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When a new lchan is selected during handover, some of the properties of
the old lchan are inherited by the new lchan. At the moment S15-S0 is
not not inherited so that the value for those bits will always be 0x0000
for the new lchan. Since those bits also define the active set AMR codec
the channel activation will fail because 0x0000 is invalid (active set
with zero rates)
Change-Id: Ifd470397e99985394634da1bb13ccfc5041984d2
Related: OS#3503
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The function lchan_alloc() does not exist anymore, however there is
still a prototype definition in chan_alloc.h and a comment in
abis_rsl.c. Lets remove those.
Change-Id: I36227ea306d28587ac70acbe596c7756b23d88c7
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Previously LCHAN_RTP_EV_IPACC_MDCX_ACK was not permitted for
LCHAN_RTP_ST_ESTABLISHED state in lchan FSM. However this message is
normal in case of LCLS loop closed via IPA (as opposed to MGCP). Let's
permit this message and log it to make debug output easier to read.
Change-Id: Ib642df799f3405c4d707eb57b2ebc84386d7f03f
Related: OS#2487
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Change-Id: Ia413bd1b375d874cd79a2bf06eb82477417ead1a
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In theroy the function T_def_get_entry() may return a nullpointer. In
this case we would run straight into a nullpointer dereference problem.
However, the requested timer is statically defined and should always be
there. However Coverity still reports this as a problem. Lets put an
OSMO_ASSERT to make clear that there is no problem here.
Fixes: CID#190403
Change-Id: If5238132d9d5a1507b9955a0b2dc4b1bced220e8
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Rationale: reading pcaps becomes so much easier when each of osmo-bsc and
osmo-msc address their MGW with differing domain names. Otherwise, both will
have a '0@mgw' endpoint and it gets really confusing.
After this, with according configuration, there can be a '0@bsc' and a '0@msc'
endpoint.
osmo-mgw-for-bsc.cfg:
mgcp
domain bsc
osmo-bsc.cfg:
msc 0
mgw endpoint-domain bsc
Depends: Ia662016f29dd8727d9c4626d726729641e21e1f8 (osmo-mgw)
Change-Id: I492023e9dca0233ec0a077032455d9f2e3880f78
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Change-Id: I3f49f74edb5400df1b13bb75da3d524f234c8d03
Related: OS#3659
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There could multiple reason for OML or RSL link towards BTS to be
dropped: ctrl command, vty, new link etc. Introduce "reason" parameter
to corresponding functions and log it on link drop to simplify
troubleshooting issues with more complex setups.
Change-Id: I8c8d8132ba67c31e40dbecdfe2e09be08c744899
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(requested by pespin)
Change-Id: I04ec4ce1fd2b7b110bb496186aae39ecfbbc3628
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Fix crash after AMR configuration fails.
The crash is due to an assertion that finds a non-NULL conn in the lchan, when
re-using an lchan that has failed in AMR configuration earlier on. That is
because the AMR config still happens in state UNUSED.
DCHAN ERROR lchan(0-0-2-TCH_F_TCH_H_PDCH-0)[0x6120000066a0]{UNUSED}: (type=TCH_F) lchan allocation failed in state UNUSED: Can not generate multirate configuration IE
...
DCHAN DEBUG lchan(0-0-2-TCH_F_TCH_H_PDCH-0)[0x6120000066a0]{UNUSED}: (type=TCH_F) After failure handling, already in state UNUSED
...
...
DCHAN DEBUG lchan(0-0-2-TCH_F_TCH_H_PDCH-0)[0x6120000066a0]{UNUSED}: Received Event LCHAN_EV_ACTIVATE (lchan_fsm.c:324)
Assert failed !lchan->conn ../../../../src/osmo-bsc/src/osmo-bsc/lchan_fsm.c:491
The FSM design idea is that when returning to the UNUSED state, all lchan state
is cleared. However, when calling lchan_activate(), a failure may happen still
in state UNUSED, so that we don't transition *back* to UNUSED properly.
