void vSetModPCM(PCM_MODULE ePcmModule, PCM_INFO_T *pPcmInfo)
{
/// Mod PCM config
if (ePcmModule == PCM_1)
{
/// clean
WriteREG(PCM_INTF_CON, 0);
vRegWriteBits(PCM_INTF_CON, pPcmInfo->ePcmFmt, PCM_FMT_POS, PCM_FMT_LEN);
vRegWriteBits(PCM_INTF_CON, pPcmInfo->ePcm8k16kmode, PCM_MODE_POS, PCM_MODE_LEN);
vRegWriteBits(PCM_INTF_CON, pPcmInfo->ePcmWlen, PCM_WLEN_POS, PCM_WLEN_LEN);
vRegWriteBits(PCM_INTF_CON, pPcmInfo->ePcmClkSrc, PCM_SLAVE_POS, PCM_SLAVE_LEN);
vRegWriteBits(PCM_INTF_CON, pPcmInfo->ePcmBypassASRC, PCM_BYP_ASRC_POS, PCM_BYP_ASRC_LEN);
vRegWriteBits(PCM_INTF_CON, pPcmInfo->ePcmModemSel, PCM_EXT_MODEM_POS, PCM_EXT_MODEM_LEN);
vRegWriteBits(PCM_INTF_CON, pPcmInfo->ePcmVbt16kSel, PCM_VBT16K_MODE_POS, 1);
}
else
{
/// clean
WriteREG(PCM_INTF_CON2, 0);
vRegWriteBits(PCM_INTF_CON2, pPcmInfo->ePcmFmt, PCM_FMT_POS, PCM_FMT_LEN);
vRegWriteBits(PCM_INTF_CON2, pPcmInfo->ePcm8k16kmode, PCM_MODE_POS, PCM_MODE_LEN);
vRegWriteBits(PCM_INTF_CON2, pPcmInfo->ePcmWlen, PCM_WLEN_POS, PCM_WLEN_LEN);
vRegWriteBits(PCM_INTF_CON2, pPcmInfo->ePcmVbt16kSel, 12, 1);
}
}
void vASRCEnable(bool bEnable)
{
printk("[vASRCEnable]: bEnable = %x \n", bEnable);
if ( bEnable == TRUE)
{
WriteREG(AFE_ASRC_CON6, 0x0001183F); //0x0001188F
WriteREG(AFE_ASRC_CON0, 0x06003031);
}
else
{
WriteREG(AFE_ASRC_CON6, 0x00000000);
WriteREG(AFE_ASRC_CON0, 0x06003030);
}
}
// functions that could be commenly used
void vSetASRC(PCMMODE_T ePcm8k16kmode)
{
printk("[vSetASRC]: PCMMODE_T = %x \n", ePcm8k16kmode);
if ( ePcm8k16kmode == PCM_8K)
{
WriteREG(AFE_ASRC_CON1, 0x00001964);
WriteREG(AFE_ASRC_CON2, 0x00400000);
WriteREG(AFE_ASRC_CON3, 0x00400000);
WriteREG(AFE_ASRC_CON4, 0x00001964);
WriteREG(AFE_ASRC_CON7, 0x00000CB2);
}
else if ( ePcm8k16kmode == PCM_16K )
{
WriteREG(AFE_ASRC_CON1, 0x00000cb2);
WriteREG(AFE_ASRC_CON2, 0x00400000);
WriteREG(AFE_ASRC_CON3, 0x00400000);
WriteREG(AFE_ASRC_CON4, 0x00000cb2);
WriteREG(AFE_ASRC_CON7, 0x00000659);
}
}
void vModPcmConfigAndRun(PCM_MODULE ePcmModule, PCM_INFO_T *pPcmInfo)
{
MEMIF_CONFIG_T memModDaiCfg;
SAMPLINGRATE_T eSampleRate;
/// reset
vStrongResetAFE();
/// power on
vAudioTopControl(); // AUDIO_TOP_CON0[14] = 1
/// config FPGA
WriteREG(FPGA_CFG0, 0x00000007); // hopping 26m, MCLK : 3.072M
if (ePcmModule == PCM_1 && pPcmInfo->ePcmModemSel == PCM_INT_MD)
{
vRegSetBit(FPGA_CFG1, 14);
}
/// get sample rate info
