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LeafOS / LeafOS-Project / android_vendor_qcom_opensource_arpal-lx / 20e232c0296f07b8b5d88841f805367bded796a7 / . / session / src / PayloadBuilder.cpp
blob: 9a8945aa2d7fcf1c148606c66d5767b945b03d59 [file] [log] [blame]
/*
* Copyright (c) 2019-2021, The Linux Foundation. All rights reserved.
*
* Redistribution and use in source and binary forms, with or without
* modification, are permitted provided that the following conditions are
* met:
* * Redistributions of source code must retain the above copyright
* notice, this list of conditions and the following disclaimer.
* * Redistributions in binary form must reproduce the above
* copyright notice, this list of conditions and the following
* disclaimer in the documentation and/or other materials provided
* with the distribution.
* * Neither the name of The Linux Foundation nor the names of its
* contributors may be used to endorse or promote products derived
* from this software without specific prior written permission.
*
* THIS SOFTWARE IS PROVIDED "AS IS" AND ANY EXPRESS OR IMPLIED
* WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE IMPLIED WARRANTIES OF
* MERCHANTABILITY, FITNESS FOR A PARTICULAR PURPOSE AND NON-INFRINGEMENT
* ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR CONTRIBUTORS
* BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR
* CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF
* SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR PROFITS; OR
* BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY,
* WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING NEGLIGENCE
* OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS SOFTWARE, EVEN
* IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
*
* Changes from Qualcomm Innovation Center are provided under the following license:
* Copyright (c) 2022-2023 Qualcomm Innovation Center, Inc. All rights reserved.
*
* Redistribution and use in source and binary forms, with or without
* modification, are permitted (subject to the limitations in the
* disclaimer below) provided that the following conditions are met:
*
* * Redistributions of source code must retain the above copyright
* notice, this list of conditions and the following disclaimer.
*
* * Redistributions in binary form must reproduce the above
* copyright notice, this list of conditions and the following
* disclaimer in the documentation and/or other materials provided
* with the distribution.
*
* * Neither the name of Qualcomm Innovation Center, Inc. nor the names of its
* contributors may be used to endorse or promote products derived
* from this software without specific prior written permission.
*
* NO EXPRESS OR IMPLIED LICENSES TO ANY PARTY'S PATENT RIGHTS ARE
* GRANTED BY THIS LICENSE. THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT
* HOLDERS AND CONTRIBUTORS "AS IS" AND ANY EXPRESS OR IMPLIED
* WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE IMPLIED WARRANTIES OF
* MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE ARE DISCLAIMED.
* IN NO EVENT SHALL THE COPYRIGHT HOLDER OR CONTRIBUTORS BE LIABLE FOR
* ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL
* DAMAGES (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE
* GOODS OR SERVICES; LOSS OF USE, DATA, OR PROFITS; OR BUSINESS
* INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER
* IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR
* OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS SOFTWARE, EVEN
* IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
*
* Changes from Qualcomm Innovation Center are provided under the following license:
*
* Copyright (c) 2023 Qualcomm Innovation Center, Inc. All rights reserved.
* SPDX-License-Identifier: BSD-3-Clause-Clear
*/
#define LOG_TAG "PAL: PayloadBuilder"
#include "ResourceManager.h"
#include "PayloadBuilder.h"
#include "SessionGsl.h"
#include "StreamSoundTrigger.h"
#include "spr_api.h"
#include "pop_suppressor_api.h"
#include <agm/agm_api.h>
#include <bt_intf.h>
#include <bt_ble.h>
#include "sp_vi.h"
#include "sp_rx.h"
#include "cps_data_router.h"
#include "fluence_ffv_common_calibration.h"
#include "mspp_module_calibration_api.h"
#if defined(FEATURE_IPQ_OPENWRT) || defined(LINUX_ENABLED)
#define USECASE_XML_FILE "/etc/usecaseKvManager.xml"
#else
#define USECASE_XML_FILE "/vendor/etc/usecaseKvManager.xml"
#endif
#define PARAM_ID_CHMIXER_COEFF 0x0800101F
#define CUSTOM_STEREO_NUM_OUT_CH 0x0002
#define CUSTOM_STEREO_NUM_IN_CH 0x0002
#define Q14_GAIN_ZERO_POINT_FIVE 0x2000
#define CUSTOM_STEREO_CMD_PARAM_SIZE 24
#define PARAM_ID_DISPLAY_PORT_INTF_CFG 0x8001154
#define PARAM_ID_USB_AUDIO_INTF_CFG 0x080010D6
/* ID of the Master Gain parameter used by MODULE_ID_VOL_CTRL. */
#define PARAM_ID_VOL_CTRL_MASTER_GAIN 0x08001035
/* ID of the channel mixer coeff for MODULE_ID_MFC */
#define PARAM_ID_CHMIXER_COEFF 0x0800101F
struct volume_ctrl_master_gain_t
{
uint16_t master_gain;
/**< @h2xmle_description {Specifies linear master gain in Q13 format\n}
* @h2xmle_dataFormat {Q13}
* @h2xmle_default {0x2000} */
uint16_t reserved;
/**< @h2xmle_description {Clients must set this field to 0.\n}
* @h2xmle_rangeList {"0" = 0}
* @h2xmle_default {0} */
};
/* Structure type def for above payload. */
typedef struct volume_ctrl_master_gain_t volume_ctrl_master_gain_t;
#define PARAM_ID_VOL_CTRL_GAIN_RAMP_PARAMETERS 0x08001037
#define PARAM_VOL_CTRL_RAMPINGCURVE_LINEAR 0
/* Structure for holding soft stepping volume parameters. */
struct volume_ctrl_gain_ramp_params_t
{
uint32_t period_ms;
uint32_t step_us;
uint32_t ramping_curve;
};
/* ID to configure downstream delay */
#define PARAM_ID_SOFT_PAUSE_DOWNSTREAM_DELAY 0x0800103E
struct pause_downstream_delay_t
{
uint32_t delay_ms;
/**< Specifies the downstream delay from the stream to the device leg.
@values 0 through 65535 milliseconds (Default = 25) */
/*#< @h2xmle_description {Specifies the downstream delay from the stream to
the device leg (in milliseconds).}
@h2xmle_range {0..65535}
@h2xmle_default {25} */
};
typedef struct pause_downstream_delay_t pause_downstream_delay_t;
/* ID of the Output Media Format parameters used by MODULE_ID_MFC */
#define PARAM_ID_MFC_OUTPUT_MEDIA_FORMAT 0x08001024
#include "spf_begin_pack.h"
#include "spf_begin_pragma.h"
/* Payload of the PARAM_ID_MFC_OUTPUT_MEDIA_FORMAT parameter in the
Media Format Converter Module. Following this will be the variable payload for channel_map. */
struct param_id_mfc_output_media_fmt_t
{
int32_t sampling_rate;
/**< @h2xmle_description {Sampling rate in samples per second\n
->If the resampler type in the MFC is chosen to be IIR,
ONLY the following sample rates are ALLOWED:
PARAM_VAL_NATIVE =-1;\n
PARAM_VAL_UNSET = -2;\n
8 kHz = 8000;\n
16kHz = 16000;\n
24kHz = 24000;\n
32kHz = 32000;\n
48kHz = 48000 \n
-> For resampler type FIR, all values in the range
below are allowed}
@h2xmle_rangeList {"PARAM_VAL_UNSET" = -2;
"PARAM_VAL_NATIVE" =-1;
"8 kHz"=8000;
"11.025 kHz"=11025;
"12 kHz"=12000;
"16 kHz"=16000;
"22.05 kHz"=22050;
"24 kHz"=24000;
"32 kHz"=32000;
"44.1 kHz"=44100;
"48 kHz"=48000;
"88.2 kHz"=88200;
"96 kHz"=96000;
"176.4 kHz"=176400;
"192 kHz"=192000;
"352.8 kHz"=352800;
"384 kHz"=384000}
@h2xmle_default {-1} */
int16_t bit_width;
/**< @h2xmle_description {Bit width of audio samples \n
->Samples with bit width of 16 (Q15 format) are stored in 16 bit words \n
->Samples with bit width 24 bits (Q27 format) or 32 bits (Q31 format) are stored in 32 bit words}
@h2xmle_rangeList {"PARAM_VAL_NATIVE"=-1;
"PARAM_VAL_UNSET"=-2;
"16-bit"= 16;
"24-bit"= 24;
"32-bit"=32}
@h2xmle_default {-1}
*/
int16_t num_channels;
/**< @h2xmle_description {Number of channels. \n
->Ranges from -2 to 32 channels where \n
-2 is PARAM_VAL_UNSET and -1 is PARAM_VAL_NATIVE}
@h2xmle_range {-2..32}
@h2xmle_default {-1}
*/
uint16_t channel_type[0];
/**< @h2xmle_description {Channel mapping array. \n
->Specify a channel mapping for each output channel \n
->If the number of channels is not a multiple of four, zero padding must be added
to the channel type array to align the packet to a multiple of 32 bits. \n
-> If num_channels field is set to PARAM_VAL_NATIVE (-1) or PARAM_VAL_UNSET(-2)
this field will be ignored}
@h2xmle_variableArraySize {num_channels}
@h2xmle_range {1..63}
@h2xmle_default {1} */
}
#include "spf_end_pragma.h"
#include "spf_end_pack.h"
;
struct param_id_usb_audio_intf_cfg_t
{
uint32_t usb_token;
uint32_t svc_interval;
};
/* Structure type def for above payload. */
typedef struct mspp_volume_ctrl_gain_t mspp_volume_ctrl_gain_t;
#include "spf_begin_pack.h"
struct chmixer_coeff_t
{
uint16_t num_output_channels;
uint16_t num_input_channels;
uint16_t out_chmap[0];
uint16_t in_chmap[0];
uint16_t coeff[0];
}
#include "spf_end_pack.h"
;
typedef struct chmixer_coeff_t chmixer_coeff_t;
#include "spf_begin_pack.h"
#include "spf_begin_pragma.h"
struct param_id_chmixer_coeff_t
{
uint32_t num_coeff_tbls;
chmixer_coeff_t chmixer_coeff_tbl[0];
}
#include "spf_end_pragma.h"
#include "spf_end_pack.h"
;
typedef struct param_id_chmixer_coeff_t param_id_chmixer_coeff_t;
std::vector<allKVs> PayloadBuilder::all_streams;
std::vector<allKVs> PayloadBuilder::all_streampps;
std::vector<allKVs> PayloadBuilder::all_devices;
std::vector<allKVs> PayloadBuilder::all_devicepps;
template <typename T>
void PayloadBuilder::populateChannelMixerCoeff(T pcmChannel, uint8_t numChannel,
int rotationType)
{
/* Channel Coefficient table decides the output channel data for an input
* channel data. There is a range from 0 to 0x4000 where 0 means output
* will be mute and 0x4000 means unity. For a playback of 2 channels without
* swap, the channel coefficients should look like below:
*
* Left(Output)| Right(Output)
* Left (Input) 0x4000 | 0x0000
* Right(Input) 0x0000 | 0x4000
*
* We need to send this table as {0x4000,0x0000,0x0000,0x4000} to SPF
* Index w.r.t above Matrix {{0,0} ,{0,1}, {1,0}, {1,1}}
* Index expected by SPF {0, 1, 2, 3}
* For swap, we will change the coefficient so that output will be swapped
*
* Left(Output)| Right(Output)
* Left (Input) 0x0000 | 0x4000
* Right(Input) 0x4000 | 0x0000
*
*/
int numCoeff = numChannel * numChannel;
for (int i = 0; i < numCoeff; i++)
pcmChannel[i] = 0x0000;
if (rotationType == PAL_SPEAKER_ROTATION_RL) {
// Swap the channel data
pcmChannel[1] = 0x4000;
pcmChannel[2] = 0x4000;
} else {
pcmChannel[0] = 0X4000;
pcmChannel[3] = 0X4000;
}
}
template <typename T>
void PayloadBuilder::populateChannelMap(T pcmChannel, uint8_t numChannel)
{
if (numChannel == 1) {
pcmChannel[0] = PCM_CHANNEL_C;
} else if (numChannel == 2) {
pcmChannel[0] = PCM_CHANNEL_L;
pcmChannel[1] = PCM_CHANNEL_R;
} else if (numChannel == 3) {
pcmChannel[0] = PCM_CHANNEL_L;
pcmChannel[1] = PCM_CHANNEL_R;
pcmChannel[2] = PCM_CHANNEL_C;
} else if (numChannel == 4) {
pcmChannel[0] = PCM_CHANNEL_L;
pcmChannel[1] = PCM_CHANNEL_R;
pcmChannel[2] = PCM_CHANNEL_LB;
pcmChannel[3] = PCM_CHANNEL_RB;
} else if (numChannel == 5) {
pcmChannel[0] = PCM_CHANNEL_L;
pcmChannel[1] = PCM_CHANNEL_R;
pcmChannel[2] = PCM_CHANNEL_C;
pcmChannel[3] = PCM_CHANNEL_LB;
pcmChannel[4] = PCM_CHANNEL_RB;
} else if (numChannel == 6) {
pcmChannel[0] = PCM_CHANNEL_L;
pcmChannel[1] = PCM_CHANNEL_R;
pcmChannel[2] = PCM_CHANNEL_C;
pcmChannel[3] = PCM_CHANNEL_LFE;
pcmChannel[4] = PCM_CHANNEL_LB;
pcmChannel[5] = PCM_CHANNEL_RB;
} else if (numChannel == 7) {
pcmChannel[0] = PCM_CHANNEL_L;
pcmChannel[1] = PCM_CHANNEL_R;
pcmChannel[2] = PCM_CHANNEL_C;
pcmChannel[3] = PCM_CHANNEL_LS;
pcmChannel[4] = PCM_CHANNEL_RS;
pcmChannel[5] = PCM_CHANNEL_LB;
pcmChannel[6] = PCM_CHANNEL_RB;
} else if (numChannel == 8) {
pcmChannel[0] = PCM_CHANNEL_L;
pcmChannel[1] = PCM_CHANNEL_R;
pcmChannel[2] = PCM_CHANNEL_C;
pcmChannel[3] = PCM_CHANNEL_LS;
pcmChannel[4] = PCM_CHANNEL_RS;
pcmChannel[5] = PCM_CHANNEL_CS;
pcmChannel[6] = PCM_CHANNEL_LB;
pcmChannel[7] = PCM_CHANNEL_RB;
}
}
void PayloadBuilder::payloadUsbAudioConfig(uint8_t** payload, size_t* size,
uint32_t miid, struct usbAudioConfig *data)
{
struct apm_module_param_data_t* header;
struct param_id_usb_audio_intf_cfg_t *usbConfig;
uint8_t* payloadInfo = NULL;
size_t payloadSize = 0;
payloadSize = sizeof(struct apm_module_param_data_t) +
sizeof(struct param_id_usb_audio_intf_cfg_t);
if (payloadSize % 8 != 0)
payloadSize = payloadSize + (8 - payloadSize % 8);
payloadInfo = new uint8_t[payloadSize]();
if (!payloadInfo) {
PAL_ERR(LOG_TAG, "payloadInfo new failed %s", strerror(errno));
return;
}
header = (struct apm_module_param_data_t*)payloadInfo;
usbConfig = (struct param_id_usb_audio_intf_cfg_t*)(payloadInfo + sizeof(struct apm_module_param_data_t));
header->module_instance_id = miid;
header->param_id = PARAM_ID_USB_AUDIO_INTF_CFG;
header->error_code = 0x0;
header->param_size = payloadSize - sizeof(struct apm_module_param_data_t);
PAL_ERR(LOG_TAG,"header params \n IID:%x param_id:%x error_code:%d param_size:%d",
header->module_instance_id, header->param_id,
header->error_code, header->param_size);
usbConfig->usb_token = data->usb_token;
usbConfig->svc_interval = data->svc_interval;
PAL_VERBOSE(LOG_TAG,"customPayload address %pK and size %zu", payloadInfo, payloadSize);
*size = payloadSize;
*payload = payloadInfo;
}
void PayloadBuilder::payloadDpAudioConfig(uint8_t** payload, size_t* size,
uint32_t miid, struct dpAudioConfig *data)
{
PAL_DBG(LOG_TAG, "Enter:");
struct apm_module_param_data_t* header;
struct dpAudioConfig *dpConfig;
uint8_t* payloadInfo = NULL;
size_t payloadSize = 0;
payloadSize = sizeof(struct apm_module_param_data_t) +
sizeof(struct dpAudioConfig);
if (payloadSize % 8 != 0)
payloadSize = payloadSize + (8 - payloadSize % 8);
payloadInfo = (uint8_t*) calloc(1, payloadSize);
if (!payloadInfo) {
PAL_ERR(LOG_TAG, "payloadInfo malloc failed %s", strerror(errno));
return;
}
header = (struct apm_module_param_data_t*)payloadInfo;
dpConfig = (struct dpAudioConfig*)(payloadInfo + sizeof(struct apm_module_param_data_t));
header->module_instance_id = miid;
header->param_id = PARAM_ID_DISPLAY_PORT_INTF_CFG;
header->error_code = 0x0;
header->param_size = payloadSize - sizeof(struct apm_module_param_data_t);
PAL_ERR(LOG_TAG,"header params \n IID:%x param_id:%x error_code:%d param_size:%d",
header->module_instance_id, header->param_id,
header->error_code, header->param_size);
dpConfig->channel_allocation = data->channel_allocation;
dpConfig->mst_idx = data->mst_idx;
dpConfig->dptx_idx = data->dptx_idx;
PAL_ERR(LOG_TAG,"customPayload address %pK and size %zu", payloadInfo, payloadSize);
*size = payloadSize;
*payload = payloadInfo;
PAL_DBG(LOG_TAG, "Exit:");
}
#define PLAYBACK_VOLUME_MAX 0x2000
void PayloadBuilder::payloadVolumeConfig(uint8_t** payload, size_t* size,
uint32_t miid, struct pal_volume_data* voldata)
{
struct apm_module_param_data_t* header = nullptr;
volume_ctrl_master_gain_t *volConf = nullptr;
float voldB = 0.0f;
long vol = 0;
uint8_t* payloadInfo = NULL;
size_t payloadSize = 0, padBytes = 0;
PAL_VERBOSE(LOG_TAG,"volume sent:%f \n",(voldata->volume_pair[0].vol));
voldB = (voldata->volume_pair[0].vol);
vol = (long)(voldB * (PLAYBACK_VOLUME_MAX*1.0));
payloadSize = sizeof(struct apm_module_param_data_t) +
sizeof(struct volume_ctrl_master_gain_t);
padBytes = PAL_PADDING_8BYTE_ALIGN(payloadSize);
payloadInfo = new uint8_t[payloadSize + padBytes]();
if (!payloadInfo) {
PAL_ERR(LOG_TAG, "payloadInfo malloc failed %s", strerror(errno));
return;
}
header = (struct apm_module_param_data_t*)payloadInfo;
header->module_instance_id = miid;
header->param_id = PARAM_ID_VOL_CTRL_MASTER_GAIN;
