] Key milestones marked the project's maturation, beginning with the first ISO releases in 2017, which included flavors for both OpenRC and runit init systems after extensive testing.[5] In 2020, Artix introduced official support for the s6 init system, followed by dinit in November 2021, enabling users greater flexibility in system initialization without systemd dependencies.[9] The repository ecosystem grew significantly, expanding from an initial approximately 5,000 packages in its early years to about 9,200 by 2025, reflecting ongoing efforts to mirror and adapt Arch's vast software availability while ensuring compatibility with non-systemd environments.[10] Recent developments underscore Artix's commitment to its core principles amid evolving upstream challenges. On March 19, 2025, the project announced the 2025-03 stable ISO release, featuring updated installation media with support for the latest kernels and desktop environments compatible with its init options.[11] Later that year, in September 2025, the Artix team decided to drop official support for the GNOME desktop environment, citing its increasing mandatory dependencies on systemd components, such as those introduced in GNOME 49, which rendered full compatibility unfeasible without compromising the distribution's systemd-free ethos.[12][13] This decision highlighted the ongoing tensions between Artix's design philosophy and upstream software trends, while standalone GNOME applications continue to be packaged where possible.Core Philosophy
Artix Linux embodies a philosophy centered on the use of "real init systems" for process ID 1 (PID1), prioritizing simplicity, security, and stability in system initialization. This approach explicitly rejects systemd, which is viewed as overly complex and bloated, introducing unnecessary dependencies that compromise these core values.[3] A key tenet is that PID1 must remain simple, secure, and stable, serving as the foundational principle that guides all design decisions and distinguishes Artix from distributions reliant on more expansive init frameworks. By focusing on lightweight init mechanisms, Artix ensures efficient boot processes and reduced resource overhead, aligning with a commitment to minimalism inherited from its Arch Linux base.[3] The distribution upholds user choice by supporting multiple alternative init systems—such as OpenRC, runit, s6, and dinit—while preserving Arch's rolling-release model and emphasis on customization. This flexibility caters to advanced users seeking non-systemd environments without sacrificing performance or stability. Artix originated in response to the adoption of systemd in Arch Linux, reinforcing its dedication to init alternatives as a philosophical imperative.[3] Ultimately, the goals of Artix Linux revolve around delivering a high-performance, lightweight operating system that empowers users with control over essential components, fostering an environment optimized for efficiency and reliability.[3]Technical Features
Init Systems
Artix Linux provides users with multiple init system choices to replace systemd, emphasizing simplicity and modularity. The primary options include OpenRC, which serves as the default for most installations and operates as a dependency-based system using shell scripts for service definitions in/etc/init.d/; runit, a lightweight init focused on process supervision through tools like runsv and svlogd for logging; s6, an advanced supervision suite that ensures service reliability via components such as s6-supervise and s6-svscan; and dinit, a service supervisor with dependency support that can act as the init system using dinitctl for service management.[14][15][16][17][18]
These init systems diverge from systemd's architecture by employing distinct boot processes and service management mechanisms. OpenRC utilizes runlevels (e.g., default for normal operation) and manages services via rc-update commands to add, remove, or query dependencies, such as rc-update add dbus default for enabling the D-Bus service. Runit handles services through the sv utility for operations like starting (sv up servicename), stopping (sv down servicename), and checking status, with services linked in /run/runit/service and dependencies defined in run scripts. S6 employs s6-rc for compiling and controlling service databases, s6-svc for sending commands to supervised processes, and s6-linux-init for mounting filesystems and initializing the system, prioritizing sequential supervision over parallel activation. Dinit manages services via configuration files in /etc/dinit.d/ and supports dependencies for ordered startup. This approach aligns with Artix's philosophy of avoiding systemd's complexity while maintaining boot functionality.[14][15][16][17][19]
Artix ensures compatibility with upstream Arch Linux packages by maintaining dedicated repositories that apply patches to resolve systemd-specific dependencies, allowing seamless integration without requiring systemd. For instance, elogind is provided as a standalone implementation of logind for user session and power management, installable alongside any supported init via packages like elogind-openrc or elogind-runit, enabling features such as consolekit alternatives in desktop environments.[20][19][18]
The selected init systems offer performance advantages, including shorter boot times and reduced resource overhead relative to systemd. OpenRC, for example, typically achieves boot times of 5-10 seconds on standard hardware with an SSD, as observed in community benchmarks, while runit and s6 further minimize RAM usage—often under 300 MiB at idle—due to their lightweight designs focused on essential supervision rather than extensive feature sets.
