/*
* FUNCTION
* bmt_get_adc_channel_voltage
*
* DESCRIPTION
* This function is used to obtain the Battery voltage of specific channel
*
* CALLS
*
* PARAMETERS
* ch: specific channel
* voltage: pointer for read the voltage
*
* RETURNS
* KAL_FALSE: invalid channel
* KAL_TRUE: finish the measurement
*
* GLOBALS AFFECTED
* None
*/
kal_bool bmt_get_adc_channel_voltage(DCL_ADC_CHANNEL_TYPE_ENUM ch, kal_uint32 *voltage)
{
DCL_HANDLE adc_handle;
ADC_CTRL_GET_PHYSICAL_CHANNEL_T adc_get_channel;
ADC_CTRL_GET_DATA_T adc_data;
ADC_CTRL_TRANSFORM_INTO_VOLT_T adcTransV;
if(ch > DCL_VCHARGER_ADC_CHANNEL)
return KAL_FALSE;
adc_handle = DclSADC_Open(DCL_ADC, FLAGS_NONE);
if(adc_handle == DCL_HANDLE_INVALID)
{
ASSERT(0);
}
adc_get_channel.u2AdcName = ch;
DclSADC_Control(adc_handle, ADC_CMD_GET_CHANNEL, (DCL_CTRL_DATA_T *)&adc_get_channel);
adc_data.u1Channel = adc_get_channel.u1AdcPhyCh;
DclHADC_Control(adc_handle, ADC_CMD_GET_DATA,(DCL_CTRL_DATA_T *)&adc_data);
adcTransV.u1AdcPhyCh = adc_get_channel.u1AdcPhyCh;
adcTransV.d8AdcValue = adc_data.u4ADCData;
DclSADC_Control(adc_handle, ADC_CMD_TRANSFORM_INTO_VOLT, (DCL_CTRL_DATA_T *)&adcTransV);
*voltage = adcTransV.u4Volt;
DclSADC_Close(adc_handle);
return KAL_TRUE;
}
//called by drv_init_phase1
void Dcl_Chr_Det_reg_charger_usb_eint(void)
{
#if !defined (__CHARGER_USB_DETECT_WIHT_ONE_EINT__)
#if defined(PMIC_FIXED_CHR_EINT)
gCHRDET_EINT_NO = PMIC_CHR_EINT_PIN;
#else
gCHRDET_EINT_NO = custom_eint_get_channel(chrdet_eint_chann);
#endif
#if defined(__USB_ENABLE__)
gUSB_EINT_NO = custom_eint_get_channel(usb_eint_chann);
#endif
#endif
#ifdef __CHARGER_USB_DETECT_WIHT_ONE_EINT__
#if defined(PMIC_FIXED_CHR_EINT)
chr_usb_detect.chr_usb_eint = PMIC_CHR_EINT_PIN;
#else
chr_usb_detect.chr_usb_eint = custom_eint_get_channel(chr_usb_eint_chann);
#endif
#if defined(PMIC_CHR_USB_DETECT_THROUGH_ADC)
{
DCL_HANDLE adc_handle;
ADC_CTRL_GET_PHYSICAL_CHANNEL_T adc_ch;
adc_handle = DclSADC_Open(DCL_ADC, FLAGS_NONE);
adc_ch.u2AdcName = DCL_CHR_USB_ADC_CHANNEL;
DclSADC_Control(adc_handle, ADC_CMD_GET_CHANNEL, (DCL_CTRL_DATA_T *)&adc_ch);
chr_usb_detect.chr_usb_adc = adc_ch.u1AdcPhyCh;
chr_usb_detect.chr_usb_volt = bmt_get_chr_usb_detect_volt();
}
#endif
#endif
}
static void bmt_charging_timer_set_by_ADC_sche(DCL_UINT32 *timer_period, DCL_UINT8 *timer_count)
{
DCL_STATUS adc_status;
ADC_CTRL_MODIFY_PARAM_T adc_para;
adc_para.u4Period = *timer_period;