header->error_code = 0x0;
header->param_size = payloadSize - sizeof(struct apm_module_param_data_t);
volConf = (volume_ctrl_master_gain_t *) (payloadInfo + sizeof(struct apm_module_param_data_t));
volConf->master_gain = vol;
PAL_VERBOSE(LOG_TAG, "header params IID:%x param_id:%x error_code:%d param_size:%d",
header->module_instance_id, header->param_id,
header->error_code, header->param_size);
*size = payloadSize + padBytes;;
*payload = payloadInfo;
PAL_DBG(LOG_TAG, "payload %pK size %zu", *payload, *size);
}
void PayloadBuilder::payloadVolumeCtrlRamp(uint8_t** payload, size_t* size,
uint32_t miid, uint32_t ramp_period_ms)
{
struct apm_module_param_data_t* header = NULL;
struct volume_ctrl_gain_ramp_params_t *rampParams;
uint8_t* payloadInfo = NULL;
size_t payloadSize = 0, padBytes = 0;
payloadSize = sizeof(struct apm_module_param_data_t) +
sizeof(struct volume_ctrl_gain_ramp_params_t);
padBytes = PAL_PADDING_8BYTE_ALIGN(payloadSize);
payloadInfo = new uint8_t[payloadSize + padBytes]();
if (!payloadInfo) {
PAL_ERR(LOG_TAG, "payloadInfo malloc failed %s", strerror(errno));
return;
}
header = (struct apm_module_param_data_t*)payloadInfo;
header->module_instance_id = miid;
header->param_id = PARAM_ID_VOL_CTRL_GAIN_RAMP_PARAMETERS;
header->error_code = 0x0;
header->param_size = payloadSize - sizeof(struct apm_module_param_data_t);
rampParams = (struct volume_ctrl_gain_ramp_params_t*) (payloadInfo + sizeof(struct apm_module_param_data_t));
rampParams->period_ms = ramp_period_ms;
rampParams->step_us = 0;
rampParams->ramping_curve = PARAM_VOL_CTRL_RAMPINGCURVE_LINEAR;
PAL_VERBOSE(LOG_TAG, "header params IID:%x param_id:%x error_code:%d param_size:%d",
header->module_instance_id, header->param_id,
header->error_code, header->param_size);
*size = payloadSize + padBytes;;
*payload = payloadInfo;
PAL_DBG(LOG_TAG, "payload %pK size %zu", *payload, *size);
}
void PayloadBuilder::payloadMFCMixerCoeff(uint8_t** payload, size_t* size,
uint32_t miid, int numCh, int rotationType)
{
struct apm_module_param_data_t* header = NULL;
param_id_chmixer_coeff_t *mfcMixerCoeff = NULL;
chmixer_coeff_t *chMixerCoeff = NULL;
size_t payloadSize = 0, padBytes = 0;
uint8_t* payloadInfo = NULL;
uint16_t* pcmChannel = NULL;
int numChannels = numCh;
// Only Stereo Speaker swap is supported
if (numChannels != 2)
return;
PAL_DBG(LOG_TAG, "Enter");
payloadSize = sizeof(struct apm_module_param_data_t) +
sizeof(param_id_chmixer_coeff_t) +
sizeof(chmixer_coeff_t) // Only 1 table is being send currently
+ sizeof(uint16_t) * (numChannels)
+ sizeof(uint16_t) * (numChannels)
+ sizeof(uint16_t) * (numChannels*2);
padBytes = PAL_PADDING_8BYTE_ALIGN(payloadSize);
payloadInfo = (uint8_t*) calloc(1, payloadSize + padBytes);
if (!payloadInfo) {
PAL_ERR(LOG_TAG, "payloadInfo malloc failed %s", strerror(errno));
return;
}
header = (struct apm_module_param_data_t*)payloadInfo;
mfcMixerCoeff = (param_id_chmixer_coeff_t *)(payloadInfo +
sizeof(struct apm_module_param_data_t));
// Set number of tables
mfcMixerCoeff->num_coeff_tbls = 1;
chMixerCoeff = (chmixer_coeff_t *) (payloadInfo +
sizeof(struct apm_module_param_data_t) +
sizeof(param_id_chmixer_coeff_t));
// Set Number of channels for input and output channels
chMixerCoeff->num_output_channels = numChannels;
chMixerCoeff->num_input_channels = numChannels;
pcmChannel = (uint16_t *) (payloadInfo +
sizeof(struct apm_module_param_data_t)+
sizeof(param_id_chmixer_coeff_t) +
sizeof(chmixer_coeff_t));
// Populate output channel map
populateChannelMap(pcmChannel, numChannels);
pcmChannel = (uint16_t *) (payloadInfo +
sizeof(struct apm_module_param_data_t)+
sizeof(param_id_chmixer_coeff_t) +
sizeof(chmixer_coeff_t) +
sizeof(uint16_t) * numChannels);
// Populate input channel map
populateChannelMap(pcmChannel, numChannels);
pcmChannel = (uint16_t *) (payloadInfo +
sizeof(struct apm_module_param_data_t)+
sizeof(param_id_chmixer_coeff_t) +
sizeof(chmixer_coeff_t) +
sizeof(uint16_t) * numChannels +
sizeof(uint16_t) * numChannels);
populateChannelMixerCoeff(pcmChannel, numChannels, rotationType);
header->module_instance_id = miid;
header->error_code = 0x0;
header->param_id = PARAM_ID_CHMIXER_COEFF;
header->param_size = payloadSize - sizeof(struct apm_module_param_data_t);
*size = payloadSize + padBytes;
*payload = payloadInfo;
PAL_DBG(LOG_TAG, "Exit");
}
void PayloadBuilder::payloadMFCConfig(uint8_t** payload, size_t* size,
uint32_t miid, struct sessionToPayloadParam* data)
{
struct apm_module_param_data_t* header = NULL;
struct param_id_mfc_output_media_fmt_t *mfcConf;
int numChannels;
uint16_t* pcmChannel = NULL;
uint8_t* payloadInfo = NULL;
size_t payloadSize = 0, padBytes = 0;
if (!data) {
PAL_ERR(LOG_TAG, "Invalid input parameters");
return;
}
numChannels = data->numChannel;
payloadSize = sizeof(struct apm_module_param_data_t) +
sizeof(struct param_id_mfc_output_media_fmt_t) +
sizeof(uint16_t)*numChannels;
padBytes = PAL_PADDING_8BYTE_ALIGN(payloadSize);
payloadInfo = (uint8_t*) calloc(1, payloadSize + padBytes);
if (!payloadInfo) {
PAL_ERR(LOG_TAG, "payloadInfo malloc failed %s", strerror(errno));
return;
}
header = (struct apm_module_param_data_t*)payloadInfo;
mfcConf = (struct param_id_mfc_output_media_fmt_t*)(payloadInfo +
sizeof(struct apm_module_param_data_t));
pcmChannel = (uint16_t*)(payloadInfo + sizeof(struct apm_module_param_data_t) +
sizeof(struct param_id_mfc_output_media_fmt_t));
header->module_instance_id = miid;
header->param_id = PARAM_ID_MFC_OUTPUT_MEDIA_FORMAT;
header->error_code = 0x0;
header->param_size = payloadSize - sizeof(struct apm_module_param_data_t);
PAL_DBG(LOG_TAG, "header params \n IID:%x param_id:%x error_code:%d param_size:%d",
header->module_instance_id, header->param_id,
header->error_code, header->param_size);
mfcConf->sampling_rate = data->sampleRate;
mfcConf->bit_width = data->bitWidth;
mfcConf->num_channels = data->numChannel;
if (data->ch_info) {
for (int i = 0; i < data->numChannel; ++i) {
pcmChannel[i] = (uint16_t) data->ch_info->ch_map[i];
}
} else {
populateChannelMap(pcmChannel, data->numChannel);
}
*size = payloadSize + padBytes;
*payload = payloadInfo;
PAL_DBG(LOG_TAG, "sample_rate:%d bit_width:%d num_channels:%d Miid:%d",
mfcConf->sampling_rate, mfcConf->bit_width,
mfcConf->num_channels, header->module_instance_id);
PAL_DBG(LOG_TAG, "customPayload address %pK and size %zu", payloadInfo,
*size);
}
int PayloadBuilder::payloadPopSuppressorConfig(uint8_t** payload, size_t* size,
uint32_t miid, bool enable)
{
int status = 0;
struct apm_module_param_data_t* header = NULL;
struct param_id_pop_suppressor_mute_config_t *psConf;
uint8_t* payloadInfo = NULL;
size_t payloadSize = 0, padBytes = 0;
payloadSize = sizeof(struct apm_module_param_data_t) +
sizeof(struct param_id_pop_suppressor_mute_config_t);
padBytes = PAL_PADDING_8BYTE_ALIGN(payloadSize);
payloadInfo = (uint8_t*) calloc(1, payloadSize + padBytes);
if (!payloadInfo) {
PAL_ERR(LOG_TAG, "payloadInfo malloc failed %s", strerror(errno));
status = -ENOMEM;
goto exit;
}
header = (struct apm_module_param_data_t*)payloadInfo;
psConf = (struct param_id_pop_suppressor_mute_config_t*)(payloadInfo +
sizeof(struct apm_module_param_data_t));
header->module_instance_id = miid;
header->param_id = PARAM_ID_POP_SUPPRESSOR_MUTE_CONFIG;
header->error_code = 0x0;
header->param_size = payloadSize - sizeof(struct apm_module_param_data_t);
PAL_DBG(LOG_TAG, "header params \n IID:%x param_id:%x error_code:%d param_size:%d",
header->module_instance_id, header->param_id,
header->error_code, header->param_size);
psConf->mute_enable = enable;
*size = payloadSize + padBytes;
*payload = payloadInfo;
PAL_DBG(LOG_TAG, "pop suppressor mute enable %d", psConf->mute_enable);
exit:
return status;
}
PayloadBuilder::PayloadBuilder()
{
}
PayloadBuilder::~PayloadBuilder()
{
}
uint16_t numOfBitsSet(uint32_t lines)
{
uint16_t numBitsSet = 0;
while (lines) {
numBitsSet++;
lines = lines & (lines - 1);
}
return numBitsSet;
}
void PayloadBuilder::resetDataBuf(struct user_xml_data *data)
{
data->offs = 0;
data->data_buf[data->offs] = '\0';
}
void PayloadBuilder::processGraphKVData(struct user_xml_data *data, const XML_Char **attr)
{
struct kvPairs kv = {};
int size = -1, selector_size = -1;
std::string key(attr[1]);
std::string value(attr[3]);
if (strcmp(attr[0], "key") !=0) {
PAL_ERR(LOG_TAG, "key not found");
return;
}
kv.key = ResourceManager::convertCharToHex(key);
if (strcmp(attr[2], "value") !=0) {
PAL_ERR(LOG_TAG, "value not found");
return;
}
kv.value = ResourceManager::convertCharToHex(value);
if (data->is_parsing_streams) {
if (all_streams.size() > 0) {
size = all_streams.size() - 1;
if (all_streams[size].keys_values.size() > 0) {
selector_size = all_streams[size].keys_values.size() - 1;
all_streams[size].keys_values[selector_size].kv_pairs.push_back(kv);
PAL_DBG(LOG_TAG, "stream_graph_kv done size: %zu",
all_streams[size].keys_values[selector_size].kv_pairs.size());
}
}
return;
} else if (data->is_parsing_streampps) {
if (all_streampps.size() > 0) {
size = all_streampps.size() - 1;
if (all_streampps[size].keys_values.size() > 0) {
selector_size = all_streampps[size].keys_values.size() - 1;
all_streampps[size].keys_values[selector_size].kv_pairs.push_back(kv);
PAL_DBG(LOG_TAG, "streampp_graph_kv:streampp size: %zu",
all_streampps[size].keys_values[selector_size].kv_pairs.size());
}
}
return;
} else if (data->is_parsing_devices) {
if (all_devices.size() > 0) {
size = all_devices.size() - 1;
if (all_devices[size].keys_values.size() > 0) {
selector_size = all_devices[size].keys_values.size() - 1;
all_devices[size].keys_values[selector_size].kv_pairs.push_back(kv);
PAL_DBG(LOG_TAG, "device_grap_kv:device size: %zu",
all_devices[size].keys_values[selector_size].kv_pairs.size());
}
}
return;
} else if (data->is_parsing_devicepps) {
if (all_devicepps.size() > 0) {
size = all_devicepps.size() - 1;
if (all_devicepps[size].keys_values.size() > 0) {
selector_size = all_devicepps[size].keys_values.size() - 1;
all_devicepps[size].keys_values[selector_size].kv_pairs.push_back(kv);
PAL_DBG(LOG_TAG, "devicepp_graph_kv: devicepp size: %zu",
all_devicepps[size].keys_values[selector_size].kv_pairs.size());
}
}
return;
} else {
PAL_INFO(LOG_TAG, "No matching XML data\n");
}
}
std::string PayloadBuilder::removeSpaces(const std::string& str)
{
/* Remove leading and trailing spaces */
return std::regex_replace(str, std::regex("^ +| +$|( ) +"), "$1");
}
std::vector<std::string> PayloadBuilder::splitStrings(const std::string& str)
{
std::vector<std::string> tokens;
std::stringstream check(str);
std::string intermediate;
while (getline(check, intermediate, ',')) {
if (!removeSpaces(intermediate).empty())
tokens.push_back(removeSpaces(intermediate));
}
return tokens;
}
void PayloadBuilder:: processKVSelectorData(struct user_xml_data *data,
const XML_Char **attr)
{
struct kvInfo kvinfo = {};
int size = -1;
std::vector<std::string> sel_values_superset;
PAL_DBG(LOG_TAG, "process kv selectors stream:%d streampp:%d device:%d devicepp:%d",
data->is_parsing_streams, data->is_parsing_streampps,
data->is_parsing_devices, data->is_parsing_devicepps);
for (int i = 0; attr[i]; i += 2) {
kvinfo.selector_names.push_back(attr[i]);
sel_values_superset.push_back(attr[i + 1]);
PAL_DBG(LOG_TAG, "key_values attr :%s-%s", attr[i], attr[i + 1]);
}
for (int i = 0; i < kvinfo.selector_names.size(); i++) {
PAL_DBG(LOG_TAG, "process kv selectors:%s", kvinfo.selector_names[i].c_str());
selector_type_t selector_type = selectorstypeLUT.at(kvinfo.selector_names[i]);
std::vector<std::string> selector_values =
splitStrings(sel_values_superset[i]);
for (int j = 0; j < selector_values.size(); j++) {
kvinfo.selector_pairs.push_back(std::make_pair(selector_type,
selector_values[j]));
PAL_DBG(LOG_TAG, "selector pair type:%d, value:%s", selector_type,
selector_values[j].c_str());
}
}
if (data->is_parsing_streams) {
if (all_streams.size() > 0) {
size = all_streams.size() - 1;
all_streams[size].keys_values.push_back(kvinfo);
PAL_DBG(LOG_TAG, "stream_keys_values after push_back size:%zu",
all_streams[size].keys_values.size());
}
return;
} else if (data->is_parsing_streampps) {
if (all_streampps.size() > 0) {
size = all_streampps.size() - 1;
all_streampps[size].keys_values.push_back(kvinfo);
PAL_DBG(LOG_TAG, "streampp_keys_values after push_back size:%zu",
all_streampps[size].keys_values.size());
}
return;
} else if (data->is_parsing_devices) {
if (all_devices.size() > 0) {
size = all_devices.size() - 1;
all_devices[size].keys_values.push_back(kvinfo);
PAL_DBG(LOG_TAG, "device_keys_values after push_back size:%zu",
all_devices[size].keys_values.size());
}
return;
} else if (data->is_parsing_devicepps) {
if (all_devicepps.size() > 0) {
size = all_devicepps.size() - 1;
all_devicepps[size].keys_values.push_back(kvinfo);
PAL_DBG(LOG_TAG, "devicepp_keys_values after push_back size:%zu",
all_devicepps[size].keys_values.size());
}
return;
} else {
PAL_INFO(LOG_TAG, "No match for is_parsing");
}
}
void PayloadBuilder:: processKVTypeData(struct user_xml_data *data,const XML_Char **attr)
{
struct allKVs sdTypeKV = {};
int32_t stream_id, dev_id;
std::vector<std::string> typeNames;
PAL_DBG(LOG_TAG, "stream-device ID/type:%s, tag_name:%d", attr[1], data->tag);
if (data->tag == TAG_STREAM_SEL || data->tag == TAG_STREAMPP_SEL) {
if (!strcmp(attr[0], "type")) {
typeNames = splitStrings(attr[1]);
for (int i = 0; i < typeNames.size(); i++) {
stream_id = ResourceManager::getStreamType(typeNames[i]);
sdTypeKV.id_type.push_back(stream_id);
PAL_DBG(LOG_TAG, "type name:%s", typeNames[i].c_str());
}
if (data->tag == TAG_STREAM_SEL) {
all_streams.push_back(sdTypeKV);
PAL_DBG(LOG_TAG, "stream types all_size: %zu", all_streams.size());
} else if (data->tag == TAG_STREAMPP_SEL) {
all_streampps.push_back(sdTypeKV);
PAL_DBG(LOG_TAG, "streampp types all_size: %zu", all_streampps.size());
}
}
return;
}
if (data->tag == TAG_DEVICE_SEL || data->tag == TAG_DEVICEPP_SEL) {
if (!strcmp(attr[0], "id")) {
typeNames = splitStrings(attr[1]);
for (int i = 0; i < typeNames.size(); i++) {
dev_id = ResourceManager::getDeviceId(typeNames[i]);
sdTypeKV.id_type.push_back(dev_id);
PAL_DBG(LOG_TAG, "device ID name:%s", typeNames[i].c_str());
}
if (data->tag == TAG_DEVICE_SEL) {
all_devices.push_back(sdTypeKV);
PAL_DBG(LOG_TAG, " device types all_size: %zu", all_devices.size());
} else if (data->tag == TAG_DEVICEPP_SEL ) {
all_devicepps.push_back(sdTypeKV);
PAL_DBG(LOG_TAG, "devicepp types all_size: %zu", all_devicepps.size() );
}
}
return;
}
PAL_INFO(LOG_TAG, "No matching tags found");
return;
}
bool PayloadBuilder::compareNumSelectors(struct kvInfo info_1, struct kvInfo info_2)
{
return (info_1.selector_names.size() < info_2.selector_names.size());
}
void PayloadBuilder::startTag(void *userdata, const XML_Char *tag_name,
const XML_Char **attr)
{
struct user_xml_data *data = ( struct user_xml_data *)userdata;
PAL_DBG(LOG_TAG, "StartTag :%s", tag_name);
if (!strcmp(tag_name, "graph_key_value_pair_info")) {
data->tag = TAG_USECASEXML_ROOT;
} else if (!strcmp(tag_name, "streams")) {
data->is_parsing_streams = true;
} else if (!strcmp(tag_name, "stream")) {
data->tag = TAG_STREAM_SEL;
processKVTypeData(data, attr);
} else if (!strcmp(tag_name, "keys_and_values")) {
processKVSelectorData(data, attr);
} else if (!strcmp(tag_name, "graph_kv")) {
processGraphKVData(data, attr);
} else if (!strcmp(tag_name, "streampps")) {
data->is_parsing_streampps = true;
} else if (!strcmp(tag_name, "streampp")) {
data->tag = TAG_STREAMPP_SEL;
processKVTypeData(data, attr);
} else if (!strcmp(tag_name, "devices")) {