So, first transition out of UNUSED before failures can happen. (Other ways to
solve this would be to invoke lchan clearing even if already in UNUSED, but
semantically, transitioning first makes more sense.)
Upon LCHAN_EV_ACTIVATE, just remember the lchan_activate_info and transition to
WAIT_TS_READY, so that on lchan_fail(), we can normally transition back to
UNUSED and clear the lchan.
Move the initial lchan activation code to lchan_fsm_wait_ts_ready_onenter().
Also, there is a bit of duplication of members of the lchan->activate (lchan
state) and the lchan_activate_info (passed to lchan_activate()) structs. The
fix for this also removes the dup:
Add struct lchan_activate_info as child struct at lchan->activate.info, drop
the other lchan->activate members that would dup .info.*. Move struct
lchan_activate_info declaration to gsm_data.h.
Apply the new '.info' member struct throughout the code.
Related: OS#3737
Change-Id: Ide665b10fa3f4583059c55346db8da833959e3cc
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Change-Id: Iac493014144ca0e5e1a83081e6e01ea7910deac2
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* use osmo_lcls struct from libosmocore
* use enum values instead of magic numbers
Change-Id: I5e962d4fbb24bf1fb2398dc13e142a4a3304d858
Related: OS#3659
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According to 3GPP TS 08.58 ยง8.5.1 BCCH INFORMATION:
"If the Full BCCH information element is not included this indicates that
transmission of the indicated SYSTEM INFORMATION message shall be stopped."
However, some ipaccess nanoBTS firmware versions are known to not support
some SI elements and also to dislike receiving BCCH Information for those SI,
even if received with empty BCCH Information meaning they should not be used.
Upon receival of this kind of message, nanoBTS sends a Failure Report
with following text:
Type=processing failure, Severity=critical failure, Probable cause=Manufacturer specific values: Fatal software error, Additional Text=l2_bch.c:1149
****
** l2_bch.c#1149:BCHbcchSItypeValid( prim_p->infoType )
** IPA_SW_FATAL_ERROR
** In task "TRX Proc:L2_BCH" @ (325).
****
This kind of issue only appears with some fw versions, since it's known
to work fine in other ones, so let's not disable this kind of mesage by
default on all BTs of type "nanobts".
Instead, add a VTY command that allows disabling this kind of message in
order to be able to operate those nanoBTS units.
Fixes: OS#3707
Change-Id: Idec1daabc21de4eea5c55edd1dbb0e0775720fc7
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Change-Id: I3998a35ff6ea29440882514bbb30cafed66f03fa
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Change-Id: I362a7d10f5ca9a95b594f7caafd7ed5b10fd059a
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Change-Id: Idc6af592e870d15491797ae6fcaffaac2b411766
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Change-Id: I162a474f711248a3f64a0438967fa6f8a9a3e686
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Since we actually want to match by IMSI as specified by filter in VTY.
It will allow to match based on other information later.
Change-Id: Ia73fd2f38e42396db8f6d2cc6b2c163aa8f67f3f
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Otherwise all logging is kept enabled after passing through those code
paths.
Change-Id: I06a977d97e6ffea02ec7402d48410c0e7cc6c155
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Limiting the logging filter only to IMSIs that we have as local
subscriber doesn't make sense for osmo-bsc since all subscribers are
initially unknown.
Create a bsc subscriber and enable logging there. This struct will then
be used and liked to the gsm_subscr_conn when receiving the Location
update.
Related: OS#3641
Change-Id: Ia20bdc15565417020205d7b2b06b04a01c03106c
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Change-Id: I81c4a9f0dbd708df27a485ef764c9524a36d548a
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Currently, we see all subscribers' FSM transitions on NOTICE level even though
the code uses LOGPFSML(LOGL_DEBUG), because LOGPFSML() uses the max loglevel of
the passed level and the FSM instance's level. Too noisy!