Package Management and Repositories
Artix Linux employs pacman as its primary package manager, which is functionally identical to that used in Arch Linux, enabling the installation, removal, and updating of binary software packages from official repositories.[9] Pacman handles dependency resolution, package signing verification, and system synchronization, ensuring a streamlined experience for users familiar with Arch-based distributions. Binary packages in Artix's repositories are pre-compiled and optimized for the system's init choices, providing ready-to-use software without requiring source builds in most cases.[3] The repository structure in Artix Linux closely mirrors Arch Linux's but is adapted to exclude systemd dependencies, with official repositories taking precedence over any third-party sources in the/etc/pacman.conf configuration file. The core repositories include [system], which replaces Arch's [core] and contains essential base system packages rebuilt without systemd; [world], equivalent to Arch's [extra] for additional essential software; [galaxy], corresponding to Arch's [community] and housing user-contributed packages, legacy software like GTK2 applications (e.g., LXDE components), and items such as archlinux-keyring and LibreOffice; and [lib32] for 32-bit compatibility libraries, akin to Arch's [multilib].[9] These repositories are synchronized with Arch's upstream where possible, but Artix maintainers rebuild or patch packages to ensure compatibility with alternative init systems like OpenRC, runit, or s6. Arch's [extra], [community], and [multilib] can be enabled optionally via the artix-archlinux-support package from [galaxy], but they must be listed after Artix's repositories to avoid conflicts.[9]
To handle potential systemd conflicts, Artix provides patched versions of packages that remove or replace systemd dependencies, such as substituting elogind for session management or adapting services for non-systemd inits.[20] For instance, core utilities and desktop components are modified to eliminate requirements for systemd units, preventing installation errors on Artix systems. Additional repositories like [galaxy-gremlins] support experimental fixes and testing packages as of 2025, containing rebuilt items for ongoing compatibility efforts, such as GTK2-related software during transitions.[21] Users are advised to avoid Arch's [core] repository entirely, as its systemd-reliant packages can break Artix installations.[9]
System updates in Artix Linux follow the standard pacman workflow, with full upgrades performed using the command pacman -Syu to synchronize package databases and install available updates.[9] Security is maintained through keyring management, where packages are signed using GPG keys from the artix-keyring (for Artix-specific packages) and archlinux-keyring (from [galaxy] for broader compatibility), allowing pacman to verify signatures before installation. Mirrorlists for repositories are updated via tools like reflector or manual configuration from official sources, ensuring access to the latest builds.[9] This process supports Artix's rolling-release nature while prioritizing stability for non-systemd environments.[3]
Installation and Configuration
Installation Methods
Artix Linux provides installation images tailored to different init systems, including base variants for OpenRC, runit, s6, and dinit, available for download from the official website.[4] These base ISOs, such as artix-base-openrc-20250407-x86_64.iso (approximately 1008 MB), enable a customized console-based installation and are updated regularly, with weekly testing releases like those dated 2025-11-13 in late 2025.[22][23] Base ISOs are available in stable and weekly/testing variants, with weekly builds providing the latest packages but untested. All images target the x86_64 architecture exclusively, offering a minimal live environment without a graphical desktop for advanced users.[4] The installation begins by booting from the selected ISO using a USB drive or optical media, which loads a command-line live environment.[18] Users must connect to the internet using ConnMan for wireless (pre-installed) or wpa_supplicant with dhcpcd, and dhcpcd for wired connections.[18] Synchronize the system clock by starting the NTP daemon using init-specific commands, such asrc-service ntpd start for OpenRC.[18] Partition the disk using fdisk or cfdisk for manual setup.[18] Partitions are then formatted (e.g., mkfs.ext4 for root) and mounted, followed by bootstrapping the base system with basestrap, an Artix-specific adaptation of pacstrap that installs essential packages including the chosen init system.[18]
After bootstrapping, users generate the fstab file with fstabgen and enter the new system environment using artix-chroot.[18] Within the chroot, timezone and locale are set, a root password is configured, and a user account is created.[18] The init system is finalized based on the ISO variant or by installing corresponding packages (e.g., openrc for OpenRC), with services enabled via init-specific commands like rc-update add default for OpenRC.[18] The bootloader, typically GRUB, is installed and configured, adjusting mkinitcpio hooks to exclude systemd dependencies (e.g., using base, autodetect, modconf, block, filesystems, keyboard, fsck).[18]
