We copy the content of the hash table to an array, so that we can sort
the entries and they have a defined order.
We are not only interested in the keys, but the keys and the values.
Hence, use nm_utils_hash_to_array_with_buffer() which gives both at
the same time.
When we do something where the order makes a visible difference,
we should do it in a consistent way, that does not depend on arbitray
things. Sort the ifindexes from dirty_interfaces hash table.
Theoretically, this should be a GObject property, and not a signal.
But then I'd also have to implement the get_property() function,
which is more hazzle than necessary. A signal will do nicely.
NM_DNS_PLUGIN_GET_PRIVATE() macro was broken. Also NMDnsPluginPrivate
contained unused fields. Fix that.
The private data is unused at the moment, but will be used next.
Hence it is fixed and not removed.
We avoid printing raw pointer values. Also, in this case this is a
singleton, and we only create one instance of this type.
Note that we would still have printed the pointer instance while
constructing the instances, before setting it as singleton.
Just drop this.
nm_shutdown_wait_obj_register_object() today has no practical effect.
In the future it will block shutdown until the object gets destroyed.
We will want that NMDnsPlugin gets wrapped up during shut down, before
quitting.
We effectively already have this function, with the name
nm_utils_named_values_from_strdict(). Which is a decent name,
if you have a strdict. But it seems odd to use for other dictionaries.
Instead, add a variant with a different name. Naming is important,
and just to have the better name, the function is effectively duplicated.
NMUtilsNamedValue is a key-value tuple, usually the key is a string
(hence the name "Named").
But this struct is also useful for keys that are not strings.
Add another "name_ptr" union field to access the key that way.
The alternative would be to add another struct, which serves
a very similar purpose though.
This is long replaced by nettools' n-dhcp4 client.
Drop it.
We still require NMDhcpSystemd for the DHCPv6 client.
Note that "[main].dhcp=systemd" now falls back to the internal client.
But this option was undocumented and internal anyway.
We write lease files for internal DHCP client ("systemd" and "nettools")
in a systemd-specific format. We want to drop systemd code, so we need
to have our own parsing code.
Granted, nettools only writes a single "ADDRESS=" line, so parsing that
would be easy. On the other hand, systemd's parser is not complicated
either (in particular, if we can steal their implementation). Also, it's
a commonly used format in systemd, so having the parser would allow us
to parse similar formats.
Also, we could opt to choose that format, where it makes sense.
On recent Fedora and RHEL we no longer have differing "rpm_version"
and "real_version". So usually "rpm_version" is just the same as
"real_version".
Update the template spec file to reflect that. For the "build_clean.sh"
script, we anyway always set them both to "__VERSION__".
Each connection object includes a 64KiB scratch buffer used for
receiving packets. When many instances of the client are created,
those buffers use a significant amount of memory. For example, 500
clients take ~30MiB of memory constantly reserved only for those
buffers.
Since the buffer is used only in the function and is never passed
outside, a stack allocation would suffice; however, it's not wise to
do such large allocations on the stack; dynamically allocate it.
https://github.com/nettools/n-dhcp4/issues/26https://github.com/nettools/n-dhcp4/pull/2764513e31c0
(cherry picked from commit a5a5654f18)
Each connection object includes a 64KiB scratch buffer used for
receiving packets. When many instances of the client are created,
those buffers use a significant amount of memory. For example, 500
clients take ~30MiB of memory constantly reserved only for those
buffers.
Since the buffer is used only in the function and is never passed
outside, a stack allocation would suffice; however, it's not wise to
do such large allocations on the stack; dynamically allocate it.
https://github.com/nettools/n-dhcp4/issues/26https://github.com/nettools/n-dhcp4/pull/2764513e31c0
According to WPA3_Specification_v3.0 section 2.3, when operating in
WPA3-Personal transition mode an AP:
- shall set MFPC to 1, MFPR to 0.
