disk namespace init is not a factory, thus the Disk class should have its own namespace. We choose disk.storage |
||
|---|---|---|
| doc | ||
| helper | ||
| kiwi | ||
| package | ||
| test | ||
| tools | ||
| .bumpversion.cfg | ||
| .coveragerc | ||
| .fuzzy | ||
| .gitattributes | ||
| .gitignore | ||
| .landscape.yml | ||
| .locale | ||
| .travis.requirements.txt | ||
| .travis.yml | ||
| .virtualenv.dev-requirements.txt | ||
| .virtualenv.requirements.txt | ||
| LICENSE | ||
| Makefile | ||
| MANIFEST.in | ||
| README.md | ||
| setup.cfg | ||
| setup.py | ||
| tox.ini | ||
KIWI—Next Generation
This is a rewrite of the former KIWI appliance builder which you can find here: https://github.com/openSUSE/kiwi.
Contents
- Motivation
- Installation
- Quick Start
- Supported Distributions
- Contributing
- Developing
- Packaging and Versioning
- Documentation
Motivation
During the last years KIWI has evolved a lot: Many features were added, even some which are not in use anymore because new technologies made them obsolete. There is a lot of legacy code in KIWI to support older distributions. In order to become free from legacy code the decision to provide a new version which can co-exist with the former implementation was made.
However, the current design and the lack of tests in core parts of the former code base, basically prevents a major refactoring as I see it required. Because of that, a rewrite of KIWI with a stable version in the background seems to be the best way.
Users will be able to use both versions in parallel. Also the new KIWI will be fully compatible with the current format of the image description. This means, you can build an image from the same image description with the old and the new KIWI, if the new KIWI supports the distribution and all features the image description has configured.
Installation
Packages for the new KIWI version are provided at the
openSUSE buildservice.
Add the repository with zypper ar (see following code) and replace the placeholders.
The best approach is to click through to your distribution and copy the complete URL
of Virtualization:Appliances.repo. Use the following commands:
$ zypper ar -f <URL>/<DIST>/Virtualization:Appliances.repo
$ zypper in python3-kiwi
Quick Start
Along with the appliance builder there is also a GitHub project hosting example image descriptions. The following shows how to build your first image.
$ git clone https://github.com/SUSE/kiwi-descriptions
$ kiwi --type vmx system build \
--description kiwi-descriptions/suse/x86_64/suse-leap-42.1-JeOS \
--target-dir /tmp/myimage
$ cd /tmp/myimage
$ qemu -drive \
file=LimeJeOS-Leap-42.1.x86_64-1.42.1.raw,format=raw,if=virtio
Supported Distributions
This version of KIWI is targeted to build appliances for distributions which are equal or newer compared to the following list:
- SUSE Linux Enterprise 12
- Red Hat Enterprise 7
- openSUSE 13.2
- openSUSE Leap 42
- openSUSE Tumbleweed
For anything older please consider to use the former KIWI version v7.x.x
Contributing
The core appliance builder is developed in Python and follows the test driven development rules. The XML, schema, and stylesheets are taken from the old version of KIWI. Also the entire boot code (written in bash) is taken from the old KIWI codebase.
The Python project uses pyvenv to setup a development environment
for the desired Python version. The script pyvenv is already
installed when using Python 3.3 and higher (see https://docs.python.org/3.3/whatsnew/3.3.html#pep-405-virtual-environments for details).
The following procedure describes how to create such an environment:
-
Create the virtual environment:
$ pyvenv .env3
2. Activate the virtual environment:
$ source .env3/bin/activate
3. Install KIWI requirements inside the virtual environment:
$ pip3.4 install -r .virtualenv.dev-requirements.txt
4. Install KIWI in "development mode":
$ ./setup.py develop
You're done!
Once the development environment is activated and initialized with
the project required Python modules, you are ready to work.
The __develop__ target of the `setup.py` script automatically creates
the application entry point called `kiwi`, which allows to simply
call the application from the current code base:
$ kiwi --help
In order to leave the development mode just call:
$ deactivate
To resume your work, change into your local Git repository and
run `source .env3/bin/activate` again. Skip step 3 and 4 as
the requirements are already installed.
## Developing and Running Test Cases
When developing KIWI, the preferred method is to use Tox:
$ tox
The previous call would run `tox` for different Python versions,
checks the source code for errors, and builds the documentation.
If you want to see the target, use the option `-l` to print a list:
$ tox -l
To only run a special target, use the `-e` option. The following
example runs the test cases for the 3.4 interpreter only:
$ tox -e 3.4
## Packaging and Versioning
The version schema is based on `bumpversion` and follows the
standard rules as shown below.
$ bumpversion [patch | minor | major]
The creation of RPM package sources has to be done by calling
the following make target:
$ make build
The sources are collected below the `dist/` directory. In there you
will find all required files to submit a package to the Open Build
Service or just build it with `rpmbuild`.
## Documentation
The documentation is implemented as manual pages based on Sphinx
using the ReST markup. In order to build the manual pages for testing
just call:
$ cd doc $ make man