adc_para.u1EvaluateCount = *timer_count;
adc_status = DclSADC_Control(bmt_adc_handle, ADC_CMD_MODIFY_PARAM, (DCL_CTRL_DATA_T *)&adc_para);
if(adc_status != STATUS_OK)
{
ASSERT(0);
}
adc_status = DclSADC_Control(bmt_adc_handle, ADC_CMD_START_MEASURE, NULL);
if(adc_status != STATUS_OK)
{
ASSERT(0);
}
}
kal_int32 bmt_change_Voltage_To_ISense(DCL_UINT32 TransformVolt)
{
DCL_HANDLE dcl_adc_handle;
ADC_CTRL_TRANSFORM_INTO_CURR_T rTransformCurr;
dcl_adc_handle = DclSADC_Open(DCL_ADC, FLAGS_NONE);
rTransformCurr.u4Volt = TransformVolt;
DclSADC_Control(dcl_adc_handle, ADC_CMD_TRANSFORM_INTO_CURR, (DCL_CTRL_DATA_T *)&rTransformCurr);
DclSADC_Close(dcl_adc_handle);
return (kal_int32)rTransformCurr.u4Curr;
}
kal_int32 bmt_change_VBatTmp_To_BatTmp(kal_int32 VbatTmp)
{
DCL_HANDLE dcl_adc_handle;
ADC_CTRL_TRANSFORM_INTO_TEMP_T adc_get_vbattmp;
adc_get_vbattmp.u4Volt = VbatTmp;
dcl_adc_handle = DclSADC_Open(DCL_ADC, FLAGS_NONE);
DclSADC_Control(dcl_adc_handle, ADC_CMD_TRANSFORM_INTO_TEMP, (DCL_CTRL_DATA_T *)&adc_get_vbattmp);
DclSADC_Close(dcl_adc_handle);
return (kal_int32)adc_get_vbattmp.u4Temp;
}
/*
* FUNCTION
* bmt_timer_config
*
* DESCRIPTION
* This function is to configure the measure timer
*
* CALLS
*
* PARAMETERS
* time: on/off time interval. (1 tick = 4.615ms)
*
* RETURNS
* None
*
* GLOBALS AFFECTED
* None
*/
void bmt_timer_config(kal_uint32 time) /*time unit is second*/
{
kal_uint32 adc_bmt_tick;
DCL_STATUS adc_status;
ADC_CTRL_MODIFY_PARAM_T adc_para;
#if defined(__DRV_BMT_ULTRA_LOW_COST_CHARGER__)
#if defined(DRV_BMT_HW_PRECC_WORKAROUND)
if(bmt_frequently_check_on_state() || bmt_frequently_check_off_state())
#else
if(bmt_frequently_check_on_state())
#endif // End of #if defined(DRV_BMT_HW_PRECC_WORKAROUND)
{
time = 45; // 200ms/4.615 ~= 45 frames
}
#endif //#if defined(__DRV_BMT_ULTRA_LOW_COST_CHARGER__)
adc_bmt_tick = (kal_uint32)(time/BMT_EVALUATE_VALUE);
adc_bmt_tick++;
adc_para.u4Period = adc_bmt_tick;
adc_para.u1EvaluateCount = BMT_EVALUATE_VALUE;
adc_status = DclSADC_Control(bmt_adc_handle, ADC_CMD_MODIFY_PARAM, (DCL_CTRL_DATA_T *)&adc_para);
if(adc_status != STATUS_OK)
{
ASSERT(0);
}
adc_status = DclSADC_Control(bmt_adc_handle, ADC_CMD_START_MEASURE, NULL);
if(adc_status != STATUS_OK)
{
ASSERT(0);
}
}
/*
* FUNCTION
* bmt_charge_end
*
* DESCRIPTION
* This function is to stop charging when charger is plugged out
* or serious error in charging stage.
