In libnm, we prefer opaque typedefs. gtk-doc needs to be patched to properly
generate documentation. Add a check for that.
Add a test. By default, this does not fail but just prints a warning. The test
can be made failing by setting NMTST_CHECK_GTK_DOC=1.
See-also: https://gitlab.gnome.org/GNOME/gtk-doc/merge_requests/2
(cherry picked from commit 02464c052e)
There are two aspects: the public crypto API that is provided by
"nm-crypto.h" header, and the internal header which crypto backends
need to implement. Split them.
Add a new 'match' setting containing properties to match a connection
to devices. At the moment only the interface-name property is present
and, contrary to connection.interface-name, it allows the use of
wildcards.
Note that in NetworkManager API (D-Bus, libnm, and nmcli),
the features are called "feature-xyz". The "feature-" prefix
is used, because NMSettingEthtool possibly will gain support
for options that are not only -K|--offload|--features, for
example -C|--coalesce.
The "xzy" suffix is either how ethtool utility calls the feature
("tso", "rx"). Or, if ethtool utility specifies no alias for that
feature, it's the name from kernel's ETH_SS_FEATURES ("tx-tcp6-segmentation").
If possible, we prefer ethtool utility's naming.
Also note, how the features "feature-sg", "feature-tso", and
"feature-tx" actually refer to multiple underlying kernel features
at once. This too follows what ethtool utility does.
The functionality is not yet implemented server-side.
Shared libraries built with sanitizers are a bit inconvenient to use
because they require that any application linking to them is run with
libasan preloaded using LD_PRELOAD. This limitation makes the
sanitizer support less useful because applications will refuse to
start unless there is a special environment variable set.
Let's turn the --enable-address-sanitizer configure flag into
--with-address-sanitizer=yes|no|exec so that is possible to enable
asan only for executables.
We commonly only allow tabs at the beginning of a line, not
afterwards. The reason for this style is so that the code
looks formated right with tabstop=4 and tabstop=8.
It already defaults to the right value. We only need to define
NM_VERSION_MIN_REQUIRED, so that parts of our internal build
can make use of deprecated API.
We don't need to have two version defines "CUR" and "NEXT".
The main purpose of these macros (if not their only), is to
make NM_AVAILABLE_IN_* and NM_DEPRECATED_IN_* macros work.
1) At the precise commit of a release, "CUR" and "NEXT" must be identical,
because whenever the user configures NM_VERSION_MIN_REQUIRED and
NM_VERSION_MAX_ALLOWED, then they both compare against the current
version, at which point "CUR" == "NEXT".
2) Every other commit aside the release, is a development version that leads
up the the next coming release. But as far as versioning is concerned, such
a development version should be treated like that future release. It's unstable
API and it may or may not be close to later API of the release. But
we shall treat it as that version. Hence, also in this case, we want to
set both "NM_VERSION_CUR_STABLE" and again NEXT to the future version.
This makes NM_VERSION_NEXT_STABLE redundant.
Previously, the separation between current and next version would for
example allow that NM_VERSION_CUR_STABLE is the previously release
stable API, and NM_VERSION_NEXT_STABLE is the version of the next upcoming
stable API. So, we could allow "examples" to make use of development
API, but other(?) internal code still restrict to unstable API. But it's
unclear which other code would want to avoid current development.
Also, the points 1) and 2) were badly understood. Note that for our
previousy releases, we usually didn't bump the macros at the stable
release (and if we did, we didn't set them to be the same). While using
two macros might be more powerful, it is hard to grok and easy to
forget to bump the macros a the right time. One macro shall suffice.
All this also means, that *immediately* after making a new release, we shall
bump the version number in `configure.ac` and "NM_VERSION_CUR_STABLE".
The strings holding the names used for libraries have also been
moved to different variables. This way they would be less error
as these variables can be reused easily and any typing error
would be quickly detected.
Although it is possible to generate distributable files on meson
since version 0.41 by using the `ninja dist` command, autotools does
different things that end up creating a different distributable
file.
meson build files have been added to autotools build files as
distributable files, so the whole meson port would also be
distributed.
https://mail.gnome.org/archives/networkmanager-list/2018-January/msg00047.html
These files are a template how to add a new nm-setting-* implementation.
We are not going to add new files to the deprecated libnm-util library,
hence a template for libnm-util is pointless.
libnm-core doesn't have a corresponding template file. Personally, I
don't think such a template are a great idea either, because
- People are not aware that it exists. Hence, it's unused, badly
maintained and quite possibly does not follow current best practice.
- Just copy an actual settings implementation and start from there.
That seems better to me than having a template.
gtkdoc uses some custom generated targets as content files. However,
there are still two problem. The first is that gtkdoc does not
support targets which are not strings. This is being fixed in the
following issue:
https://github.com/mesonbuild/meson/pull/2806
The second issue is that the gtkdoc function produces a target which
is triggered at install time. This makes the dependencies generation
to not be triggered.