data->is_parsing_devices = true;
} else if (!strcmp(tag_name, "device")){
data->tag = TAG_DEVICE_SEL;
processKVTypeData(data, attr);
} else if (!strcmp(tag_name, "devicepps")){
data->is_parsing_devicepps = true;
} else if (!strcmp(tag_name, "devicepp")){
data->tag = TAG_DEVICEPP_SEL;
processKVTypeData(data, attr);
} else {
PAL_INFO(LOG_TAG, "No matching Tag found");
}
}
void PayloadBuilder::endTag(void *userdata, const XML_Char *tag_name)
{
struct user_xml_data *data = ( struct user_xml_data *)userdata;
int size = -1;
PAL_DBG(LOG_TAG, "Endtag: %s", tag_name);
if ( !strcmp(tag_name, "keys_and_values") || !strcmp(tag_name, "graph_kv")) {
return;
}
if (!strcmp(tag_name, "streams")) {
data->is_parsing_streams = false;
PAL_DBG(LOG_TAG, "is_parsing_streams: %d", data->is_parsing_streams);
return;
}
if (!strcmp(tag_name, "streampps")){
data->is_parsing_streampps = false;
PAL_DBG(LOG_TAG, "is_parsing_streampps: %d", data->is_parsing_streampps);
return;
}
if (!strcmp(tag_name, "devices")) {
data->is_parsing_devices = false;
PAL_DBG(LOG_TAG, "is_parsing_devices: %d", data->is_parsing_devices);
return;
}
if (!strcmp(tag_name, "devicepps")) {
data->is_parsing_devicepps = false;
PAL_DBG(LOG_TAG, "is_parsing_devicepps : %d", data->is_parsing_devicepps);
return;
}
if (!strcmp(tag_name, "stream")) {
if (all_streams.size() > 0) {
size = all_streams.size() - 1;
/* Sort the key value tags based on number of selectors in each tag */
std::sort(all_streams[size].keys_values.begin(),
all_streams[size].keys_values.end(),
compareNumSelectors);
}
return;
}
if (!strcmp(tag_name, "streampp")){
if (all_streampps.size() > 0) {
size = all_streampps.size() - 1;
std::sort(all_streampps[size].keys_values.begin(),
all_streampps[size].keys_values.end(),
compareNumSelectors);
}
return;
}
if (!strcmp(tag_name, "device")) {
if (all_devices.size() > 0) {
size = all_devices.size() - 1;
std::sort(all_devices[size].keys_values.begin(),
all_devices[size].keys_values.end(),
compareNumSelectors);
}
return;
}
if (!strcmp(tag_name, "devicepp")) {
if (all_devicepps.size() > 0) {
size = all_devicepps.size() - 1;
std::sort(all_devicepps[size].keys_values.begin(),
all_devicepps[size].keys_values.end(),
compareNumSelectors);
}
return;
}
return;
}
void PayloadBuilder::handleData(void *userdata, const char *s, int len)
{
struct user_xml_data *data = (struct user_xml_data *)userdata;
if (len + data->offs >= sizeof(data->data_buf) ) {
data->offs += len;
/* string length overflow, return */
return;
} else {
memcpy(data->data_buf + data->offs, s, len);
data->offs += len;
}
}
int PayloadBuilder::init()
{
XML_Parser parser;
FILE *file = NULL;
int ret = 0;
int bytes_read;
void *buf = NULL;
struct user_xml_data tag_data;
memset(&tag_data, 0, sizeof(tag_data));
all_streams.clear();
all_streampps.clear();
all_devices.clear();
all_devicepps.clear();
PAL_INFO(LOG_TAG, "XML parsing started %s", USECASE_XML_FILE);
file = fopen(USECASE_XML_FILE, "r");
if (!file) {
PAL_ERR(LOG_TAG, "Failed to open xml");
ret = -EINVAL;
goto done;
}
parser = XML_ParserCreate(NULL);
if (!parser) {
PAL_ERR(LOG_TAG, "Failed to create XML");
goto closeFile;
}
XML_SetUserData(parser,&tag_data);
XML_SetElementHandler(parser, startTag, endTag);
XML_SetCharacterDataHandler(parser, handleData);
while (1) {
buf = XML_GetBuffer(parser, 1024);
if (buf == NULL) {
PAL_ERR(LOG_TAG, "XML_Getbuffer failed");
ret = -EINVAL;
goto freeParser;
}
bytes_read = fread(buf, 1, 1024, file);
if (bytes_read < 0) {
PAL_ERR(LOG_TAG, "fread failed");
ret = -EINVAL;
goto freeParser;
}
if (XML_ParseBuffer(parser, bytes_read, bytes_read == 0) == XML_STATUS_ERROR) {
PAL_ERR(LOG_TAG, "XML ParseBuffer failed ");
ret = -EINVAL;
goto freeParser;
}
if (bytes_read == 0)
break;
}
freeParser:
XML_ParserFree(parser);
closeFile:
fclose(file);
done:
return ret;
}
void PayloadBuilder::payloadTimestamp(std::shared_ptr<std::vector<uint8_t>>& payload,
size_t *size, uint32_t moduleId)
{
size_t payloadSize, padBytes;
struct apm_module_param_data_t* header;
payloadSize = sizeof(struct apm_module_param_data_t) +
sizeof(struct param_id_spr_session_time_t);
padBytes = PAL_PADDING_8BYTE_ALIGN(payloadSize);
payload = std::make_shared<std::vector<uint8_t>>(payloadSize + padBytes);
if (!payload) {
PAL_ERR(LOG_TAG, "payload malloc failed %s", strerror(errno));
return;
}
header = (struct apm_module_param_data_t*)payload->data();
header->module_instance_id = moduleId;
header->param_id = PARAM_ID_SPR_SESSION_TIME;
header->error_code = 0x0;
header->param_size = payloadSize - sizeof(struct apm_module_param_data_t);
PAL_VERBOSE(LOG_TAG, "header params IID:%x param_id:%x error_code:%d param_size:%d",
header->module_instance_id, header->param_id,
header->error_code, header->param_size);
*size = payloadSize + padBytes;
PAL_DBG(LOG_TAG, "payload %pK size %zu", payload->data(), *size);
}
int PayloadBuilder::payloadACDBTunnelParam(uint8_t **alsaPayload,
size_t *size, uint8_t *payload,
const std::set <std::pair<int, int>> &acdbGKVSet,
uint32_t moduleInstanceId, uint32_t sampleRate) {
struct apm_module_param_data_t* header;
struct agm_acdb_tunnel_param *payloadACDBTunnelInfo = NULL;
size_t paddedPayloadSize = 0;
uint32_t payloadSize = 0;
uint32_t totalPaddedSize = 0;
uint32_t parsedSize = 0;
uint32_t dataLength = 0;
struct agm_acdb_param *acdbParam = (struct agm_acdb_param *)payload;
uint32_t appendSampleRateInCKV = 1;
uint8_t *ptrSrc = nullptr;
uint8_t *ptrDst = nullptr;
uint32_t *ptr = nullptr;
uint32_t offset = 0;
pal_effect_custom_payload_t *effectCustomPayload = nullptr;
uint32_t checkSum = 0;
if (!acdbParam)
return -EINVAL;
if (sampleRate != 0 && acdbParam->isTKV == PARAM_TKV) {
PAL_ERR(LOG_TAG, "Sample Rate %d CKV and TKV are not compatible.",
sampleRate);
return -EINVAL;
}
if (sampleRate) {
//CKV
// step 1. check sample rate is in kv or not
PAL_INFO(LOG_TAG, "CKV param to ACDB");
pal_key_value_pair_t *rawCKVPair = nullptr;
rawCKVPair = (pal_key_value_pair_t *)acdbParam->blob;
for (int k = 0; k < acdbParam->num_kvs; k++) {
if (rawCKVPair[k].key == SAMPLINGRATE) {
PAL_INFO(LOG_TAG, "Sample rate is in CKV. No need to append.");
appendSampleRateInCKV = 0;
break;
}
}
PAL_DBG(LOG_TAG, "is sample rate appended in CKV? %x",
appendSampleRateInCKV);
} else {
//TKV
appendSampleRateInCKV = 0;
}
// multipl param check by param id
dataLength = sizeof(struct agm_acdb_param) +
acdbParam->num_kvs * sizeof(struct gsl_key_value_pair);
effectCustomPayload = (pal_effect_custom_payload_t *)
((uint8_t *)acdbParam + dataLength);
PAL_DBG(LOG_TAG, "first param id = 0x%x", effectCustomPayload->paramId);
// step 1: get param data size = blob size - kv size - param id size
__builtin_add_overflow(acdbParam->num_kvs * sizeof(struct gsl_key_value_pair),
sizeof(pal_effect_custom_payload_t), &checkSum);
__builtin_sub_overflow(acdbParam->blob_size, checkSum, &payloadSize);
PAL_DBG(LOG_TAG, "payloadSize = 0x%x", payloadSize);
if (effectCustomPayload->paramId) {
paddedPayloadSize = PAL_ALIGN_8BYTE(payloadSize);
PAL_INFO(LOG_TAG, "payloadSize=%d paddedPayloadSize=%x",
payloadSize, paddedPayloadSize);
payloadACDBTunnelInfo = (struct agm_acdb_tunnel_param *)calloc(1,
sizeof(struct agm_acdb_tunnel_param) +
(acdbParam->num_kvs + appendSampleRateInCKV + acdbGKVSet.size()) *
sizeof(struct gsl_key_value_pair) +
sizeof(struct apm_module_param_data_t) + paddedPayloadSize);
} else {
PAL_INFO(LOG_TAG, "This is multiple parameter case.");
payloadACDBTunnelInfo = (struct agm_acdb_tunnel_param *)calloc(1,
sizeof(struct agm_acdb_tunnel_param) +
(acdbParam->num_kvs + appendSampleRateInCKV + acdbGKVSet.size()) *
sizeof(struct gsl_key_value_pair) +
sizeof(struct apm_module_param_data_t) + payloadSize * 2);
}
if (!payloadACDBTunnelInfo) {
PAL_ERR(LOG_TAG, "failed to allocate memory.");
return -ENOMEM;
}
// copy meta
payloadACDBTunnelInfo->isTKV = acdbParam->isTKV;
payloadACDBTunnelInfo->tag = acdbParam->tag;
payloadACDBTunnelInfo->num_gkvs = acdbGKVSet.size();
payloadACDBTunnelInfo->num_kvs = acdbParam->num_kvs;
// copy gkv
offset = sizeof(struct agm_acdb_tunnel_param);
dataLength = acdbGKVSet.size() * sizeof(struct gsl_key_value_pair);
ptrDst = (uint8_t *)payloadACDBTunnelInfo + offset;
ptr = (uint32_t *)ptrDst;
for (const auto& ele: acdbGKVSet) {
*ptr++ = ele.first;
*ptr++ = ele.second;
}
// copy tkv or ckv
offset += dataLength;
dataLength = acdbParam->num_kvs * sizeof(struct gsl_key_value_pair);
ptrDst = (uint8_t *)payloadACDBTunnelInfo + offset;
ptrSrc = (uint8_t *)acdbParam + sizeof(struct agm_acdb_param);
ar_mem_cpy(ptrDst, dataLength, acdbParam->blob, dataLength);
//update ckv for sample rate
offset += dataLength;
payloadACDBTunnelInfo->num_kvs += appendSampleRateInCKV;
if (appendSampleRateInCKV) {
dataLength = sizeof(struct gsl_key_value_pair);
ptrDst = (uint8_t *)payloadACDBTunnelInfo + offset;
ptr = (uint32_t *)ptrDst;
*ptr++ = SAMPLINGRATE;
*ptr = sampleRate;
header = (struct apm_module_param_data_t *)(
(uint8_t *)payloadACDBTunnelInfo +
offset + sizeof(struct gsl_key_value_pair));
} else {
dataLength = 0;
header = (struct apm_module_param_data_t *)
((uint8_t *)payloadACDBTunnelInfo + offset);
}
offset += dataLength;
/* actual param pointer */
if (effectCustomPayload->paramId) {
PAL_INFO(LOG_TAG, "This is single param id=0x%x",
effectCustomPayload->paramId);
header->module_instance_id = acdbParam->tag;
header->param_id = effectCustomPayload->paramId;
header->param_size = payloadSize;
header->error_code = 0x0;
PAL_DBG(LOG_TAG, "tag = 0x%x", acdbParam->tag);
PAL_DBG(LOG_TAG, "padded payload size = 0x%x", paddedPayloadSize);
if (paddedPayloadSize) {
ptrDst = (uint8_t *)header + sizeof(struct apm_module_param_data_t);
ptrSrc = (uint8_t *)effectCustomPayload->data;
// padded bytes are zero by calloc. no need to copy.
ar_mem_cpy(ptrDst, payloadSize, ptrSrc, payloadSize);
}
offset += sizeof(struct apm_module_param_data_t) + paddedPayloadSize;
*size = offset;
*alsaPayload = (uint8_t *)payloadACDBTunnelInfo;
payloadACDBTunnelInfo->blob_size = (payloadACDBTunnelInfo->num_gkvs +
payloadACDBTunnelInfo->num_kvs) * sizeof(struct gsl_key_value_pair)
+ sizeof(struct apm_module_param_data_t) + paddedPayloadSize;
} else {
PAL_INFO(LOG_TAG, "This is multiple param case.");
legacyGefParamHeader *gefMultipleParamHeader = NULL;
while (parsedSize < payloadSize) {
PAL_INFO(LOG_TAG, "parsed size = 0x%x", parsedSize);
gefMultipleParamHeader =
(legacyGefParamHeader *)
((uint8_t *)(effectCustomPayload->data) + parsedSize);
paddedPayloadSize = PAL_ALIGN_8BYTE(sizeof(struct apm_module_param_data_t)
+ gefMultipleParamHeader->length);
PAL_INFO(LOG_TAG, "total padded size = 0x%x current padded size=0x%x",
totalPaddedSize, paddedPayloadSize);
PAL_INFO(LOG_TAG, "current param value length = 0x%x",
gefMultipleParamHeader->length);
header->module_instance_id = acdbParam->tag;
header->param_id = gefMultipleParamHeader->paramId;
header->error_code = 0x0;
header->param_size = gefMultipleParamHeader->length;
PAL_DBG(LOG_TAG, "tag=0x%x param id = 0x%x param length=0x%x",
header->module_instance_id, header->param_id,
header->param_size);
if (gefMultipleParamHeader->length) {
ar_mem_cpy((uint8_t *)header +
sizeof(struct apm_module_param_data_t),
gefMultipleParamHeader->length,
(uint8_t *)gefMultipleParamHeader +
sizeof(legacyGefParamHeader),
gefMultipleParamHeader->length);
}
// offset to output data
totalPaddedSize += paddedPayloadSize;
// offset to input data
parsedSize += sizeof(legacyGefParamHeader) +
gefMultipleParamHeader->length;
PAL_DBG(LOG_TAG, "parsed size=0x%x total padded size=0x%x",
parsedSize, totalPaddedSize);
header = (struct apm_module_param_data_t*)((uint8_t *)header + paddedPayloadSize);
}
payloadACDBTunnelInfo->blob_size =
(payloadACDBTunnelInfo->num_kvs + payloadACDBTunnelInfo->num_gkvs)
* sizeof(struct gsl_key_value_pair)
+ totalPaddedSize;
offset += totalPaddedSize;
*size = offset;
*alsaPayload = (uint8_t *)payloadACDBTunnelInfo;
}
PAL_ERR(LOG_TAG, "ALSA payload %pK size %zu", *alsaPayload, *size);
return 0;
}
int PayloadBuilder::payloadACDBParam(uint8_t **alsaPayload, size_t *size,
uint8_t *payload,
uint32_t moduleInstanceId, uint32_t sampleRate) {
struct apm_module_param_data_t* header;
//uint8_t* payloadInfo = NULL;
struct agm_acdb_param *payloadInfo = NULL;
size_t paddedSize = 0;
uint32_t payloadSize = 0;
uint32_t dataLength = 0;
struct agm_acdb_param *acdbParam = (struct agm_acdb_param *)payload;
uint32_t appendSampleRateInCKV = 1;
uint8_t *ptrSrc = nullptr;
uint8_t *ptrDst = nullptr;
uint32_t *ptr = nullptr;
pal_effect_custom_payload_t *effectCustomPayload = nullptr;
uint32_t totalPaddedSize = 0;
uint32_t parsedSize = 0;
struct agm_acdb_param *repackedData = nullptr;
if (!acdbParam)
return -EINVAL;
if (sampleRate != 0 && acdbParam->isTKV == PARAM_TKV) {
PAL_ERR(LOG_TAG, "Sample Rate %d CKV and TKV are not compatible.",
sampleRate);
return -EINVAL;
}
if (sampleRate) {
//CKV
// step 1. check sample rate is in kv or not
PAL_INFO(LOG_TAG, "CKV param to ACDB");
pal_key_value_pair_t *rawCKVPair = nullptr;
rawCKVPair = (pal_key_value_pair_t *)acdbParam->blob;
for (int k = 0; k < acdbParam->num_kvs; k++) {
if (rawCKVPair[k].key == SAMPLINGRATE) {
PAL_INFO(LOG_TAG, "Sample rate is in CKV. No need to append.");
appendSampleRateInCKV = 0;
break;
}
}
PAL_DBG(LOG_TAG, "is sample rate appended in CKV? %x",
appendSampleRateInCKV);
} else {
//TKV
appendSampleRateInCKV = 0;
}
// multipl param check by param id
dataLength = sizeof(struct agm_acdb_param) +
acdbParam->num_kvs * sizeof(struct gsl_key_value_pair);
effectCustomPayload = (pal_effect_custom_payload_t *)
((uint8_t *)acdbParam + dataLength);
if (effectCustomPayload->paramId) {
// step 1: get param data size = blob size - kv size - param id size
payloadSize = acdbParam->blob_size -
acdbParam->num_kvs * sizeof(struct gsl_key_value_pair)
- sizeof(pal_effect_custom_payload_t);
paddedSize = PAL_ALIGN_8BYTE(payloadSize);
PAL_INFO(LOG_TAG, "payloadSize=%d paddedSize=%x", payloadSize, paddedSize);
payloadInfo = (struct agm_acdb_param *)calloc(1,
sizeof(struct agm_acdb_param) +
(acdbParam->num_kvs + appendSampleRateInCKV) *
sizeof(struct gsl_key_value_pair) +
sizeof(struct apm_module_param_data_t) + paddedSize);
if (!payloadInfo) {
PAL_ERR(LOG_TAG, "failed to allocate memory.");
return -ENOMEM;
}
// copy acdb meta + kv
dataLength = sizeof(struct agm_acdb_param) +
acdbParam->num_kvs * sizeof(struct gsl_key_value_pair);
ar_mem_cpy((uint8_t *)payloadInfo, dataLength,
(uint8_t *)acdbParam, dataLength);
//update blob size
payloadInfo->blob_size = payloadInfo->blob_size +
sizeof(struct apm_module_param_data_t) -
sizeof(pal_effect_custom_payload_t) +
appendSampleRateInCKV * sizeof(struct gsl_key_value_pair)
+ paddedSize - payloadSize;
payloadInfo->num_kvs = payloadInfo->num_kvs + appendSampleRateInCKV;
if (appendSampleRateInCKV) {
ptr = (uint32_t *)((uint8_t *)payloadInfo + dataLength);
*ptr++ = SAMPLINGRATE;
*ptr = sampleRate;
header = (struct apm_module_param_data_t *)((uint8_t *)payloadInfo +
dataLength + sizeof(struct gsl_key_value_pair));
} else {
header = (struct apm_module_param_data_t *)
((uint8_t *)payloadInfo + dataLength);
}
effectCustomPayload = (pal_effect_custom_payload_t *)
((uint8_t *)acdbParam + dataLength);
header->module_instance_id = moduleInstanceId;
header->param_id = effectCustomPayload->paramId;
header->param_size = payloadSize;
header->error_code = 0x0;
/* padded size = payload size + appended sze */
if (paddedSize) {
ptrDst = (uint8_t *)header + sizeof(struct apm_module_param_data_t);
ptrSrc = (uint8_t *)effectCustomPayload->data;
// padded bytes are zereo by calloc. no need to copy.
