# RoboStack ros-noetic: ROS Noetic rebuilt as Conda packages

> The robostack/ros-noetic repository holds the vinca configuration that turns ROS Noetic into pre-built Conda packages for Linux, macOS, Windows and ARM. The README makes clear that no root access is needed and that PyTorch can sit in the same environment, but the project publishes no releases and keeps its package coverage in a separate table.

**RoboStack/ros-noetic** — vinca configuration files for ros-noetic

- Repository: https://github.com/RoboStack/ros-noetic
- Website: https://robostack.github.io/noetic.html
- Stars: 517 · Forks: 77
- Language: Python
- License: MIT
- Published: 2026-10-22 · Updated: 2026-10-22 · Language: en
- Canonical page: https://hysenlabs.com/projects/robostack-ros-noetic

## Why ROS Noetic ships through vinca instead of apt

ROS Noetic normally reaches a machine as Debian packages built for one Ubuntu release, which ties the installation to one operating system and one package manager. RoboStack/ros-noetic removes that constraint. The repository describes itself as vinca configuration files for ros-noetic, and the README states that the project couples ROS with Conda, a cross-platform, language-agnostic package manager. The binaries are pre-built for Linux, macOS, Windows and ARM, and the README says that no system libraries are used, so an environment can live inside a home directory and no root access is required. That is the specific problem addressed here: getting a working ROS Noetic environment onto a machine that is not a supported Ubuntu box, without spending hours compiling from source. The README singles out macOS and Windows as the cases where pre-built packages save the most time, and notes that ROS Noetic can be installed on any recent Linux distribution, including older Ubuntu versions.

## The build inputs live in nine configuration files

The architecture of the build is visible in the top-level file list. vinca.yaml and conda.yaml sit beside conda_build_config.yaml, robostack.yaml, rosdistro_snapshot.yaml and rosdistro_additional_recipes.yaml, and each of these points at a different stage of turning upstream ROS sources into Conda packages. Two more entries, pkg_additional_info.yaml and packages-ignore.yaml, carry per-package decisions rather than build-wide settings. Build badges in the README point at separate workflow branches for Linux, Windows, macOS, macOS arm64 and Linux aarch64, which shows that platform coverage is produced by configuration rather than by a single script. The README links a table with all available packages and architectures that leads to the project homepage, so the full matrix lives outside the source tree. Nothing in the README explains how conda.yaml and robostack.yaml divide responsibility, so anyone changing a build flag has to open the files and work it out from there.

## The patch directory and the packages the build drops

Two entries in the file list function as change control rather than as build inputs. The patch directory holds modifications applied to upstream sources, and check_patches_clean_apply.py in the repository root exists to verify that those patches still apply, which is exactly the check that breaks when upstream code moves underneath a frozen release. packages-ignore.yaml does the opposite job and records packages the build deliberately leaves out. build_gap_report.py then measures the difference between what was requested and what exists, so the coverage of a given ROS Noetic release can be inspected instead of assumed. Together these entries point to a workflow where upstream recipes are patched to fit the conda toolchain, exclusions are listed explicitly, and a report shows the remaining distance to full coverage. The README does not say how to regenerate that report, so treat it as a script you run yourself and read.

## pixi.lock and the continuous integration checks

pixi.toml and pixi.lock sit at the root of the repository, which indicates that the build and development environment is meant to be reconstructed rather than assembled by hand. A lock file records resolved versions, so the same inputs can be reproduced on a second machine. Next to it, .cirun.yml and a tests directory suggest the project runs its own checks in continuous integration, and the .scripts and .github directories hold the surrounding automation. The README itself says very little about any of this, and points to a separate page for installation, FAQ and contributing instructions at robostack.github.io/GettingStarted.html. The build machinery is therefore inspectable in the tree while the operating instructions are deliberately kept off the repository page. If you are evaluating this project for a team, that split matters: you can read exactly how packages are defined, but the day-to-day workflow lives on a separate site that you will have to bookmark.

## A first install means following a page, not running a command

There is no install command in the README, so nothing can be copied from it. The repository instead directs readers to the RoboStack GettingStarted instructions, and the project homepage carries the table of available packages and architectures. What the README does establish is the shape of the result. ROS binaries are provided for Linux, macOS, Windows and ARM, packages are pre-built so nothing compiles from source, and other conda-forge packages install side by side in the same environment, with TensorFlow and PyTorch given as the example. Because no system libraries are used, a recent Linux distribution can host ROS Noetic even on older Ubuntu versions. A sensible first use is therefore not a build step. Set up the environment following the GettingStarted page, add one of the scientific packages into that same environment, and confirm that both the ROS tools and the data stack resolve inside it. That check is the real proof of the side-by-side claim, and it is also the step most likely to expose a missing package in the channel.