This patch uses a workaround for that second issue.
https://mail.gnome.org/archives/networkmanager-list/2017-December/msg00079.html
In practice, this should only matter when there are multiple
header files with the same name. That is something we try
to avoid already, by giving headers a distinct name.
When building NetworkManager itself, we clearly want to use
double-quotes for including our own headers.
But we also want to do that in our public headers. For example:
./a.c
#include <stdio.h>
#include <nm-1.h>
void main() {
printf ("INCLUDED %s/nm-2.h\n", SYMB);
}
./1/nm-1.h
#include <nm-2.h>
./1/nm-2.h
#define SYMB "1"
./2/nm-2.h
#define SYMB "2"
$ cc -I./2 -I./1 ./a.c
$ ./a.out
INCLUDED 2/nm-2.h
Exceptions to this are
- headers in "shared/nm-utils" that include <NetworkManager.h>. These
headers are copied into projects and hence used like headers owned by
those projects.
- examples/C
Building the man pages via xsltproc requires "docbook.xsl"
which is part of docbook.
Previously, we would build the man pages solely based on
"--enable-introspection", which checks for the presence of
xsltproc, but not docbook. This can lead to build failure
when docbook is not available, but "--enable-introspection"
is given.
Instead of adding yet another configure option to fine-tune
and say "--with-docbook --disable-gtk-doc", just simplify it.
Now, documentation (both man pages and setting docs) will be generated
with "--enable-gtk-doc" and "--enable-introspection".
If the documentation is not about to be generated, pre-generated docs
will be installed if they are available. That is commonly the case
with a source tarball, but not with a git checkout.
Finally, if documentation is nither generated nor pre-generated,
no documentation will be installed *duh*.
This removes the possibility to treat man pages separate from settings
docs. Now you either generate both, install both pre-generated, or don't
get any of them.
https://bugzilla.gnome.org/show_bug.cgi?id=778551
- `make dist` requires --enable-gtk-doc --enable-introspection --with-libnm-glib
- --enable-gtk-doc requires --enable-introspection
- --with-nmcli requires either --enable-introspection or pregenerated
settings-docs.c files from the dist tarball. It does not require
--enable-gtk-doc.
There is a bit of a problem in that --enable-introspection requires
now xsltproc. However, gobject-introspection does itself not depend
on xsltproc. So, more correct might be a special --enable-doc argument,
that combines --enable-introspection --with-xsltproc. Anyway, that
seems to make it more complicated then it already is so just implicitly
(and surprisingly?) require xsltproc with --enable-introspection.
https://bugzilla.gnome.org/show_bug.cgi?id=775003
This makes it easier to install the files with proper names.
Also, it makes the makefile rules slightly simpler.
Lastly, the documentation is now generated into docs/api, which makes it
possible to get rid of the awkward relative file names in docbook.
This speeds up the initial object tree load significantly. Also, it
reduces the object management complexity by shifting the duties to
GDBusObjectManager.
The lifetime of all NMObjects is now managed by the NMClient via the
object manager. The NMClient creates the NMObjects for GDBus objects,
triggers the initialization and serves as an object registry (replaces
the nm-cache).
The ObjectManager uses the o.fd.DBus.ObjectManager API to learn of the
object creation, removal and property changes. It takes care of the
property changes so that we don't have to and lets us always see a
consistent object state. Thus at the time we learn of a new object we
already know its properties.
The NMObject unfortunately can't be made synchronously initializable as
the NMRemoteConnection's settings are not managed with standard
o.fd.DBus Properties and ObjectManager APIs and thus are not known to
the ObjectManager. Thus most of the asynchronous object property
changing code in nm-object.c is preserved. The objects notify the
properties that reference them of their initialization in from their
init_finish() methods, thus the asynchronously created objects are not
allowed to fail creation (or the dependees would wait forever). Not a
problem -- if a connection can't get its Settings, it's either invisible
or being removed (presumably we'd learn of the removal from the object
manager soon).
The NMObjects can't be created by the object manager itself, since we
can't determine the resulting object type in proxy_type() yet (we can't
tell from the name and can't access the interface list). Therefore the
GDBusObject is coupled with a NMObject later on.
Lastly, now that all the objects are managed by the object manager, the
NMRemoteSettings and NMManager go away when the daemon is stopped. The
complexity of dealing with calls to NMClient that would require any of
the resources that these objects manage (connection or device lists,
etc.) had to be moved to NMClient. The bright side is that his allows
for removal all of the daemon presence tracking from NMObject.
nm-core-types.h and nm-types.h contain the actual definition of types
and gtk-doc won't generate a "Implemented interfaces" section if they
are not included.
https://bugzilla.gnome.org/show_bug.cgi?id=765983
Otherwise the types links would be dangling or resolved to slightly
irrelevant documentation in libnm or completely irrelevant documentation
in libnm-util.
