For Windows users, WSL (Windows Subsystem for Linux) has become the go-to solution for running Linux directly within Windows. On Mac, a similar solution didn’t really exist until the recent arrival of Container Machine, a mode for Apple’s Container tool. It offers a native, persistent, and integrated Linux experience for Apple Silicon Macs running macOS 26.
Unlike traditional containers, this lightweight virtual machine offers a complete system capable of starting services while sharing the home directory between the Mac and Linux. The result? A flexible environment, ideal for development or bash scripting.
Let’s discover what distinguishes container machines, how they work in practice, and why they are seeing the emergence of a new way to use Linux on Mac.
container machine: a new era for native Linux on Apple Silicon Mac
Container machine is a new feature of Apple’s open-source container tool. It doesn’t just launch a disposable container, but creates a persistent machine with a complete Linux system.
The main advantage is the ability to maintain state between sessions. You can install packages, start services, and modify your environment at will. It’s much closer to a true Linux system than a typical application container.
From a technical standpoint, this mode starts an init system within the image, often systemd, and your macOS $HOME is mounted on the machine. The code you edit on macOS can then be used directly under Linux, without tedious duplication.
Striking similarities with the Windows Subsystem for Linux
For administrators and developers familiar with WSL under Windows, the comparison is natural. Both offer a true Linux kernel in a lightweight VM.
File system integration is another crucial point: under WSL you access your Windows disks, here under container machine, the macOS user directory is shared in read-write.
You can launch real Linux services (systemd supported on adapted images), a crucial flexibility for testing complex scenarios without leaving macOS.
How to deploy a machine container and increase productivity
Prerequisites: a Mac equipped with an Apple Silicon chip, macOS 26 installed, and the container tool configured with its service running (container system start). Once these steps are completed, creation is simple.
We start from a compatible init Linux image (example: alpine:latest or a modified Ubuntu). For example:
container machine create alpine:latest –name devbox
With this machine running, a simple “container machine run -n devbox” opens a shell under your user, with direct access to $HOME macOS.
Share your files between macOS and Linux painlessly
The key advantage is the complete transparency of file sharing. Rather than exchanging files via Docker volumes or copies, your Linux environment directly uses the Mac’s home directory.
Suppose you’re developing a script for a Linux server, but macOS uses its own BSD versions of utilities. Testing locally often leads to sneaky errors.
With container machine, this script runs under a real Linux, watching for discrepancies related to GNU tools, without leaving the comfort of your macOS editor.
Build an Ubuntu environment with systemd and start services
Creating a container machine with systemd is a bit more technical. It requires building a custom Ubuntu image that includes the init system, using the official Dockerfile included in Apple’s documentation.
After compilation (requiring Rosetta 2), the machine is created:
container machine create local/ubuntu-machine:latest –name devubuntu
From this point, all standard system commands, including administration via systemctl, are available. For example: install Apache and MariaDB, start the services, and enable them to start automatically!
Retrieve the IP address and access the web server from macOS
The machine has its own IP address within a virtual network. Use the command “container machine ls” to find this address.
Next, typing the URL into a Mac browser will open the Apache homepage hosted within the container machine. This state is persisted and does not disappear after shutdown or restart.
This configuration really brings this machine mode closer to a lightweight VM but specifically optimized for macOS-Linux development.
Distribute your software across multiple environments to test it in different environments.
Another key advantage: you can create separate machines with different distributions. Debian, Ubuntu, Alpine… Each machine shares the same macOS home directory.
As a result, your standard configuration files (.bashrc, .gitconfig, etc.) remain synchronized across these environments. This is useful for validating the robustness or compatibility of a cross-platform project.
This is a rare and welcome opportunity for any Linux/Unix admin or developer working on a Mac.
Some limitations to keep in mind in 2026
The project is young and still evolving. Unlike WSL, there is no equivalent to WSLg for Linux graphics. Interoperation between macOS and Linux is currently limited to files.
Nested virtualization via KVM is not yet used on Apple Silicon – a possibility for future versions.
Finally, alternatives like Lima, Multipass or OrbStack should be considered when maturity or richness of features is crucial.