eSampleRate = (pPcmInfo->ePcm8k16kmode == PCM_8K) ? AFE_8000HZ : AFE_16000HZ;
#if 1
/// Sgen config as Tx data
AFE_SINEGEN_INFO_T rSineTone;
rSineTone.u4ch1_freq_div = 1;
rSineTone.rch1_amp_div = SINE_TONE_1;
rSineTone.rch1_sine_mode = eSampleRate;
rSineTone.u4ch2_freq_div = 2;
rSineTone.rch2_amp_div = SINE_TONE_1;
rSineTone.rch2_sine_mode = eSampleRate;
rSineTone.rloopback_mode = SINE_TONE_LOOPBACK_O7_O8; // O17_O18 simultaneously
vAfeSineWaveGenCfg(&rSineTone);
#else
bConnect(I05, O07, FALSE);
bConnect(I06, O08, FALSE);
MEMIF_CONFIG_T memDL1Cfg;
memset(&memDL1Cfg, 0, sizeof(MEMIF_CONFIG_T));
UINT32 addr;
for(addr=u4DramVirBase; addr<=u4DramVirBase+0x3FFF; addr+=4)
{
*(UINT32*) addr = 0x66660000;
}
memDL1Cfg.eMemInterface = AFE_MEM_DL1;
memDL1Cfg.eDaiModSamplingRate = eSampleRate;
memDL1Cfg.eChannelConfig = AFE_STEREO;
memDL1Cfg.rBufferSetting.u4AFE_MEMIF_BUF_BASE = u4DramPhyBase;
memDL1Cfg.rBufferSetting.u4AFE_MEMIF_BUF_END = u4DramPhyBase + 0x3FFF;
vAfeTurnOnMemif(&memDL1Cfg);
/// Sgen config as Rx data
AFE_SINEGEN_INFO_T rSineTone;
rSineTone.u4ch1_freq_div = 1;
rSineTone.rch1_amp_div = SINE_TONE_1;
rSineTone.rch1_sine_mode = eSampleRate;
rSineTone.u4ch2_freq_div = 0;
rSineTone.rch2_amp_div = SINE_TONE_1;
rSineTone.rch2_sine_mode = eSampleRate;
rSineTone.rloopback_mode = SINE_TONE_LOOPBACK_O0_O1;
vAfeSineWaveGenCfg(&rSineTone);
vI2SSet(I2S_16BIT, I2S_I2S, eSampleRate, I2S_MASTER, I2S_OUT);
vI2SEnable(I2S_ENABLE);
vRegWriteBits(PCM_INTF_CON, 1, 26, 1);
#endif
/// ASRC
if (pPcmInfo->ePcmClkSrc==PCM_SLAVE && pPcmInfo->ePcmBypassASRC==PCM_GO_ASRC)
{
vSetASRC(pPcmInfo->ePcm8k16kmode);
vASRCEnable(TRUE);
}
/// Config PCM
vSetModPCM(ePcmModule, pPcmInfo);
vModPCMEnable(ePcmModule, PCM_ENABLE);
/// Memory Interface
// Dump Rx data to MOD_DAI_Data (O_12)
if (ePcmModule == PCM_1)
{
bConnect(I09, O012, false);
}
else
{
//bConnect(I14, O012, false);
vRegSetBit(AFE_CONN4, 12);
}
// Memory (O_12)
memset(&memModDaiCfg, 0, sizeof(MEMIF_CONFIG_T));
memModDaiCfg.eMemInterface = AFE_MEM_MOD_PCM;
memModDaiCfg.eDaiModSamplingRate = pPcmInfo->ePcm8k16kmode;
memModDaiCfg.eDupWrite = AFE_DUP_WR_DISABLE;
memModDaiCfg.rBufferSetting.u4AFE_MEMIF_BUF_BASE = MOD_PCM_BASE;
memModDaiCfg.rBufferSetting.u4AFE_MEMIF_BUF_END = MOD_PCM_END;
vAfeTurnOnMemif(&memModDaiCfg);
vRegResetBit(AFE_DAC_CON0, MOD_PCM_ON);
#ifdef MOD_PCM_OFF_ON_TEST