## No releases, no rollback, and a coverage report to read

Two limitations stand out. First, the repository has no GitHub releases, so there is no tagged artifact to pin and no changelog to read before upgrading. The only dated signal available is the commit history, and the last push was on 2026-07-30. Second, package coverage is not total, and build_gap_report.py exists precisely because the set of packages published to the channel differs from the full ROS Noetic catalogue. The README also leaves two practical questions unanswered. It does not document a rollback path for an environment, and it does not state a supported Python version. A team that depends on a specific combination of ROS packages and a PyTorch build should therefore keep its own specification of what was installed, and should read the gap report for the distribution it plans to use before promising full ROS coverage.

## MIT licensing with a separate citation request

The license is MIT, so reuse of these build recipes follows the MIT terms. The README adds a separate request for academic work, asking that users refer to the following paper. The reference is provided as a BibTeX entry naming an article in IEEE Robotics and Automation Magazine from 2021, with a DOI of 10.1109/MRA.2021.3128367.

```bibtex
@article{FischerRAM2021,
    title={A RoboStack Tutorial: Using the Robot Operating System Alongside the Conda and Jupyter Data Science Ecosystems},
    author={Tobias Fischer and Wolf Vollprecht and Silvio Traversaro and Sean Yen and Carlos Herrero and Michael Milford},
    journal={IEEE Robotics and Automation Magazine},
    year={2021},
    doi={10.1109/MRA.2021.3128367},
}
```

That citation request is a courtesy attached to the README rather than a condition written into the MIT license text, so internal tooling work is not obliged to treat it as a legal requirement, but the project is asking it of the people most likely to be cited in a robotics paper. Anyone redistributing or adapting these configuration files should read the LICENSE file directly and confirm the terms rather than relying on the badge in the README, and academic users should cite the paper as requested.

## Conclusion

ros-noetic is worth adopting if your team works on robotics and needs ROS Noetic on a machine that is not a supported Ubuntu box, or needs PyTorch and TensorFlow in the same environment as ROS. Skip it if you need a tagged, reproducible release artifact, because the repository has no GitHub releases and the last push was on 2026-07-30. Before committing, check the package and architecture table on the project homepage, read build_gap_report.py output for your distribution, and keep your own record of the environment you validated, since the README does not document a rollback path or a supported Python version.

## FAQ

### What is the RoboStack ros-noetic repository?

It is a set of vinca configuration files for ros-noetic that produce ROS Noetic as pre-built Conda packages for Linux, macOS, Windows and ARM. The repository also contains conda.yaml, conda_build_config.yaml, robostack.yaml, rosdistro_snapshot.yaml and patch handling scripts.

### Does installing ROS Noetic through RoboStack require root access?

No. The README states that no root access is required and that all packages live in your home directory, since no system libraries are used.

### Can I install TensorFlow or PyTorch in the same environment as ROS Noetic?

Yes. The README says that installing other recent packages via conda-forge side by side works easily, giving TensorFlow and PyTorch in a ROS Noetic environment as the example.

### Where do I find the install instructions for RoboStack ros-noetic?

The README does not give an install command. It points to the RoboStack GettingStarted page at robostack.github.io/GettingStarted.html for installation, FAQ and contributing instructions, and the table of available packages and architectures is on the project homepage at robostack.github.io/noetic.html.

### How do I know which ROS packages are actually available?

The README links a table with all available packages and architectures, and the repository contains a build_gap_report.py script alongside packages-ignore.yaml, which lists packages the build leaves out. The README does not document how to run the report.

## Sources

- [Issues](https://github.com/RoboStack/ros-noetic/issues)
- [License: MIT](https://github.com/RoboStack/ros-noetic/blob/main/LICENSE)
- [Project website](https://robostack.github.io/noetic.html)
- [README](https://github.com/RoboStack/ros-noetic/blob/main/README.md)
- [RoboStack/ros-noetic on GitHub](https://github.com/RoboStack/ros-noetic)

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Hysen Labs editorial analysis, written from the project's own repository and release notes. Cite the canonical page: https://hysenlabs.com/projects/robostack-ros-noetic