By default, start out all gscon FSM instances on DEBUG level, so it is possible
to silence the osmo-bsc log. Individual instances can still be lifted (I
presume using the CTRL interface?).
Change-Id: Ie021483e93ab174abac51357bcca8895756566c4
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When an internal handover is done the specification demands to inform
the MSC about the event.
- Add sending of BSSMAP HANDOVER PERFORMED msg.
Change-Id: If26e5807280e0f75a423b3b04f8e3c698c82a351
Depends: libosmocore I825106858bd89afc9837811b8fed2e8accc82441
Related: OS#3645
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The current idea of calling gscon_release_lchans is not enough because
the conn is still present.
Insetad pretend we got a disconnect indication from the MSC which will
call gscon_release_lchans as well as terminate the conn state machine
which will clean up conn state as well.
Related: OS#3680
Change-Id: Iccf5f6864ffe238189907c4bb3ea333948621b4c
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The idea is to have a base static value which is set like before "timer
t3113 [seconds]", but now have a part of this timeout calculated
dynamically based on BTS channel configuration and channel load.
This patch only implements initial support to calculate based on channel
configuration, but doesn't include code to calculate based on channel
load. To implement the later part, we probably need to keep track of BTS
paging queues per paging group, which we don't do nowadays.
Dynamic calculation is enabled by default, and default static base value
is decreased accordingly. This way, in a typical setup were the default
10 seconds were used, now the calculated final value is 11 seconds.
That's intended because it was observed experimentally in osmo-gsm-tester with
a similar channel setup that sometimes paging response can arrive slightly
later than 10 seconds.
Related: OS#3680
Change-Id: I4fb2969b690151415038631fb6ad059aa6835c7f
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When we enter WAIT_RLL_RTP_RELEASED
(lchan_fsm_wait_rll_rtp_released_onenter), we call lchan_do_release()
which in turn dispatches LCHAN_RTP_EV_RELEASE to lchan_rtp_fsm.c, which
will dispatch back an LCHAN_EV_RTP_RELEASED event, which will be handled
by lchan_fsm_wait_rll_rtp_released(), which will change state to
WAIT_BEFORE_RF_RELEASE. When going back the stack (return), we are still
in lchan_fsm_wait_rll_rtp_released_onenter() which again triggers a
change state to WAIT_BEFORE_RF_RELEASE because it checks same conditions
than first one.
20181128203727051 DCHAN osmo-bsc/lchan_fsm.c:1388 lchan(0-0-6-TCH_F_PDCH-0)[0x6120000039a0]{ESTABLISHED}: lchan detaches from conn SUBSCR_CONN(conn3)[0x612000002da0]
20181128203727051 DMSC osmo-bsc/lchan_fsm.c:1391 SUBSCR_CONN(conn3)[0x612000002da0]{CLEARING}: lchan lchan(0-0-6-TCH_F_PDCH-0)[0x6120000039a0] detaches from conn
20181128203727051 DCHAN osmo-bsc/lchan_fsm.c:1359 lchan(0-0-6-TCH_F_PDCH-0)[0x6120000039a0]{ESTABLISHED}: state_chg to WAIT_RLL_RTP_RELEASED
20181128203727052 DCHAN osmo-bsc/lchan_fsm.c:959 lchan(0-0-6-TCH_F_PDCH-0)[0x6120000039a0]{WAIT_RLL_RTP_RELEASED}: (type=TCH_F) SAPI[0] = 1
