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TPU_DEBUG used to read from TPU RAM, which unfortunately seems rather
slow, so copying it over from there broke overall timing leading to
infamous "DSP Error 24" when TPU_DEBUG is enabled.
Change-Id: Idde061df8c129aa51b2e4540c8ef2e4116468c9c
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We need to make sure to allocte sufficient space to include
the 32bit frame number at the start of the TPU_DEBUG msgb.
Change-Id: Ifb3ce6f91131fc361b20c3b3fe5ebc7079633ac3
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The original code used simplified logic whereby it assumed that
Spansion flash means MG01GSMT and Samsung flash means MGCxGSMT.
However, there exist MGC2GSMT hw variants with Spansion S71PL032J
flash in them, thus it is necessary to check the complete device ID
rather than just the flash manufacturer ID to distinguish between
MG01GSMT with 8 MiB flash (S71PL064J) and MGCxGSMT with 4 MiB flash
(S71PL032J, K5A3281CTM or K5L3316CAM).
Distinguishing between 4 MiB and 8 MiB flash chip types is also
necessary in order to configure TIFFS reader for the correct FFS
location matching that used by the original firmware, which is
in turn necessary in order to read factory RF calibration values.
Closes: OS#4769
Change-Id: Iaa5bd295e9cbf6b525fa385f9d6cd7fcd7f8a4dd
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* Switch Calypso output CS4/ADD22 to ADD22 function as needed
in order to access the upper half of the flash on GTM900 hw
variant MG01GSMT.
* Set WS=4 for safety - please refer to this technical article for
the underlying theory:
https://www.freecalypso.org/hg/freecalypso-docs/file/tip/MEMIF-wait-states
Related: OS#4769
Change-Id: I1923243937d7251f6bcfe71a0b1cc0e206a81cfa
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This change fixes one bug and one uncertainty:
Bug: Huawei defined Calypso GPIO 3 to be DTR input on this modem,
following TI's precedent from C-Sample and D-Sample platforms.
(Huawei's documentation calls the corresponding FPC interface pin
UART_DTR without even mentioning that it is actually wired to
Calypso GPIO 3 in the hardware.)
The previous code (erroneously copied from gta0x target which is
different in this regard) configured this GPIO to be an output,
creating a driver conflict.
Uncertainty: GPIOs 4, 6, 10, 11 and 12 power up as inputs, and
Huawei's official fw leaves them as such. But in the absence of
someone reverse-engineering a sacrificial GTM900 module by slicing
its PCB and imaging its copper layers and vias, we don't know if
these Calypso pins are simply unconnected like they are on Openmoko
devices (in which case they are floating inputs and should be
switched to driving dummy outputs), or if they are tied off in the
hardware in one way or another, in which case leaving them as inputs
is correct.
On the reasoning that floating inputs are a lesser evil than driver
conflicts or shorted outputs, leave these GPIOs as inputs until
we gain better knowledge of this aspect of the hardware.
Related: OS#4769
Change-Id: Ia41f8bc19fb1775b0587fe1ceaa8acd066710aa5
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GTM900-B can share almost all calibration tables with GTA0x and FCDEV3B,
only the VCXO is significantly different.
Related: OS#3582
Change-Id: I52b63b1d086452139b1efd308d47a4183eace745
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We have new hardware targets that have appeared since the original
OS#3582 patch was created, namely Huawei GTM900-B and the upcoming
FreeCalypso Caramel2 board. These new targets need the same APC
offset as gta0x and fcdev3b (TI's original Leonardo value), they
have proper calibration records in their FFS (meaning that all
compiled-in numbers become no-effect placeholders), and their PA
tracts are similar enough to Openmoko/FCDEV3B to where even in the
absence of calibration OM/FC numbers are close enough. Thus most
of the tables in board/gta0x/rf_tables.c should be reusable by
these new targets.
However, these new targets have quite different VCXOs from Openmoko
and FCDEV3B, thus they need different AFC parameters. Thus we split
board/gta0x/afcparams.c from board/gta0x/rf_tables.c, making the
latter more reusable.
Related: OS#3582
Change-Id: I92e245843253f279dd6d61bd5098766694c5215f
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Since If6e212baeb10953129fb0d5253d263567f5e12d6, we can read the TIFFS
file-system, thus we can read and use the factory RF calibration values.
