Add KUnit test cases for the caching of control content.
The test cases can be divided into four groups:
1) The cache is correctly initialized when the firmware is first
downloaded.
2) Reads return the correct data.
3) Writes update the registers and cache.
4) If a value has been written to the control it is retained in
the cache and written out to the registers when the firmware
is started.
There are multiple test suites to cover:
- V1 and V2 format files on 16-bit and 32-bit ADSP2.
- V3 format files on Halo Core DSPs.
V1 format files, and some V2 format files, didn't provide access
flags for the controls. There are a couple of test cases for
unspecified flags to ensure backwards compatibility with the
original implementation of these older firmware versions.
The obsolete V0 format does not have controls, so no testing of
that format is needed.
Signed-off-by: Richard Fitzgerald <rf@opensource.cirrus.com>
Link: https://patch.msgid.link/20241212143725.1381013-9-rf@opensource.cirrus.com
Signed-off-by: Mark Brown <broonie@kernel.org>
Add KUnit test cases for parsing of firmware controls out of the
wmfw. These test cases are only testing that the data in the wmfw
is correctly interpreted and entered into the list of controls.
The test cases can be roughly divided into three types:
1) The correct values are extracted from the wmfw.
2) Variable-length strings are handled correctly.
3) Controls are correctly identified as unique or identical.
There are multiple test suites to cover:
- V1 and V2 format files on 16-bit and 32-bit ADSP2.
- V3 format files on Halo Core DSPs.
V1 format does not have named controls, and the strings in the
coefficient descriptor are fixed-length fields. On V2 and V3 format
the controls are named and all strings are variable-length.
The obsolete V0 format does not have controls, so no testing of
that format is needed.
Signed-off-by: Richard Fitzgerald <rf@opensource.cirrus.com>
Link: https://patch.msgid.link/20241212143725.1381013-8-rf@opensource.cirrus.com
Signed-off-by: Mark Brown <broonie@kernel.org>
This adds a KUnit test suite to test downloading wmfw files.
The general technique is
1. Create mock wmfw file content
2. Tell cs_dsp to download the wmfw file
3. Check in the emulated regmap registers that the correct values have
been written to DSP memory
4. Drop the regmap cache for the expected written registers and then do a
regcache_sync() to check for unexpected writes to other registers.
The test covers ADSP2 v1 and v2, and HALO Core DSPs. (ADSP1 is very
obsolete so isn't tested).
There is a large number of test cases and parameterized variants of tests
because of the many different addressing schemes supported by the Cirrus
devices. The DSP has 2 or 3 memory spaces: XM, YM and ZM. The DSP sees
these using its native addressing, which is word-addressed (not
byte-addressed). The host sees these through one of several register
mappings (depending on the DSP type and parent codec family). The
registers have three different addressing schemes: 16-bit registers
addressed by register number, 32-bit registers addressed by register
number, or 32-bit registers addressed by byte (with a stride of 4). In
addition to these multiple addressing schemes, the Halo Core DSPs have a
"packed" register mapping that maps 4 DSP words into 3 registers. In
addition to this there are 4 versions of the wmfw file format to be
tested.
The test cases intentionally have relatively little factoring-out of
similar code. This makes it much easier to visually verify that a test
case is testing correctly, and what exactly it is testing. Factoring out
large amounts of code into helper functions tends to obscure what the
actual test procedure is, so increasing the chance of hidden errors where
test cases don't actually test as intended.
Signed-off-by: Richard Fitzgerald <rf@opensource.cirrus.com>
Link: https://patch.msgid.link/20241212143725.1381013-7-rf@opensource.cirrus.com
Signed-off-by: Mark Brown <broonie@kernel.org>
This adds a KUnit test suite to test downloading bin files.
The general technique is
1. Create mock bin file content
2. Tell cs_dsp to download the bin file
3. Check in the emulated regmap registers that the correct values have
been written to DSP memory
4. Drop the regmap cache for the expected written registers and then do a
regcache_sync() to check for unexpected writes to other registers.
The test covers ADSP2 v1 and v2, and HALO Core DSPs. (ADSP1 is very
obsolete so isn't tested).