20181128203727052 DRR osmo-bsc/gsm_04_08_rr.c:254 Sending Channel Release: Chan: Number: 0 Type: 2
20181128203727052 DCHAN osmo-bsc/lchan_fsm.c:945 lchan_rtp(0-0-6-TCH_F_PDCH-0)[0x6120000027a0]{ESTABLISHED}: Received Event LCHAN_RTP_EV_RELEASE
20181128203727052 DCHAN osmo-bsc/lchan_rtp_fsm.c:572 lchan_rtp(0-0-6-TCH_F_PDCH-0)[0x6120000027a0]{ESTABLISHED}: Terminating (cause = OSMO_FSM_TERM_REGULAR)
20181128203727052 DCHAN osmo-bsc/lchan_rtp_fsm.c:572 lchan_rtp(0-0-6-TCH_F_PDCH-0)[0x6120000027a0]{ESTABLISHED}: Removing from parent lchan(0-0-6-TCH_F_PDCH-0)[0x6120000039a0]
20181128203727052 DCHAN osmo-bsc/lchan_rtp_fsm.c:572 lchan_rtp(0-0-6-TCH_F_PDCH-0)[0x6120000027a0]{ESTABLISHED}: Freeing instance
20181128203727052 DCHAN fsm.c:381 lchan_rtp(0-0-6-TCH_F_PDCH-0)[0x6120000027a0]{ESTABLISHED}: Deallocated
20181128203727052 DCHAN osmo-bsc/lchan_rtp_fsm.c:572 lchan(0-0-6-TCH_F_PDCH-0)[0x6120000039a0]{WAIT_RLL_RTP_RELEASED}: Received Event LCHAN_EV_RTP_RELEASED
20181128203727052 DCHAN osmo-bsc/lchan_fsm.c:856 lchan(0-0-6-TCH_F_PDCH-0)[0x6120000039a0]{WAIT_RLL_RTP_RELEASED}: (type=TCH_F) Still active SAPIs: 0
20181128203727052 DCHAN osmo-bsc/lchan_fsm.c:1011 lchan(0-0-6-TCH_F_PDCH-0)[0x6120000039a0]{WAIT_RLL_RTP_RELEASED}: state_chg to WAIT_BEFORE_RF_RELEASE
20181128203727052 DRSL osmo-bsc/abis_rsl.c:633 (bts=0,trx=0,ts=6,ss=0) DEACTivate SACCH CMD
20181128203727052 DCHAN osmo-bsc/lchan_fsm.c:986 lchan(0-0-6-TCH_F_PDCH-0)[0x6120000039a0]{WAIT_BEFORE_RF_RELEASE}: transition to state WAIT_BEFORE_RF_RELEASE not permitted!
Change-Id: I5d95bbd8244cc8e9c1cfb6fe0f76148332386a3d
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lchan sends TS_EV_LCHAN_UNUSED to its parent (ts) during release time. It
was experimentally found that it can happen that an lchan can be terminated
while waiting for a PDCH DEACT (N)ACK response.
The fsm definition actually states that this event can be received in
state TS_ST_WAIT_PDCH_DEACT, but it was not handled before and as a result the
process aborted due to the default switch case.
Change-Id: If61493e7d5449bf2c2de9fd34cdf2410625e92ac
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20181128193707326 DCHAN osmo-bsc/lchan_rtp_fsm.c:193 lchan_rtp(0-0-6-TCH_F_PDCH-0)[0x612000002320]{WAIT_MGW_ENDPOINT_AVAILABLE}: Freeing instance
20181128193707327 DCHAN fsm.c:381 lchan_rtp(0-0-6-TCH_F_PDCH-0)[0x612000002320]{WAIT_MGW_ENDPOINT_AVAILABLE}: Deallocated
20181128193707327 DCHAN osmo-bsc/lchan_rtp_fsm.c:193 lchan(0-0-6-TCH_F_PDCH-0)[0x6120000039a0]{WAIT_TS_READY}: Received Event LCHAN_EV_RTP_RELEASED
20181128193707330 DCHAN osmo-bsc/lchan_fsm.c:1347 lchan(0-0-6-TCH_F_PDCH-0)[0x6120000039a0]{WAIT_TS_READY}: transition to state WAIT_RLL_RTP_RELEASED not permitted!
Change-Id: I43aab5ed8ac369869b191b3b7c938ce4985ab849
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When lchan_rtp_fsm instance is allcoated with
osmo_fsm_inst_alloc_child(..., LCHAN_EV_RTP_RELEASED) we already let fsm
code to take care of sending that event ito the parent when the fsm is
terminated (but only if freeing cause is not OSMO_FSM_TERM_PARENT).