ar_mem_cpy(ptrDst, payloadSize, ptrSrc, payloadSize);
}
*size = dataLength + paddedSize + sizeof(struct apm_module_param_data_t) +
appendSampleRateInCKV * sizeof(struct gsl_key_value_pair);
*alsaPayload = (uint8_t *)payloadInfo;
} else {
// step 1: get param data size = blob size - kv size - param id size
payloadSize = acdbParam->blob_size -
acdbParam->num_kvs * sizeof(struct gsl_key_value_pair)
- sizeof(pal_effect_custom_payload_t);
repackedData =
(struct agm_acdb_param *)calloc(1,
sizeof(struct agm_acdb_param) +
(acdbParam->num_kvs + appendSampleRateInCKV) *
sizeof(struct gsl_key_value_pair) +
sizeof(struct apm_module_param_data_t) + payloadSize * 2);
if (!repackedData) {
PAL_ERR(LOG_TAG, "failed to allocate memory of 0x%x bytes",
payloadSize * 2);
return -ENOMEM;
}
legacyGefParamHeader *gefMultipleParamHeader = NULL;
// copy acdb meta + kv
dataLength = sizeof(struct agm_acdb_param) +
acdbParam->num_kvs * sizeof(struct gsl_key_value_pair);
ar_mem_cpy((uint8_t *)repackedData, dataLength,
(uint8_t *)acdbParam, dataLength);
repackedData->num_kvs = acdbParam->num_kvs + appendSampleRateInCKV;
if (appendSampleRateInCKV) {
ptr = (uint32_t *)((uint8_t *)repackedData + dataLength);
*ptr++ = SAMPLINGRATE;
*ptr = sampleRate;
header = (struct apm_module_param_data_t *)((uint8_t *)repackedData +
dataLength + sizeof(struct gsl_key_value_pair));
} else {
header = (struct apm_module_param_data_t *)
((uint8_t *)repackedData + dataLength);
}
while (parsedSize < payloadSize) {
PAL_DBG(LOG_TAG, "parsed size = 0x%x", parsedSize);
gefMultipleParamHeader =
(legacyGefParamHeader *)
((uint8_t *)(effectCustomPayload->data) + parsedSize);
paddedSize= PAL_ALIGN_8BYTE(sizeof(struct apm_module_param_data_t)
+ gefMultipleParamHeader->length);
PAL_DBG(LOG_TAG, "total padded size = 0x%x paddedSize=0x%x",
totalPaddedSize, paddedSize);
PAL_DBG(LOG_TAG, "current param value length = 0x%x",
gefMultipleParamHeader->length);
header->module_instance_id = moduleInstanceId;
header->param_id = gefMultipleParamHeader->paramId;
header->error_code = 0x0;
header->param_size = gefMultipleParamHeader->length;
PAL_DBG(LOG_TAG, "miid=0x%x param id = 0x%x length=0x%x",
header->module_instance_id, header->param_id, header->param_size);
if (gefMultipleParamHeader->length) {
ar_mem_cpy((uint8_t *)header + sizeof(struct apm_module_param_data_t),
gefMultipleParamHeader->length,
(uint8_t *)gefMultipleParamHeader + sizeof(legacyGefParamHeader),
gefMultipleParamHeader->length);
}
// offset to output data
totalPaddedSize += paddedSize;
// offset to input data
parsedSize += sizeof(legacyGefParamHeader) +
gefMultipleParamHeader->length;
PAL_DBG(LOG_TAG, "parsed size=0x%x total padded size=0x%x",
parsedSize, totalPaddedSize);
header = (struct apm_module_param_data_t*)((uint8_t *)header + paddedSize);
}
repackedData->blob_size = acdbParam->num_kvs * sizeof(struct gsl_key_value_pair)
+ totalPaddedSize;
*size = dataLength + totalPaddedSize +
appendSampleRateInCKV * sizeof(struct gsl_key_value_pair);
*alsaPayload = (uint8_t *)repackedData;
}
PAL_DBG(LOG_TAG, "ALSA payload %pK size %zu", *alsaPayload, *size);
return 0;
}
int PayloadBuilder::payloadCustomParam(uint8_t **alsaPayload, size_t *size,
uint32_t *customPayload, uint32_t customPayloadSize,
uint32_t moduleInstanceId, uint32_t paramId) {
struct apm_module_param_data_t* header;
uint8_t* payloadInfo = NULL;
size_t alsaPayloadSize = 0;
uint32_t totalPaddedSize = 0;
uint32_t parsedSize = 0;
PAL_DBG(LOG_TAG, "param id = 0x%x", paramId);
if (paramId) {
alsaPayloadSize = PAL_ALIGN_8BYTE(sizeof(struct apm_module_param_data_t)
+ customPayloadSize);
payloadInfo = (uint8_t *)calloc(1, (size_t)alsaPayloadSize);
if (!payloadInfo) {
PAL_ERR(LOG_TAG, "failed to allocate memory.");
return -ENOMEM;
}
header = (struct apm_module_param_data_t*)payloadInfo;
header->module_instance_id = moduleInstanceId;
header->param_id = paramId;
header->error_code = 0x0;
header->param_size = customPayloadSize;
if (customPayloadSize)
ar_mem_cpy(payloadInfo + sizeof(struct apm_module_param_data_t),
customPayloadSize,
customPayload,
customPayloadSize);
*size = alsaPayloadSize;
*alsaPayload = payloadInfo;
} else {
// make sure memory is big enough to handle padding
uint8_t *repackedData = (uint8_t *)calloc(1, customPayloadSize * 2);
if (!repackedData) {
PAL_ERR(LOG_TAG, "failed to allocate memory of 0x%x bytes",
customPayloadSize * 2);
return -ENOMEM;
}
legacyGefParamHeader *gefMultipleParamHeader = NULL;
PAL_DBG(LOG_TAG, "custom payloadsize=0x%x", customPayloadSize);
while (parsedSize < customPayloadSize) {
gefMultipleParamHeader =
(legacyGefParamHeader *)((uint8_t *)customPayload + parsedSize);
alsaPayloadSize = PAL_ALIGN_8BYTE(sizeof(struct apm_module_param_data_t)
+ gefMultipleParamHeader->length);
PAL_DBG(LOG_TAG, "total padded size = 0x%x alsapayloadsize=0x%x",
totalPaddedSize, alsaPayloadSize);
PAL_DBG(LOG_TAG, "current param length = 0x%x",
gefMultipleParamHeader->length);
payloadInfo = repackedData + totalPaddedSize;
header = (struct apm_module_param_data_t*)payloadInfo;
header->module_instance_id = moduleInstanceId;
header->param_id = gefMultipleParamHeader->paramId;
header->error_code = 0x0;
header->param_size = gefMultipleParamHeader->length;
if (gefMultipleParamHeader->length)
ar_mem_cpy(payloadInfo + sizeof(struct apm_module_param_data_t),
gefMultipleParamHeader->length,
(uint8_t *)customPayload + parsedSize +
sizeof(legacyGefParamHeader),
gefMultipleParamHeader->length);
totalPaddedSize += alsaPayloadSize;
parsedSize += sizeof(legacyGefParamHeader) +
gefMultipleParamHeader->length;
PAL_DBG(LOG_TAG, "parsed size=0x%x total padded size=0x%x",
parsedSize, totalPaddedSize);
}
*size = totalPaddedSize;
*alsaPayload = repackedData;
}
PAL_DBG(LOG_TAG, "ALSA payload %pK size %zu", *alsaPayload, *size);
return 0;
}
int PayloadBuilder::payloadSVAConfig(uint8_t **payload, size_t *size,
uint8_t *config, size_t config_size,
uint32_t miid, uint32_t param_id) {
struct apm_module_param_data_t* header = nullptr;
uint8_t* payloadInfo = nullptr;
size_t payloadSize = 0;
payloadSize = PAL_ALIGN_8BYTE(
sizeof(struct apm_module_param_data_t) + config_size);
payloadInfo = (uint8_t *)calloc(1, payloadSize);
if (!payloadInfo) {
PAL_ERR(LOG_TAG, "failed to allocate memory.");
return -ENOMEM;
}
header = (struct apm_module_param_data_t*)payloadInfo;
header->module_instance_id = miid;
header->param_id = param_id;
header->error_code = 0x0;
header->param_size = config_size;
if (config_size)
ar_mem_cpy(payloadInfo + sizeof(struct apm_module_param_data_t),
config_size, config, config_size);
*size = payloadSize;
*payload = payloadInfo;
PAL_INFO(LOG_TAG, "PID 0x%x, payload %pK size %zu", param_id, *payload, *size);
return 0;
}
void PayloadBuilder::payloadQuery(uint8_t **payload, size_t *size,
uint32_t moduleId, uint32_t paramId, uint32_t querySize)
{
struct apm_module_param_data_t* header;
uint8_t* payloadInfo = NULL;
size_t payloadSize = 0, padBytes = 0;
payloadSize = sizeof(struct apm_module_param_data_t) + querySize;
padBytes = PAL_PADDING_8BYTE_ALIGN(payloadSize);
payloadInfo = new uint8_t[payloadSize + padBytes]();
if (!payloadInfo) {
PAL_ERR(LOG_TAG, "payloadInfo malloc failed %s", strerror(errno));
return;
}
header = (struct apm_module_param_data_t*)payloadInfo;
header->module_instance_id = moduleId;
header->param_id = paramId;
header->error_code = 0x0;
header->param_size = payloadSize - sizeof(struct apm_module_param_data_t);
*size = payloadSize + padBytes;
*payload = payloadInfo;
}
int PayloadBuilder::payloadDualMono(uint8_t **payloadInfo)
{
uint8_t *payload = NULL;
uint32_t payload_size = 0;
uint16_t *update_params_value16 = nullptr;
payload_size = sizeof(pal_param_payload) + sizeof(effect_pal_payload_t) +
sizeof(pal_effect_custom_payload_t) + CUSTOM_STEREO_CMD_PARAM_SIZE;
payload = (uint8_t *)calloc(1, payload_size);
if (!payload) {
ALOGE("%s: no mem. %d\n", __func__, __LINE__);
return -ENOMEM;
}
pal_param_payload *pal_payload = (pal_param_payload *)payload;
pal_payload->payload_size = payload_size - sizeof(pal_param_payload);
effect_pal_payload_t *effect_payload = nullptr;
effect_payload = (effect_pal_payload_t *)(payload +
sizeof(pal_param_payload));
effect_payload->isTKV = PARAM_NONTKV;
effect_payload->tag = PER_STREAM_PER_DEVICE_MFC;
effect_payload->payloadSize = payload_size - sizeof(pal_param_payload)
- sizeof(effect_pal_payload_t);
pal_effect_custom_payload_t *custom_stereo_payload =
(pal_effect_custom_payload_t *)(payload +
sizeof(pal_param_payload) + sizeof(effect_pal_payload_t));
custom_stereo_payload->paramId = PARAM_ID_CHMIXER_COEFF;
custom_stereo_payload->data[0] = 1;// num of coeff table
update_params_value16 = (uint16_t *)&(custom_stereo_payload->data[1]);
/*for stereo mixing num out ch*/
*update_params_value16++ = CUSTOM_STEREO_NUM_OUT_CH;
/*for stereo mixing num in ch*/
*update_params_value16++ = CUSTOM_STEREO_NUM_IN_CH;
/* Out ch map FL/FR*/
*update_params_value16++ = PCM_CHANNEL_L;
*update_params_value16++ = PCM_CHANNEL_R;
/* In ch map FL/FR*/
*update_params_value16++ = PCM_CHANNEL_L;
*update_params_value16++ = PCM_CHANNEL_R;
/* weight */
*update_params_value16++ = Q14_GAIN_ZERO_POINT_FIVE;
*update_params_value16++ = Q14_GAIN_ZERO_POINT_FIVE;
*update_params_value16++ = Q14_GAIN_ZERO_POINT_FIVE;
*update_params_value16++ = Q14_GAIN_ZERO_POINT_FIVE;
*payloadInfo = payload;
return 0;
}
void PayloadBuilder::payloadDOAInfo(uint8_t **payload, size_t *size, uint32_t moduleId)
{
struct apm_module_param_data_t* header;
uint8_t* payloadInfo = NULL;
size_t payloadSize = 0, padBytes = 0;
payloadSize = sizeof(struct apm_module_param_data_t) +
sizeof(struct ffv_doa_tracking_monitor_t);
padBytes = PAL_PADDING_8BYTE_ALIGN(payloadSize);
payloadInfo = new uint8_t[payloadSize + padBytes]();
if (!payloadInfo) {
PAL_ERR(LOG_TAG, "payloadInfo malloc failed %s", strerror(errno));
return;
}
header = (struct apm_module_param_data_t*)payloadInfo;
header->module_instance_id = moduleId;
header->param_id = PARAM_ID_FFV_DOA_TRACKING_MONITOR;
header->error_code = 0x0;
header->param_size = payloadSize - sizeof(struct apm_module_param_data_t);
*size = payloadSize + padBytes;
*payload = payloadInfo;
PAL_DBG(LOG_TAG, "payload %pK size %zu", *payload, *size);
}
void PayloadBuilder::payloadTWSConfig(uint8_t** payload, size_t* size,
uint32_t miid, bool isTwsMonoModeOn, uint32_t codecFormat)
{
struct apm_module_param_data_t* header = NULL;
uint8_t* payloadInfo = NULL;
uint32_t param_id = 0, val = 2;
size_t payloadSize = 0, customPayloadSize = 0;
param_id_aptx_classic_switch_enc_pcm_input_payload_t *aptx_classic_payload;
param_id_aptx_adaptive_enc_switch_to_mono_t *aptx_adaptive_payload;
if (codecFormat == CODEC_TYPE_APTX_DUAL_MONO) {
param_id = PARAM_ID_APTX_CLASSIC_SWITCH_ENC_PCM_INPUT;
customPayloadSize = sizeof(param_id_aptx_classic_switch_enc_pcm_input_payload_t);
} else {
param_id = PARAM_ID_APTX_ADAPTIVE_ENC_SWITCH_TO_MONO;
customPayloadSize = sizeof(param_id_aptx_adaptive_enc_switch_to_mono_t);
}
payloadSize = PAL_ALIGN_8BYTE(sizeof(struct apm_module_param_data_t)
+ customPayloadSize);
payloadInfo = (uint8_t *)calloc(1, (size_t)payloadSize);
if (!payloadInfo) {
PAL_ERR(LOG_TAG, "failed to allocate memory.");
return;
}
header = (struct apm_module_param_data_t*)payloadInfo;
header->module_instance_id = miid;
header->param_id = param_id;
header->error_code = 0x0;
header->param_size = customPayloadSize;
val = (isTwsMonoModeOn == true) ? 1 : 2;
if (codecFormat == CODEC_TYPE_APTX_DUAL_MONO) {
aptx_classic_payload =
(param_id_aptx_classic_switch_enc_pcm_input_payload_t*)(payloadInfo +
sizeof(struct apm_module_param_data_t));
aptx_classic_payload->transition_direction = val;
ar_mem_cpy(payloadInfo + sizeof(struct apm_module_param_data_t),
customPayloadSize,
aptx_classic_payload,
customPayloadSize);
} else {
aptx_adaptive_payload =
(param_id_aptx_adaptive_enc_switch_to_mono_t*)(payloadInfo +
sizeof(struct apm_module_param_data_t));
aptx_adaptive_payload->switch_between_mono_and_stereo = val;
ar_mem_cpy(payloadInfo + sizeof(struct apm_module_param_data_t),
customPayloadSize,
aptx_adaptive_payload,
customPayloadSize);
}
*size = payloadSize;
*payload = payloadInfo;
}
void PayloadBuilder::payloadNRECConfig(uint8_t** payload, size_t* size,
uint32_t miid, bool isNrecEnabled)
{
struct apm_module_param_data_t* header = NULL;
uint8_t* payloadInfo = NULL;
uint32_t param_id = 0, val = 0;
size_t payloadSize = 0, customPayloadSize = 0;
qcmn_global_effect_param_t *nrec_payload;
param_id = PARAM_ID_FLUENCE_CMN_GLOBAL_EFFECT;
customPayloadSize = sizeof(qcmn_global_effect_param_t);
payloadSize = PAL_ALIGN_8BYTE(sizeof(struct apm_module_param_data_t)
+ customPayloadSize);
payloadInfo = (uint8_t *)calloc(1, (size_t)payloadSize);
if (!payloadInfo) {
PAL_ERR(LOG_TAG, "failed to allocate memory.");
return;
}
header = (struct apm_module_param_data_t*)payloadInfo;
header->module_instance_id = miid;
header->param_id = param_id;
header->error_code = 0x0;
header->param_size = customPayloadSize;
val = (isNrecEnabled == true) ? 0x3 : 0x0;
nrec_payload =
(qcmn_global_effect_param_t *)(payloadInfo +
sizeof(struct apm_module_param_data_t));
nrec_payload->ecns_effect_mode = val;
ar_mem_cpy(payloadInfo + sizeof(struct apm_module_param_data_t),
customPayloadSize,
nrec_payload,
customPayloadSize);
*size = payloadSize;
*payload = payloadInfo;
}
void PayloadBuilder::payloadLC3Config(uint8_t** payload, size_t* size,
uint32_t miid, bool isLC3MonoModeOn)
{
struct apm_module_param_data_t* header = NULL;
uint8_t* payloadInfo = NULL;
uint32_t param_id = 0, val = 2;
size_t payloadSize = 0, customPayloadSize = 0;
param_id_lc3_encoder_switch_enc_pcm_input_payload_t *lc3_payload;
param_id = PARAM_ID_LC3_ENC_DOWNMIX_2_MONO;
customPayloadSize = sizeof(param_id_lc3_encoder_switch_enc_pcm_input_payload_t);
payloadSize = PAL_ALIGN_8BYTE(sizeof(struct apm_module_param_data_t)
+ customPayloadSize);
payloadInfo = (uint8_t *)calloc(1, (size_t)payloadSize);
if (!payloadInfo) {
PAL_ERR(LOG_TAG, "failed to allocate memory.");
return;
}
header = (struct apm_module_param_data_t*)payloadInfo;
header->module_instance_id = miid;
header->param_id = param_id;
header->error_code = 0x0;
header->param_size = customPayloadSize;
val = (isLC3MonoModeOn == true) ? 1 : 2;
lc3_payload =
(param_id_lc3_encoder_switch_enc_pcm_input_payload_t *)(payloadInfo +
sizeof(struct apm_module_param_data_t));
lc3_payload->transition_direction = val;
ar_mem_cpy(payloadInfo + sizeof(struct apm_module_param_data_t),
customPayloadSize,
lc3_payload,
customPayloadSize);
*size = payloadSize;
*payload = payloadInfo;
}
void PayloadBuilder::payloadRATConfig(uint8_t** payload, size_t* size,
uint32_t miid, struct pal_media_config *data)
{
struct apm_module_param_data_t* header = NULL;
struct param_id_rat_mf_t *ratConf;
int numChannel;
uint32_t bitWidth;
uint16_t* pcmChannel = NULL;
uint8_t* payloadInfo = NULL;
size_t payloadSize = 0, padBytes = 0;
if (!data) {
PAL_ERR(LOG_TAG, "Invalid input parameters");
return;
}
numChannel = data->ch_info.channels;
bitWidth = data->bit_width;
payloadSize = sizeof(struct apm_module_param_data_t) +
sizeof(struct param_id_rat_mf_t) +
sizeof(uint16_t)*numChannel;
padBytes = PAL_PADDING_8BYTE_ALIGN(payloadSize);
payloadInfo = (uint8_t*) calloc(1, payloadSize + padBytes);
if (!payloadInfo) {
PAL_ERR(LOG_TAG, "payloadInfo malloc failed %s", strerror(errno));
return;
}
header = (struct apm_module_param_data_t*)payloadInfo;
ratConf = (struct param_id_rat_mf_t*)(payloadInfo +
sizeof(struct apm_module_param_data_t));
pcmChannel = (uint16_t*)(payloadInfo + sizeof(struct apm_module_param_data_t) +
sizeof(struct param_id_rat_mf_t));
header->module_instance_id = miid;
header->param_id = PARAM_ID_RAT_MEDIA_FORMAT;
header->error_code = 0x0;
header->param_size = payloadSize - sizeof(struct apm_module_param_data_t);
PAL_DBG(LOG_TAG, "header params \n IID:%x param_id:%x error_code:%d param_size:%d",
header->module_instance_id, header->param_id,
header->error_code, header->param_size);
ratConf->sample_rate = data->sample_rate;
if ((bitWidth == BITWIDTH_16) || (bitWidth == BITWIDTH_32)) {
ratConf->bits_per_sample = bitWidth;
ratConf->q_factor = bitWidth - 1;
} else if (bitWidth == BITWIDTH_24) {
ratConf->bits_per_sample = BITS_PER_SAMPLE_32;
ratConf->q_factor = PCM_Q_FACTOR_27;
}
ratConf->data_format = DATA_FORMAT_FIXED_POINT;
ratConf->num_channels = numChannel;
populateChannelMap(pcmChannel, numChannel);
*size = payloadSize + padBytes;
*payload = payloadInfo;
PAL_DBG(LOG_TAG, "sample_rate:%d bits_per_sample:%d q_factor:%d data_format:%d num_channels:%d",
ratConf->sample_rate, ratConf->bits_per_sample, ratConf->q_factor,
ratConf->data_format, ratConf->num_channels);
PAL_DBG(LOG_TAG, "customPayload address %pK and size %zu", payloadInfo,
*size);
}
void PayloadBuilder::payloadPcmCnvConfig(uint8_t** payload, size_t* size,
uint32_t miid, struct pal_media_config *data, bool isRx)
{
struct apm_module_param_data_t* header = NULL;
struct media_format_t *mediaFmtHdr;
struct payload_pcm_output_format_cfg_t *mediaFmtPayload;
int numChannels;
uint8_t* payloadInfo = NULL;
size_t payloadSize = 0, padBytes = 0;
uint8_t *pcmChannel;
if (!data) {
PAL_ERR(LOG_TAG, "Invalid input parameters");
return;
}
numChannels = data->ch_info.channels;
payloadSize = sizeof(struct apm_module_param_data_t) +
sizeof(struct media_format_t) +
sizeof(struct payload_pcm_output_format_cfg_t) +
sizeof(uint8_t)*numChannels;
padBytes = PAL_PADDING_8BYTE_ALIGN(payloadSize);
payloadInfo = new uint8_t[payloadSize + padBytes]();
if (!payloadInfo) {
PAL_ERR(LOG_TAG, "payloadInfo malloc failed %s", strerror(errno));
return;
}
header = (struct apm_module_param_data_t*)payloadInfo;
mediaFmtHdr = (struct media_format_t*)(payloadInfo +
sizeof(struct apm_module_param_data_t));
mediaFmtPayload = (struct payload_pcm_output_format_cfg_t*)(payloadInfo +
sizeof(struct apm_module_param_data_t) +
sizeof(struct media_format_t));
pcmChannel = (uint8_t*)(payloadInfo + sizeof(struct apm_module_param_data_t) +
sizeof(struct media_format_t) +
sizeof(struct payload_pcm_output_format_cfg_t));
header->module_instance_id = miid;
header->param_id = PARAM_ID_PCM_OUTPUT_FORMAT_CFG;
header->error_code = 0x0;
header->param_size = payloadSize - sizeof(struct apm_module_param_data_t);
PAL_DBG(LOG_TAG, "header params \n IID:%x param_id:%x error_code:%d param_size:%d",
header->module_instance_id, header->param_id,
header->error_code, header->param_size);
mediaFmtHdr->data_format = DATA_FORMAT_FIXED_POINT;
mediaFmtHdr->fmt_id = MEDIA_FMT_ID_PCM;
mediaFmtHdr->payload_size = sizeof(payload_pcm_output_format_cfg_t) +
sizeof(uint8_t) * numChannels;
PAL_DBG(LOG_TAG, "mediaFmtHdr data_format:%x fmt_id:%x payload_size:%d channels:%d",
mediaFmtHdr->data_format, mediaFmtHdr->fmt_id,
mediaFmtHdr->payload_size, numChannels);
mediaFmtPayload->endianness = PCM_LITTLE_ENDIAN;
mediaFmtPayload->num_channels = data->ch_info.channels;
if ((data->bit_width == BITWIDTH_16) || (data->bit_width == BITWIDTH_32)) {
mediaFmtPayload->bit_width = data->bit_width;
mediaFmtPayload->bits_per_sample = data->bit_width;
mediaFmtPayload->q_factor = data->bit_width - 1;
mediaFmtPayload->alignment = PCM_LSB_ALIGNED;
} else if (data->bit_width == BITWIDTH_24) {
// convert to Q31 that's expected by HD encoders.