There is a large number of test cases and parameterized variants of tests
because of the many different addressing schemes supported by the Cirrus
devices. The DSP has 2 or 3 memory spaces: XM, YM and ZM. The DSP sees
these using its native addressing, which is word-addressed (not
byte-addressed). The host sees these through one of several register
mappings (depending on the DSP type and parent codec family). The
registers have three different addressing schemes: 16-bit registers
addressed by register number, 32-bit registers addressed by register
number, or 32-bit registers addressed by byte (with a stride of 4). In
addition to these multiple addressing schemes, the Halo Core DSPs have a
"packed" register mapping that maps 4 DSP words into 3 registers. The bin
file addresses the data blob relative to the base address of an algorithm,
which has to be calculated in both DSP words (for the DSP to access) and
register addresses (for the host).
This results in many different addressing schemes used in parallel, hence
the complexity of the address and size manipulation in the test cases:
word addresses in DSP memory, byte offsets, word offsets, register
addresses (either byte-addressed 32-bit or index-addressed 16-bit), and
packed register addresses.
The test cases intentionally have relatively little factoring-out of
similar code. This makes it much easier to visually verify that a test
case is testing correctly, and what exactly it is testing. Factoring out
large amounts of code into helper functions tends to obscure what the
actual test procedure is, so increasing the chance of hidden errors where
test cases don't actually test as intended.
Signed-off-by: Richard Fitzgerald <rf@opensource.cirrus.com>
Link: https://patch.msgid.link/20241212143725.1381013-6-rf@opensource.cirrus.com
Signed-off-by: Mark Brown <broonie@kernel.org>
Add a mock firmware file that emulates what the firmware build tools
would normally create. This will be used by KUnit tests to generate a
test bin file.
The data payload in a bin is an opaque blob, so the mock bin only needs
to generate the appropriate file header and description block for each
payload blob.
Signed-off-by: Richard Fitzgerald <rf@opensource.cirrus.com>
Link: https://patch.msgid.link/20241212143725.1381013-5-rf@opensource.cirrus.com
Signed-off-by: Mark Brown <broonie@kernel.org>
Add helper functions to implement an emulation of the DSP memory map.
There are three main groups of functionality:
1. Define a mock cs_dsp_region table.
2. Calculate the addresses of memory and algorithms from the firmware
header in XM.
3. Build a mock XM header in emulated XM.
Signed-off-by: Richard Fitzgerald <rf@opensource.cirrus.com>
Link: https://patch.msgid.link/20241212143725.1381013-3-rf@opensource.cirrus.com
Signed-off-by: Mark Brown <broonie@kernel.org>
Add a mock regmap implementation to act as a simulated DSP for KUnit
testing. This is built as a utility module so that it could be used by
clients of cs_dsp to create a mock "DSP" for their own testing.
cs_dsp interacts with the DSP only through registers. Most of the
register space of the DSP is RAM. ADSP cores have a small set of control
registers. HALO Core DSPs have a much larger set of control registers but
only a small subset are used.
Most writes are "blind" in the sense that cs_dsp does not expect to
receive any sort of response from the DSP. So there isn't any need to
emulate a "DSP", only a set of registers that can be written and read
back.
The idea of the mock regmap is to use the cache to accumulate writes
which can then be tested against the values that are expected to be in
the registers.
Stray writes can be detected by dropping the cache entries for all
addresses that should have been written and then issuing a regcache_sync().
If this causes bus writes it means there were writes to unexpected
registers.
Signed-off-by: Richard Fitzgerald <rf@opensource.cirrus.com>
Link: https://patch.msgid.link/20241212143725.1381013-2-rf@opensource.cirrus.com
Signed-off-by: Mark Brown <broonie@kernel.org>
Merge series from Claudiu <claudiu.beznea@tuxon.dev>:
Series enables the audio support for the Renesas RZ/G3S
SoC along with runtime PM and suspend to RAM.
The SSIF-2 IP is available on the Renesas RZ/G3S SoC. The Renesas RZ/G3S
SoC supports a power-saving mode where power to most of the SoC
components is turned off. Add suspend/resume support to the SSIF-2 driver
to support this power-saving mode.
On SNDRV_PCM_TRIGGER_SUSPEND trigger the SSI is stopped (the stream
user pointer is left untouched to avoid breaking user space and the dma
buffer pointer is set to zero), on SNDRV_PCM_TRIGGER_RESUME software reset
is issued for the SSIF-2 IP and the clocks are re-configured.
