WiMAX failed distcheck if the iwmxsdk devel files were installed but
--enable-wimax=no was used, since the distcheck configure bits found
the iwmxsdk headers, defaulted WiMAX support to 'on', and then proceeded
to use the generated headers from the top srcdir, where of course
wimax was turned off (due to --enable-wimax=no). Instead, everything
should use the headers from the builddir, which reflects the options
that 'make distcheck' actually selects.
At the same time, re-order various includes everywhere to ensure that
the builddir paths come before the srcdir paths to prevent this from
happening in the future.
Commit 217c5bf6ac fixed processing of unix
signals: signals are blocked in all threads and a dedicated thread handles the
signals using sigwait().
However, the commit forgot that child processes inherit signal mask as well.
That is why we have to unblock signals for child processes we spawn from NM, so
that they can receive signals.
The code to set up ATM interfaces is actually pretty simple,
so don't bother spawning br2684ctl at all. Just do the
necessary communication with the kernel directly and save
a bunch of code.
Note: this isn't very likely to work as I don't have an
ADSL connection to test with. Testing help appreciated.
This patch adds the settings code (NMSettingAdsl) and the initial
"scaffolding" i.e., a tiny stub version of NMDeviceAdsl and the
udev handler code to get the device detected.
With this patch you should be able to see an atm device being detected
by networkmanager in the logs, although of course it doesn't
do anything useful yet.
Extract from the logs:
[1304668252.341354] [nm-udev-manager.c:562] adsl_add(): adsl_add: ATM Device detected from udev. Adding ..
(ueagle-atm0): failed to look up interface index
(ueagle-atm0): new ADSL device (driver: 'ueagle-atm' ifindex: -1)
(ueagle-atm0): exported as /org/freedesktop/NetworkManager/Devices/2
(ueagle-atm0): now managed
(ueagle-atm0): device state change: unmanaged -> unavailable (reason 'managed') [10 20 2]
(ueagle-atm0): deactivating device (reason: 2).
[1304668252.345102] [nm-system.c:1349] flush_routes(): (ueagle-atm0) failed to lookup interface index
[1304668252.347821] [nm-device.c:3912] nm_device_state_changed(): (ueagle-atm0): device is available,
In this version, we hack the nm-device.c:nm_device_get_priority() to get better priority
instead of changing the DeviceType enum.
Signed-off-by: Pantelis Koukousoulas <pktoss@gmail.com>
Many different interface types can support VLANs, including
Infiniband, WiFi, etc. So we have to create a new device class
for them instead of keeping the support in NMDeviceEthernet.
* use libsoup to compare a http response from a given
uri with a given response (use g_str_has_prefix () to compare)
* do periodically check the connectivity. Check interval is configurable
* check connectivity when device state change
from/to NM_DEVICE_STATE_ACTIVATED
Rather than generating enum classes by hand (and complaining in each
file that "this should really be standard"), use glib-mkenums.
Unfortunately, we need a very new version of glib-mkenums in order to
deal with NM's naming conventions and to fix a few other bugs, so just
import that into the source tree temporarily.
Also, to simplify the use of glib-mkenums, import Makefile.glib from
https://bugzilla.gnome.org/654395.
To avoid having to run glib-mkenums for every subdirectory of src/,
add a new "generated" directory, and put the generated enums files
there.
Finally, use Makefile.glib for marshallers too, and generate separate
ones for libnm-glib and NetworkManager.
This allows us to package WiMAX separately so you can choose
to install WiMAX or not. For package-based distros you can now
install libnm-device-plugin-wimax.so in a separate package that
links to/requires the Intel WiMAX service instead of having the
main NM package require it and pull it in by default. This
plugin infrastructure will be extended to other device types
as well.
src/firewall-manager tracks whether firewall is on the bus or not.
In nm-device.c at stage5 (ip-config-commit) before we actually
apply the IP configuration to the interface, we send the
IP interface name and zone to firewall and asynchronously wait
for a D-Bus reply. Then after we get the reply
(or if the firewall isn't running) we proceed with
applying the IP configuration to the interface.
These days more and more devices are showing up that support a
number of different access technology families in the same hardware,
like Qualcomm Gobi (CDMA and GSM), Pantech UM190 (CDMA and GSM),
Pantech UML290 (CDMA and LTE), LG VL600 (CDMA and LTE), Sierra
320U (GSM and LTE), etc. The previous scheme of having device
classes based on access technology family simply cannot handle
this hardware and attempting to add LTE to both the CDMA and GSM
device classes would result in a bunch of code duplication that
we don't want. There's a better way...
Instead, combine both CDMA and GSM device classes into a generic
"Modem" device class that provides capabilities indicating what
access technology families a modem supports, and what families
it supports immediately without a firmware reload. (Gobi devices
for example require a firmware reload before they can switch
between GSM and CDMA). This provides the necessary flexibility
to the client and allows us to keep the API stable when the
same consolidation change is made in ModemManager.
The current code doesn't yet allow multi-mode operation internally,
but the API is now what we want it to be and won't need to be
changed.
Given connection details, complete the connection as well as possible
using the given specific object and device, add it to system
settings, and activate it all in one method.
System settings still links to libnm-glib, which also contains
an NMDeviceWimax class. We don't care about the libnm-glib
class, so link the wimax bits first to ensure they are the ones
used.
This issue will go away when user settings is removed in the
near future.
Instead of a bizare mechanism of signals back to the manager
object that used to be required because of the user/system settings
split, let each place that needs secrets request those secrets
itself. This flattens the secrets request process a ton and
the code flow significantly.
Previously the get secrets flow was something like this:
nm_act_request_get_secrets ()
nm_secrets_provider_interface_get_secrets ()
emits manager-get-secrets signal
provider_get_secerts ()
system_get_secrets ()
system_get_secrets_idle_cb ()
nm_sysconfig_connection_get_secrets ()
system_get_secrets_reply_cb ()
nm_secrets_provider_interface_get_secrets_result ()
signal failure or success
now instead we do something like this:
nm_agent_manager_get_secrets ()
nm_agent_manager_get_secrets ()
request_start_secrets ()
nm_sysconfig_connection_get_secrets ()
return failure or success to callback