UINT32 u4PcmOffAddr = MOD_PCM_BASE + (MOD_PCM_SIZE / 4);
UINT32 u4PcmOnAddr = MOD_PCM_END - (MOD_PCM_SIZE / 4) + 1;
printk("MOD_PCM_OFF_ON_TEST: u4PcmOffAddr=0x%x, u4PcmOnAddr=0x%x\n", u4PcmOffAddr, u4PcmOnAddr);
#endif
/// turn on
vAfeTurnOn();
vAfeSineWaveGenEnable(true);
/// wait for 10 sec - observe frequency and amplitude
vFpgaAudioClockDelaySec(10);
/// wait
vRegSetBit(AFE_DAC_CON0, MOD_PCM_ON);
#ifdef MOD_PCM_OFF_ON_TEST
while( ReadREG(AFE_MOD_PCM_CUR) <= u4PcmOffAddr);
vModPCMEnable(ePcmModule, PCM_DISABLE);
while( ReadREG(AFE_MOD_PCM_CUR) <= u4PcmOnAddr);
vModPCMEnable(ePcmModule, PCM_ENABLE);
#endif
while( ReadREG(AFE_MOD_PCM_CUR) <= (ReadREG(AFE_MOD_PCM_END)-0x100));
vRegResetBit(AFE_DAC_CON0, MOD_PCM_ON);
/// turn off
vAfeSineWaveGenEnable(false);
vModPCMEnable(ePcmModule, PCM_DISABLE);
vASRCEnable(FALSE);
vRegResetBit(AFE_DAC_CON0, AFE_ON);
/// wait for 10 sec - dump memory
printk("Please config the next item\n");
vFpgaAudioClockDelaySec(10);
}
/******************************************************************************
* Function : vAudioHWGain1Test
* Description : Test Case on HW gain1 function
* Parameter :
* Return : None
******************************************************************************/
BOOL vAudioHWGain1Test()
{
BOOL ret = TRUE;
MEMIF_CONFIG_T rAWBMemCfg,rDL1MemCfg;
//need to change different sample rate to test
SAMPLINGRATE_T srCnt = AFE_8000HZ;
printk("[vAudioHWGain1Test] start\n");
for(srCnt=AFE_8000HZ; srCnt<=AFE_48000HZ; srCnt++) //could hard code to set specific sample rate
{
memset(&rAWBMemCfg, 0, sizeof(MEMIF_CONFIG_T));
memset(&rDL1MemCfg, 0, sizeof(MEMIF_CONFIG_T));
// reset
vStrongResetAFE();
// power on
vAudioTopControl();
//set interconnection
vRegSetBit(AFE_GAIN1_CONN, 16); //I05 <-->O13 DL1_data in to HW GAIN1
vRegSetBit(AFE_GAIN1_CONN, 21); //I06 <-->O14
vRegSetBit(AFE_GAIN1_CONN, 10); //I11 <-->O04 HW GAIN1 output to I2S Out
vRegSetBit(AFE_GAIN1_CONN, 8); //I10 <-->O03
vRegSetBit(AFE_GAIN1_CONN, 13); //I11 <-->O06 HW GAIN1 to awb_data
vRegSetBit(AFE_GAIN1_CONN, 12); //I10 <-->O05
//set HW GAIN and sample rate
vRegWriteBits(AFE_GAIN1_CON0, u4SamplingRateConvert[srCnt], 4, 4); //sample rate setting
//WriteREG(AFE_GAIN1_CON1, 0x80000); //define the target gain, default is 0x80000H which 0db
vRegSetBit(AFE_GAIN1_CON0, 0); //GAIN1 on
// set I2S DAC output
