- avoid the memory allocations by not using g_strsplit().
- add a helper function priority_map_parse_str(). This will
be used later, to avoid allocating a NMVlanQosMapping
result, when we don't need it on the heap.
- for the priority mappings, the "from" part is the key and must
be unique. As such, it would make sense to say
$ nmcli connection modify "$PROFILE" -vlan.ingress-priority-map '1:*'
or
$ nmcli connection modify "$PROFILE" -vlan.ingress-priority-map '1:'
to delete any mapping for that priority, regardless of the "to" part.
Add an option to leave the "to" part unspecified. This will be used
later.
nm_utils_parse_inaddr() is trivial enough to reimplement it, instead of calling
nm_utils_parse_inaddr_bin(). Calling nm_utils_parse_inaddr_bin() involves several
things that don't matter for nm_utils_parse_inaddr() -- like assigning
out_addr_family or returning the binary address.
- use nm_auto_decref_json for "json_value" to indicate ownership
transfer.
- don't reuse variable json_element and json_link to construct
watchers list. It's confusing. In general, use different variables
for different purposes.
_nm_utils_team_config_get() determines the type based on the JSON content.
Hence, the caller must validate that the returned GValue is of the expected
type, or it will trigger an assertion/crash.
Use nm_auto*, it's almost always harder to get wrong, because
ownership (and lifetime management of a variable, and what it points
to) is more clearly expressed.
Open vSwitch is the special kid on the block -- it likes to be in charge of
the link lifetime and so we shouldn't be. This means that we shouldn't be
attempting to remove the link: we'd just (gracefully) fail anyways.
More importantly, this also means that we shouldn't care if we see the link
go away. We may already be activating another connection and shouldn't alter
the device state when OpenVSwitch decides to drop the old link.
https://bugzilla.redhat.com/show_bug.cgi?id=1543557https://github.com/NetworkManager/NetworkManager/pull/315
This will be soon useful as we are going to drop the reference to the
Device objs: so, when a checkpoint is created and a device disappear
(hw removed or sw device deleted) we will be able to correctly perform
the rollback.
that is: when a Device gets unexported from DBus. In this way we will
allow "Devices" property to be rechecked on get() returning an
up-to-date "Devices" property value.
# NetworkManager-MESSAGE: <warn> [1553100541.6609] platform-linux: do-add-rule: failure 17 (File exists)
>>> failing... errno=-17, rule=[routing-rule,0xe9c540,1,+alive,+visible; [6] 4294967295: from all suppress_prefixlen 3 none goto-target 2955537847]
0: from all to 73.165.79.8/2 iif nm-test-device 178
0: from all 109
0: from all tos 0x13 lookup 10004 suppress_prefixlength 0 none
0: from all none
4294967295: not from all none
test:ERROR:../src/platform/tests/test-route.c:1607:test_rule: assertion failed (r == 0): (-17 == 0)
Possibly fixed by https://git.kernel.org/pub/scm/linux/kernel/git/torvalds/linux.git/commit/?id=7c8f4e6dc30996bff806285730a0bb4e714d3d52
This removes libnm-glib, libnm-glib-vpn, and libnm-util for good.
The it has been replaced with libnm since NetworkManager 1.0, disabled
by default since 1.12 and no up-to-date distributions ship it for years
now.
Removing the libraries allows us to:
* Remove the horrible hacks that were in place to deal with accidental use
of both the new and old library in a single process.
* Relief the translators of maintenance burden of similar yet different
strings.
* Get rid of known bad code without chances of ever getting fixed
(libnm-glib/nm-object.c and libnm-glib/nm-object-cache.c)
* Generally lower the footprint of the releases and our workspace
If there are some really really legacy users; they can just build
libnm-glib and friends from the NetworkManager-1.16 distribution. The
D-Bus API is stable and old libnm-glib will keep working forever.
https://github.com/NetworkManager/NetworkManager/pull/308
This is wrong -- we may want to start activating before device is
registered if it the SIM needs unlocking with a PIN code that's included
in the connection.
This reverts commit 2e8f43e379.
The capture variables, $1, etc, are not valid unless the match
succeeded, and they're not cleared, either.
$ git checkout -B C origin/master && \
echo XXXXX > f.txt && \
git add f.txt && \
git commit -m 'this commit does something()'
Branch 'C' set up to track remote branch 'master' from 'origin'.
Reset branch 'C'
Your branch is up to date with 'origin/master'.
sh: -c: line 0: syntax error near unexpected token `('
sh: -c: line 0: `git log --abbrev=12 --pretty=format:"%h ('%s')" -1 does something() 2>/dev/null'
>>> VALIDATE "a169a98e14 this commit does something()"
(commit message):4: Commit 'does something()' does not seem to exist:
> Subject: [PATCH] this commit does something()
(commit message):4: Refer to the commit id properly: :
> Subject: [PATCH] this commit does something()
The patch does not validate.
After 1.16.0 is released, merge it back into master so that
1.16.0 is part of the history of master. That means,
$ git log --first-parent master
will also traverse 1.16.0 and 1.16-rc*.
Also bump the micro version to 1.17.1-dev to indicate that this is
after 1.16.0 is out.
The routing-rule tests generate a number of routing rules and tries to
add and delete them.
For that, _rule_create_random() sets random fields of the rule.
Note that especially interesting are rules that leave most fields
unset (at zero), because they trigger kernel issues rh#1686075 and
rh#1685816.
But a rule has many fields, so in order to generate rules that have most
fields unset, we need to use low probabilities when rolling the dice for
setting a field. Otherwise, most rules end up with several fields set
and don't reproduce the kernel issue (especially the test failed to hit
rh#1686075).
Routing rules are unlike addresses or routes not tied to an interface.
NetworkManager thinks in terms of connection profiles. That works well
for addresses and routes, as one profile configures addresses and routes
for one device. For example, when activating a profile on a device, the
configuration does not interfere with the addresses/routes of other
devices. That is not the case for routing rules, which are global, netns-wide
entities.
When one connection profile specifies rules, then this per-device configuration
must be merged with the global configuration. And when a device disconnects later,
the rules must be removed.
Add a new NMPRulesManager API to track/untrack routing rules. Devices can
register/add there the routing rules they require. And the sync method will
apply the configuration. This is be implemented on top of NMPlatform's
caching API.