The lchan_rtp_fsm cleanup() callback, which is called immediatelly before
sending to the parent the event defined during osmo_gsm_install_alloc_child(),
currently also sends that same event, which ends up in a duplicated
event being sent as shown in log files below.
Let's only send the event in cleanup() if we are in the
cause=OSMO_FSM_TERM_PARENT scenario, to make sure parent always receives the
event, but only once.
20181128193707326 DAS osmo-bsc/assignment_fsm.c:127 assignment(conn4_0-0-6-TCH_F_PDCHasPDCH-0)[0x6120000024a0]{WAIT_LCHAN_ACTIVE}: (bts=0,trx=0,ts=6,ss=0) Assignment failed
20181128193707326 DAS osmo-bsc/assignment_fsm.c:128 assignment(conn4_0-0-6-TCH_F_PDCHasPDCH-0)[0x6120000024a0]{WAIT_LCHAN_ACTIVE}: Terminating (cause = OSMO_FSM_TERM_ERROR)
20181128193707326 DAS osmo-bsc/assignment_fsm.c:128 assignment(conn4_0-0-6-TCH_F_PDCHasPDCH-0)[0x6120000024a0]{WAIT_LCHAN_ACTIVE}: Removing from parent SUBSCR_CONN(conn4)[0x612000002920]
20181128193707326 DCHAN osmo-bsc/lchan_fsm.c:1333 lchan_rtp(0-0-6-TCH_F_PDCH-0)[0x612000002320]{WAIT_MGW_ENDPOINT_AVAILABLE}: Received Event LCHAN_RTP_EV_ROLLBACK
20181128193707326 DCHAN osmo-bsc/lchan_rtp_fsm.c:193 lchan_rtp(0-0-6-TCH_F_PDCH-0)[0x612000002320]{WAIT_MGW_ENDPOINT_AVAILABLE}: Terminating (cause = OSMO_FSM_TERM_REQUEST)
20181128193707326 DCHAN osmo-bsc/lchan_rtp_fsm.c:193 lchan_rtp(0-0-6-TCH_F_PDCH-0)[0x612000002320]{WAIT_MGW_ENDPOINT_AVAILABLE}: Removing from parent lchan(0-0-6-TCH_F_PDCH-0)[0x6120000039a0]
20181128193707326 DRSL osmo-bsc/mgw_endpoint_fsm.c:441 mgw-endpoint(conn4)[0x6120000021a0]{WAIT_MGW_RESPONSE}: (rtpbridge/*@mgw) CI[0] to-BTS: DLCX :0: notify=NULL
20181128193707326 DRSL osmo-bsc/mgw_endpoint_fsm.c:482 mgw-endpoint(conn4)[0x6120000021a0]{WAIT_MGW_RESPONSE}: (rtpbridge/*@mgw) CI[0] to-BTS: DLCX :0: Scheduling
20181128193707326 DCHAN osmo-bsc/lchan_rtp_fsm.c:742 lchan(0-0-6-TCH_F_PDCH-0)[0x6120000039a0]{WAIT_TS_READY}: Received Event LCHAN_EV_RTP_RELEASED
20181128193707326 DCHAN osmo-bsc/lchan_rtp_fsm.c:193 lchan_rtp(0-0-6-TCH_F_PDCH-0)[0x612000002320]{WAIT_MGW_ENDPOINT_AVAILABLE}: Freeing instance
20181128193707327 DCHAN fsm.c:381 lchan_rtp(0-0-6-TCH_F_PDCH-0)[0x612000002320]{WAIT_MGW_ENDPOINT_AVAILABLE}: Deallocated
20181128193707327 DCHAN osmo-bsc/lchan_rtp_fsm.c:193 lchan(0-0-6-TCH_F_PDCH-0)[0x6120000039a0]{WAIT_TS_READY}: Received Event LCHAN_EV_RTP_RELEASED
20181128193707330 DCHAN osmo-bsc/lchan_fsm.c:1347 lchan(0-0-6-TCH_F_PDCH-0)[0x6120000039a0]{WAIT_TS_READY}: transition to state WAIT_RLL_RTP_RELEASED not permitted!