mediaFmtPayload->bit_width = BIT_WIDTH_24;
mediaFmtPayload->bits_per_sample = BITS_PER_SAMPLE_32;
mediaFmtPayload->q_factor = isRx ? PCM_Q_FACTOR_31 : PCM_Q_FACTOR_27;
mediaFmtPayload->alignment = PCM_MSB_ALIGNED;
} else {
PAL_ERR(LOG_TAG, "invalid bit width %d", data->bit_width);
delete[] payloadInfo;
*size = 0;
*payload = NULL;
return;
}
mediaFmtPayload->interleaved = isRx ? PCM_INTERLEAVED : PCM_DEINTERLEAVED_UNPACKED;
PAL_DBG(LOG_TAG, "interleaved:%d bit_width:%d bits_per_sample:%d q_factor:%d",
mediaFmtPayload->interleaved, mediaFmtPayload->bit_width,
mediaFmtPayload->bits_per_sample, mediaFmtPayload->q_factor);
populateChannelMap(pcmChannel, numChannels);
*size = (payloadSize + padBytes);
*payload = payloadInfo;
PAL_DBG(LOG_TAG, "customPayload address %pK and size %zu", payloadInfo,
*size);
}
void PayloadBuilder::payloadCopPackConfig(uint8_t** payload, size_t* size,
uint32_t miid, struct pal_media_config *data)
{
struct apm_module_param_data_t* header = NULL;
struct param_id_cop_pack_output_media_fmt_t *copPack = NULL;
int numChannel;
uint16_t* pcmChannel = NULL;
uint8_t* payloadInfo = NULL;
size_t payloadSize = 0, padBytes = 0;
if (!data) {
PAL_ERR(LOG_TAG, "Invalid input parameters");
return;
}
numChannel = data->ch_info.channels;
payloadSize = sizeof(struct apm_module_param_data_t) +
sizeof(struct param_id_cop_pack_output_media_fmt_t) +
sizeof(uint16_t)*numChannel;
padBytes = PAL_PADDING_8BYTE_ALIGN(payloadSize);
payloadInfo = new uint8_t[payloadSize + padBytes]();
if (!payloadInfo) {
PAL_ERR(LOG_TAG, "payloadInfo alloc failed %s", strerror(errno));
return;
}
header = (struct apm_module_param_data_t*)payloadInfo;
copPack = (struct param_id_cop_pack_output_media_fmt_t*)(payloadInfo +
sizeof(struct apm_module_param_data_t));
pcmChannel = (uint16_t*)(payloadInfo +
sizeof(struct apm_module_param_data_t) +
sizeof(struct param_id_cop_pack_output_media_fmt_t));
header->module_instance_id = miid;
header->param_id = PARAM_ID_COP_PACKETIZER_OUTPUT_MEDIA_FORMAT;
header->error_code = 0x0;
header->param_size = payloadSize - sizeof(struct apm_module_param_data_t);
PAL_DBG(LOG_TAG, "header params \n IID:%x param_id:%x error_code:%d param_size:%d",
header->module_instance_id, header->param_id,
header->error_code, header->param_size);
copPack->sampling_rate = data->sample_rate;
copPack->bits_per_sample = data->bit_width;
copPack->num_channels = numChannel;
populateChannelMap(pcmChannel, numChannel);
*size = payloadSize + padBytes;
*payload = payloadInfo;
PAL_DBG(LOG_TAG, "sample_rate:%d bits_per_sample:%d num_channels:%d",
copPack->sampling_rate, copPack->bits_per_sample, copPack->num_channels);
PAL_DBG(LOG_TAG, "customPayload address %pK and size %zu", payloadInfo,
*size);
}
void PayloadBuilder::payloadScramblingConfig(uint8_t** payload, size_t* size,
uint32_t miid, uint32_t enable)
{
struct apm_module_param_data_t* header = NULL;
struct param_id_cop_pack_enable_scrambling_t *copPack = NULL;
uint8_t* payloadInfo = NULL;
size_t payloadSize = 0, padBytes = 0;
payloadSize = sizeof(struct apm_module_param_data_t) +
sizeof(struct param_id_cop_pack_enable_scrambling_t);
padBytes = PAL_PADDING_8BYTE_ALIGN(payloadSize);
payloadInfo = new uint8_t[payloadSize + padBytes]();
if (!payloadInfo) {
PAL_ERR(LOG_TAG, "payloadInfo alloc failed %s", strerror(errno));
return;
}
header = (struct apm_module_param_data_t*)payloadInfo;
copPack = (struct param_id_cop_pack_enable_scrambling_t*)(payloadInfo +
sizeof(struct apm_module_param_data_t));
header->module_instance_id = miid;
header->param_id = PARAM_ID_COP_PACKETIZER_ENABLE_SCRAMBLING;
header->error_code = 0x0;
header->param_size = payloadSize - sizeof(struct apm_module_param_data_t);
PAL_DBG(LOG_TAG, "header params \n IID:%x param_id:%x error_code:%d param_size:%d",
header->module_instance_id, header->param_id,
header->error_code, header->param_size);
copPack->enable_scrambler = enable;
*size = payloadSize + padBytes;
*payload = payloadInfo;
PAL_DBG(LOG_TAG, "enable_scrambler:%d", copPack->enable_scrambler);
PAL_VERBOSE(LOG_TAG, "customPayload address %pK and size %zu", payloadInfo,
*size);
}
void PayloadBuilder::payloadCopV2PackConfig(uint8_t** payload, size_t* size,
uint32_t miid, void *codecInfo)
{
struct apm_module_param_data_t* header = NULL;
struct param_id_cop_v2_stream_info_t *streamInfo = NULL;
uint8_t* payloadInfo = NULL;
audio_lc3_codec_cfg_t *bleCfg = NULL;
struct cop_v2_stream_info_map_t* streamMap = NULL;
size_t payloadSize = 0, padBytes = 0;
uint64_t channel_mask = 0;
int i = 0;
bleCfg = (audio_lc3_codec_cfg_t *)codecInfo;
if (!bleCfg) {
PAL_ERR(LOG_TAG, "Invalid input parameters");
return;
}
payloadSize = sizeof(struct apm_module_param_data_t) +
sizeof(struct param_id_cop_pack_output_media_fmt_t) +
sizeof(struct cop_v2_stream_info_map_t) * bleCfg->enc_cfg.stream_map_size;
padBytes = PAL_PADDING_8BYTE_ALIGN(payloadSize);
payloadInfo = new uint8_t[payloadSize + padBytes]();
if (!payloadInfo) {
PAL_ERR(LOG_TAG, "payloadInfo alloc failed %s", strerror(errno));
return;
}
header = (struct apm_module_param_data_t*)payloadInfo;
streamInfo = (struct param_id_cop_v2_stream_info_t*)(payloadInfo +
sizeof(struct apm_module_param_data_t));
streamMap = (struct cop_v2_stream_info_map_t*)(payloadInfo +
sizeof(struct apm_module_param_data_t) +
sizeof(struct param_id_cop_v2_stream_info_t));
header->module_instance_id = miid;
header->param_id = PARAM_ID_COP_V2_STREAM_INFO;
header->error_code = 0x0;
header->param_size = payloadSize - sizeof(struct apm_module_param_data_t);
PAL_DBG(LOG_TAG, "header params \n IID:%x param_id:%x error_code:%d param_size:%d",
header->module_instance_id, header->param_id,
header->error_code, header->param_size);
streamInfo->num_streams = bleCfg->enc_cfg.stream_map_size;;
for (i = 0; i < streamInfo->num_streams; i++) {
channel_mask = convert_channel_map(bleCfg->enc_cfg.streamMapOut[i].audio_location);
streamMap[i].stream_id = bleCfg->enc_cfg.streamMapOut[i].stream_id;
streamMap[i].direction = bleCfg->enc_cfg.streamMapOut[i].direction;
streamMap[i].channel_mask_lsw = channel_mask & 0x00000000FFFFFFFF;
streamMap[i].channel_mask_msw = (channel_mask & 0xFFFFFFFF00000000) >> 32;
}
*size = payloadSize + padBytes;
*payload = payloadInfo;
PAL_DBG(LOG_TAG, "customPayload address %pK and size %zu", payloadInfo, *size);
}
void PayloadBuilder::payloadCopV2DepackConfig(uint8_t** payload, size_t* size,
uint32_t miid, void *codecInfo, bool isStreamMapDirIn)
{
struct apm_module_param_data_t* header = NULL;
struct param_id_cop_v2_stream_info_t *streamInfo = NULL;
uint8_t* payloadInfo = NULL;
audio_lc3_codec_cfg_t *bleCfg = NULL;
struct cop_v2_stream_info_map_t* streamMap = NULL;
size_t payloadSize = 0, padBytes = 0;
uint64_t channel_mask = 0;
int i = 0;
bleCfg = (audio_lc3_codec_cfg_t *)codecInfo;
if (!bleCfg) {
PAL_ERR(LOG_TAG, "Invalid input parameters");
return;
}
if (!isStreamMapDirIn) {
payloadSize = sizeof(struct apm_module_param_data_t) +
sizeof(struct param_id_cop_pack_output_media_fmt_t) +
sizeof(struct cop_v2_stream_info_map_t) * bleCfg->enc_cfg.stream_map_size;
} else if (isStreamMapDirIn && bleCfg->dec_cfg.stream_map_size != 0) {
payloadSize = sizeof(struct apm_module_param_data_t) +
sizeof(struct param_id_cop_pack_output_media_fmt_t) +
sizeof(struct cop_v2_stream_info_map_t) * bleCfg->dec_cfg.stream_map_size;
} else if (isStreamMapDirIn && bleCfg->dec_cfg.stream_map_size == 0) {
PAL_ERR(LOG_TAG, "isStreamMapDirIn is true, but empty streamMapIn");
return;
}
padBytes = PAL_PADDING_8BYTE_ALIGN(payloadSize);
payloadInfo = new uint8_t[payloadSize + padBytes]();
if (!payloadInfo) {
PAL_ERR(LOG_TAG, "payloadInfo alloc failed %s", strerror(errno));
return;
}
header = (struct apm_module_param_data_t*)payloadInfo;
streamInfo = (struct param_id_cop_v2_stream_info_t*)(payloadInfo +
sizeof(struct apm_module_param_data_t));
streamMap = (struct cop_v2_stream_info_map_t*)(payloadInfo +
sizeof(struct apm_module_param_data_t) +
sizeof(struct param_id_cop_v2_stream_info_t));
header->module_instance_id = miid;
header->param_id = PARAM_ID_COP_V2_STREAM_INFO;
header->error_code = 0x0;
header->param_size = payloadSize - sizeof(struct apm_module_param_data_t);
PAL_DBG(LOG_TAG, "header params \n IID:%x param_id:%x error_code:%d param_size:%d",
header->module_instance_id, header->param_id,
header->error_code, header->param_size);
if (!isStreamMapDirIn) {
streamInfo->num_streams = bleCfg->enc_cfg.stream_map_size;;
for (i = 0; i < streamInfo->num_streams; i++) {
channel_mask = convert_channel_map(bleCfg->enc_cfg.streamMapOut[i].audio_location);
streamMap[i].stream_id = bleCfg->enc_cfg.streamMapOut[i].stream_id;
streamMap[i].direction = bleCfg->enc_cfg.streamMapOut[i].direction;
streamMap[i].channel_mask_lsw = channel_mask & 0x00000000FFFFFFFF;
streamMap[i].channel_mask_msw = (channel_mask & 0xFFFFFFFF00000000) >> 32;
}
} else {
streamInfo->num_streams = bleCfg->dec_cfg.stream_map_size;
for (i = 0; i < streamInfo->num_streams; i++) {
channel_mask = convert_channel_map(bleCfg->dec_cfg.streamMapIn[i].audio_location);
streamMap[i].stream_id = bleCfg->dec_cfg.streamMapIn[i].stream_id;
streamMap[i].direction = bleCfg->dec_cfg.streamMapIn[i].direction;
streamMap[i].channel_mask_lsw = channel_mask & 0x00000000FFFFFFFF;
streamMap[i].channel_mask_msw = (channel_mask & 0xFFFFFFFF00000000) >> 32;
}
}
*size = payloadSize + padBytes;
*payload = payloadInfo;
PAL_DBG(LOG_TAG, "customPayload address %pK and size %zu", payloadInfo, *size);
}
/* Used for VI feedback device KV as of now */
int PayloadBuilder::getDeviceKV(int dev_id, std::vector<std::pair<int,int>>& deviceKV)
{
PAL_DBG(LOG_TAG, "Enter: device ID: %d", dev_id);
std::vector<std::pair<selector_type_t, std::string>> empty_selector_pairs;
return retrieveKVs(empty_selector_pairs, dev_id, all_devices, deviceKV);
}
/** Used for BT device KVs only */
int PayloadBuilder::getBtDeviceKV(int dev_id, std::vector<std::pair<int,int>>& deviceKV,
uint32_t codecFormat, bool isAbrEnabled, bool isHostless)
{
int status = 0;
PAL_INFO(LOG_TAG, "Enter: codecFormat:0x%x, isabrEnabled:%d, isHostless:%d",
codecFormat, isAbrEnabled, isHostless);
std::vector<std::pair<selector_type_t, std::string>> filled_selector_pairs;
filled_selector_pairs.push_back(std::make_pair(CODECFORMAT_SEL,
btCodecFormatLUT.at(codecFormat)));
if (dev_id == PAL_DEVICE_OUT_BLUETOOTH_A2DP ||
dev_id == PAL_DEVICE_OUT_BLUETOOTH_BLE ||
dev_id == PAL_DEVICE_OUT_BLUETOOTH_BLE_BROADCAST) {
filled_selector_pairs.push_back(std::make_pair(ABR_ENABLED_SEL,
isAbrEnabled ? "TRUE" : "FALSE"));
filled_selector_pairs.push_back(std::make_pair(HOSTLESS_SEL,
isHostless ? "TRUE" : "FALSE"));
} else if (dev_id == PAL_DEVICE_IN_BLUETOOTH_A2DP ||
dev_id == PAL_DEVICE_IN_BLUETOOTH_BLE) {
filled_selector_pairs.push_back(std::make_pair(HOSTLESS_SEL,
isHostless ? "TRUE" : "FALSE"));
}
status = retrieveKVs(filled_selector_pairs, dev_id, all_devices, deviceKV);
PAL_INFO(LOG_TAG, "Exit, status %d", status);
return status;
}
/** Used for Loopback stream types only */
int PayloadBuilder::populateStreamKV(Stream* s, std::vector<std::pair<int,int>> &keyVectorRx,
std::vector<std::pair<int,int>> &keyVectorTx, struct vsid_info vsidinfo)
{
int status = 0;
struct pal_stream_attributes *sattr = NULL;
std::vector<std::string> selector_names;
std::vector<std::pair<selector_type_t, std::string>> filled_selector_pairs;
PAL_DBG(LOG_TAG, "Enter");
sattr = new struct pal_stream_attributes();
if (!sattr) {
PAL_ERR(LOG_TAG, "sattr alloc failed %s", strerror(errno));
status = -ENOMEM;
goto exit;
}
memset(sattr, 0, sizeof(struct pal_stream_attributes));
status = s->getStreamAttributes(sattr);
if (0 != status) {
PAL_ERR(LOG_TAG, "getStreamAttributes failed status %d", status);
goto free_sattr;
}
PAL_INFO(LOG_TAG, "stream type %d", sattr->type);
if (sattr->type == PAL_STREAM_LOOPBACK) {
if (sattr->info.opt_stream_info.loopback_type == PAL_STREAM_LOOPBACK_HFP_RX) {
filled_selector_pairs.push_back(std::make_pair(DIRECTION_SEL, "RX"));
filled_selector_pairs.push_back(std::make_pair(SUB_TYPE_SEL,
loopbackLUT.at(sattr->info.opt_stream_info.loopback_type)));
retrieveKVs(filled_selector_pairs, sattr->type, all_streams, keyVectorRx);
filled_selector_pairs.clear();
filled_selector_pairs.push_back(std::make_pair(DIRECTION_SEL, "TX"));
filled_selector_pairs.push_back(std::make_pair(SUB_TYPE_SEL,
loopbackLUT.at(sattr->info.opt_stream_info.loopback_type)));
retrieveKVs(filled_selector_pairs ,sattr->type, all_streams, keyVectorTx);
} else if (sattr->info.opt_stream_info.loopback_type == PAL_STREAM_LOOPBACK_HFP_TX) {
/* no StreamKV for HFP TX */
} else {
selector_names = retrieveSelectors(sattr->type, all_streams);
if (selector_names.empty() != true)
filled_selector_pairs = getSelectorValues(selector_names, s, NULL);
retrieveKVs(filled_selector_pairs ,sattr->type, all_streams, keyVectorRx);
}
} else if (sattr->type == PAL_STREAM_VOICE_CALL) {
filled_selector_pairs.push_back(std::make_pair(DIRECTION_SEL, "RX"));
filled_selector_pairs.push_back(std::make_pair(VSID_SEL,
vsidLUT.at(sattr->info.voice_call_info.VSID)));
retrieveKVs(filled_selector_pairs ,sattr->type, all_streams, keyVectorRx);
filled_selector_pairs.clear();
filled_selector_pairs.push_back(std::make_pair(DIRECTION_SEL, "TX"));
filled_selector_pairs.push_back(std::make_pair(VSID_SEL,
vsidLUT.at(sattr->info.voice_call_info.VSID)));
retrieveKVs(filled_selector_pairs ,sattr->type, all_streams, keyVectorTx);
} else {
PAL_DBG(LOG_TAG, "KVs not provided for stream type:%d", sattr->type);
}
free_sattr:
delete sattr;
exit:
PAL_DBG(LOG_TAG, "Exit, status %d", status);
return status;
}
/** Used for Loopback stream types only */
int PayloadBuilder::populateStreamPPKV(Stream* s, std::vector <std::pair<int,int>> &keyVectorRx,
std::vector <std::pair<int,int>> &keyVectorTx __unused)
{
int status = 0;
struct pal_stream_attributes *sattr = NULL;
std::vector <std::string> selectors;
std::vector <std::pair<selector_type_t, std::string>> filled_selector_pairs;
PAL_DBG(LOG_TAG, "Enter");
sattr = new struct pal_stream_attributes();
if (!sattr) {
PAL_ERR(LOG_TAG, "sattr alloc failed %s", strerror(errno));
status = -ENOMEM;
goto exit;
}
memset(sattr, 0, sizeof(struct pal_stream_attributes));
status = s->getStreamAttributes(sattr);
if (0 != status) {
PAL_ERR(LOG_TAG, "getStreamAttributes Failed status %d", status);
goto free_sattr;
}
PAL_INFO(LOG_TAG, "stream type %d", sattr->type);
if (sattr->type == PAL_STREAM_VOICE_CALL) {
selectors = retrieveSelectors(sattr->type, all_streampps);
if (selectors.empty() != true)
filled_selector_pairs = getSelectorValues(selectors, s, NULL);
retrieveKVs(filled_selector_pairs ,sattr->type, all_streampps, keyVectorRx);
} else {
PAL_DBG(LOG_TAG, "KVs not provided for stream type:%d", sattr->type);
}
free_sattr:
delete sattr;
exit:
PAL_DBG(LOG_TAG, "Exit, status %d", status);
return status;
}
bool PayloadBuilder::compareSelectorPairs(
std::vector<std::pair<selector_type_t, std::string>>& selector_pairs,
std::vector<std::pair<selector_type_t, std::string>>& filled_selector_pairs)
{
int count = 0;
bool result = false;
PAL_DBG(LOG_TAG, "Enter: selector size: %zu filled_sel size: %zu",
selector_pairs.size(), filled_selector_pairs.size());
if (selector_pairs.size() == filled_selector_pairs.size()) {
std::sort(filled_selector_pairs.begin(), filled_selector_pairs.end());
std::sort(selector_pairs.begin(), selector_pairs.end());
result = std::equal(selector_pairs.begin(), selector_pairs.end(),
filled_selector_pairs.begin());
if (result) {
PAL_DBG(LOG_TAG,"Return True");
goto exit;
}
} else {
for (int i = 0; i < filled_selector_pairs.size(); i++) {
if (selector_pairs.end() != std::find(selector_pairs.begin(),
selector_pairs.end(), filled_selector_pairs[i])) {
count++;
PAL_DBG(LOG_TAG,"Inside the find loop count=%d", count);
}
}
PAL_DBG(LOG_TAG, "After find count:%d", count);
if (filled_selector_pairs.size() == count) {
result = true;
PAL_DBG(LOG_TAG,"Return True");
goto exit;
}
}
exit:
PAL_DBG(LOG_TAG, "Exit result: %d", result);
return result;
}
bool PayloadBuilder::findKVs(std::vector<std::pair<selector_type_t, std::string>>
