When creating the JSON data, call `os.fspath` on all paths, like
`root` and `devices.tree` to ensure they are strings; this allows
for tree to be an object that conforms to `os.PathLike`.
If the object's id does not match with the one supplied for the
commit, we create a clone. Otherwise we store the tree.
The code path is arranged in a way that we always go through
`Object.store_tree` so we always call `Object.finalize` as a
prepration for the future, where we might actually do something
meaningful in the finalizer, like reset the *times or count the
tree size.
Remove copy-on-write support from `objectstore.Object`. The main
reason for introducing copy-on-write was to save an additional
copy in the non DAG-pipeline model[1]. With the introduction of
the latter and the explicit `--export` option, we can achieve the
same result without the complexity of copy-on-write semantics.
[1] See commit 39213b7, part of 3b7c87d5..42a365d1 changeset.
When committing an object to the store, clone it if the current
stage is not the latests stage, i.e. `todo` has still entries.
This is the second step of the removal of copy-on-write support
in `Object`.
Add a new `clone` parameter to the `commit` method on `ObjectStore`
that when used will clone the object to the store instead of using
the `store_tree` method which moves the object and resets it. This
is the first step of removing copy-on-write support from `Object`.
Add an new module with utility functions to inspect PE32+ files,
mainly listing the sections and their addresses and sizes.
Include a simple test to check that we can successfully parse the
EFI stub contained in systemd (systemd-udev package).
The consumer certs are used to uniquely identify a system against
candlepin. These consumer certs can be used to identify the system when
pulling from RH controlled ostree repositories.
Use the new `Index.detect_runner` method that will give us the best
available runner for a requested one. To do so a new `pipeline.Runner`
class is introduced that stores the `meta.RunnerInfo` class for the
specific runner and the original name that was requested.
In the manifest loading and describing functions of the formats, use
`Index.detect_runner` to get the `RunnerInfo` for a requested runner
and then wrap it in a `pipeline.Runner` object, which is then passed
to the `Manifest.add_pipeline` method.
See also commit "meta: ability to auto-detect runner".
Adjust all test.
Instead of relying on the assumption that the specific runner will
be in `/run/osbuild/lib/runners/` we now bind-mount the runner at a
specific well known path and execute it from there.
The way that runners were designed is the following: For each distro
we have a specific runner. In case a new version of the distro can
use the previous runner, we just create a symlink. In case a new
distro version needs adjustments, the runner is copied and adjusted.
This is a very clean and obvious design. There is one big drawback:
For each new distribution a symlink must be created before it can be
used. For Fedora that should ideally happen when it is branched; and
this will, ipso facto, always be a symlink since at the time of the
branching the new distro is the old distro. But at this very moment
osbuild will be broken since it does not contain the new runner; the
only way to prevent this is to create the corresponding new runner
before the distro is branched, where it then must be a symlink too.
This very much suggest that instead of the explicit symlink, which
does not /that/ much clarity, the existing "old" runner should just
work for the new distribution. This commit implements the logic to
do just that: all existing runners are parsed into a distro and
version tuple and then, given a specific requested distro, the best
matching one is return.
When calculating the checksum of the stage, the mount options were
not included. This was maybe deliberate, because if the mounts of
a stage change, it is very likely that previous stages change too.
But the introduction of non-device mounts, like ostree.deployment,
have changed the setting, since the content of the tree will be
different if that mount is applied or not. And even for the device
based mounts it will change the tree if e.g. a device is mounted
at at different path but otherwise is formatted with the very same
options. In the worst case we miss a few cache hits due to changes
in the mount setup that don't lead to tree changes, but that will
rarely happen in practice.
We need to initialize `schema` to `None`, otherwise it will be an access
to an uninitialized variable when looking up invalid schemata:
[...]
File "[...]/osbuild/meta.py", line 583, in get_schema
schema = Schema(schema, name or klass)
UnboundLocalError: local variable 'schema' referenced before assignment
Signed-off-by: David Rheinsberg <david.rheinsberg@gmail.com>
The schema input of Schema.__init__ is a python-native representation
of a JSON object, so it can be any kind of dictionary. Furthermore, it
is optional.
Fix the type to be Optional[Dict].
Signed-off-by: David Rheinsberg <david.rheinsberg@gmail.com>
Make sure all --help output is consistent. In this particular case,
each line should consistently start with a lower-case character and
avoid a leading `the`.
Signed-off-by: David Rheinsberg <david.rheinsberg@gmail.com>
This adds a `osbuild --version` command that prints the current osbuild
version in use. Allows users to confirm their osbuild is up to date
enough to use newer features.
Introduce a new class to manage inputs, `InputManger` and move the
code to map inputs from the `Input` here. The main insight of why
the logic should be place here is that certain information is needed
to map inputs, independently of specific type: the path to the input
directory, `root`, the store API, `storeapi` and the service manager
instance to start the actual service. Instead of passing all this
information again and again to the `Input` class, we now have a
specialized (service) manager class for inputs that has all the
needed information all the time.
Check for existing checkpoint in `Pipeline.build_stages` by trying to
get the object, instead of just checking for its existence. Later, if
no checkpoints were found, i.e. `tree` is `None`, create a new object.
This avoids mixing of new object creation and object access.