20181128193707330 DAS osmo-bsc/assignment_fsm.c:128 assignment(conn4_0-0-6-TCH_F_PDCHasPDCH-0)[0x6120000024a0]{WAIT_LCHAN_ACTIVE}: Freeing instance
20181128193707330 DAS fsm.c:381 assignment(conn4_0-0-6-TCH_F_PDCHasPDCH-0)[0x6120000024a0]{WAIT_LCHAN_ACTIVE}: Deallocated
Change-Id: I3e95a21e5a5ec6c35b1ab20b7a642fd7eb81e556
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Before this patch, TCH lchans waiting for dynamic TS to
switch PDCH->TCH wouldn't be counted.
See osmo-bsc I9cedb77d6578597f1febab36c54b2ee427c7a4a2 for similar
extensive explanation.
Change-Id: I32008859cc23cd2afddd79daae21497d0945fed0
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If TS is in state changing from PDCH->TCH, the TCH lchan provoking the
switch would be skipped and not terminated before this patch.
See osmo-bsc I9cedb77d6578597f1febab36c54b2ee427c7a4a2 for similar
extensive explanation.
Change-Id: I9dc2a6e5b15376d049bd2ac5ddfa24340771b5c8
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Change-Id: Ie438b4efaa9832c44009a92c3df698875f1fa9ae
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If ts_is_lchan_waiting_for_pchan() wasn't accounting for TCH lchans
waiting for TS to deactive PDCH in order to setup the TS as TCH.
Since now TCH lchan is catched by ts_is_lchan_waiting_for_pchan() when
TS state is TS_ST_WAIT_PDCH_DEACT, there's no need to check for that
case in caller ts_is_pchan_switching(), since it will never hit because
the callee returns true in that case now.
See osmo-bsc I9cedb77d6578597f1febab36c54b2ee427c7a4a2 for similar
extensive explanation.
Change-Id: Ib03e5a91438a5b74a04e69f81fab565842b02b66
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Documentation of the function explicitly states that the out
target_pchan param returns the "PCHAN waited for". If we return false,
then no PCHAN is being waited for. The 2 callers of this function only
use this out param if function returns true, so let's simplify the code.
Change-Id: Ib8f9b7e1f584dee885d6823dc043682577572bd8
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In general PDCH channels are not handled as lchans in BSC (lchan_fsm.c),
and so when a TS is in ts->pchan_is=GSM_PCHAN_PDCH, no lchan slot is
being used.
However, during Dynamic TS PDCH Deactivation being in progress (state
WAIT_PDCH_DEACT in timeslot_fsm.c), ts->pchan_is =GSM_PCHAN_PDCH, but
an lchan slot of that TS is actually already being used by a TCH lchan:
it's the one who initiated the deactivate in order to be able to use the TS.
While being in WAIT_PDCH_DEACT state and receiving a PDCH DEACT NACK,
ts_fsm_error() was called in order to kill the TS and it was expected
that it would kill any lchan using it (or willing to start using it). In
order to do that, it calls ts_lchans_dispatch() which in turns iterates
over all lchans attached to the TS using ts_for_each_lchan().
However, when the NACK arrived we still had ts->pchan_is=GSM_PCHAN_PDCH,
ts_for_each_lchan ends up calling
ts_as_pchan_for_each_lchan(GSM_PCHAN_PDCH), which in turns calls
pchan_subslots(GSM_PCHAN_PDCH) which returns 0, because we don't manage
lchans in that mode as explained in first paragraph. This means in this
case ts_for_each_lchan() is actually an empty loop while still any of
the TCH channels may be in use, and won't be advertised about the TS
entering in a broken state.