Signed-off-by: Claudiu Beznea <claudiu.beznea.uj@bp.renesas.com>
Link: https://patch.msgid.link/20241210170953.2936724-18-claudiu.beznea.uj@bp.renesas.com
Signed-off-by: Mark Brown <broonie@kernel.org>
The code initially issued software reset on SNDRV_PCM_TRIGGER_START
action only before starting the first stream. This can be easily moved to
hw_params() as the action is similar to setting the clocks. Moreover,
according to the hardware manual (Table 35.7 Bits Initialized by Software
Reset of the SSIFCR.SSIRST Bit) the software reset action acts also on the
clock dividers bits. Due to this issue the software reset in hw_params()
before configuring the clock dividers. This also simplifies the code in
trigger API.
Reviewed-by: Geert Uytterhoeven <geert+renesas@glider.be>
Signed-off-by: Claudiu Beznea <claudiu.beznea.uj@bp.renesas.com>
Link: https://patch.msgid.link/20241210170953.2936724-17-claudiu.beznea.uj@bp.renesas.com
Signed-off-by: Mark Brown <broonie@kernel.org>
The stop trigger invokes rz_ssi_stop() and rz_ssi_stream_quit().
- The purpose of rz_ssi_stop() is to disable TX/RX, terminate DMA
transactions, and set the controller to idle.
- The purpose of rz_ssi_stream_quit() is to reset the substream-specific
software data by setting strm->running and strm->substream appropriately.
The function rz_ssi_is_stream_running() checks if both strm->substream and
strm->running are valid and returns true if so. Its implementation is as
follows:
static inline bool rz_ssi_is_stream_running(struct rz_ssi_stream *strm)
{
return strm->substream && strm->running;
}
When the controller is configured in full-duplex mode (with both playback
and capture active), the rz_ssi_stop() function does not modify the
controller settings when called for the first substream in the full-duplex
setup. Instead, it simply sets strm->running = 0 and returns if the
companion substream is still running. The following code illustrates this:
static int rz_ssi_stop(struct rz_ssi_priv *ssi, struct rz_ssi_stream *strm)
{
strm->running = 0;
if (rz_ssi_is_stream_running(&ssi->playback) ||
rz_ssi_is_stream_running(&ssi->capture))
return 0;
// ...
}
The controller settings, along with the DMA termination (for the last
stopped substream), are only applied when the last substream in the
full-duplex setup is stopped.
While applying the controller settings only when the last substream stops
is not problematic, terminating the DMA operations for only one substream
causes failures when starting and stopping full-duplex operations multiple
times in a loop.
To address this issue, call dmaengine_terminate_async() for both substreams
involved in the full-duplex setup when the last substream in the setup is
stopped.
Fixes: 4f8cd05a43 ("ASoC: sh: rz-ssi: Add full duplex support")
Cc: stable@vger.kernel.org
Reviewed-by: Biju Das <biju.das.jz@bp.renesas.com>
Signed-off-by: Claudiu Beznea <claudiu.beznea.uj@bp.renesas.com>
Reviewed-by: Geert Uytterhoeven <geert+renesas@glider.be>
Link: https://patch.msgid.link/20241210170953.2936724-5-claudiu.beznea.uj@bp.renesas.com
Signed-off-by: Mark Brown <broonie@kernel.org>
Merge series from Kuninori Morimoto <kuninori.morimoto.gx@renesas.com>:
These patches tidyup simple-card-utils for Multi connection of
Audio Graph Card, Because of DT node parsing, it should check port
1st instead of endpoint. Otherwise, it can't handle DAI correctly.
Merge series from Chancel Liu <chancel.liu@nxp.com>:
Platforms like i.MX93/91 only have one audio PLL. Some sample rates are
not supported. If the PLL source is used for 8kHz series rates, then
11kHz series rates can't be supported. Add common function to constrain
rates according to different clock sources.
In ASoC drivers switch to this new function.
Merge series from codekipper@gmail.com:
I've tested this patch series on the Allwinner H3, A64, H6 and H313 SoCs
up to 192KHz.
24bit support is working on my H313 board but 16bit plays a bit slow and
I suspect that there is an issue with the clock setups. This is even
present without this patch stack. I would look to address this asap,
but for now can you please review what's here.
There have been intermittent issues with the SPDIF output on H3
and H2+ devices which has been fixed by setting the s_clk to 4
times the audio pll.