*
* CALLS
*
* PARAMETERS
* None
*
* RETURNS
* None
*
* GLOBALS AFFECTED
* None
*/
void bmt_charge_end(void)
{
#if defined(__EVB__) && defined(__MTK_INTERNAL__)
/* under construction !*/
#elif defined(__DRV_BMT_NO_CHARGING__)
return;
#else//#if defined(__EVB__)
DCL_STATUS adc_status;
//#ifdef __DRV_BMT_SW_POLLING_CHARGER_OV__
// kal_cancel_timer(bmt_sw_polling_timerId);
//#endif //#ifdef __DRV_BMT_SW_POLLING_CHARGER_OV__
#if defined(__DRV_BMT_ULTRA_LOW_COST_CHARGER__)
bmt_chr_force_enable(KAL_FALSE);
#endif
BMT.pmictrl_state = PMIC_CHARGEOFF;
BMT.VBAT_UEM= VBAT_UEM_CHR_OUT_FIRST;
BMT_Charge(KAL_FALSE);
adc_status = DclSADC_Control(bmt_adc_handle, ADC_CMD_STOP_MEASURE, NULL);
if(adc_status != STATUS_OK)
{
ASSERT(0);
}
bmt_stop_stoptimer();
stack_stop_timer(&ChargeTimeout_timer);
#ifdef __BMT_CHARGE_GUARD_TIME__
bmt_stop_guardtimer();
#endif
#if defined(__DRV_BMT_ESTIMATIVE_TIMER_ON_TOPOFF__)
bmt_stop_estimativetimer();
#endif //#if defined(__DRV_BMT_ESTIMATIVE_TIMER_ON_TOPOFF__)
drv_trace1(TRACE_GROUP_10, BMT_SAFETY_TIMER_STOP_TRC, BMT_TOTAL_CHARGE_TIME);
SaftyTimer_Flag = BMT_SAFETY_TIMER_OFF;
// #ifdef MTK_SLEEP_ENABLE
// L1SM_SleepEnable(bmt_sm_handle);
// #endif
bmt_enable_sleepmode(KAL_TRUE);
#if defined(PMIC_CHARGE_WDT) // Defined in pmic_features.h
bmt_charge_enable_wdt(KAL_FALSE);
#endif // #if defined(PMIC_CHARGE_WDT)
drv_trace0(TRACE_GROUP_10, BMT_CHARGING_END_TRC);
// DclSADC_Close(adc_handle);
#endif//#if defined(__EVB__)
}
/*
* FUNCTION
* bmt_ChrStop
*
* DESCRIPTION
* This function is called if charge is complete and run after 30 min
*
* CALLS
*
* PARAMETERS
* None
*
* RETURNS
* None
*
*/
static void bmt_ChrStop(void) /*30 min*/
{
DCL_STATUS adc_status;
drv_trace0(TRACE_STATE, BMT_MEASURE_STOP_TRC);
bmt_CtrlCharge((kal_uint8)KAL_FALSE); //Stop Charge!!
BMT.highfull = 1;
adc_status = DclSADC_Control(bmt_adc_handle, ADC_CMD_STOP_MEASURE, NULL);
if(adc_status != STATUS_OK)
{
ASSERT(0);
}
bmt_timer_config(bmt_charging_para.BATFULL_TOFF*CHARGING_TIME_UNIT);
}
/*
* FUNCTION
* bmt_measure_complete_vbatemp
*
* DESCRIPTION
* This function is the callback function when visense is measured done.
*
* CALLS
*
* PARAMETERS
* handle: logical channel id.
*
* RETURNS
* None
*
* GLOBALS AFFECTED
* None
*/
void bmt_measure_complete(DCL_INT32 handle, DCL_INT32 *volt_array_result, DCL_DOUBLE *adc_array_result)
{
#ifdef BMT_DEBUG
//dbg_printWithTime("bmt_measure_complete_vbat\r\n");
#endif
DCL_STATUS adc_status;
kal_uint32 i;
adc_status = DclSADC_Control(handle, ADC_CMD_STOP_MEASURE, NULL);
if(adc_status != STATUS_OK)
{
ASSERT(0);
}
for(i=0;i<BMT_ADC_MAX_CHANNEL_TOTAL;i++)
{
BMT_VOL_RESULT[i] = *(volt_array_result+i);
BMT_ADC_RESULT[i] = *(adc_array_result+i);
}
bmt_measure_done();
}
/*
* FUNCTION
* BMT_Current_Voltage
*
* DESCRIPTION
* This function is used to obtain the Battery voltage of specific channel
*
* CALLS
*
* PARAMETERS
* ch: specific channel
* voltage: pointer for read the voltage
*
* RETURNS