As a result, the lchan won't be released for a while, only after T23001
expires.
Related: OS#3708
Change-Id: I9cedb77d6578597f1febab36c54b2ee427c7a4a2
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It will be used further in follow-up patches. It also provides a place
to document its (intricate) logic around it and its possible uses.
Change-Id: Ia1d4bdbfca6b9719f54ee609b6bfadf7f3a4bb43
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Every DTAP message coming from the MSC has a header (see struct
dtap_header) that contains message type, length, and link ID.
The link ID indicates SAPI and channel type of a given message.
In dtap_rcvmsg() we allocate a new message buffer and copy the
received message into it. The old message buffer is freed by
the caller then.
The link ID value parsed from DTAP header is usually being stored
in the control buffer of a message buffer (i.e. msgb->cb). Due to
a mistake, it was stored in the old (to be freed) message, while
the new (to be forwarded) message always had link_id = 0x00!
This change resolves the problem with sending SMS during a voice
call, when MT signalling goes through FACCH, while MO signalling
goes through SACCH.
Change-Id: I7675e1ce4436fad836778261ac9d446fa8f81483
Related: OS#3716
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follow-up to I9ad094d272254d7aee9b0a676201d4ed8cd727ca because it was merged
before fixeria's code review could be incorporated.
Change-Id: I474cf1a58d1f00ec5b0ae52bd095a60aad763975
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If BTS is configured to have only TCH/F_PDCH and TCH/H and a call is
resolved to require TCH/F, don't return the TCH/H which have no use, but
instead let it allocate the TCH/F_PDCH.
20181128185013783 DRLL <0000> lchan_select.c:159 (bts=0) lchan_select_by_type(TCH_F)
20181128185013783 DRLL <0000> lchan_select.c:71 looking for lchan TCH/F: (bts=0,trx=0,ts=0,pchan=CCCH+SDCCH4,state=IN_USE) is != TCH/F
20181128185013783 DRLL <0000> lchan_select.c:71 looking for lchan TCH/F: (bts=0,trx=0,ts=1,pchan=SDCCH8,state=UNUSED) is != TCH/F
20181128185013783 DRLL <0000> lchan_select.c:71 looking for lchan TCH/F: (bts=0,trx=0,ts=2,pchan=TCH/H,state=UNUSED) is != TCH/F
20181128185013783 DRLL <0000> lchan_select.c:71 looking for lchan TCH/F: (bts=0,trx=0,ts=3,pchan=TCH/H,state=UNUSED) is != TCH/F
20181128185013783 DRLL <0000> lchan_select.c:71 looking for lchan TCH/F: (bts=0,trx=0,ts=4,pchan=TCH/H,state=UNUSED) is != TCH/F
20181128185013783 DRLL <0000> lchan_select.c:71 looking for lchan TCH/F: (bts=0,trx=0,ts=5,pchan=TCH/H,state=UNUSED) is != TCH/F
20181128185013783 DRLL <0000> lchan_select.c:71 looking for lchan TCH/F: (bts=0,trx=0,ts=6,pchan_on_init=TCH/F_PDCH,pchan=PDCH,state=PDCH) is != TCH/F
20181128185013784 DRLL <0000> lchan_select.c:71 looking for lchan TCH/F: (bts=0,trx=0,ts=7,pchan_on_init=TCH/F_PDCH,pchan=PDCH,state=PDCH) is != TCH/F
20181128185013784 DRLL <0000> lchan_select.c:71 looking for lchan TCH/H: (bts=0,trx=0,ts=0,pchan=CCCH+SDCCH4,state=IN_USE) is != TCH/H
20181128185013784 DRLL <0000> lchan_select.c:71 looking for lchan TCH/H: (bts=0,trx=0,ts=1,pchan=SDCCH8,state=UNUSED) is != TCH/H
20181128185013784 DRLL <0000> lchan_select.c:86 looking for lchan TCH/H: (bts=0,trx=0,ts=2,pchan=TCH/H,state=UNUSED) ss=0 is available
20181128185013784 DCHAN <0010> lchan_select.c:253 lchan(0-0-2-TCH_H-0)[0x6120000066a0]{UNUSED}: (type=TCH_H) Selected
Change-Id: I9a73beb0432fab16d5430e5b40d470694e09b189
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Change-Id: I5140f98e23b8c8d16ce0cca0be66297aaf0b5653
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Set flag lchan->activate.immediate_assignment_sent to true when sending, and
omit a reject after that.