&filled_selector_pairs, uint32_t type, std::vector<allKVs> &any_type,
std::vector<std::pair<int, int>> &keyVector)
{
bool found = false;
for (int32_t i = 0; i < any_type.size(); i++) {
if (isIdTypeAvailable(type, any_type[i].id_type)) {
for (int32_t j = 0; j < any_type[i].keys_values.size(); j++) {
if (filled_selector_pairs.empty() != true) {
if (compareSelectorPairs(any_type[i].keys_values[j].selector_pairs,
filled_selector_pairs)) {
for (int32_t k = 0; k < any_type[i].keys_values[j].kv_pairs.size(); k++) {
keyVector.push_back(
std::make_pair(any_type[i].keys_values[j].kv_pairs[k].key,
any_type[i].keys_values[j].kv_pairs[k].value));
PAL_INFO(LOG_TAG, "key: 0x%x value: 0x%x\n",
any_type[i].keys_values[j].kv_pairs[k].key,
any_type[i].keys_values[j].kv_pairs[k].value);
}
found = true;
break;
}
} else {
if (any_type[i].keys_values[j].selector_pairs.empty()) {
for (int32_t k = 0; k < any_type[i].keys_values[j].kv_pairs.size(); k++) {
keyVector.push_back(
std::make_pair(any_type[i].keys_values[j].kv_pairs[k].key,
any_type[i].keys_values[j].kv_pairs[k].value));
PAL_INFO(LOG_TAG, "key: 0x%x value: 0x%x\n",
any_type[i].keys_values[j].kv_pairs[k].key,
any_type[i].keys_values[j].kv_pairs[k].value);
}
found = true;
break;
}
}
}
}
}
return found;
}
int PayloadBuilder::retrieveKVs(std::vector<std::pair<selector_type_t, std::string>>
&filled_selector_pairs, uint32_t type, std::vector<allKVs> &any_type,
std::vector<std::pair<int, int>> &keyVector)
{
bool found = false, custom_config_fallback = false;
int status = 0;
PAL_DBG(LOG_TAG, "Enter");
found = findKVs(filled_selector_pairs, type, any_type, keyVector);
if (found) {
PAL_DBG(LOG_TAG, "KVs found for the stream type/dev id: %d", type);
goto exit;
} else {
/* Add a fallback approach to search for KVs again without custom config as selector */
for (int i = 0; i < filled_selector_pairs.size(); i++) {
if (filled_selector_pairs[i].first == CUSTOM_CONFIG_SEL) {
PAL_INFO(LOG_TAG, "Fallback to find KVs without custom config %s",
filled_selector_pairs[i].second.c_str());
filled_selector_pairs.erase(filled_selector_pairs.begin() + i);
custom_config_fallback = true;
}
}
if (custom_config_fallback) {
found = findKVs(filled_selector_pairs, type, any_type, keyVector);
if (found) {
PAL_DBG(LOG_TAG, "KVs found without custom config for the stream type/dev id: %d",
type);
goto exit;
}
}
if (!found)
PAL_INFO(LOG_TAG, "No KVs found for the stream type/dev id: %d", type);
}
status = -EINVAL;
exit:
PAL_DBG(LOG_TAG, "Exit, status %d", status);
return status;
}
std::vector<std::pair<selector_type_t, std::string>> PayloadBuilder::getSelectorValues(
std::vector<std::string> &selector_names, Stream* s, struct pal_device* dAttr)
{
int instance_id = 0;
int status = 0;
struct pal_stream_attributes *sattr = NULL;
std::stringstream st;
std::vector<std::shared_ptr<Device>> associatedDevices;
std::vector<std::pair<selector_type_t, std::string>> filled_selector_pairs;
std::shared_ptr<ResourceManager> rm = ResourceManager::getInstance();
PAL_DBG(LOG_TAG, "Enter");
sattr = new struct pal_stream_attributes();
if (!sattr) {
PAL_ERR(LOG_TAG, "sattr alloc failed %s", strerror(errno));
goto exit;
}
memset(sattr, 0, sizeof(struct pal_stream_attributes));
if (!s) {
PAL_ERR(LOG_TAG, "stream is NULL");
filled_selector_pairs.clear();
goto free_sattr;
}
status = s->getStreamAttributes(sattr);
if (0 != status) {
PAL_ERR(LOG_TAG, "getStreamAttributes failed status %d", status);
goto free_sattr;
}
for (int i = 0; i < selector_names.size(); i++) {
PAL_DBG(LOG_TAG, "selectors_strings :%s", selector_names[i].c_str());
selector_type_t selector_type = selectorstypeLUT.at(selector_names[i]);
switch (selector_type) {
case DIRECTION_SEL:
if (sattr->direction == PAL_AUDIO_OUTPUT)
filled_selector_pairs.push_back(std::make_pair(selector_type, "RX"));
else if (sattr->direction == PAL_AUDIO_INPUT)
filled_selector_pairs.push_back(std::make_pair(selector_type, "TX"));
else if (sattr->direction == PAL_AUDIO_INPUT_OUTPUT)
filled_selector_pairs.push_back(std::make_pair(selector_type, "RX_TX"));
else
PAL_ERR(LOG_TAG, "Invalid stream direction %d", sattr->direction);
PAL_INFO(LOG_TAG, "Direction: %d", sattr->direction);
break;
case BITWIDTH_SEL:
/* If any usecase defined with bitwidth,need to update */
break;
case INSTANCE_SEL:
if (sattr->type == PAL_STREAM_VOICE_UI)
instance_id = dynamic_cast<StreamSoundTrigger *>(s)->GetInstanceId();
else
instance_id = rm->getStreamInstanceID(s);
if (instance_id < INSTANCE_1) {
PAL_ERR(LOG_TAG, "Invalid instance id %d", instance_id);
goto free_sattr;
}
st << instance_id;
filled_selector_pairs.push_back(std::make_pair(selector_type, st.str()));
PAL_INFO(LOG_TAG, "Instance: %d", instance_id);
break;
case SUB_TYPE_SEL:
if (sattr->type == PAL_STREAM_PROXY) {
if (sattr->direction == PAL_AUDIO_INPUT) {
if (sattr->info.opt_stream_info.tx_proxy_type == PAL_STREAM_PROXY_TX_WFD)
filled_selector_pairs.push_back(std::make_pair(selector_type,
"PAL_STREAM_PROXY_TX_WFD"));
else if (sattr->info.opt_stream_info.tx_proxy_type == PAL_STREAM_PROXY_TX_TELEPHONY_RX)
filled_selector_pairs.push_back(std::make_pair(selector_type,
"PAL_STREAM_PROXY_TX_TELEPHONY_RX"));
PAL_INFO(LOG_TAG, "Proxy type = %d",
sattr->info.opt_stream_info.tx_proxy_type);
}
} else if (sattr->type == PAL_STREAM_LOOPBACK) {
filled_selector_pairs.push_back(std::make_pair(selector_type,
loopbackLUT.at(sattr->info.opt_stream_info.loopback_type)));
PAL_INFO(LOG_TAG, "Loopback type: %d",
sattr->info.opt_stream_info.loopback_type);
}
break;
case VUI_MODULE_TYPE_SEL:
if (!s) {
PAL_ERR(LOG_TAG, "Invalid stream");
goto free_sattr;
}
if (s->getStreamSelector().length() != 0)
filled_selector_pairs.push_back(std::make_pair(selector_type,
s->getStreamSelector()));
PAL_INFO(LOG_TAG, "VUI module type:%s", s->getStreamSelector().c_str());
break;
case ACD_MODULE_TYPE_SEL:
if (!s) {
PAL_ERR(LOG_TAG, "Invalid stream");
goto free_sattr;
}
if (s->getStreamSelector().length() != 0)
filled_selector_pairs.push_back(std::make_pair(selector_type,
s->getStreamSelector()));
PAL_INFO(LOG_TAG, "ACD module type:%s", s->getStreamSelector().c_str());
break;
case DEVICEPP_TYPE_SEL:
if (!s) {
PAL_ERR(LOG_TAG, "Invalid stream");
goto free_sattr;
}
if (s->getDevicePPSelector().length() != 0)
filled_selector_pairs.push_back(std::make_pair(selector_type,
s->getDevicePPSelector()));
PAL_INFO(LOG_TAG, "devicePP_type:%s", s->getDevicePPSelector().c_str());
break;
case STREAM_TYPE_SEL:
filled_selector_pairs.push_back(std::make_pair(selector_type,
streamNameLUT.at(sattr->type)));
PAL_INFO(LOG_TAG, "stream type: %d", sattr->type);
break;
case AUD_FMT_SEL:
if (isPalPCMFormat(sattr->out_media_config.aud_fmt_id)) {
filled_selector_pairs.push_back(std::make_pair(AUD_FMT_SEL,
"PAL_AUDIO_FMT_PCM"));
} else {
filled_selector_pairs.push_back(std::make_pair(AUD_FMT_SEL,
"PAL_AUDIO_FMT_NON_PCM"));
}
PAL_INFO(LOG_TAG, "audio format: %d",
sattr->out_media_config.aud_fmt_id);
break;
case CUSTOM_CONFIG_SEL:
if (dAttr && strlen(dAttr->custom_config.custom_key)) {
filled_selector_pairs.push_back(
std::make_pair(CUSTOM_CONFIG_SEL,
dAttr->custom_config.custom_key));
PAL_INFO(LOG_TAG, "custom config key:%s",
dAttr->custom_config.custom_key);
}
break;
default:
PAL_DBG(LOG_TAG, "Selector type %d not handled", selector_type);
break;
}
}
free_sattr:
delete sattr;
exit:
PAL_DBG(LOG_TAG, "Exit");
return filled_selector_pairs;
}
void PayloadBuilder::removeDuplicateSelectors(std::vector<std::string> &gkv_selectors)
{
auto end = gkv_selectors.end();
for (auto i = gkv_selectors.begin(); i != end; ++i) {
end = std::remove(i + 1, end, *i);
}
gkv_selectors.erase(end, gkv_selectors.end());
}
bool PayloadBuilder::isIdTypeAvailable(int32_t type, std::vector<int>& id_type)
{
for (int32_t i = 0; i < id_type.size(); i++) {
if (type == id_type[i]){
PAL_DBG(LOG_TAG,"idtype :%d passed type :%d", id_type[i], type);
return true;
}
}
return false;
}
std::vector<std::string> PayloadBuilder::retrieveSelectors(int32_t type, std::vector<allKVs> &any_type)
{
std::vector<std::string> gkv_selectors;
PAL_DBG(LOG_TAG, "Enter: size_of_all :%zu type:%d", any_type.size(), type);
/* looping for all keys_and_values selectors and store in the gkv_selectors */
for (int32_t i = 0; i < any_type.size(); i++) {
if (isIdTypeAvailable(type, any_type[i].id_type)) {
PAL_DBG(LOG_TAG, "KeysAndValues_size: %zu", any_type[i].keys_values.size());
for(int32_t j = 0; j < any_type[i].keys_values.size(); j++) {
for(int32_t k = 0; k < any_type[i].keys_values[j].selector_names.size(); k++) {
gkv_selectors.push_back(any_type[i].keys_values[j].selector_names[k]);
}
}
}
}
if (gkv_selectors.size())
removeDuplicateSelectors(gkv_selectors);
for (int32_t i = 0; i < gkv_selectors.size(); i++) {
PAL_DBG(LOG_TAG, "gkv_selectors: %s", gkv_selectors[i].c_str());
}
return gkv_selectors;
}
int PayloadBuilder::populateStreamKV(Stream* s,
std::vector <std::pair<int,int>> &keyVector)
{
int status = -EINVAL;
struct pal_stream_attributes *sattr = NULL;
std::vector <std::string> selectors;
std::vector <std::pair<selector_type_t, std::string>> filled_selector_pairs;
PAL_DBG(LOG_TAG, "enter");
sattr = new struct pal_stream_attributes;
if (!sattr) {
status = -ENOMEM;
PAL_ERR(LOG_TAG,"sattr malloc failed %s status %d", strerror(errno), status);
goto exit;
}
memset(sattr, 0, sizeof(struct pal_stream_attributes));
status = s->getStreamAttributes(sattr);
if (0 != status) {
PAL_ERR(LOG_TAG,"getStreamAttributes Failed status %d", status);
goto free_sattr;
}
PAL_INFO(LOG_TAG, "stream type %d", sattr->type);
selectors = retrieveSelectors(sattr->type, all_streams);
if (selectors.empty() != true)
filled_selector_pairs = getSelectorValues(selectors, s, NULL);
retrieveKVs(filled_selector_pairs ,sattr->type, all_streams, keyVector);
free_sattr:
delete sattr;
exit:
return status;
}
int PayloadBuilder::populateStreamKVTunnel(Stream* s,
std::vector <std::pair<int,int>> &keyVector, uint32_t instanceId)
{
int status = -EINVAL;
struct pal_stream_attributes *sattr = NULL;
std::vector <std::string> selectors;
std::vector <std::pair<selector_type_t, std::string>> filled_selector_pairs;
std::stringstream st;
PAL_DBG(LOG_TAG, "enter");
sattr = new struct pal_stream_attributes;
if (!sattr) {
status = -ENOMEM;
PAL_ERR(LOG_TAG,"sattr malloc failed %s status %d", strerror(errno), status);
goto exit;
}
memset(sattr, 0, sizeof(struct pal_stream_attributes));
status = s->getStreamAttributes(sattr);
if (0 != status) {
PAL_ERR(LOG_TAG,"getStreamAttributes Failed status %d", status);
goto free_sattr;
}
PAL_INFO(LOG_TAG, "stream type %d", sattr->type);
selectors = retrieveSelectors(sattr->type, all_streams);
for (int i = 0; i < selectors.size(); i++) {
selector_type_t selector_type = selectorstypeLUT.at(selectors[i]);
PAL_DBG(LOG_TAG, "selector name is %s type is 0x%x",
selectors[i].c_str(), selector_type);
// it avoids instance request.
if (selector_type == INSTANCE_SEL) {
selectors.erase(selectors.begin() + i);
}
}
if (selectors.empty() != true)
filled_selector_pairs = getSelectorValues(selectors, s, NULL);
st << instanceId;
filled_selector_pairs.push_back(std::make_pair(INSTANCE_SEL, st.str()));
retrieveKVs(filled_selector_pairs ,sattr->type, all_streams, keyVector);
free_sattr:
delete sattr;
exit:
return status;
}
int PayloadBuilder::populateStreamDeviceKV(Stream* s __unused, int32_t beDevId __unused,
std::vector <std::pair<int,int>> &keyVector __unused)
{
int status = 0;
return status;
}
int PayloadBuilder::populateStreamDeviceKV(Stream* s, int32_t rxBeDevId,
std::vector <std::pair<int,int>> &keyVectorRx, int32_t txBeDevId,
std::vector <std::pair<int,int>> &keyVectorTx, struct vsid_info vsidinfo,
sidetone_mode_t sidetoneMode)
{
int status = 0;
std::vector <std::pair<int, int>> emptyKV;
std::shared_ptr<ResourceManager> rm = ResourceManager::getInstance();
PAL_VERBOSE(LOG_TAG,"Enter");
if (rm->isOutputDevId(rxBeDevId)) {
status = populateStreamKV(s, keyVectorRx, emptyKV, vsidinfo);
if (status)
goto exit;
}
if (rm->isInputDevId(txBeDevId)) {
status = populateStreamKV(s, emptyKV, keyVectorTx, vsidinfo);
if (status)
goto exit;
}
status = populateDeviceKV(s, rxBeDevId, keyVectorRx, txBeDevId,
keyVectorTx, sidetoneMode);
exit:
PAL_VERBOSE(LOG_TAG,"Exit, status %d", status);
return status;
}
int PayloadBuilder::populateDeviceKV(Stream* s, int32_t beDevId,
std::vector <std::pair<int,int>> &keyVector)
{
int status = 0;
std::vector <std::string> selectors;
std::vector <std::pair<selector_type_t, std::string>> filled_selector_pairs;
struct pal_device dAttr;
std::shared_ptr<Device> dev = nullptr;
std::shared_ptr<ResourceManager> rm = ResourceManager::getInstance();
uint32_t soundCardId = 0;
if (s)
soundCardId = s->getSoundCardId();
PAL_INFO(LOG_TAG, "Enter device id:%d", beDevId);
/* For BT devices, device KV will be populated from Bluetooth device only so skip here */
if (rm->isBtDevice((pal_device_id_t)beDevId)) {
if (DUMMY_SND_CARD == soundCardId) {
PAL_INFO(LOG_TAG, "Use default value for BT ACDB case.");
keyVector.push_back(std::make_pair(DEVICERX, BT_RX));
keyVector.push_back(std::make_pair(BT_PROFILE, A2DP));
keyVector.push_back(std::make_pair(BT_FORMAT, GENERIC));
}
goto exit;
}
if (beDevId > 0) {
memset (&dAttr, 0, sizeof(struct pal_device));
dAttr.id = (pal_device_id_t)beDevId;
dev = Device::getInstance(&dAttr, rm);
if (dev) {
status = dev->getDeviceAttributes(&dAttr, s);
selectors = retrieveSelectors(beDevId, all_devices);
if (selectors.empty() != true)
filled_selector_pairs = getSelectorValues(selectors, s, &dAttr);
retrieveKVs(filled_selector_pairs, beDevId, all_devices, keyVector);
}
}
exit:
PAL_INFO(LOG_TAG, "Exit device id:%d, status %d", beDevId, status);
return status;
}
int PayloadBuilder::populateDeviceKV(Stream* s, int32_t rxBeDevId,
std::vector <std::pair<int,int>> &keyVectorRx, int32_t txBeDevId,
std::vector <std::pair<int,int>> &keyVectorTx, sidetone_mode_t sidetoneMode)
{
int status = 0;
struct pal_stream_attributes sAttr;
std::vector <std::pair<selector_type_t, std::string>> filled_selector_pairs;
PAL_DBG(LOG_TAG, "Enter");
memset(&sAttr, 0, sizeof(struct pal_stream_attributes));
if (s) {
status = s->getStreamAttributes(&sAttr);
if (0 != status) {
PAL_ERR(LOG_TAG,"getStreamAttributes Failed \n");
return status;
}
}
populateDeviceKV(s, rxBeDevId, keyVectorRx);
populateDeviceKV(s, txBeDevId, keyVectorTx);
/* add sidetone kv if needed */
if (sAttr.type == PAL_STREAM_VOICE_CALL && sidetoneMode == SIDETONE_SW) {
PAL_DBG(LOG_TAG, "SW sidetone mode push kv");
filled_selector_pairs.push_back(std::make_pair(SIDETONE_MODE_SEL, "SW"));
retrieveKVs(filled_selector_pairs, txBeDevId, all_devices, keyVectorTx);
}
PAL_DBG(LOG_TAG, "Exit, status %d", status);
return status;
}
int PayloadBuilder::populateDeviceKVTunnel(Stream* s, int32_t beDevId,
std::vector <std::pair<int,int>> &keyVector)
{
int status = 0;
std::vector <std::string> selectors;
std::vector <std::pair<selector_type_t, std::string>> filled_selector_pairs;
struct pal_device dAttr;
std::shared_ptr<ResourceManager> rm = ResourceManager::getInstance();
/* For BT devices, device KV will be populated from Bluetooth device only so skip here */
if (rm->isBtDevice((pal_device_id_t)beDevId)) {
PAL_INFO(LOG_TAG, "Use default value for BT ACDB case.");
keyVector.push_back(std::make_pair(DEVICERX, BT_RX));
keyVector.push_back(std::make_pair(BT_PROFILE, A2DP));
keyVector.push_back(std::make_pair(BT_FORMAT, GENERIC));
return status;
}
if (beDevId > 0) {
memset (&dAttr, 0, sizeof(struct pal_device));
dAttr.id = (pal_device_id_t)beDevId;
selectors = retrieveSelectors(beDevId, all_devices);
if (selectors.empty() != true)
filled_selector_pairs = getSelectorValues(selectors, s, &dAttr);
retrieveKVs(filled_selector_pairs, beDevId, all_devices, keyVector);
}
PAL_INFO(LOG_TAG, "Exit device id:%d, status %d", beDevId, status);
return status;
}
int PayloadBuilder::populateDevicePPKVTunnel(Stream* s, int32_t rxBeDevId,
std::vector <std::pair<int,int>> &keyVectorRx)
{
int status = 0;
struct pal_device dAttr;