vDACI2SSet(I2S_16BIT, I2S_I2S, srCnt, 0, I2S_NOSWAP);
vDACI2SEnable(I2S_ENABLE);
//clear the SRAM and DRAM, modify the external DRAM size to 2M for test
u4SramVirBuffer = u4SramVirBase;
u4SramPhyBuffer = u4SramPhyBase;
u4DramVirBuffer = u4DramVirBase;
u4DramPhyBuffer = u4DramPhyBase;
printk("u4SramVirBuffer=0x%x, u4SramPhyBuffer=0x%x, u4DramVirBuffer=0x%x, u4DramPhyBuffer=0x%x\n",u4SramVirBuffer,u4SramPhyBuffer,u4DramVirBuffer,u4DramPhyBuffer);
memset((void*)u4SramVirBuffer,0,AFE_INTERNAL_SRAM_SIZE);
memset((void*)u4DramVirBuffer,0,AFE_EXTERNAL_DRAM_SIZE); //need to set the DRAM size as (0x00200000) //2M to prepare enough buffer to dump PCM data
unsigned int addr;
unsigned int cnt = 0;
unsigned int val = 0;
//fill in source data
for(addr=u4SramVirBuffer; addr<u4SramVirBuffer+AFE_INTERNAL_SRAM_SIZE-1; addr+=4)
{
*( unsigned int *)addr = table_sgen_golden_values_1[cnt++];
if (cnt == 64)
cnt = 0;
}
//AWB memory interface setting, use the DRAM, for record the data after HW gain1 control
rAWBMemCfg.rBufferSetting.u4AFE_MEMIF_BUF_BASE = u4DramPhyBuffer;
rAWBMemCfg.rBufferSetting.u4AFE_MEMIF_BUF_END= u4DramPhyBuffer+AFE_EXTERNAL_DRAM_SIZE-1;
rAWBMemCfg.rBufferSetting.u4AFE_MEMIF_BUF_RP= rAWBMemCfg.rBufferSetting.u4AFE_MEMIF_BUF_BASE;
rAWBMemCfg.rBufferSetting.u4AFE_MEMIF_BUF_WP= rAWBMemCfg.rBufferSetting.u4AFE_MEMIF_BUF_BASE;
rAWBMemCfg.eChannelConfig = AFE_STEREO;
rAWBMemCfg.eDupWrite = 0;
rAWBMemCfg.eSamplingRate = srCnt;
rAWBMemCfg.eMemInterface = AFE_MEM_AWB;
// DL1 memory interface setting, use the internal SRAM, for output source data
rDL1MemCfg.rBufferSetting.u4AFE_MEMIF_BUF_BASE = u4SramPhyBuffer;
rDL1MemCfg.rBufferSetting.u4AFE_MEMIF_BUF_END= u4SramPhyBuffer+AFE_INTERNAL_SRAM_SIZE-1;
rDL1MemCfg.rBufferSetting.u4AFE_MEMIF_BUF_RP= rDL1MemCfg.rBufferSetting.u4AFE_MEMIF_BUF_BASE;
rDL1MemCfg.rBufferSetting.u4AFE_MEMIF_BUF_WP= rDL1MemCfg.rBufferSetting.u4AFE_MEMIF_BUF_BASE;
rDL1MemCfg.eChannelConfig = AFE_STEREO;
rDL1MemCfg.eDupWrite = 0;
rDL1MemCfg.eSamplingRate = srCnt;
rDL1MemCfg.eMemInterface = AFE_MEM_DL1;
vAfeTurnOnMemif(&rAWBMemCfg);
vAfeTurnOnMemif(&rDL1MemCfg);
vAfeTurnOn();
printk("[vAudioHWGain1Test] start to test\n");
BOOL bBufferEnd = FALSE;
BOOL bDirectUpdateTargetGain = FALSE;
int i,j;
int GDStepCnt,GUStepCnt;
for(GDStepCnt=0; GDStepCnt<3; GDStepCnt++) //set for Gain down step
{