* KAL_FALSE: invalid channel
* KAL_TRUE: finish the measurement
*
* GLOBALS AFFECTED
* None
*/
kal_bool BMT_Current_Voltage(DCL_ADC_CHANNEL_TYPE_ENUM ch, kal_uint32 *voltage, double *adc_value)
{
kal_uint8 adc_channel;
DCL_HANDLE adc_handle;
ADC_CTRL_GET_PHYSICAL_CHANNEL_T adc_ch;
if(ch > DCL_VCHARGER_ADC_CHANNEL)
return KAL_FALSE;
adc_handle = DclSADC_Open(DCL_ADC, FLAGS_NONE);
if(adc_handle == DCL_HANDLE_INVALID)
{
ASSERT(0);
}
adc_ch.u2AdcName = ch;
DclSADC_Control(adc_handle, ADC_CMD_GET_CHANNEL, (DCL_CTRL_DATA_T *)&adc_ch);
adc_channel = adc_ch.u1AdcPhyCh;
*voltage = adc_measureVoltage(adc_channel, adc_value);
DclSADC_Close(adc_handle);
return KAL_TRUE;
}
static void bmt_internal_adc_init()
{
ADC_CTRL_GET_PHYSICAL_CHANNEL_T adc_ch;
ADC_CTRL_CREATE_OBJECT_T adc_create;
DCL_STATUS adc_status;
ADC_CTRL_REGISTER_MEASURE_CB_T registerMeasCB;
DCL_MULTI_CHANNEL_PARA_T adc_multi_channel_para;
bmt_adc_handle = DclSADC_Open(DCL_ADC, FLAGS_NONE);
if(bmt_adc_handle == DCL_HANDLE_INVALID)
{
ASSERT(0);
}
adc_ch.u2AdcName = DCL_VBAT_ADC_CHANNEL;
DclSADC_Control(bmt_adc_handle, ADC_CMD_GET_CHANNEL, (DCL_CTRL_DATA_T *)&adc_ch);
bmt_multi_channel[BMT_ADC_VBAT] = adc_ch.u1AdcPhyCh;
adc_ch.u2AdcName = DCL_VISENSE_ADC_CHANNEL;
DclSADC_Control(bmt_adc_handle, ADC_CMD_GET_CHANNEL, (DCL_CTRL_DATA_T *)&adc_ch);
bmt_multi_channel[BMT_ADC_VISENSE] = adc_ch.u1AdcPhyCh;
adc_ch.u2AdcName = DCL_VBATTMP_ADC_CHANNEL;
DclSADC_Control(bmt_adc_handle, ADC_CMD_GET_CHANNEL, (DCL_CTRL_DATA_T *)&adc_ch);
bmt_multi_channel[BMT_ADC_VBATTMP] = adc_ch.u1AdcPhyCh;
adc_ch.u2AdcName = DCL_VCHARGER_ADC_CHANNEL;
DclSADC_Control(bmt_adc_handle, ADC_CMD_GET_CHANNEL, (DCL_CTRL_DATA_T *)&adc_ch);
bmt_multi_channel[BMT_ADC_VCHARGER] = adc_ch.u1AdcPhyCh;
adc_create.u4Period = 10; // Measurement period (Uint is in Tick)
adc_create.u1OwnerId = MOD_BMT; // Indicate the module to for ADC driver to notify the result
//adc_create.u1AdcChannel = ADC_VBAT_channel; // To be measured physical ADC channel
adc_create.u1EvaluateCount = 10; // Measurement count
adc_create.fgSendPrimitive = KAL_FALSE; // Whether to send message to owner module or NOT
adc_status = DclSADC_Control(bmt_adc_handle, ADC_CMD_CREATE_OBJECT, (DCL_CTRL_DATA_T *)&adc_create);
if(adc_status != STATUS_OK)
{
ASSERT(0);
}
registerMeasCB.pfMeasure_cb = adc_sche_measure;
adc_status = DclSADC_Control(bmt_adc_handle, ADC_CMD_REGISTER_MEASURE_CB, (DCL_CTRL_DATA_T *)®isterMeasCB);
if(adc_status != STATUS_OK)
{
ASSERT(0);
}
adc_multi_channel_para.bEnable = KAL_TRUE;
adc_multi_channel_para.u4ADC_ch_number = bmt_multi_channel;
adc_multi_channel_para.u4Adc_max_ch_number = BMT_ADC_MAX_CHANNEL_TOTAL;
adc_multi_channel_para.complete_multi_cb = bmt_measure_complete;
adc_status = DclSADC_Control(bmt_adc_handle, ADC_CMD_SET_MULTI_CHANNEL_READ, (DCL_CTRL_DATA_T *)&adc_multi_channel_para);
if(adc_status != STATUS_OK)
{
ASSERT(0);
}
}
/*
* FUNCTION
* bmt_charge_start
*
* DESCRIPTION
* This function is to start charging algorithm.