Therefore, do not operate in WPA3-Personal transition mode when PMF is set to
disabled. This also provides a way to be compatible with some devices that are
not fully compatible with WPA3-Personal transition mode.
Signed-off-by: 谢致邦 (XIE Zhibang) <Yeking@Red54.com>
https://gitlab.freedesktop.org/NetworkManager/NetworkManager/-/merge_requests/1186
(cherry picked from commit b6eb237a27)
According to WPA3_Specification_v3.0 section 2.3, when operating in
WPA3-Personal transition mode an AP:
- shall set MFPC to 1, MFPR to 0.
Therefore, do not operate in WPA3-Personal transition mode when PMF is set to
disabled. This also provides a way to be compatible with some devices that are
not fully compatible with WPA3-Personal transition mode.
Signed-off-by: 谢致邦 (XIE Zhibang) <Yeking@Red54.com>
https://gitlab.freedesktop.org/NetworkManager/NetworkManager/-/merge_requests/1186
Since commit 528a63d9cc ('platform: avoid unnecessary configuration of
IP address in nm_platform_ip_address_sync()'), we no longer configure the
IP address if it is in the platform cache. But the cache might not be
up to date. Process any pending netlink events.
https://bugzilla.redhat.com/show_bug.cgi?id=2073926
Fixes: 528a63d9cc ('platform: avoid unnecessary configuration of IP address in nm_platform_ip_address_sync()')
The entire point of the dance in nm_platform_ip_address_sync() is to ensure that
conflicting IPv4 addresses are in their right order, that is, they have
the right primary/secondary flag.
Kernel only sets secondary flags for addresses that are in the same
subnet, and we also only care about the relative order of addresses
that are in the same subnet. In particular, because we rely on kernel's
"secondary" flag to implement this.
But kernel only treads addresses as secondary, if they share the exact
same subnet. For example, 192.168.0.5/24 and 192.168.0.6/25 would not
be treated as primary/secondary but just as unrelated addresses, even if
the address cleared of it's host part is the same.
This means, we must not only hash the network part of the addresses, but
also the prefix length. Implement that, by tracking the full NMPObject.
(cherry picked from commit 619dc2fcab)
None of the callers really handle the return value of nm_platform_ip_address_sync()
or whether the function encountered problems. What would they anyway do
about that?
For IPv4 we were already ignoring errors to add addresses, but for IPv6 we
aborted. That seems wrong. As the caller does not really handle errors,
I think we should follow through and add all addresses in case of error.
Still, also collect a overall "success" of the function and return it.
(cherry picked from commit cedaa191d4)
In the past, nm_platform_ip_address_sync() only had the @known_addresses
argument. We would figure out which addresses to delete and which to preserve,
based on what addresses were known. That means, @known_addresses must have contained
all the addresses we wanted to preserve, even the external ones. That approach
was inherently racy.
Instead, nowadays we have the addresses we want to configure (@known_addresses)
and the addresses we want to delete (@prune_addresses). This started to change in
commit dadfc3abd5 ('platform: allow injecting the list of addresses to prune'),
but only commit 58287cbcc0 ('core: rework IP configuration in NetworkManager using
layer 3 configuration') actually changed to pass separate @prune_addresses argument.
However, the order of IP addresses matters and there is no sensible kernel API
to configure the order (short of adding them in the right order), we still need
to look at all the addresses, check their order, and possibly delete some.
That is, we need to handle addresses we want to delete (@prune_addresses)
but still look at all addresses in platform (@plat_addresses) to check
their order.
Now, first handle @prune_addresses. That's simple. These are just the
addresses we want to delete. Second, get the list of all addresses in
platform (@plat_addresses) and check the order.
Note that if there is an external address that interferes with our
desired order, we will leave it untouched. Thus, such external addresses
might prevent us from getting the order as desired. But that's just
how it is. Don't add addresses outside of NetworkManager to avoid that.
Fixes: 58287cbcc0 ('core: rework IP configuration in NetworkManager using layer 3 configuration')
(cherry picked from commit 80f8e23992)