WriteREG(AFE_GAIN1_CON2,uGainDownStep1[GDStepCnt]); //GDStepCnt=0 is default value, set the gain down step value
for(GUStepCnt=0; GUStepCnt<3; GUStepCnt++) //set for Gain up step
{
WriteREG(AFE_GAIN1_CON3,uGainUpStep1[GUStepCnt]); //set the gain up step value
printk("uGainDownStep1=0x%x, uGainUpStep1=0x%x!!!\n",ReadREG(AFE_GAIN1_CON2),ReadREG(AFE_GAIN1_CON3));
for(i=0; i<TestCount; i++)
{
if(bBufferEnd)
{
printk("[vAudioHWGain1Test] Buffer is runout of, stop1\n");
break;
}
vRegWriteBits(AFE_GAIN1_CON0, uSamplePerStep1[i], 8, 8); //sample per step change
printk("target gain before set, AFE_GAIN1_CON1=0x%x, AFE_GAIN1_CON0=0x%x!!!\n",ReadREG(AFE_GAIN1_CON1),ReadREG(AFE_GAIN1_CON0));
for(j=0; j<TestCount; j++) //set the target gain
{
WriteREG(AFE_GAIN1_CON1,uTargetGain1[j]);
int Cnt = 0;
bDirectUpdateTargetGain = FALSE;
if(bBufferEnd)
{
printk("[TcHWGain1Test] Buffer is runout of, stop2\n");
break;
}
if(ReadREG(AFE_AWB_CUR) <= ReadREG(AFE_AWB_END) - 0x200)
{
printk("target gain set, AFE_GAIN1_CUR=0x%x, AFE_GAIN1_CON1=0x%x!!!\n",ReadREG(AFE_GAIN1_CUR),ReadREG(AFE_GAIN1_CON1));
while(ReadREG(AFE_GAIN1_CUR)!= uTargetGain1[j])
{
vFpgaAudioClockDelaymSec(100);
//could check the target gain changed before the current gain reach the target gain
/* if(Cnt++>=50)
{
printk("can't not reach the TargetGain in Time, update new target gain directly AFE_GAIN1_CUR=0x%x!!!\n",ReadREG(AFE_GAIN1_CUR));
bDirectUpdateTargetGain = TRUE;
break;
}
*/ //printk("AFE_GAIN1_CUR=0x%x!!!\n",ReadREG(AFE_GAIN1_CUR));
}
printk("current gain, AFE_GAIN1_CUR=0x%x!!!\n",ReadREG(AFE_GAIN1_CUR));
if(!bDirectUpdateTargetGain)
vFpgaAudioClockDelaySec(1);
}
else
{
bBufferEnd = TRUE;
printk("[vAudioHWGain1Test] Buffer is runout of, stop3\n");
break;
}
}//target gain change
//set the breakpoint to check
//ReadREG(FPGA_VERSION);
//ReadREG(FPGA_AUDIO_CLOCK);
} //sample per step change
}
}
printk("AWB current address =0x%x!!!\n",ReadREG(AFE_AWB_CUR));
printk("u4SramVirBuffer=0x%x, u4SramPhyBuffer=0x%x, u4DramVirBuffer=0x%x, u4DramPhyBuffer=0x%x\n",u4SramVirBuffer,u4SramPhyBuffer,u4DramVirBuffer,u4DramPhyBuffer);
vRegResetBit(AFE_DAC_CON0, AFE_ON); //Stop
//set the breakpoint to check
ReadREG(FPGA_VERSION);
ReadREG(FPGA_AUDIO_CLOCK);
}
printk("[TcHWGain1Test] end\n");
return ret;
}
/******************************************************************************
* Function : vAudioHWGain2Test