std::shared_ptr<ResourceManager> rm = ResourceManager::getInstance();
std::vector <std::string> selectors;
std::vector <std::pair<selector_type_t, std::string>> filled_selector_pairs;
/* Populate Rx Device PP KV */
if (rxBeDevId > 0) {
PAL_INFO(LOG_TAG, "Rx device id:%d", rxBeDevId);
memset (&dAttr, 0, sizeof(struct pal_device));
dAttr.id = (pal_device_id_t)rxBeDevId;
selectors = retrieveSelectors(dAttr.id, all_devicepps);
if (selectors.empty() != true)
filled_selector_pairs = getSelectorValues(selectors, s, &dAttr);
retrieveKVs(filled_selector_pairs, rxBeDevId, all_devicepps,
keyVectorRx);
}
PAL_DBG(LOG_TAG, "Exit, status: %d", status);
return 0;
}
int PayloadBuilder::populateDevicePPKV(Stream* s, int32_t rxBeDevId,
std::vector <std::pair<int,int>> &keyVectorRx, int32_t txBeDevId,
std::vector <std::pair<int,int>> &keyVectorTx)
{
int status = 0;
struct pal_device dAttr;
std::shared_ptr<Device> dev = nullptr;
std::shared_ptr<ResourceManager> rm = ResourceManager::getInstance();
std::vector <std::string> selectors;
std::vector <std::pair<selector_type_t, std::string>> filled_selector_pairs;
PAL_DBG(LOG_TAG, "Enter");
/* Populate Rx Device PP KV */
if (rxBeDevId > 0) {
PAL_INFO(LOG_TAG, "Rx device id:%d", rxBeDevId);
memset (&dAttr, 0, sizeof(struct pal_device));
dAttr.id = (pal_device_id_t)rxBeDevId;
dev = Device::getInstance(&dAttr, rm);
if (dev) {
status = dev->getDeviceAttributes(&dAttr, s);
selectors = retrieveSelectors(dAttr.id, all_devicepps);
if (selectors.empty() != true)
filled_selector_pairs = getSelectorValues(selectors, s, &dAttr);
retrieveKVs(filled_selector_pairs, rxBeDevId, all_devicepps,
keyVectorRx);
}
}
filled_selector_pairs.clear();
selectors.clear();
/* Populate Tx Device PP KV */
if (txBeDevId > 0) {
PAL_INFO(LOG_TAG, "Tx device id:%d", txBeDevId);
memset (&dAttr, 0, sizeof(struct pal_device));
dAttr.id = (pal_device_id_t)txBeDevId;
dev = Device::getInstance(&dAttr, rm);
if (dev) {
status = dev->getDeviceAttributes(&dAttr, s);
selectors = retrieveSelectors(dAttr.id, all_devicepps);
if (selectors.empty() != true)
filled_selector_pairs = getSelectorValues(selectors, s, &dAttr);
retrieveKVs(filled_selector_pairs, txBeDevId, all_devicepps,
keyVectorTx);
}
}
PAL_DBG(LOG_TAG, "Exit, status: %d", status);
return 0;
}
int PayloadBuilder::populateStreamCkv(Stream *s,
std::vector <std::pair<int,int>> &keyVector,
int tag __unused,
struct pal_volume_data **volume_data __unused)
{
int status = 0;
struct pal_stream_attributes sAttr;
std::shared_ptr<ResourceManager> rm = ResourceManager::getInstance();
struct volume_set_param_info vol_set_param_info;
PAL_DBG(LOG_TAG, "Enter");
memset(&sAttr, 0, sizeof(struct pal_stream_attributes));
status = s->getStreamAttributes(&sAttr);
if (0 != status) {
PAL_ERR(LOG_TAG, "getStreamAttributes failed status %d", status);
goto exit;
}
switch (sAttr.type) {
case PAL_STREAM_VOICE_UI:
PAL_INFO(LOG_TAG, "stream channels %d",
sAttr.in_media_config.ch_info.channels);
/* Push stream channels CKV for SVA/PDK module calibration */
keyVector.push_back(std::make_pair(STREAM_CHANNELS,
sAttr.in_media_config.ch_info.channels));
break;
default:
/*
* Sending volume minimum as we want to ramp up instead of ramping
* down while setting the desired volume. Thus avoiding glitch
* TODO: Decide what to send as ckv in graph open
*/
memset(&vol_set_param_info, 0, sizeof(struct volume_set_param_info));
rm->getVolumeSetParamInfo(&vol_set_param_info);
bool isStreamAvail = (find(vol_set_param_info.streams_.begin(),
vol_set_param_info.streams_.end(), sAttr.type) !=
vol_set_param_info.streams_.end());
if ((vol_set_param_info.isVolumeUsingSetParam == false) ||
((vol_set_param_info.isVolumeUsingSetParam == true) && !isStreamAvail)) {
keyVector.push_back(std::make_pair(VOLUME,LEVEL_15));
PAL_DBG(LOG_TAG, "Entered default %x %x", VOLUME, LEVEL_15);
}
break;
}
exit:
PAL_DBG(LOG_TAG, "Exit, status %d", status);
return status;
}
int PayloadBuilder::populateDevicePPCkv(Stream *s, std::vector <std::pair<int,int>> &keyVector)
{
int status = 0;
struct pal_stream_attributes *sattr = NULL;
std::vector<std::shared_ptr<Device>> associatedDevices;
struct pal_device dAttr;
std::shared_ptr<ResourceManager> rm = ResourceManager::getInstance();
PAL_DBG(LOG_TAG,"Enter");
sattr = new struct pal_stream_attributes;
if (!sattr) {
status = -ENOMEM;
PAL_ERR(LOG_TAG,"sattr malloc failed %s status %d", strerror(errno), status);
goto exit;
}
memset (&dAttr, 0, sizeof(struct pal_device));
memset (sattr, 0, sizeof(struct pal_stream_attributes));
status = s->getStreamAttributes(sattr);
if (0 != status) {
PAL_ERR(LOG_TAG,"getStreamAttributes Failed status %d\n",status);
goto free_sattr;
}
status = s->getAssociatedDevices(associatedDevices);
if (0 != status) {
PAL_ERR(LOG_TAG,"getAssociatedDevices Failed \n");
goto free_sattr;
}
for (int i = 0; i < associatedDevices.size();i++) {
status = associatedDevices[i]->getDeviceAttributes(&dAttr);
if (0 != status) {
PAL_ERR(LOG_TAG,"getAssociatedDevices Failed \n");
goto free_sattr;
}
switch (sattr->type) {
case PAL_STREAM_VOICE_UI:
PAL_INFO(LOG_TAG,"channels %d, id %d\n",dAttr.config.ch_info.channels, dAttr.id);
/* Push Channels CKV for FFNS or FFECNS channel based calibration */
keyVector.push_back(std::make_pair(CHANNELS,
dAttr.config.ch_info.channels));
break;
case PAL_STREAM_ACD:
case PAL_STREAM_SENSOR_PCM_DATA:
PAL_DBG(LOG_TAG,"channels %d, id %d\n",dAttr.config.ch_info.channels, dAttr.id);
/* Push Channels CKV for FFECNS channel based calibration */
keyVector.push_back(std::make_pair(CHANNELS,
dAttr.config.ch_info.channels));
break;
case PAL_STREAM_LOW_LATENCY:
case PAL_STREAM_DEEP_BUFFER:
case PAL_STREAM_SPATIAL_AUDIO:
case PAL_STREAM_PCM_OFFLOAD:
case PAL_STREAM_COMPRESSED:
if (dAttr.id == PAL_DEVICE_OUT_SPEAKER) {
PAL_INFO(LOG_TAG,"SpeakerProt Status[%d], RAS Status[%d]\n",
rm->isSpeakerProtectionEnabled, rm->isRasEnabled);
}
if (rm->isSpeakerProtectionEnabled == true &&
rm->isRasEnabled == true &&
dAttr.id == PAL_DEVICE_OUT_SPEAKER) {
if (dAttr.config.ch_info.channels == 2) {
PAL_INFO(LOG_TAG,"Enabling RAS - device channels[%d]\n",
dAttr.config.ch_info.channels);
keyVector.push_back(std::make_pair(RAS_SWITCH, RAS_ON));
} else {
PAL_INFO(LOG_TAG,"Disabling RAS - device channels[%d] \n",
dAttr.config.ch_info.channels);
keyVector.push_back(std::make_pair(RAS_SWITCH, RAS_OFF));
}
}
if ((dAttr.id == PAL_DEVICE_OUT_SPEAKER) ||
(dAttr.id == PAL_DEVICE_OUT_WIRED_HEADSET) ||
(dAttr.id == PAL_DEVICE_OUT_WIRED_HEADPHONE)) {
PAL_DBG(LOG_TAG, "Entered default %x %x", GAIN, GAIN_0);
keyVector.push_back(std::make_pair(GAIN, GAIN_0));
}
/* TBD: Push Channels for these types once Channels are added */
//keyVector.push_back(std::make_pair(CHANNELS,
// dAttr.config.ch_info.channels));
break;
default:
PAL_VERBOSE(LOG_TAG,"stream type %d doesn't support DevicePP CKV ", sattr->type);
goto free_sattr;
}
}
free_sattr:
delete sattr;
exit:
PAL_DBG(LOG_TAG,"Exit, status %d", status);
return status;
}
int PayloadBuilder::populateCalKeyVector(Stream *s, std::vector <std::pair<int,int>> &ckv, int tag) {
int status = 0;
PAL_VERBOSE(LOG_TAG,"enter \n");
std::vector <std::pair<int,int>> keyVector;
struct pal_stream_attributes sAttr;
std::shared_ptr<CaptureProfile> cap_prof = nullptr;
struct pal_device dAttr;
int level = -1;
std::vector<std::shared_ptr<Device>> associatedDevices;
std::shared_ptr<ResourceManager> rm = ResourceManager::getInstance();
memset(&sAttr, 0, sizeof(struct pal_stream_attributes));
status = s->getStreamAttributes(&sAttr);
if (0 != status) {
PAL_ERR(LOG_TAG, "getStreamAttributes Failed");
return status;
}
long voldB = 0;
struct pal_volume_data *voldata = NULL;
voldata = (struct pal_volume_data *)calloc(1, (sizeof(uint32_t) +
(sizeof(struct pal_channel_vol_kv) * (0xFFFF))));
if (!voldata) {
status = -ENOMEM;
goto exit;
}
status = s->getVolumeData(voldata);
if (0 != status) {
PAL_ERR(LOG_TAG,"getVolumeData Failed \n");
goto error_1;
}
PAL_VERBOSE(LOG_TAG,"volume sent:%f \n",(voldata->volume_pair[0].vol));
/*scaling the volume by PLAYBACK_VOLUME_MAX factor*/
voldB = (long)((voldata->volume_pair[0].vol) * (PLAYBACK_VOLUME_MAX*1.0));
switch (static_cast<uint32_t>(tag)) {
case TAG_STREAM_VOLUME:
if (voldB == 0L) {
ckv.push_back(std::make_pair(VOLUME,LEVEL_15));
}
else if (voldB <= 17L) {
ckv.push_back(std::make_pair(VOLUME,LEVEL_14));
}
else if (voldB <= 38L) {
ckv.push_back(std::make_pair(VOLUME,LEVEL_13));
}
else if (voldB <= 81L) {
ckv.push_back(std::make_pair(VOLUME,LEVEL_12));
}
else if (voldB <= 121L) {
ckv.push_back(std::make_pair(VOLUME,LEVEL_11));
}
else if (voldB <= 193L) {
ckv.push_back(std::make_pair(VOLUME,LEVEL_10));
}
else if (voldB <= 307L) {
ckv.push_back(std::make_pair(VOLUME,LEVEL_9));
}
else if (voldB <= 458L) {
ckv.push_back(std::make_pair(VOLUME,LEVEL_8));
}
else if (voldB <= 728L) {
ckv.push_back(std::make_pair(VOLUME,LEVEL_7));
}
else if (voldB <= 1157L) {
ckv.push_back(std::make_pair(VOLUME,LEVEL_6));
}
else if (voldB <= 1551L) {
ckv.push_back(std::make_pair(VOLUME,LEVEL_5));
}
else if (voldB <= 2185L) {
ckv.push_back(std::make_pair(VOLUME,LEVEL_4));
}
else if (voldB <= 3078L) {
ckv.push_back(std::make_pair(VOLUME,LEVEL_3));
}
else if (voldB <= 4129L) {
ckv.push_back(std::make_pair(VOLUME,LEVEL_2));
}
else if (voldB <= 5816L) {
ckv.push_back(std::make_pair(VOLUME,LEVEL_1));
}
else if (voldB <= 8192L) {
ckv.push_back(std::make_pair(VOLUME,LEVEL_0));
}
break;
case TAG_DEVICE_PP_MBDRC:
level = s->getGainLevel();
if (level != -1)
ckv.push_back(std::make_pair(GAIN, level));
break;
case HANDSET_PROT_ENABLE:
PAL_DBG(LOG_TAG, "Handset Mono channel speaker");
ckv.push_back(std::make_pair(SPK_PRO_DEV_MAP, LEFT_MONO));
break;
case SPKR_PROT_ENABLE :
status = s->getAssociatedDevices(associatedDevices);
if (0 != status) {
PAL_ERR(LOG_TAG,"getAssociatedDevices Failed \n");
goto error_1;
}
for (int i = 0; i < associatedDevices.size(); i++) {
status = associatedDevices[i]->getDeviceAttributes(&dAttr);
if (0 != status) {
PAL_ERR(LOG_TAG,"getAssociatedDevices Failed \n");
goto error_1;
}
if (dAttr.id == PAL_DEVICE_OUT_SPEAKER) {
if (dAttr.config.ch_info.channels == CHANNELS_4) {
switch (dAttr.config.ch_info.channels) {
case 1:
PAL_DBG(LOG_TAG, "Mono channel speaker");
ckv.push_back(std::make_pair(SPK_PRO_DEV_MAP, RIGHT_MONO_WITH_DISABLED_2SP));
break;
case 2:
PAL_DBG(LOG_TAG, "Multi channel speaker");
ckv.push_back(std::make_pair(SPK_PRO_DEV_MAP, LEFT_RIGHT_WITH_DISABLED_2SP));
break;
case 4:
PAL_DBG(LOG_TAG, "four channel speaker");
ckv.push_back(std::make_pair(SPK_PRO_DEV_MAP, LEFT_RIGHT));
break;
default :
PAL_ERR(LOG_TAG, "unsupported no of channels");
return status;
}
} else if (dAttr.config.ch_info.channels <= CHANNELS_2) {
switch (dAttr.config.ch_info.channels) {
case 1:
PAL_DBG(LOG_TAG, "Mono channel speaker");
ckv.push_back(std::make_pair(SPK_PRO_DEV_MAP, RIGHT_MONO));
break;
case 2:
PAL_DBG(LOG_TAG, "Multi channel speaker");
ckv.push_back(std::make_pair(SPK_PRO_DEV_MAP, LEFT_RIGHT));
break;
default :
PAL_ERR(LOG_TAG, "unsupported no of channels");
return status;
}
}
}
}
break;
case SPKR_VI_ENABLE :
status = s->getAssociatedDevices(associatedDevices);
if (0 != status) {
PAL_ERR(LOG_TAG,"%s: getAssociatedDevices Failed \n", __func__);
goto error_1;
}
for (int i = 0; i < associatedDevices.size(); i++) {
status = associatedDevices[i]->getDeviceAttributes(&dAttr);
if (0 != status) {
PAL_ERR(LOG_TAG,"%s: getAssociatedDevices Failed \n", __func__);
goto error_1;
}
if (dAttr.id == PAL_DEVICE_IN_VI_FEEDBACK) {
if (dAttr.config.ch_info.channels == CHANNELS_4) {
switch (dAttr.config.ch_info.channels) {
case 1:
PAL_DBG(LOG_TAG, "Mono channel speaker");
ckv.push_back(std::make_pair(SPK_PRO_VI_MAP, RIGHT_SPKR_WITH_DISABLED_2SP));
break;
case 2:
PAL_DBG(LOG_TAG, "Multi channel speaker");
ckv.push_back(std::make_pair(SPK_PRO_VI_MAP, STEREO_SPKR_WITH_DISABLED_2SP));
break;
case 4:
PAL_DBG(LOG_TAG, "four channel speaker");
ckv.push_back(std::make_pair(SPK_PRO_VI_MAP, STEREO_SPKR));
break;
default :
PAL_ERR(LOG_TAG, "unsupported no of channels");
return status;
}
} else if (dAttr.config.ch_info.channels <= CHANNELS_2) {
switch (dAttr.config.ch_info.channels) {
case 1:
PAL_DBG(LOG_TAG, "Mono channel speaker");
ckv.push_back(std::make_pair(SPK_PRO_VI_MAP, RIGHT_SPKR));
break;
case 2:
PAL_DBG(LOG_TAG, "Multi channel speaker");
ckv.push_back(std::make_pair(SPK_PRO_VI_MAP, STEREO_SPKR));
break;
default :
PAL_ERR(LOG_TAG, "unsupported no of channels");
return status;
}
}
}
}
break;
case MUX_DEMUX_CHANNELS :
status = s->getAssociatedDevices(associatedDevices);
if (0 != status) {
PAL_ERR(LOG_TAG,"getAssociatedDevices Failed \n");
return status;
}
for (int i = 0; i < associatedDevices.size(); i++) {
status = associatedDevices[i]->getDeviceAttributes(&dAttr);
if (0 != status) {
PAL_ERR(LOG_TAG,"getAssociatedDevices Failed \n");
return status;
}
if (dAttr.id == PAL_DEVICE_OUT_SPEAKER) {
switch (dAttr.config.ch_info.channels) {
case 1:
PAL_DBG(LOG_TAG, "Mono channel speaker");
ckv.push_back(std::make_pair(CHANNELS, CHANNELS_1));
break;
case 2:
PAL_DBG(LOG_TAG, "Multi channel speaker");
ckv.push_back(std::make_pair(CHANNELS, CHANNELS_2));
break;
case 4:
PAL_DBG(LOG_TAG, "four channel speaker");
ckv.push_back(std::make_pair(CHANNELS, CHANNELS_4));
break;
default :
PAL_ERR(LOG_TAG, "unsupported no of channels");
return status;
}
}
}
break;
default:
break;
}
PAL_VERBOSE(LOG_TAG,"exit status- %d", status);
error_1:
free(voldata);
exit:
return status;
}
int PayloadBuilder::populateTagKeyVector(Stream *s, std::vector <std::pair<int,int>> &tkv, int tag, uint32_t* gsltag)
{
int status = 0;
PAL_VERBOSE(LOG_TAG,"enter, tag 0x%x", tag);
struct pal_stream_attributes sAttr;
memset(&sAttr, 0, sizeof(struct pal_stream_attributes));
status = s->getStreamAttributes(&sAttr);
if (status != 0) {
PAL_ERR(LOG_TAG,"stream get attributes failed");
return status;
}
switch (tag) {
case MUTE_TAG:
tkv.push_back(std::make_pair(MUTE,ON));
*gsltag = TAG_MUTE;
break;
case UNMUTE_TAG:
tkv.push_back(std::make_pair(MUTE,OFF));
*gsltag = TAG_MUTE;
break;
case VOICE_SLOW_TALK_OFF:
tkv.push_back(std::make_pair(TAG_KEY_SLOW_TALK, TAG_VALUE_SLOW_TALK_OFF));
*gsltag = TAG_STREAM_SLOW_TALK;
break;
case VOICE_SLOW_TALK_ON:
tkv.push_back(std::make_pair(TAG_KEY_SLOW_TALK, TAG_VALUE_SLOW_TALK_ON));
*gsltag = TAG_STREAM_SLOW_TALK;
break;
case CHARGE_CONCURRENCY_ON_TAG:
tkv.push_back(std::make_pair(ICL, ICL_ON));
*gsltag = TAG_DEVICE_AL;
break;
case CHARGE_CONCURRENCY_OFF_TAG:
tkv.push_back(std::make_pair(ICL, ICL_OFF));
*gsltag = TAG_DEVICE_AL;
break;
case PAUSE_TAG:
tkv.push_back(std::make_pair(PAUSE,ON));
*gsltag = TAG_PAUSE;
break;
case RESUME_TAG:
tkv.push_back(std::make_pair(PAUSE,OFF));
*gsltag = TAG_PAUSE;
break;
case MFC_SR_8K:
tkv.push_back(std::make_pair(SAMPLINGRATE,SAMPLINGRATE_8K));
if (sAttr.direction == PAL_AUDIO_INPUT)
*gsltag = TAG_STREAM_MFC_SR;
else
*gsltag = TAG_DEVICE_MFC_SR;
break;
case MFC_SR_16K:
tkv.push_back(std::make_pair(SAMPLINGRATE,SAMPLINGRATE_16K));
if (sAttr.direction == PAL_AUDIO_INPUT)
*gsltag = TAG_STREAM_MFC_SR;
else
*gsltag = TAG_DEVICE_MFC_SR;
break;
case MFC_SR_32K:
tkv.push_back(std::make_pair(SAMPLINGRATE,SAMPLINGRATE_32K));
if (sAttr.direction == PAL_AUDIO_INPUT)
*gsltag = TAG_STREAM_MFC_SR;
else
*gsltag = TAG_DEVICE_MFC_SR;
break;
case MFC_SR_44K:
tkv.push_back(std::make_pair(SAMPLINGRATE,SAMPLINGRATE_44K));
if (sAttr.direction == PAL_AUDIO_INPUT)
*gsltag = TAG_STREAM_MFC_SR;
else
*gsltag = TAG_DEVICE_MFC_SR;
break;
case MFC_SR_48K:
tkv.push_back(std::make_pair(SAMPLINGRATE,SAMPLINGRATE_48K));
if (sAttr.direction == PAL_AUDIO_INPUT)
*gsltag = TAG_STREAM_MFC_SR;
else
*gsltag = TAG_DEVICE_MFC_SR;
break;
case MFC_SR_96K:
tkv.push_back(std::make_pair(SAMPLINGRATE,SAMPLINGRATE_96K));
if (sAttr.direction == PAL_AUDIO_INPUT)
*gsltag = TAG_STREAM_MFC_SR;
else
*gsltag = TAG_DEVICE_MFC_SR;
break;
case MFC_SR_192K:
tkv.push_back(std::make_pair(SAMPLINGRATE,SAMPLINGRATE_192K));
if (sAttr.direction == PAL_AUDIO_INPUT)
*gsltag = TAG_STREAM_MFC_SR;
else
*gsltag = TAG_DEVICE_MFC_SR;
break;
case MFC_SR_384K:
tkv.push_back(std::make_pair(SAMPLINGRATE,SAMPLINGRATE_384K));