*
* CALLS
*
* PARAMETERS
* None
*
* RETURNS
* None
*
* GLOBALS AFFECTED
* None
*/
void bmt_charge_start(void)
{
#if defined(__EVB__) && defined(__MTK_INTERNAL__)
/* under construction !*/
#elif defined(__DRV_BMT_NO_CHARGING__)
return;
#else //#if defined(__EVB__)
#if defined(__DRV_BMT_PRECHARGE_TO_FULL_DIRECTLY__)
double adc;
#endif //#if defined(__DRV_BMT_PRECHARGE_TO_FULL_DIRECTLY__)
DCL_STATUS adc_status;
ADC_CTRL_MODIFY_PARAM_T adc_para;
#if defined(MT6236) || defined(MT6252)
PMU_CTRL_CHR_SET_CHR_CURRENT set_chr_current;
#endif
//#ifdef __DRV_BMT_SW_POLLING_CHARGER_OV__
// kal_set_timer(bmt_sw_polling_timerId, (kal_timer_func_ptr)bmt_sw_polling_ov, NULL,43 , 0);
//#endif //#ifdef __DRV_BMT_SW_POLLING_CHARGER_OV__
BMT_Charge(KAL_FALSE);
BMT.pmictrl_state = PMIC_CHARGEOFF;
#if defined(__DRV_BMT_PRECHARGE_TO_FULL_DIRECTLY__)
if(g_battery_pre_voltage == 0)
BMT_Current_Voltage(DCL_VBAT_ADC_CHANNEL, &g_battery_pre_voltage,&adc);
BMT.bat_state = CHR_PRE_FULL_CHECK;
#else //defined(__DRV_BMT_PRECHARGE_TO_FULL_DIRECTLY__)
BMT.bat_state = CHR_PRE;
#endif //defined(__DRV_BMT_PRECHARGE_TO_FULL_DIRECTLY__)
BMT.VBAT_UEM= VBAT_UEM_CHR_IN_FISRT;
low_charger_count = 0;
low_current_count = 0;
low_temper_count = 0;
over_temper_count = 0;
#if defined(DRV_BMT_HW_PRECC_WORKAROUND)
SW_Workaround_Flag = KAL_TRUE;
HW_Plug_Status = bmt_chr_uninit;
Manual_Disable_Charge_Flag = KAL_FALSE;
#endif
#if defined(DRV_BMT_HIGH_VCHG_ADAPTIVE_CHARGE_CURRENT_SUPPORT)
First_Time_Charge_Enable = KAL_TRUE;
bmt_high_vchg_current = 0xFFFFFFF;
Pre_VCharge_AVG = 0;
Cur_VCharge_MAX = 0;
#endif
bmt_enable_sleepmode(KAL_FALSE);
// #ifdef MTK_SLEEP_ENABLE
// L1SM_SleepDisable(bmt_sm_handle);
// #endif
adc_para.u4Period = 1;
adc_para.u1EvaluateCount = 1;
adc_status = DclSADC_Control(bmt_adc_handle, ADC_CMD_MODIFY_PARAM, (DCL_CTRL_DATA_T *)&adc_para);
if(adc_status != STATUS_OK)
{
ASSERT(0);
}
adc_status = DclSADC_Control(bmt_adc_handle, ADC_CMD_START_MEASURE, NULL);
if(adc_status != STATUS_OK)
{
ASSERT(0);
}
#ifdef __BMT_CHARGE_GUARD_TIME__
bmt_set_guardtimer(KAL_TICKS_1_MIN*BMT_CHARGE_GUARD_TIME_PERIOD);
drv_trace2(TRACE_GROUP_10, BMT_SAFETY_AND_GUARD_TIMER_START_TRC, BMT_TOTAL_CHARGE_TIME, BMT_CHARGE_GUARD_TIME_PERIOD);
#else // __BMT_CHARGE_GUARD_TIME__
#if defined(DRV_BMT_HIGH_VCHG_ADAPTIVE_CHARGE_CURRENT_SUPPORT)
bmt_safety_timer_config = KAL_FALSE;
#else
stack_start_timer(&ChargeTimeout_timer, 0, KAL_TICKS_1_MIN*BMT_TOTAL_CHARGE_TIME);
drv_trace1(TRACE_GROUP_10, BMT_SAFETY_TIMER_START_TRC, BMT_TOTAL_CHARGE_TIME);
SaftyTimer_Flag = BMT_SAFETY_TIMER_ON;