* Implement parsing of factory RF calibration values for Motorola C1xx,
Openmoko GTA0x, Pirelli DP-L10, and upcoming FCDEV3B targets.
* Remove the old Tx power level control code and tables, and replace
them with new logic that exactly matches what the official chipset
firmware (TI/FreeCalypso) does, using tables in TI/FreeCalypso
format. Compiled-in tables serve as a fallback and match each
target's respective original firmware.
* Use individual AFC slope values for different targets. The original
value was/is only correct for the Mot C1xx family, whereas
GTA0x/FCDEV3B and Pirelli DP-L10 need different values because
Openmoko's VCXO (copied on the FCDEV3B) and Pirelli's VCTCXO
are different from what Motorola used.
* Take the initial AFC DAC value for the FB search from factory
calibration records on those targets on which it has been
calibrated per unit at the factory.
* Use individual APC offset for different targets instead of
the hard-coded value. The Mot/Compal's and Pirelli's firmwares
(both heavily modified relative to TI) use different APC offset
settings: 32 for Compal and 0 for Pirelli, while Openmoko and
FreeCalypso devices use 48.
Change-Id: Icf2693b751d86ec1d2563412d606c13d4c91a806
Related: OS#3582
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Change-Id: Ibbdb0093d8f502dcd57ea92b53e7e56b09ee9e5f
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To make the situation about stdint.h even more complicated, this
toolchain doesn't anymore #define __int8_t_defined, which means
we again run into conflicting definitions :/
Let's try to use INT8_MAX as a key.
Change-Id: I1a74cdcd03366390e88b2d5bddf01329410b9f1c
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GIT_SHORTHASH is used by the recently introduced snake game.
Change-Id: I837e3dcc5c44e64ca7f6c243c08981ed01f35dd1
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Change-Id: I3c3f012552f2a7474ade911fc071c89e55e19352
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Change-Id: Id8856ace2a31ba4ebcd04746e0c96c23a679cc40
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button is pressed
I am not sure how other developers do this. There are probably better ways to
make testing faster but I kind of like it this way.
I just call the twl3025_power_off_now function when the power key is pressed.
Change-Id: I1e55910acd8584c74e5e190b3334a8cf6987f5f3
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When a dedicated channel is activated, in chan_nr2mf_task_mask()
we calculate a bitmask of the corresponding multi-frame tasks to
be enabled. Three logical kinds of the multi-frame tasks exist:
- primary (master) - the main burst processing task,
e.g. MF_TASK_{TCH_F_ODD,SDCCH4_0,GPRS_PDTCH};
- secondary - additional burst processing task (optional),
e.g. MF_TASK_GPRS_PTCCH;
- measurement - neighbour measurement task (optional),
e.g. MF_TASK_NEIGH_{PM51,PM26E,PM26O}.
By default, the primary task is set to MF_TASK_BCCH_NORM (0x00).
Due to a mistake, the secondary task has also been set to BCCH,
so when we switch to a dedicated mode, we also enable the BCCH.
This leads to a race condition between the multi-frame tasks,
when both primary and secondary ones read bursts from the DSP
at the same time, so the firmware hangs because of that:
nb_cmd(0) and rxnb.msg != NULL
BURST ID 2!=0 BURST ID 3!=1
This regression was introduced together with experimental PDCH
support [1]. Let's use value -1 to indicate that the secondary
task is not set, and apply it properly.
Change-Id: I4d667b2106fd8453eac9e24019bdfb14358d75e3
Fixes: [1] I44531bbe8743c188cc5d4a6ca2a63000e41d6189
Related: OS#3155
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Change-Id: I91780146d066c45c42b037c22cb49fd8a96e832b
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Change-Id: Ide7b0527ad64a044977a10da4a82a8ecd1fbd8dc
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Change-Id: Icfc403e500c24628da722ab378fba31923afd1a1
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This change fixes several warnings reported by GCC 10.1.0:
apps/rssi/main.c:238:30: warning: 'sprintf' may write a terminating
nul past the end of the destination
apps/rssi/main.c:238:4: note: 'sprintf' output between 10 and 17
bytes into a destination of size 16
apps/rssi/main.c:413:26: warning: '.' directive writing 1 byte into
a region of size between 0 and 9
apps/rssi/main.c:413:3: note: 'sprintf' output between 10 and 20
bytes into a destination of size 16
Change-Id: I7980727b78f7622d792d82170f73c90ac5770397
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Both symbols are declared in 'layer1/prim.h'.