Add a quirk for the clock multiplier as not every supported SoC
requires it. Without the multiplier, the audio at normal sampling
rates was distorted and did not play at higher sampling rates.
Fixes: 1bd92af877 ("ASoC: sun4i-spdif: Add support for the H3 SoC")
Signed-off-by: George Lander <lander@jagmn.com>
Signed-off-by: Marcus Cooper <codekipper@gmail.com>
Link: https://patch.msgid.link/20241111165600.57219-2-codekipper@gmail.com
Signed-off-by: Mark Brown <broonie@kernel.org>
The function i2c_match_id() is used to fetch the matching ID from
the i2c_device_id table. This is often used to then retrieve the
matching driver_data. This can be done in one step with the helper
i2c_get_match_data().
This helper has a couple other benefits:
* It doesn't need the i2c_device_id passed in so we do not need
to have that forward declared, allowing us to remove those or
move the i2c_device_id table down to its more natural spot
with the other module info.
* It also checks for device match data, which allows for OF and
ACPI based probing. That means we do not have to manually check
those first and can remove those checks.
Signed-off-by: Andrew Davis <afd@ti.com>
Link: https://patch.msgid.link/20241203200001.197295-21-afd@ti.com
Signed-off-by: Mark Brown <broonie@kernel.org>
The function i2c_match_id() is used to fetch the matching ID from
the i2c_device_id table. This is often used to then retrieve the
matching driver_data. This can be done in one step with the helper
i2c_get_match_data().
This helper has a couple other benefits:
* It doesn't need the i2c_device_id passed in so we do not need
to have that forward declared, allowing us to remove those or
move the i2c_device_id table down to its more natural spot
with the other module info.
* It also checks for device match data, which allows for OF and
ACPI based probing. That means we do not have to manually check
those first and can remove those checks.
Signed-off-by: Andrew Davis <afd@ti.com>
Link: https://patch.msgid.link/20241203200001.197295-20-afd@ti.com
Signed-off-by: Mark Brown <broonie@kernel.org>
The function i2c_match_id() is used to fetch the matching ID from
the i2c_device_id table. This is often used to then retrieve the
matching driver_data. This can be done in one step with the helper
i2c_get_match_data().
This helper has a couple other benefits:
* It doesn't need the i2c_device_id passed in so we do not need
to have that forward declared, allowing us to remove those or
move the i2c_device_id table down to its more natural spot
with the other module info.
* It also checks for device match data, which allows for OF and
ACPI based probing. That means we do not have to manually check
those first and can remove those checks.
Signed-off-by: Andrew Davis <afd@ti.com>
Link: https://patch.msgid.link/20241203200001.197295-19-afd@ti.com
Signed-off-by: Mark Brown <broonie@kernel.org>
The function i2c_match_id() is used to fetch the matching ID from
the i2c_device_id table. This is often used to then retrieve the
matching driver_data. This can be done in one step with the helper
i2c_get_match_data().
This helper has a couple other benefits:
* It doesn't need the i2c_device_id passed in so we do not need
to have that forward declared, allowing us to remove those or
move the i2c_device_id table down to its more natural spot
with the other module info.
* It also checks for device match data, which allows for OF and
ACPI based probing. That means we do not have to manually check
those first and can remove those checks.
Signed-off-by: Andrew Davis <afd@ti.com>
Link: https://patch.msgid.link/20241203200001.197295-18-afd@ti.com
Signed-off-by: Mark Brown <broonie@kernel.org>
The function i2c_match_id() is used to fetch the matching ID from
the i2c_device_id table. This is often used to then retrieve the
matching driver_data. This can be done in one step with the helper
i2c_get_match_data().
This helper has a couple other benefits:
* It doesn't need the i2c_device_id passed in so we do not need
to have that forward declared, allowing us to remove those or
move the i2c_device_id table down to its more natural spot
with the other module info.
* It also checks for device match data, which allows for OF and
ACPI based probing. That means we do not have to manually check
those first and can remove those checks.
Signed-off-by: Andrew Davis <afd@ti.com>
Link: https://patch.msgid.link/20241203200001.197295-17-afd@ti.com
Signed-off-by: Mark Brown <broonie@kernel.org>
The function i2c_match_id() is used to fetch the matching ID from
the i2c_device_id table. This is often used to then retrieve the
matching driver_data. This can be done in one step with the helper
i2c_get_match_data().