In the 2025 releases featuring OpenRC 0.62.2, the live environment may require manual addition of services such as local, localmount, and netmount to the default runlevel using rc-update commands to ensure proper functionality during setup. Package management during installation relies on pacman for resolving dependencies from Artix repositories, ensuring compatibility with the selected init.[18] Upon completion, exiting the chroot and unmounting partitions allows rebooting into the installed system.[18]
Supported Desktop Environments
Artix Linux provides official support for several desktop environments, emphasizing lightweight and configurable options compatible with its non-systemd init systems. The currently supported environments include KDE Plasma, LXDE, LXQt, XFCE, MATE, and Cinnamon, available through preconfigured graphical installation images or post-installation setup.[4][18] KDE Plasma receives full support, including the latest version such as 6.5, where the drkonqi crash handler—requiring systemd—is addressed by advising users to remove the package viapacman -R drkonqi to maintain functionality without systemd dependencies.[5]
In September 2025, Artix Linux discontinued support for GNOME-based desktops due to upstream changes in GNOME 49 that enforce mandatory systemd reliance, rendering previous elogind workarounds insufficient; this decision was announced on the official forums and covered in Linux community reports.[12] Standalone GNOME applications remain packaged, but full desktop sessions are no longer feasible or maintained.[3]
Desktop environments are installed after the base system using the pacman package manager, such as pacman -S plasma-desktop for a minimal KDE Plasma setup or pacman -S xfce4 xfce4-goodies for XFCE; additional applications like kde-applications can be added for KDE.[18] Init-specific configurations are required for display managers, for example enabling SDDM for KDE Plasma via OpenRC services with rc-update add sddm default or equivalent commands for runit and s6.[18]
All supported desktop environments rely on elogind to provide essential logind features like session management and power handling without full systemd implementation, ensuring compatibility across Artix's init choices.[20] This approach aligns with Artix's philosophy of avoiding heavy systemd-dependent applications, favoring environments that perform well on resource-constrained systems.[3]
Release and Maintenance
Rolling Release Model
Artix Linux operates on a rolling-release model, providing users with continuous access to the latest software versions without discrete, versioned releases. This approach mirrors its upstream Arch Linux foundation, where packages are updated incrementally as they become available, ensuring systems remain current with upstream developments. However, Artix maintains independence by rebuilding packages in its repositories to remove systemd dependencies and ensure compatibility with alternative init systems like OpenRC, runit, or s6, often incorporating elogind for session management functionality.[9][3] To support fresh installations, Artix periodically publishes ISO snapshots that capture a stable state of the repositories at specific points, serving as entry points for new users while the core system continues to evolve post-installation. For instance, the 2025-03 ISO was released on March 10, 2025, followed by the 2025-04-07 ISO on October 21, 2025, each including live environments for testing various desktop configurations.[5][11][22] These official snapshots are supplemented by weekly builds for more frequent access, though users are advised to fall back to tested releases if issues arise. Announcements for these ISOs and significant updates are disseminated through the artix-announce mailing list, keeping the community informed of availability and any notes.[5][22] Stability in the rolling-release cycle is achieved through a tiered repository structure, where packages undergo testing in the gremlins branches—such as system-gremlins and world-gremlins—before promotion to the stable repositories like system and world. This process allows developers to identify and resolve potential issues in a controlled environment prior to wider deployment, minimizing disruptions for end users. Once in stable, updates are synced regularly from upstream but verified for Artix-specific adaptations.[9] For users, this model translates to frequent but generally manageable updates, executed via the commandpacman -Syu to synchronize package databases and apply changes, with recommendations to perform them weekly to avoid large, risky accumulations. To mitigate potential breakage from rapid changes, employing rollback mechanisms is advised, such as Timeshift for snapshot-based restores or BTRFS snapshots integrated with tools like grub-btrfs for quick reversion to prior system states. These practices help maintain reliability in an environment where cutting-edge features are prioritized over fixed release cycles.[24]