#endif //#if defined(DRV_BMT_HIGH_VCHG_ADAPTIVE_CHARGE_CURRENT_SUPPORT)
#endif // __BMT_CHARGE_GUARD_TIME__
#if defined(MT6236) || defined(MT6252)
set_chr_current.current = PMU_CHARGE_CURRENT_200_00_MA; // Pre-CC 200mA
DclPMU_Control(bmt_PmuHandler, CHR_SET_CHR_CURRENT, (DCL_CTRL_DATA_T *)&set_chr_current);
#else
bmt_set_chr_current();
#endif
#if defined(PMIC_CHARGE_WDT) // Defined in pmic_features.h
bmt_charge_enable_wdt(KAL_TRUE);
#endif // #if defined(PMIC_CHARGE_WDT)
drv_trace0(TRACE_GROUP_10, BMT_CHARGING_START_TRC);
#endif//#if defined(__EVB__)
}
/*if add more measure parameters, just need modify bmt_adc_init*/
void bmt_adc_init(void)
{
ADC_CTRL_GET_PHYSICAL_CHANNEL_T adc_ch;
ADC_CTRL_CREATE_OBJECT_T adc_create;
DCL_STATUS adc_status;
ADC_CTRL_REGISTER_MEASURE_CB_T registerMeasCB;
DCL_MULTI_CHANNEL_PARA_T adc_multi_channel_para;
#ifdef MTK_SLEEP_ENABLE
bmt_sm_handle = L1SM_GetHandle();
#endif
bmt_stop_timer_init();
#ifdef __BMT_CHARGE_GUARD_TIME__
bmt_guardtimer_init();
#endif
#if defined(__DRV_BMT_ESTIMATIVE_TIMER_ON_TOPOFF__)
bmt_estimativetimer_init();
#endif //#if defined(__DRV_BMT_ESTIMATIVE_TIMER_ON_TOPOFF__)
BMT.VBAT_UEM = VBAT_UEM_CHR_OUT;
/*to get customized ADC channel*/
bmt_adc_handle = DclSADC_Open(DCL_ADC, FLAGS_NONE);
if(bmt_adc_handle == DCL_HANDLE_INVALID)
{
ASSERT(0);
}
adc_ch.u2AdcName = DCL_VBAT_ADC_CHANNEL;
DclSADC_Control(bmt_adc_handle, ADC_CMD_GET_CHANNEL, (DCL_CTRL_DATA_T *)&adc_ch);
bmt_multi_channel[BMT_ADC_VBAT] = adc_ch.u1AdcPhyCh;
adc_ch.u2AdcName = DCL_VISENSE_ADC_CHANNEL;
DclSADC_Control(bmt_adc_handle, ADC_CMD_GET_CHANNEL, (DCL_CTRL_DATA_T *)&adc_ch);
bmt_multi_channel[BMT_ADC_VISENSE] = adc_ch.u1AdcPhyCh;
adc_ch.u2AdcName = DCL_VBATTMP_ADC_CHANNEL;
DclSADC_Control(bmt_adc_handle, ADC_CMD_GET_CHANNEL, (DCL_CTRL_DATA_T *)&adc_ch);
bmt_multi_channel[BMT_ADC_VBATTMP] = adc_ch.u1AdcPhyCh;
adc_ch.u2AdcName = DCL_VCHARGER_ADC_CHANNEL;
DclSADC_Control(bmt_adc_handle, ADC_CMD_GET_CHANNEL, (DCL_CTRL_DATA_T *)&adc_ch);
bmt_multi_channel[BMT_ADC_VCHARGER] = adc_ch.u1AdcPhyCh;
adc_create.u4Period = 10; // Measurement period (Uint is in Tick)
adc_create.u1OwnerId = MOD_BMT; // Indicate the module to for ADC driver to notify the result
//adc_create.u1AdcChannel = ADC_VBAT_channel; // To be measured physical ADC channel
adc_create.u1EvaluateCount = BMT_EVALUATE_VALUE; // Measurement count
adc_create.fgSendPrimitive = KAL_FALSE; // Whether to send message to owner module or NOT
adc_status = DclSADC_Control(bmt_adc_handle, ADC_CMD_CREATE_OBJECT, (DCL_CTRL_DATA_T *)&adc_create);