This helper has a couple other benefits:
* It doesn't need the i2c_device_id passed in so we do not need
to have that forward declared, allowing us to remove those or
move the i2c_device_id table down to its more natural spot
with the other module info.
* It also checks for device match data, which allows for OF and
ACPI based probing. That means we do not have to manually check
those first and can remove those checks.
Signed-off-by: Andrew Davis <afd@ti.com>
Link: https://patch.msgid.link/20241203200001.197295-16-afd@ti.com
Signed-off-by: Mark Brown <broonie@kernel.org>
The function i2c_match_id() is used to fetch the matching ID from
the i2c_device_id table. This is often used to then retrieve the
matching driver_data. This can be done in one step with the helper
i2c_get_match_data().
This helper has a couple other benefits:
* It doesn't need the i2c_device_id passed in so we do not need
to have that forward declared, allowing us to remove those or
move the i2c_device_id table down to its more natural spot
with the other module info.
* It also checks for device match data, which allows for OF and
ACPI based probing. That means we do not have to manually check
those first and can remove those checks.
Signed-off-by: Andrew Davis <afd@ti.com>
Link: https://patch.msgid.link/20241203200001.197295-15-afd@ti.com
Signed-off-by: Mark Brown <broonie@kernel.org>
The function i2c_match_id() is used to fetch the matching ID from
the i2c_device_id table. This is often used to then retrieve the
matching driver_data. This can be done in one step with the helper
i2c_get_match_data().
This helper has a couple other benefits:
* It doesn't need the i2c_device_id passed in so we do not need
to have that forward declared, allowing us to remove those or
move the i2c_device_id table down to its more natural spot
with the other module info.
* It also checks for device match data, which allows for OF and
ACPI based probing. That means we do not have to manually check
those first and can remove those checks.
Signed-off-by: Andrew Davis <afd@ti.com>
Link: https://patch.msgid.link/20241203200001.197295-14-afd@ti.com
Signed-off-by: Mark Brown <broonie@kernel.org>
The function i2c_match_id() is used to fetch the matching ID from
the i2c_device_id table. This is often used to then retrieve the
matching driver_data. This can be done in one step with the helper
i2c_get_match_data().
This helper has a couple other benefits:
* It doesn't need the i2c_device_id passed in so we do not need
to have that forward declared, allowing us to remove those or
move the i2c_device_id table down to its more natural spot
with the other module info.
* It also checks for device match data, which allows for OF and
ACPI based probing. That means we do not have to manually check
those first and can remove those checks.
Signed-off-by: Andrew Davis <afd@ti.com>
Link: https://patch.msgid.link/20241203200001.197295-13-afd@ti.com
Signed-off-by: Mark Brown <broonie@kernel.org>
The function i2c_match_id() is used to fetch the matching ID from
the i2c_device_id table. This is often used to then retrieve the
matching driver_data. This can be done in one step with the helper
i2c_get_match_data().
This helper has a couple other benefits:
* It doesn't need the i2c_device_id passed in so we do not need
to have that forward declared, allowing us to remove those or
move the i2c_device_id table down to its more natural spot
with the other module info.
* It also checks for device match data, which allows for OF and
ACPI based probing. That means we do not have to manually check
those first and can remove those checks.
Signed-off-by: Andrew Davis <afd@ti.com>
Link: https://patch.msgid.link/20241203200001.197295-12-afd@ti.com
Signed-off-by: Mark Brown <broonie@kernel.org>
The function i2c_match_id() is used to fetch the matching ID from
the i2c_device_id table. This is often used to then retrieve the
matching driver_data. This can be done in one step with the helper
i2c_get_match_data().
This helper has a couple other benefits:
* It doesn't need the i2c_device_id passed in so we do not need
to have that forward declared, allowing us to remove those or
move the i2c_device_id table down to its more natural spot
with the other module info.
* It also checks for device match data, which allows for OF and
ACPI based probing. That means we do not have to manually check
those first and can remove those checks.
Signed-off-by: Andrew Davis <afd@ti.com>
Link: https://patch.msgid.link/20241203200001.197295-11-afd@ti.com
Signed-off-by: Mark Brown <broonie@kernel.org>
The function i2c_match_id() is used to fetch the matching ID from
the i2c_device_id table. This is often used to then retrieve the
matching driver_data. This can be done in one step with the helper
i2c_get_match_data().