lchan->activate gets completely zeroed in lchan_reset(), which sets that flag
back to false whenever an lchan becomes inactive.
Related: OS#3709
Change-Id: I9ad094d272254d7aee9b0a676201d4ed8cd727ca
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Add following commands showing only TRX with appropriate RSL link
status:
* show trx connected
* show trx disconnected
This simplifies troubleshooting of complex setup with multiple BTS with
several TRX each.
Change-Id: I48866ce311a3e2c63235f60a497efe97bbd05a4a
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Add LCLS variant where the loop is closed on BTS level instead of
MGW. The main difference is the handling of connection-related
messages (we use IPA RSL instead of MGCP), the configuration and
correlation logic remains the same.
Change-Id: I7e8379f31037f2c48da69a01919701919a3066a2
Related: OS#3659
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In preparation for upcoming LCLS changes we have to split IPA RSL MDCX
generation into separate function with the ability to set destination
explicitly instead of just using the value from lchan which will be used
in follow-up patches.
Change-Id: Iffe2f4f10e841fc36965cce02b4e5f017a5ae6c8
Related: OS#3659
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gscon_release_lchans stub is added to gsm0408_test.c to make linker
happy.
Change-Id: I1743f9d5cd0fdbc0fb9afe7bcc0271c897915210
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This signal can be used for tools willing to request and parse Attribute Response
and do something with the information. ipaccess-config tool will use
this signal in later patch Change-Id Ida416a969a3309868d6f4e50f34b34f224c32dd6.
Related: OS#3624
Change-Id: I9a121bbfe1b96904d4e16845abc90bb6ef20d2c9
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Related: OS#3063
Depends: libosmocore Change-Id I780d452dcebce385469e32ef2fd844df6033393a
Change-Id: Ib001501bf37289e824a1f72b62afde23892e88d2
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Before libosmocore Change-Id I780d452dcebce385469e32ef2fd844df6033393a,
it avoids stating arfcn 886-954 are compatible when operating under
DC1800. After that Change-Id, avoids aborting the program due to
unexpected behaviour.
Related: OS#3063
Depends: libosmocore Change-Id I780d452dcebce385469e32ef2fd844df6033393a
Change-Id: Ibf5d5ab50b6fc6597244eeedcd27d2ce245278a3
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Some nanoBTS firmwares (if not all) are known to not work properly with
SI2ter. If BSC enables SI2ter through RSL, SI3 bit announcing SI2ter
available will be forwarded by nanoBTS to MS, but will still only send
SI2 message instead of expected SI2ter during TC=5 (see GSM 05.02 sec 6.3.4 "Mapping
of BCCH data"). As a result, some MS won't allow registering to the
network.
To avoid this kind of scenario, enable force-combined-si by default on
nanoBTS while still allowing to overwrite the feature through VTY. Other
BTS models are kept with force-combined-si disabled by default as
usually, since they seems to be working fine when SI2ter is enabled.
Related: OS#3063
Change-Id: Ide6e8967de0eedc9e2bcaf4414aaa537b009d72d
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3GPP TS 04.08 V7.21.0, section "9.1.34 System information type 2ter"
states:
"""
This message has a L2 pseudo length of 18. This message may be sent
by the network with either a L2 pseudo length of 18 or some other
value. A mobile station that does not ignore this message shall not
discard the message due to a received L2 pseudo length different
from 18.
"""
Change-Id: I45cb217ebdf89b82b0f37f38eef7a1e3a651f541
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