Change-Id: I36f41870bd63c70259316204ee17071853257ca4
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These symbols are defined, but never used:
- struct last_rach - seems to be copy-pasted from prim_rach.c,
- tall_msgb_ctx - already defined in libosmocore.
Change-Id: I6077c8e9b441f7848d1a4c25a8b5e1aed82f4b7d
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Change-Id: I16d5190b3cdc997c5609b52d41203f10264b017c
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This change implements basic (receive only) support of the PDCH
channels that are used in GPRS. Several coding schemes are
defined by 3GPP TS 45.003, however we can only do CS-1
for now, since it's basically an equivalent of xCCH.
In order to support the other schemes (CS2-4), we would need to
know how to configure the DSP (look at Freecalypso code?).
Change-Id: I44531bbe8743c188cc5d4a6ca2a63000e41d6189
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Change-Id: I472c12fd1dfbff4ca1ead972535d735857f1c3e7
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Change-Id: I962b42871693f33b1054d43d195817e9cd84bb64
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Both MG01GSMT and MG01GSMT hardware variants are
supported and automatically detected based on the
flash manufacturer.
Change-Id: I3a770ea93fc72c4e9b63078e253602f204b5be23
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We now unlock the flash before reading the
extended ID (required for Spansion and Samsung
flash chips). These commands will be ignored
by Intel/ST flash chips, and this change has been
verified with all flash chips we support.
Furthermore, expose the API for reading the flash ID.
Change-Id: I3bcd71c84c8931bcd574953063737b51a41738a3
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This commit adds polling of the TWL3025 PWON
signal. If the powerbutton is pressed on targets
that use it (Pirelli DP-L10, Huawei GTM900-B),
a normal keypad scanning cycle is started in order
to preserve the timing, required for the 500ms
power off press duration for example.
Change-Id: I904baf40d621bd680b602b88d12ff462b3c17596
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This allows us to detect power button presses on the Pirelli
DP-L10 and the Huawei GTM900-B module. Polling will only be
activated once the power button has been pressed and we received
the interrupt. The goal is to reduce the required amount of
TWL3025 register accesses to a minimum.
Change-Id: I31be61c8089173aed616abd1ede6c4cf5c9b6770
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This is what we describe in our wiki and what ships with recent
distros.
Change-Id: I70da7eeb33275fa5fff1d8a3581c384e031b12e5
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Use the system default python instead of a hardcoded python2
Allow to use python2 and python3.
Change-Id: Iab185759b574eff1ca1b189dcbb4e1a3eec52132
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Change-Id: I711df515012f5542de5e5008c8fe4e601609759e
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CBCH support in the firmware has been introduced almost at the same
time it was implemented in trxcon, and the same mistake was made
as described in Ia9a415628c659cbc2dd5dc65b875b7f935d6e211.
Despite Calypso based PHY does not support PDCH (GPRS channels),
let's avoid collisions and use the following cbits values:
0x19 / 0b11001 - MF_TASK_SDCCH4_CBCH on GSM_DCHAN_SDCCH_4_CBCH,
0x1a / 0b11010 - MF_TASK_SDCCH8_CBCH on GSM_DCHAN_SDCCH_8_CBCH.
Change-Id: Ibb0f90695460e6ede12016c12a0cfdf9c74dfb24
Related: OS#4027
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Change-Id: I77ce68d5904ff623f10f6475309052666bab7742
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Starting from [1], not only LMA but also VMA areas are now checked
for overlaps (see also [2]). This results into linking errors:
arm-none-eabi-ld: section .text.exceptions VMA
[000000000080001c,0000000000800037] overlaps section
.compal.reservedram VMA [0000000000800000,00000000008000fe]
arm-none-eabi-ld: section .text.exceptions VMA
[000000000080001c,0000000000800037] overlaps section
.compal.loader VMA [0000000000800000,00000000008000ff]
Let's try to work around this.
[1] https://sourceware.org/git/gitweb.cgi?p=binutils-gdb.git;h=a87dd97a2098b7e18ff2574a4e81ae521ef7e6f2
[2] https://sourceware.org/bugzilla/show_bug.cgi?id=18452
Change-Id: I098ddd33aabd7ec27981e2f09d8582f167bb649b
Fixes: OS#1917
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In OS#3582, the autor of TIFFS code, Mychaela Falconia, has noted:
... all of my code contributions are in the public domain and
are NOT copyrighted by me, and I strenuously object to anyone
taking it upon themselves to insert a copyright notice with
my name in it.
