The exact sequence the states the BTS goes through is slightly
different for one of the nanoBTS 139 I have and it needs this
to start.
Signed-off-by: Sylvain Munaut <tnt@246tNt.com>
Thise two functions are interfacing with the 04.08 layer 3 to
determine if a particular message should be handled inside
the OpenBSC layer 3, or if it should be handled in the silent call
handler.
* On start the vty code will call the abis_nm method and this
will set the administrative state to unlock/lock
* During startup the BTS will report its state as well and would
possible overwrite the set administrative. We are only going
to update the administrative if it was 0 before. This appears
to work on all of my tests. In case this will not be the case
for others we will have to split the administrative into two
sets one for the BTS and one for the BSC.
* This is used in sw_load_init and sw_load_end and both needs
to be touche for every BTS. Move it into a common method.
* This was only verified on the nanoBTS.
* Do not issue the restart right aways if we have OML IP or
software load in the queue (hint, we need a real queue of operations
to carry out... with one big state machine)
* Change the signal_data of ipacc ACK/NACK to contain the msg type
and the bts pointer.
* Issue a restart for software load and OML and use the BTS pointer
we got out of the new signal data.
We are filling sw_load1 with the information found with type
0x1000 and sw_load2 with type 0x2001. It appears from the protocol
traces that these information is not extracted from them. We also
need to include the \0 from the string.
With this firmware flashing seems to work.
* text3 seems to be a version as the text content starts
with a 'v'
* move the sdp_firmware into the ipaccess.h and declare
the function. The headers are returned through a list.
* The second magic number is only a short and it is
the same for all of my cases
* This also means that the first and second header
are the same which means the unknown 8 byte are
header and file size... and the 122 bytes are
actually multiple strings (just all empty on the
outermost SDP). Adding the strings left us with 120
bytes so we have two bytes of unknown usage..
* This is now capable of parsing outer and inner SDP
files and print their header.
* The internal SDP appears to have a different magic number
than the first entry and a slightly different packet format
* There are 8 byte of binary for at the beginning and the header
ends with a table pointing to some strings and then the actual
firmware follows.
* We currently only parse the strings of that header.
The something3 points to the next start of the SDP
entry. The four bytes in front of the " SDP" are not
known and just discarded. Prepare to be able to
recursively parse the SDP header...
I must have picked in the wrong section of these
files... There are some kind of header entries
that are all 138 byte long and this is the total
length...
In many cases we actually want a name / unique ID for the lchan,
not just for the on-air timeslot... especially in SDCCH/8 case,
where 8 SDCCHs share one timeslot...
When we allocate a channel, we send the RSL CHAN ACT REQ and wait until we get
a CHAN ACT ACK. Only the ACK will change the state, so there is a race where
we allocate that same channel to a different channel request before we get
the ACT ACK.
Introducing a new ACT_REQ state resolves this issue.
Sylvain Munaut
Harald Welte