if(adc_status != STATUS_OK)
{
ASSERT(0);
}
registerMeasCB.pfMeasure_cb = adc_sche_measure;
adc_status = DclSADC_Control(bmt_adc_handle, ADC_CMD_REGISTER_MEASURE_CB, (DCL_CTRL_DATA_T *)®isterMeasCB);
if(adc_status != STATUS_OK)
{
ASSERT(0);
}
adc_multi_channel_para.bEnable = KAL_TRUE;
adc_multi_channel_para.u4ADC_ch_number = bmt_multi_channel;
adc_multi_channel_para.u4Adc_max_ch_number = BMT_ADC_MAX_CHANNEL_TOTAL;
adc_multi_channel_para.complete_multi_cb = bmt_measure_complete;
adc_status = DclSADC_Control(bmt_adc_handle, ADC_CMD_SET_MULTI_CHANNEL_READ, (DCL_CTRL_DATA_T *)&adc_multi_channel_para);
if(adc_status != STATUS_OK)
{
ASSERT(0);
}
#if defined(__DRV_BMT_PRECHARGE_TO_FULL_DIRECTLY__)
BMT_VbatInHISR_Init();
#endif //#if defined(__DRV_BMT_PRECHARGE_TO_FULL_DIRECTLY__)
}
/*
* FUNCTION
* BMT_ObtainBMTPHYSTAT
*
* DESCRIPTION
* This function is used to obtain the ADC measure result.
* Average the received Phy. data
*
* CALLS
*
* PARAMETERS
* Data: None
*
* RETURNS
* None
*
* GLOBALS AFFECTED
* None
*/
kal_bool BMT_ObtainBMTPHYSTAT(BATPHYStruct *BATPHYS)
{
#ifndef __BMT_NO_ISENSE_RESISTOR__
DCL_HANDLE dcl_adc_handle;
ADC_CTRL_TRANSFORM_INTO_CURR_T rTransformCurr;
#endif
#if defined(__DRV_BMT_ISENSE_OFFSET_COMPENSATION__)
static kal_int32 ISense_Offset;
#endif
drv_trace0(TRACE_GROUP_10, BMT_OBTAIN_PHY_STAT_TRC);
BATPHYS->VBAT = BMT_VOL_RESULT[BMT_ADC_VBAT];
drv_trace1(TRACE_GROUP_10, BMT_VBAT_TRC, BATPHYS->VBAT);
#ifndef __BMT_NO_ISENSE_RESISTOR__
dcl_adc_handle = DclSADC_Open(DCL_ADC, FLAGS_NONE);
#if defined(__DRV_BMT_ISENSE_OFFSET_COMPENSATION__)
if(BMT.pmictrl_state == PMIC_CHARGEOFF)
{
ISense_Offset = BMT_VOL_RESULT[BMT_ADC_VISENSE] - BMT_VOL_RESULT[BMT_ADC_VBAT];
}
BATPHYS->ISense_Offset = ISense_Offset;
rTransformCurr.u4Volt = BMT_VOL_RESULT[BMT_ADC_VISENSE] - BMT_VOL_RESULT[BMT_ADC_VBAT]-BATPHYS->ISense_Offset;
#else
rTransformCurr.u4Volt = BMT_VOL_RESULT[BMT_ADC_VISENSE] - BMT_VOL_RESULT[BMT_ADC_VBAT];
#endif
DclSADC_Control(dcl_adc_handle, ADC_CMD_TRANSFORM_INTO_CURR, (DCL_CTRL_DATA_T *)&rTransformCurr);
BATPHYS->ICHARGE = rTransformCurr.u4Curr;
DclSADC_Close(dcl_adc_handle);
#if defined(__DRV_BMT_ISENSE_OFFSET_COMPENSATION__)
drv_trace1(TRACE_GROUP_10, BMT_VSENSE_TRC, BMT_VOL_RESULT[BMT_ADC_VISENSE]);
drv_trace1(TRACE_GROUP_10, BMT_ICHARGE_TRC, BATPHYS->ICHARGE);
drv_trace1(TRACE_GROUP_10, BMT_VSENSE_VBAT_OFFSET_TRC, BATPHYS->ISense_Offset);
#else
BATPHYS->ICHARGE -= bmt_charging_para->CurrOffset[BMT.call_state];
drv_trace1(TRACE_GROUP_10, BMT_ICHARGE_TRC, BATPHYS->ICHARGE);