Let's update the copyright statements as recommended by the author.
Change-Id: If115991425372a4cdbcfefa115532c9c410e58c4
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All known TI GSM firmwares implement some kind of flash file system, or FFS.
We call it TIFFS (Texas Instruments FFS) because it is TI's invention.
TIFFS is a file system with a hierarchical directory tree structure, and
with Unixy forward-slash-separated, case-sensitive pathnames; the semantics
of "what is a file" and "what is a directory" are exactly the same as in
UNIX; and TIFFS even supports symlinks, although that support is a little
under-developed, and apparently no FFS symlinks were ever used in any
production GSM device. Thus the FFS implemented in TI-based GSM devices
(modems and "dumbphone" handsets) is really no different from, for example,
JFFS2 in embedded Linux systems.
The FFS in a GSM device typically stores two kinds of content:
- Factory data: IMEI, RF calibration values, device make/model/revision
ID strings etc. These files are expected to be programmed on the
factory production line and not changed afterward.
- Dynamic data written into the FFS in normal device operation: contacts,
settings / preferences, call history, received SMS, etc.
It should be noted that both Compal (Mot C1xx) and Foxconn (Pirelli DP-L10)
vendors moved their vital per-unit factory data out of the FFS into their
own ad hoc flash data structures, leaving their FFS only for less
critical data. However, we do enable TIFFS access for them anyway.
The location of TIFFS within the flash memory of a given GSM device is
defined by the firmware design of that device, but is always some integral
number of contiguous flash sectors.
- On Motorola/Compal C139/140 phones, the FFS used by the original
proprietary firmware occupies 5 sectors of 64 KiB each (320 KiB
in total), starting at 0x370000. C11x/123 use smaller FFS
configurations, whereas C155/156 seem to have switched to some
other FFS format, different from our familiar TIFFS.
- On the Pirelli DP-L10, the FFS used by the original proprietary
firmware occupies 18 sectors of 256 KiB each (for 4.5 MiB in total),
starting at the beginning of the 2nd flash chip select (0x02000000
in the ARM7 address space).
- On FCDEV3B (FreeCalypso hardware), the FFS is located in the first
8 sectors (of 256 KiB each) in the 2nd flash chip select bank,
which appears at 0x01800000 in the ARM7 address space.
- On the GTA01/02 GSM modem, FFS occupies 7 sectors of 64 KiB each,
starting at flash offset 0x380000.
For more information, please refer to the FreeCalypso project
documentation, from where this great contribution comes from.
Please note that existing MediaTek targets most likely use different
storage format as they have nothing from TI Calypso. Also, we don't
(yet) know the location of TIFFS on SE J100i and Compal E99 targets.
The TIFFS support is needed for the follow-up change, that
implements reading of the factory RF calibration values.
Tweaked (coding style changes) by Vadim Yanitskiy <axilirator@gmail.com>
Change-Id: If6e212baeb10953129fb0d5253d263567f5e12d6
Related: OS#3582
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FCDEV3B (stands for "FreeCalypso development board, triband") is a
GSM mobile station development board by FreeCalypso project. The
board features the same legendary TI Calypso GSM MS chipset that
was used in commercial GSM/GPRS modems such as Openmoko's, and
functions as a standalone (or "bare") GSM modem.
For more information, please see the project's web side:
https://www.freecalypso.org/fcdev3b.html.
Change-Id: I09bd35a18d3ea094000050169a62fd82ba6eccfe
Related: OS#3581
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The ability to read the second half of flash on E99 is needed
for the follow-up change, that implements reading of the
factory RF calibration values.
Change-Id: Ia677ebdc1ada9fd41daf211fd9da06cd118365fa
Related: OS#3582
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Each given Mot C1xx phone is made either for 900+1800 MHz, in which
case only the DCS Rx port is connected, or for 850+1900 MHz, in which
case only the PCS Rx port is connected. Let's tell the TRF6151 driver
that both DCS and PCS ports are connected, so that the same binary
build can be used on both EU-band and US-band C1xx phones.