This helper has a couple other benefits:
* It doesn't need the i2c_device_id passed in so we do not need
to have that forward declared, allowing us to remove those or
move the i2c_device_id table down to its more natural spot
with the other module info.
* It also checks for device match data, which allows for OF and
ACPI based probing. That means we do not have to manually check
those first and can remove those checks.
Signed-off-by: Andrew Davis <afd@ti.com>
Link: https://patch.msgid.link/20241203200001.197295-10-afd@ti.com
Signed-off-by: Mark Brown <broonie@kernel.org>
The function i2c_match_id() is used to fetch the matching ID from
the i2c_device_id table. This is often used to then retrieve the
matching driver_data. This can be done in one step with the helper
i2c_get_match_data().
This helper has a couple other benefits:
* It doesn't need the i2c_device_id passed in so we do not need
to have that forward declared, allowing us to remove those or
move the i2c_device_id table down to its more natural spot
with the other module info.
* It also checks for device match data, which allows for OF and
ACPI based probing. That means we do not have to manually check
those first and can remove those checks.
Signed-off-by: Andrew Davis <afd@ti.com>
Link: https://patch.msgid.link/20241203200001.197295-9-afd@ti.com
Signed-off-by: Mark Brown <broonie@kernel.org>
The function i2c_match_id() is used to fetch the matching ID from
the i2c_device_id table. This is often used to then retrieve the
matching driver_data. This can be done in one step with the helper
i2c_get_match_data().
This helper has a couple other benefits:
* It doesn't need the i2c_device_id passed in so we do not need
to have that forward declared, allowing us to remove those or
move the i2c_device_id table down to its more natural spot
with the other module info.
* It also checks for device match data, which allows for OF and
ACPI based probing. That means we do not have to manually check
those first and can remove those checks.
Signed-off-by: Andrew Davis <afd@ti.com>
Link: https://patch.msgid.link/20241203200001.197295-8-afd@ti.com
Signed-off-by: Mark Brown <broonie@kernel.org>
The function i2c_match_id() is used to fetch the matching ID from
the i2c_device_id table. This is often used to then retrieve the
matching driver_data. This can be done in one step with the helper
i2c_get_match_data().
This helper has a couple other benefits:
* It doesn't need the i2c_device_id passed in so we do not need
to have that forward declared, allowing us to remove those or
move the i2c_device_id table down to its more natural spot
with the other module info.
* It also checks for device match data, which allows for OF and
ACPI based probing. That means we do not have to manually check
those first and can remove those checks.
Signed-off-by: Andrew Davis <afd@ti.com>
Link: https://patch.msgid.link/20241203200001.197295-7-afd@ti.com
Signed-off-by: Mark Brown <broonie@kernel.org>
The function i2c_match_id() is used to fetch the matching ID from
the i2c_device_id table. This is often used to then retrieve the
matching driver_data. This can be done in one step with the helper
i2c_get_match_data().
This helper has a couple other benefits:
* It doesn't need the i2c_device_id passed in so we do not need
to have that forward declared, allowing us to remove those or
move the i2c_device_id table down to its more natural spot
with the other module info.
* It also checks for device match data, which allows for OF and
ACPI based probing. That means we do not have to manually check
those first and can remove those checks.
Signed-off-by: Andrew Davis <afd@ti.com>
Link: https://patch.msgid.link/20241203200001.197295-6-afd@ti.com
Signed-off-by: Mark Brown <broonie@kernel.org>
The function i2c_match_id() is used to fetch the matching ID from
the i2c_device_id table. This is often used to then retrieve the
matching driver_data. This can be done in one step with the helper
i2c_get_match_data().
This helper has a couple other benefits:
* It doesn't need the i2c_device_id passed in so we do not need
to have that forward declared, allowing us to remove those or
move the i2c_device_id table down to its more natural spot
with the other module info.
* It also checks for device match data, which allows for OF and
ACPI based probing. That means we do not have to manually check
those first and can remove those checks.
Signed-off-by: Andrew Davis <afd@ti.com>
Link: https://patch.msgid.link/20241203200001.197295-5-afd@ti.com
Signed-off-by: Mark Brown <broonie@kernel.org>