* Description : Test Case on HW gain2 function
* Parameter :
* Return : None
******************************************************************************/
BOOL vAudioHWGain2Test()
{
BOOL ret = TRUE;
MEMIF_CONFIG_T rAWBMemCfg;
SAMPLINGRATE_T srCnt = AFE_8000HZ;
// for(srCnt=AFE_8000HZ; srCnt<=AFE_48000HZ; srCnt++) //could set the specific sample rate, need to meet the AudioPrecision
{
printk("vAudioHWGain2Test start, srCnt=%d\n",srCnt);
memset(&rAWBMemCfg, 0, sizeof(MEMIF_CONFIG_T));
// reset
vStrongResetAFE();
// power on
vAudioTopControl();
//set interconnection
vRegSetBit(AFE_GAIN2_CONN, 16); //I00 <-->O15 I2S in to HW GAIN2
vRegSetBit(AFE_GAIN2_CONN, 23); //I01 <-->O16
vRegSetBit(AFE_GAIN2_CONN, 10); //I13 <-->O04 HW GAIN2 output to I2S Out
vRegSetBit(AFE_GAIN2_CONN, 8); //I12 <-->O03
vRegSetBit(AFE_GAIN2_CONN, 13); //I13 <-->O06 HW GAIN2 to awb
vRegSetBit(AFE_GAIN2_CONN, 12); //I12 <-->O05
//set HW GAIN
vRegWriteBits(AFE_GAIN2_CON0, u4SamplingRateConvert[srCnt], 4, 4); //sample rate setting
//WriteREG(AFE_GAIN2_CON2, 0x80000); //define the target gain, default is 0x80000H which 0db
vRegSetBit(AFE_GAIN2_CON0, 0); //GAIN2 on
// setup I2S in as slave mode
vI2SSet(I2S_16BIT, I2S_I2S, srCnt, I2S_SLAVE, I2S_IN);
vI2SEnable(I2S_ENABLE);
vFOCEnable(TRUE);
// set I2S DAC output
vDACI2SSet(I2S_16BIT, I2S_I2S, srCnt, 0, I2S_NOSWAP);
vDACI2SEnable(I2S_ENABLE);
//clear the SRAM and DRAM
//need to set the DRAM size as (0x00200000) //2M to prepare enough buffer to dump PCM data
u4SramVirBuffer = u4SramVirBase;
u4SramPhyBuffer = u4SramPhyBase;
u4DramVirBuffer = u4DramVirBase;
u4DramPhyBuffer = u4DramPhyBase;
printk("u4SramVirBuffer=0x%x, u4SramPhyBuffer=0x%x, u4DramVirBuffer=0x%x, u4DramPhyBuffer=0x%x\n",u4SramVirBuffer,u4SramPhyBuffer,u4DramVirBuffer,u4DramPhyBuffer);
memset((void*)u4DramVirBuffer,0,AFE_EXTERNAL_DRAM_SIZE);
//AWB memory interface setting, use the DRAM
rAWBMemCfg.rBufferSetting.u4AFE_MEMIF_BUF_BASE = u4DramPhyBuffer;
rAWBMemCfg.rBufferSetting.u4AFE_MEMIF_BUF_END= u4DramPhyBuffer + AFE_EXTERNAL_DRAM_SIZE-1;
rAWBMemCfg.rBufferSetting.u4AFE_MEMIF_BUF_RP= rAWBMemCfg.rBufferSetting.u4AFE_MEMIF_BUF_BASE;
rAWBMemCfg.rBufferSetting.u4AFE_MEMIF_BUF_WP= rAWBMemCfg.rBufferSetting.u4AFE_MEMIF_BUF_BASE;
rAWBMemCfg.eChannelConfig = AFE_STEREO;
rAWBMemCfg.eDupWrite = 0;
rAWBMemCfg.eSamplingRate = srCnt;
rAWBMemCfg.eMemInterface = AFE_MEM_AWB;