If one needs to tune the TRF6151 receiver out of spec, or at least
outside of the DCS/PCS Rx SAW filter's legitimate passband (or if
the SAW filter was changed or removed), then the rffe_get_rx_ports()
function might be changed to indicate which Rx port is physically
connected: PORT_DCS1800 only or PORT_PCS1900 only.
Change-Id: I620084c33ad165faffbbfc45923faedad77aafb2
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Most Calypso peripheral interface signals are unconnected on
Openmoko GTA0x. Let's configure them to be GPIOs in IO_CONF_REG,
then configure them to be outputs in IO_CNTL_REG, then set
the outputs to 0 in ARMIO_LATCH_OUT.
Change-Id: I306ffacb623d2b06a188f84026ccadab408d1676
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Set LPG and PWL pin mux like Pirelli's firmware does.
Change-Id: I099e13800b7821a8fb274c5264c9823153afe564
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Unlike the DATA messages, traffic frames may have different length.
Instead of having fixed payload (i.e. TCH frame) length, let's
introduce a flexible array member. This would allow one to
calculate the frame length using the MSGB API.
Change-Id: I119fa36c84e95c3003d57c19e25f8146ed45c3c6
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Change-Id: I64582568f7390b7f4e3253508209a59eb78ee4dd
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According to GSM TS 05.02, there are two ways to enable CBCH:
a) replace sub-slot number 2 of CCCH+SDCCH/4 (comb. V),
b) replace sub-slot number 2 of SDCCH/8 (comb. VII).
Unlike SDCCH/8 (case b), CCCH+SDCCH/4 can be allocated on TS0
only, and shall not use frequency hopping. This means that
implementing CBCH support on SDCCH/8 would require much more
efforts than on combined CCCH+SDCCH/4, as in last case CBCH
messages can be received without the need to switch from
idle to dedicated mode.
This change introduces a new ccch_mode item, which should be
used by the higher layers to indicate presence of CBCH channel
on C0/TS0, so the PHY would enable decoding of CBCH messages
on CCCH+SDCCH/4 (case a) in idle mode.
Regarding to CBCH on SDCCH/8 (case b), it makes sense to
extend the 'l1ctl_dm_est_req', so it would be handled in
dedicated mode on request from the higher layers.
Change-Id: Ia94ebf22a2ec439dfe1f31d703b832ae57b48ef2
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According to GSM TS 05.02, section 3.3.5, Cell Broadcast Channel
(CBCH) is a downlink only channel, which is used to carry the
short message service cell broadcast (SMSCB). CBCH is optional,
and uses the same physical channel as SDCCH. More precisely,
CBCH replaces sub-slot number 2 of SDCCH channels when enabled.
This change introduces the following CBCH related tasks:
- MF_TASK_SDCCH4_CBCH (CBCH on C0/TS0 SDCCH/4),
- MF_TASK_SDCCH8_CBCH (CBCH on SDCCH/8),
which are identified using the following Osmocom specific cbits:
- MF_TASK_SDCCH4_CBCH - 0x18 (0b11000),
- MF_TASK_SDCCH8_CBCH - 0x19 (0b11001).
The only way to enable these tasks at the moment is to send
L1CTL_DM_EST_REQ message with required cbits and tn.
Change-Id: I1d7f02cba1cd8f6527360589d2d2747b6426f78b
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The mframe_task2chan_nr() is used to get the channel number
(encoded according to 08.58 Chapter 9.3.1) corresponding to
a given multi-frame task type.
It makes sense to at least print some debug message in cases
when there is no matching channel number for a given task type.
Change-Id: I34587b6c67015513de35d85a7a3291f452ee7f3b
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The '%u' format specifier should be used for unsigned values.
Change-Id: I1108c34e864304126e581d30b75bbd95b93f60b8
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Unfortunately current code architecture doesn't support a return path
with an error so tell the caller of L1CTL on the other side that
something's wrong.
Change-Id: Ib9b622dd5c9770c5e97fa58deee124a409544d3b
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Some time ago a broken fix was committed which
then has been reverted again in commit
17240037376169369b526ee8a8284961b85adbfa.
The purpose of this line is to clear the uplink
flag from the ARFCN. So far this worked because
both gsm_arfcn2band() and gsm_arfcn2freq10()
already do this internally.
Change-Id: Ie8a05ffc0ddec53d7fd6a25e03ea285fb216df29
Signed-off-by: Steve Markgraf <steve@steve-m.de>
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