if (sAttr.direction == PAL_AUDIO_INPUT)
*gsltag = TAG_STREAM_MFC_SR;
else
*gsltag = TAG_DEVICE_MFC_SR;
break;
case ECNS_ON_TAG:
tkv.push_back(std::make_pair(ECNS,ECNS_ON));
*gsltag = TAG_ECNS;
break;
case ECNS_OFF_TAG:
tkv.push_back(std::make_pair(ECNS,ECNS_OFF));
*gsltag = TAG_ECNS;
break;
case EC_ON_TAG:
tkv.push_back(std::make_pair(ECNS,EC_ON));
*gsltag = TAG_ECNS;
break;
case NS_ON_TAG:
tkv.push_back(std::make_pair(ECNS,NS_ON));
*gsltag = TAG_ECNS;
break;
case CHS_1:
tkv.push_back(std::make_pair(CHANNELS, CHANNELS_1));
if (sAttr.direction == PAL_AUDIO_INPUT)
*gsltag = TAG_STREAM_MFC_SR;
else
*gsltag = TAG_DEVICE_MFC_SR;
break;
case CHS_2:
tkv.push_back(std::make_pair(CHANNELS, CHANNELS_2));
if (sAttr.direction == PAL_AUDIO_INPUT)
*gsltag = TAG_STREAM_MFC_SR;
else
*gsltag = TAG_DEVICE_MFC_SR;
break;
case CHS_3:
tkv.push_back(std::make_pair(CHANNELS, CHANNELS_3));
if (sAttr.direction == PAL_AUDIO_INPUT)
*gsltag = TAG_STREAM_MFC_SR;
else
*gsltag = TAG_DEVICE_MFC_SR;
break;
case CHS_4:
tkv.push_back(std::make_pair(CHANNELS, CHANNELS_4));
if (sAttr.direction == PAL_AUDIO_INPUT)
*gsltag = TAG_STREAM_MFC_SR;
else
*gsltag = TAG_DEVICE_MFC_SR;
break;
case BW_16:
tkv.push_back(std::make_pair(BITWIDTH, BITWIDTH_16));
if (sAttr.direction == PAL_AUDIO_INPUT)
*gsltag = TAG_STREAM_MFC_SR;
else
*gsltag = TAG_DEVICE_MFC_SR;
break;
case BW_24:
tkv.push_back(std::make_pair(BITWIDTH, BITWIDTH_24));
if (sAttr.direction == PAL_AUDIO_INPUT)
*gsltag = TAG_STREAM_MFC_SR;
else
*gsltag = TAG_DEVICE_MFC_SR;
break;
case BW_32:
tkv.push_back(std::make_pair(BITWIDTH, BITWIDTH_32));
if (sAttr.direction == PAL_AUDIO_INPUT)
*gsltag = TAG_STREAM_MFC_SR;
else
*gsltag = TAG_DEVICE_MFC_SR;
break;
case INCALL_RECORD_UPLINK:
tkv.push_back(std::make_pair(TAG_KEY_MUX_DEMUX_CONFIG, TAG_VALUE_MUX_DEMUX_CONFIG_UPLINK));
*gsltag = TAG_STREAM_MUX_DEMUX;
break;
case INCALL_RECORD_DOWNLINK:
tkv.push_back(std::make_pair(TAG_KEY_MUX_DEMUX_CONFIG, TAG_VALUE_MUX_DEMUX_CONFIG_DOWNLINK));
*gsltag = TAG_STREAM_MUX_DEMUX;
break;
case INCALL_RECORD_UPLINK_DOWNLINK_MONO:
tkv.push_back(std::make_pair(TAG_KEY_MUX_DEMUX_CONFIG, TAG_VALUE_MUX_DEMUX_CONFIG_UPLINK_DOWNLINK_MONO));
*gsltag = TAG_STREAM_MUX_DEMUX;
break;
case INCALL_RECORD_UPLINK_DOWNLINK_STEREO:
tkv.push_back(std::make_pair(TAG_KEY_MUX_DEMUX_CONFIG, TAG_VALUE_MUX_DEMUX_CONFIG_UPLINK_DOWNLINK_STEREO));
*gsltag = TAG_STREAM_MUX_DEMUX;
break;
case LPI_LOGGING_ON:
tkv.push_back(std::make_pair(LOGGING, LOGGING_ON));
*gsltag = TAG_DATA_LOGGING;
break;
case LPI_LOGGING_OFF:
tkv.push_back(std::make_pair(LOGGING, LOGGING_OFF));
*gsltag = TAG_DATA_LOGGING;
break;
case DEVICE_MUTE:
tkv.push_back(std::make_pair(MUTE,ON));
*gsltag = TAG_DEV_MUTE;
break;
case DEVICE_UNMUTE:
tkv.push_back(std::make_pair(MUTE,OFF));
*gsltag = TAG_DEV_MUTE;
break;
case DEVICEPP_MUTE:
tkv.push_back(std::make_pair(MUTE,ON));
*gsltag = TAG_DEVPP_MUTE;
break;
case DEVICEPP_UNMUTE:
tkv.push_back(std::make_pair(MUTE,OFF));
*gsltag = TAG_DEVPP_MUTE;
break;
case ORIENTATION_TAG:
PAL_INFO(LOG_TAG, "Create orientatation tkv");
tkv.push_back(std::make_pair(TAG_KEY_ORIENTATION, s->getOrientation()));
*gsltag = TAG_ORIENTATION;
break;
default:
PAL_ERR(LOG_TAG,"Tag not supported \n");
break;
}
PAL_VERBOSE(LOG_TAG,"exit status- %d", status);
return status;
}
void PayloadBuilder::payloadSPConfig(uint8_t** payload, size_t* size, uint32_t miid,
int param_id, void *param)
{
struct apm_module_param_data_t* header = NULL;
uint8_t* payloadInfo = NULL;
size_t payloadSize = 0, padBytes = 0;
if (!param) {
PAL_ERR(LOG_TAG, "Invalid input parameters");
return;
}
switch(param_id) {
case PARAM_ID_SP_TH_VI_R0T0_CFG :
{
param_id_sp_th_vi_r0t0_cfg_t *spConf;
param_id_sp_th_vi_r0t0_cfg_t *data = NULL;
vi_r0t0_cfg_t* r0t0 = NULL;
data = (param_id_sp_th_vi_r0t0_cfg_t *) param;
payloadSize = sizeof(struct apm_module_param_data_t) +
sizeof(param_id_sp_th_vi_r0t0_cfg_t) +
sizeof(vi_r0t0_cfg_t) * data->num_ch;
padBytes = PAL_PADDING_8BYTE_ALIGN(payloadSize);
payloadInfo = (uint8_t*) calloc(1, payloadSize + padBytes);
if (!payloadInfo) {
PAL_ERR(LOG_TAG, "payloadInfo malloc failed %s", strerror(errno));
return;
}
header = (struct apm_module_param_data_t*) payloadInfo;
spConf = (param_id_sp_th_vi_r0t0_cfg_t *) (payloadInfo +
sizeof(struct apm_module_param_data_t));
r0t0 = (vi_r0t0_cfg_t*) (payloadInfo +
sizeof(struct apm_module_param_data_t)
+ sizeof(param_id_sp_th_vi_r0t0_cfg_t));
spConf->num_ch = data->num_ch;
for(int i = 0; i < data->num_ch; i++) {
r0t0[i].r0_cali_q24 = data->r0t0_cfg[i].r0_cali_q24;
r0t0[i].t0_cali_q6 = data->r0t0_cfg[i].t0_cali_q6;
}
}
break;
case PARAM_ID_SP_VI_OP_MODE_CFG :
{
param_id_sp_vi_op_mode_cfg_t *spConf;
param_id_sp_vi_op_mode_cfg_t *data;
uint32_t *channelMap;
data = (param_id_sp_vi_op_mode_cfg_t *) param;
payloadSize = sizeof(struct apm_module_param_data_t) +
sizeof(param_id_sp_vi_op_mode_cfg_t) +
sizeof(uint32_t) * data->num_speakers;
padBytes = PAL_PADDING_8BYTE_ALIGN(payloadSize);
payloadInfo = (uint8_t*) calloc(1, payloadSize + padBytes);
if (!payloadInfo) {
PAL_ERR(LOG_TAG, "payloadInfo malloc failed %s", strerror(errno));
return;
}
header = (struct apm_module_param_data_t*) payloadInfo;
spConf = (param_id_sp_vi_op_mode_cfg_t *) (payloadInfo +
sizeof(struct apm_module_param_data_t));
channelMap = (uint32_t *) (payloadInfo +
sizeof(struct apm_module_param_data_t)
+ sizeof(param_id_sp_vi_op_mode_cfg_t));
spConf->num_speakers = data->num_speakers;
spConf->th_operation_mode = data->th_operation_mode;
spConf->th_quick_calib_flag = data->th_quick_calib_flag;
for(int i = 0; i < data->num_speakers; i++) {
if (spConf->th_operation_mode == 0) {
channelMap[i] = 0;
}
else if (spConf->th_operation_mode == 1) {
channelMap[i] = 0;
}
}
}
break;
case PARAM_ID_SP_VI_CHANNEL_MAP_CFG :
{
param_id_sp_vi_channel_map_cfg_t *spConf;
param_id_sp_vi_channel_map_cfg_t *data;
int32_t *channelMap;
std::shared_ptr<ResourceManager> rm = ResourceManager::getInstance();
data = (param_id_sp_vi_channel_map_cfg_t *) param;
payloadSize = sizeof(struct apm_module_param_data_t) +
sizeof(param_id_sp_vi_channel_map_cfg_t) +
(sizeof(int32_t) * data->num_ch);
padBytes = PAL_PADDING_8BYTE_ALIGN(payloadSize);
payloadInfo = (uint8_t*) calloc(1, payloadSize + padBytes);
if (!payloadInfo) {
PAL_ERR(LOG_TAG, "payloadInfo malloc failed %s", strerror(errno));
return;
}
header = (struct apm_module_param_data_t*) payloadInfo;
spConf = (param_id_sp_vi_channel_map_cfg_t *) (payloadInfo +
sizeof(struct apm_module_param_data_t));
channelMap = (int32_t *) (payloadInfo +
sizeof(struct apm_module_param_data_t)
+ sizeof(param_id_sp_vi_channel_map_cfg_t));
spConf->num_ch = data->num_ch;
rm->getSpViChannelMapCfg(channelMap, data->num_ch);
}
break;
case PARAM_ID_SP_OP_MODE :
{
param_id_sp_op_mode_t *spConf;
param_id_sp_op_mode_t *data;
data = (param_id_sp_op_mode_t *) param;
payloadSize = sizeof(struct apm_module_param_data_t) +
sizeof(param_id_sp_op_mode_t);
padBytes = PAL_PADDING_8BYTE_ALIGN(payloadSize);
payloadInfo = (uint8_t*) calloc(1, payloadSize + padBytes);
if (!payloadInfo) {
PAL_ERR(LOG_TAG, "payloadInfo malloc failed %s", strerror(errno));
return;
}
header = (struct apm_module_param_data_t*) payloadInfo;
spConf = (param_id_sp_op_mode_t *) (payloadInfo +
sizeof(struct apm_module_param_data_t));
spConf->operation_mode = data->operation_mode;
}
break;
case PARAM_ID_SP_EX_VI_MODE_CFG :
{
param_id_sp_ex_vi_mode_cfg_t *spConf;
param_id_sp_ex_vi_mode_cfg_t *data;
data = (param_id_sp_ex_vi_mode_cfg_t *) param;
payloadSize = sizeof(struct apm_module_param_data_t) +
sizeof(param_id_sp_ex_vi_mode_cfg_t);
padBytes = PAL_PADDING_8BYTE_ALIGN(payloadSize);
payloadInfo = (uint8_t*) calloc(1, payloadSize + padBytes);
if (!payloadInfo) {
PAL_ERR(LOG_TAG, "payloadInfo malloc failed %s", strerror(errno));
return;
}
header = (struct apm_module_param_data_t*) payloadInfo;
spConf = (param_id_sp_ex_vi_mode_cfg_t *) (payloadInfo +
sizeof(struct apm_module_param_data_t));
spConf->ex_FTM_mode_enable_flag = data->ex_FTM_mode_enable_flag;
}
break;
case PARAM_ID_SP_TH_VI_FTM_CFG :
case PARAM_ID_SP_TH_VI_V_VALI_CFG :
case PARAM_ID_SP_EX_VI_FTM_CFG :
{
param_id_sp_th_vi_ftm_cfg_t *spConf;
param_id_sp_th_vi_ftm_cfg_t *data;
vi_th_ftm_cfg_t *ftmCfg;
std::shared_ptr<ResourceManager> rm = ResourceManager::getInstance();
data = (param_id_sp_th_vi_ftm_cfg_t *) param;
payloadSize = sizeof(struct apm_module_param_data_t) +
sizeof(param_id_sp_th_vi_ftm_cfg_t) +
sizeof(vi_th_ftm_cfg_t) * data->num_ch;
padBytes = PAL_PADDING_8BYTE_ALIGN(payloadSize);
payloadInfo = (uint8_t*) calloc(1, payloadSize + padBytes);
if (!payloadInfo) {
PAL_ERR(LOG_TAG, "payloadInfo malloc failed %s", strerror(errno));
return;
}
header = (struct apm_module_param_data_t*) payloadInfo;
spConf = (param_id_sp_th_vi_ftm_cfg_t *) (payloadInfo +
sizeof(struct apm_module_param_data_t));
ftmCfg = (vi_th_ftm_cfg_t *) (payloadInfo +
sizeof(struct apm_module_param_data_t)
+ sizeof(param_id_sp_th_vi_ftm_cfg_t));
spConf->num_ch = data->num_ch;
for (int i = 0; i < data->num_ch; i++) {
ftmCfg[i].wait_time_ms =
rm->mSpkrProtModeValue.spkrHeatupTime;
ftmCfg[i].ftm_time_ms =
rm->mSpkrProtModeValue.operationModeRunTime;
}
}
break;
case PARAM_ID_SP_TH_VI_FTM_PARAMS:
{
param_id_sp_th_vi_ftm_params_t *data;
data = (param_id_sp_th_vi_ftm_params_t *) param;
payloadSize = sizeof(struct apm_module_param_data_t) +
sizeof(param_id_sp_th_vi_ftm_params_t) +
sizeof(vi_th_ftm_params_t) * data->num_ch;
padBytes = PAL_PADDING_8BYTE_ALIGN(payloadSize);
payloadInfo = (uint8_t*) calloc(1, payloadSize + padBytes);
if (!payloadInfo) {
PAL_ERR(LOG_TAG, "payloadInfo malloc failed %s", strerror(errno));
return;
}
header = (struct apm_module_param_data_t*) payloadInfo;
}
break;
case PARAM_ID_SP_EX_VI_FTM_PARAMS:
{
param_id_sp_ex_vi_ftm_params_t *data;
data = (param_id_sp_ex_vi_ftm_params_t *) param;
payloadSize = sizeof(struct apm_module_param_data_t) +
sizeof(param_id_sp_ex_vi_ftm_params_t) +
sizeof(vi_ex_ftm_params_t) * data->num_ch;
padBytes = PAL_PADDING_8BYTE_ALIGN(payloadSize);
payloadInfo = (uint8_t*) calloc(1, payloadSize + padBytes);
if (!payloadInfo) {
PAL_ERR(LOG_TAG, "payloadInfo malloc failed %s", strerror(errno));
return;
}
header = (struct apm_module_param_data_t*) payloadInfo;
}
break;
case PARAM_ID_CPS_LPASS_HW_INTF_CFG:
{
lpass_swr_hw_reg_cfg_t *data = NULL;
lpass_swr_hw_reg_cfg_t *cfgPayload = NULL;
param_id_cps_lpass_hw_intf_cfg_t *spConf = NULL;
data = (lpass_swr_hw_reg_cfg_t *) param;
payloadSize = sizeof(struct apm_module_param_data_t) +
sizeof(lpass_swr_hw_reg_cfg_t) +
sizeof(pkd_reg_addr_t) * data->num_spkr +
sizeof(uint32_t);
padBytes = PAL_PADDING_8BYTE_ALIGN(payloadSize);
payloadInfo = (uint8_t*) calloc(1, payloadSize + padBytes);
if (!payloadInfo) {
PAL_ERR(LOG_TAG, "payloadInfo malloc failed %s", strerror(errno));
return;
}
header = (struct apm_module_param_data_t*) payloadInfo;
spConf = (param_id_cps_lpass_hw_intf_cfg_t *) (payloadInfo +
sizeof(struct apm_module_param_data_t));
cfgPayload = (lpass_swr_hw_reg_cfg_t * ) (payloadInfo +
sizeof(struct apm_module_param_data_t) +
sizeof(uint32_t));
spConf->lpass_hw_intf_cfg_mode = 1;
memcpy(cfgPayload, data, sizeof(lpass_swr_hw_reg_cfg_t) +
sizeof(pkd_reg_addr_t) * data->num_spkr);
}
break;
case PARAM_ID_CPS_LPASS_SWR_THRESHOLDS_CFG:
{
param_id_cps_lpass_swr_thresholds_cfg_t *data = NULL;
param_id_cps_lpass_swr_thresholds_cfg_t *spThrshConf = NULL;
data = (param_id_cps_lpass_swr_thresholds_cfg_t *) param;
payloadSize = sizeof(struct apm_module_param_data_t) +
sizeof(param_id_cps_lpass_swr_thresholds_cfg_t) +
(sizeof(cps_reg_wr_values_t) * data->num_spkr);
padBytes = PAL_PADDING_8BYTE_ALIGN(payloadSize);
payloadInfo = (uint8_t*) calloc(1, payloadSize + padBytes);
if (!payloadInfo) {
PAL_ERR(LOG_TAG, "payloadInfo malloc failed %s", strerror(errno));
return;
}
header = (struct apm_module_param_data_t*) payloadInfo;
spThrshConf = (param_id_cps_lpass_swr_thresholds_cfg_t *) (payloadInfo +
sizeof(struct apm_module_param_data_t));
memcpy(spThrshConf, data, sizeof(param_id_cps_lpass_swr_thresholds_cfg_t) +
(sizeof(cps_reg_wr_values_t) * data->num_spkr));
}
break;
case PARAM_ID_CPS_CHANNEL_MAP :
{
param_id_cps_ch_map_t *spConf;
param_id_cps_ch_map_t *data;
int32_t *channelMap;
data = (param_id_cps_ch_map_t *) param;
payloadSize = sizeof(struct apm_module_param_data_t) +
sizeof(param_id_cps_ch_map_t) +
(sizeof(int32_t) * data->num_ch);
padBytes = PAL_PADDING_8BYTE_ALIGN(payloadSize);
payloadInfo = (uint8_t*) calloc(1, payloadSize + padBytes);
if (!payloadInfo) {
PAL_ERR(LOG_TAG, "payloadInfo malloc failed %s", strerror(errno));
return;
}
header = (struct apm_module_param_data_t*) payloadInfo;
spConf = (param_id_cps_ch_map_t *) (payloadInfo +
sizeof(struct apm_module_param_data_t));
channelMap = (int32_t *) (payloadInfo +
sizeof(struct apm_module_param_data_t)
+ sizeof(param_id_cps_ch_map_t));
spConf->num_ch = data->num_ch;
for (int i = 0; i < data->num_ch; i++) {
channelMap[i] = i+1;
}
}
break;
case PARAM_ID_SP_TMAX_XMAX_LOGGING:
{
param_id_sp_tmax_xmax_logging_t *data;
data = (param_id_sp_tmax_xmax_logging_t*)param;
payloadSize = sizeof(struct apm_module_param_data_t) +
sizeof(param_id_sp_tmax_xmax_logging_t) + (sizeof(sp_tmax_xmax_params_t) * data->num_ch);
padBytes = PAL_PADDING_8BYTE_ALIGN(payloadSize);
payloadInfo = (uint8_t*)calloc(1, payloadSize + padBytes);
if (!payloadInfo) {
PAL_ERR(LOG_TAG, "payloadInfo malloc failed %s", strerror(errno));
return;
}
header = (struct apm_module_param_data_t*)payloadInfo;
}
break;
default:
{
PAL_ERR(LOG_TAG, "unknown param id 0x%x", param_id);
}
break;
}
if (header) {
header->module_instance_id = miid;
header->param_id = param_id;
header->error_code = 0x0;
header->param_size = payloadSize - sizeof(struct apm_module_param_data_t);
}
*size = payloadSize + padBytes;
*payload = payloadInfo;
}
void PayloadBuilder::payloadMSPPConfig(uint8_t** payload, size_t* size,
uint32_t miid, uint32_t gain)
{
struct apm_module_param_data_t* header = NULL;
uint8_t* payloadInfo = NULL;
uint32_t param_id = 0;
size_t payloadSize = 0, customPayloadSize = 0;
mspp_volume_ctrl_gain_t *mspp_payload;
param_id = PARAM_ID_MSPP_VOLUME;
customPayloadSize = sizeof(mspp_volume_ctrl_gain_t);
payloadSize = PAL_ALIGN_8BYTE(sizeof(struct apm_module_param_data_t)
+ customPayloadSize);
payloadInfo = (uint8_t *)calloc(1, (size_t)payloadSize);
if (!payloadInfo) {
PAL_ERR(LOG_TAG, "failed to allocate memory.");
return;
}
header = (struct apm_module_param_data_t*)payloadInfo;
header->module_instance_id = miid;
header->param_id = param_id;
header->error_code = 0x0;
header->param_size = customPayloadSize;
mspp_payload =
(mspp_volume_ctrl_gain_t *)(payloadInfo +
sizeof(struct apm_module_param_data_t));
mspp_payload->vol_lin_gain = gain;
ar_mem_cpy(payloadInfo + sizeof(struct apm_module_param_data_t),
customPayloadSize,
mspp_payload,
customPayloadSize);
*size = payloadSize;
*payload = payloadInfo;
}
void PayloadBuilder::payloadSoftPauseConfig(uint8_t** payload, size_t* size,
uint32_t miid, uint32_t delayMs)
{
struct apm_module_param_data_t* header = NULL;
uint8_t* payloadInfo = NULL;
uint32_t param_id = 0;
size_t payloadSize = 0, customPayloadSize = 0;
pause_downstream_delay_t *pause_payload;
param_id = PARAM_ID_SOFT_PAUSE_DOWNSTREAM_DELAY;
customPayloadSize = sizeof(pause_downstream_delay_t);
payloadSize = PAL_ALIGN_8BYTE(sizeof(struct apm_module_param_data_t)
+ customPayloadSize);
payloadInfo = (uint8_t *)calloc(1, (size_t)payloadSize);
if (!payloadInfo) {
PAL_ERR(LOG_TAG, "failed to allocate memory.");
return;
}
header = (struct apm_module_param_data_t*)payloadInfo;
header->module_instance_id = miid;
header->param_id = param_id;
header->error_code = 0x0;
header->param_size = customPayloadSize;
pause_payload =
(pause_downstream_delay_t *)(payloadInfo +
sizeof(struct apm_module_param_data_t));
pause_payload->delay_ms = delayMs;
ar_mem_cpy(payloadInfo + sizeof(struct apm_module_param_data_t),
customPayloadSize,
pause_payload,
customPayloadSize);
*size = payloadSize;
*payload = payloadInfo;
}