vAfeTurnOnMemif(&rAWBMemCfg);
vAfeTurnOn();
BOOL bBufferEnd = FALSE;
BOOL bDirectUpdateTargetGain = FALSE;
int i,j;
int GDStepCnt,GUStepCnt;
//while(1)
{
for(GDStepCnt=0; GDStepCnt<3; GDStepCnt++) //modify gain down step
{
WriteREG(AFE_GAIN2_CON2,uGainDownStep1[GDStepCnt]); //GDStepCnt=0 is default value, set the gain down step value
for(GUStepCnt=0; GUStepCnt<3; GUStepCnt++) //modify gain up step
{
WriteREG(AFE_GAIN2_CON3,uGainUpStep1[GUStepCnt]); //set the gain up step value
printk("uGainDownStep2=0x%x, uGainUpStep2=0x%x!!!\n",ReadREG(AFE_GAIN2_CON2),ReadREG(AFE_GAIN2_CON3));
for(i=0; i<TestCount; i++)
{
if(bBufferEnd)
{
printk("[vAudioHWGain2Test] Buffer is runout of, stop1\n");
break;
}
vRegWriteBits(AFE_GAIN2_CON0, uSamplePerStep1[i], 8, 8); //sample per step change
printk("target gain before set, AFE_GAIN2_CON1=0x%x, AFE_GAIN2_CON0=0x%x!!!\n",ReadREG(AFE_GAIN2_CON1),ReadREG(AFE_GAIN2_CON0));
for(j=0; j<TestCount; j++)
{
WriteREG(AFE_GAIN2_CON1,uTargetGain1[j]);
int Cnt = 0;
bDirectUpdateTargetGain = FALSE;
if(bBufferEnd)
{
printk("[vAudioHWGain2Test] Buffer is runout of, stop2\n");
break;
}
if(ReadREG(AFE_AWB_CUR) <= ReadREG(AFE_AWB_END) - 0x200)
{
printk("target gain set, AFE_GAIN2_CUR=0x%x, AFE_GAIN2_CON1=0x%x!!!\n",ReadREG(AFE_GAIN2_CUR),ReadREG(AFE_GAIN2_CON1));
while(ReadREG(AFE_GAIN2_CUR)!= uTargetGain1[j])
{
vFpgaAudioClockDelaymSec(10);
/* if(Cnt++>=50)
{
printk("can't not reach the TargetGain in Time, update new target gain directly AFE_GAIN1_CUR=0x%x!!!\n",ReadREG(AFE_GAIN2_CUR));
bDirectUpdateTargetGain = TRUE;
break;
}
*/ //printk("AFE_GAIN2_CUR=0x%x!!!\n",ReadREG(AFE_GAIN2_CUR));
}
printk("current gain, AFE_GAIN2_CUR=0x%x!!!\n",ReadREG(AFE_GAIN2_CUR));
if(!bDirectUpdateTargetGain)
vFpgaAudioClockDelaySec(1);
}
else
{
bBufferEnd = TRUE;
printk("[vAudioHWGain2Test] Buffer is runout of, stop3\n");
break;
}
}
//while(1); //do loop to check AudioPrecision input
//set the breakpoint to check
ReadREG(FPGA_VERSION);
ReadREG(FPGA_AUDIO_CLOCK);
}
}
}
}
printk("AWB current address =0x%x!!!\n",ReadREG(AFE_AWB_CUR));
vRegResetBit(AFE_DAC_CON0, AFE_ON); //Stop
ReadREG(FPGA_VERSION);
ReadREG(FPGA_AUDIO_CLOCK);
}
printk("vAudioHWGain2Test end\n");
return ret;
}
void ApAudSys_config(void)
{
#if defined(IC_MODULE_TEST)
// For SLT test, these register settings would affect the AFE test case.
#else // Normal usage, IC_MODULE_TEST
#if defined(MT6589)
// for second modem with slave mode
// vSetASRC
// WriteREG(AFE_ASRC_CON1, 0x00000cb2);
// WriteREG(AFE_ASRC_CON2, 0x00400000);
// WriteREG(AFE_ASRC_CON3, 0x00400000);
// WriteREG(AFE_ASRC_CON4, 0x00000cb2);
// WriteREG(AFE_ASRC_CON7, 0x00000659);
// vASRCEnable
// WriteREG(AFE_ASRC_CON6, 0x00000000);
// WriteREG(AFE_ASRC_CON0, 0x06003030);
// MAIN setting for interconnection
WriteREG(AUDIO_TOP_CON0, 0x00004000);
WriteREG(AFE_TOP_CON0, 0x00000000);
WriteREG(AFE_DAC_CON0, 0x00000001);
WriteREG(AFE_CONN1, 0x02000000); // MD2
WriteREG(AFE_CONN2, 0x24000200); // MD2
WriteREG(AFE_CONN3, 0x08000000); // MD1
WriteREG(AFE_CONN4, 0x00012001); // MD1
// sidetone
WriteREG(AFE_SIDDETONE_CON1, 0x00000000);
// MD2
WriteREG(PCM_INTF_CON1, 0x0000006F);
// WriteREG(PCM_INTF_CON2, 0x00000000);
// MD1
WriteREG(PCM_INTF_CON, 0x0000000F);
// i2s to external dac
WriteREG(AFE_I2S_CON1, 0x00000409); //dac 16k
WriteREG(AFE_I2S_CON2, 0x00000409); //adc 16k
#elif defined(MT6572) || defined(MT6582) || defined(MT6592) || defined(MT6571)
WriteREG(AUDIO_TOP_CON0, 0x60004000);
WriteREG(AFE_TOP_CON0, 0x00000000);
// MAIN setting for interconnection
WriteREG(AFE_CONN3, 0x08000000); // MD1, i14->o3
WriteREG(AFE_CONN4, 0x00012001); // MD1, i4->o18, i3->o17, i14->o4
// sidetone
WriteREG(AFE_SIDDETONE_CON1, 0x00000000);
// MD1
WriteREG(PCM_INTF_CON, 0x0000000F);
// new interface with SRC
WriteREG(AFE_ADDA_NEWIF_CFG0, 0x03F87201);
WriteREG(AFE_ADDA_NEWIF_CFG1, 0x03117580);
WriteREG(AFE_ADDA_DL_SRC2_CON0, 0x33001823); // DL 16k : 0x33001823, DL 8k : 0x03001823
WriteREG(AFE_ADDA_DL_SRC2_CON1, 0xFFFF0000);
WriteREG(AFE_ADDA_UL_SRC_CON0, 0x000A0001); // UL 16k : 0x000A0001, UL 8k : 0x00000001
WriteREG(AFE_ADDA_UL_SRC_CON1, 0x00000000);
WriteREG(AFE_ADDA_TOP_CON0, 0x00000000);
WriteREG(AFE_I2S_CON1, 0x0000040B); //I2S out, 要和ADDA一起開,位置在0x0034
WriteREG(AFE_ADDA_UL_DL_CON0, 0x00000001);
WriteREG(AFE_DAC_CON0, 0x00000001); // keep in last, confirm by Andrew
// PMIC_AudioConfig();
PMIC_AudioConfig_Loopback();
#endif // chip base define
#endif // IC_MODULE_TEST
}
// void l1sp_configApAfeHwForBt(void)
void ApAudSys_config_forBt(void)
{
#if defined(MT6589)
// GPIO set to external
/*
WriteREG(0xA00050D0, 0x5000 ); // GPIO_DIR13
WriteREG(0xA00050E0, 0x0001 ); // GPIO_DIR14
WriteREG(0xA0005EC0, 0x1248 ); // GPIO_MODE2C,
*/
// MAIN setting for interconnection
WriteREG(AUDIO_TOP_CON0, 0x00004000);
WriteREG(AFE_TOP_CON0, 0x00000000);
WriteREG(AFE_DAC_CON0, 0x00000001);
WriteREG(AFE_CONN1, 0x00000000);
WriteREG(AFE_CONN2, 0x00000000);
WriteREG(AFE_CONN3, 0x00400000); // i14, o2
WriteREG(AFE_CONN4, 0x00000000);
WriteREG(AFE_GAIN2_CON0, 0x0000c801);
WriteREG(AFE_GAIN2_CON, 0x01040000); // MD1
WriteREG(AFE_GAIN2_CON2, 0x000000C0);
WriteREG(AFE_DAIBT_CON0, 0x105F);
WriteREG(AFE_MRGIF_CON, 0x00900001);
// MD2
WriteREG(PCM_INTF_CON1, 0x0000006F);
// WriteREG(PCM_INTF_CON2, 0x00000000);
// MD1
WriteREG(PCM_INTF_CON, 0x0000000F);
#elif defined(MT6572)
// TODO:
#elif defined(MT6582)
// TODO:
#endif
}