if((BMT.pmictrl_state == PMIC_CHARGEOFF) && ((BATPHYS->ICHARGE + bmt_charging_para->CurrOffset[BMT.call_state]) > bmt_charging_para->ICHARGE_ON_LOW))
{
drv_trace1(TRACE_GROUP_10, BMT_ADC_CALIBRATION_FAIL_TRC, BATPHYS->ICHARGE + bmt_charging_para->CurrOffset[BMT.call_state]);
}
#endif
#endif // #ifndef __BMT_NO_ISENSE_RESISTOR__
if(bmt_charging_para->bmt_check_temp)
{
BATPHYS->BATTMP = BMT_VOL_RESULT[BMT_ADC_VBATTMP];
drv_trace1(TRACE_GROUP_10, BMT_BATTMP_TRC, BATPHYS->BATTMP);
}
if(bmt_charging_para->bmt_check_charger)
{
BATPHYS->VCHARGER = BMT_VOL_RESULT[BMT_ADC_VCHARGER];
drv_trace1(TRACE_GROUP_10, BMT_VCHARGER_TRC, BATPHYS->VCHARGER);
}
if ((BMT.pmictrl_state == PMIC_CHARGEOFF) ||
(BMT.pmictrl_state == PMIC_CHARGEON ) &&
( (BMT.bat_state == CHR_TOPOFF) || (BMT.bat_state == CHR_BATFULL) ))
{
VBAT_OFF = BATPHYS->VBAT;
ADCBAT_OFF = BMT_ADC_RESULT[BMT_ADC_VBAT];
}
return KAL_TRUE;
}
void FT_MISC_Operation(ilm_struct *ptrMsg)
{
kal_wchar wpath[128];
FT_MISC_REQ *p_req = (FT_MISC_REQ *)ptrMsg->local_para_ptr;
FT_MISC_CNF misc_cnf;
memset(&misc_cnf, 0x0, sizeof(misc_cnf));
peer_buff_struct *peer_buff_ret = NULL; // default value
kal_char *pdu_ptr = NULL;
kal_uint16 pdu_length = 0;
misc_cnf.type = p_req->type;
misc_cnf.status = FT_CNF_FAIL; // default value
ft_gl_misc_token = p_req->header.token;
switch(p_req->type)
{
case FT_MISC_OP_GET_IMEI_LOC:
{
misc_cnf.result.m_u1IMEILoc = nvram_get_imei_type();
misc_cnf.status = FT_CNF_OK;
break;
}
case FT_MISC_OP_GET_IMEI_VALUE:
{
// check the record index (because tools before 0912 causes assertion)
kal_uint16 rec_num = nvram_get_imei_record_num();
if(p_req->cmd.m_u1RecordIndex < 1 || p_req->cmd.m_u1RecordIndex > rec_num)
{
// set the record index to 1 (the behavior will be confrom to that of target load before 0909)
p_req->cmd.m_u1RecordIndex = 1;
}
if(KAL_TRUE == nvram_get_imei_value(NVRAM_EF_IMEI_IMEISV_SIZE,
misc_cnf.result.m_rIMEIData.buf, p_req->cmd.m_u1RecordIndex))
{
misc_cnf.result.m_rIMEIData.buf_len = NVRAM_EF_IMEI_IMEISV_SIZE;
misc_cnf.status = FT_CNF_OK;
}
else
misc_cnf.status = FT_CNF_FAIL;
break;
}
#if defined(__MTK_INTERNAL__)
/* under construction !*/
/* under construction !*/
/* under construction !*/
/* under construction !*/
/* under construction !*/
/* under construction !*/
/* under construction !*/
/* under construction !*/
/* under construction !*/
/* under construction !*/
/* under construction !*/
/* under construction !*/
/* under construction !*/
/* under construction !*/
#endif //#if defined(__MTK_INTERNAL__)
case FT_MISC_OP_GET_IMEI_REC_NUM:
{
misc_cnf.result.m_u2IMEIRecords = nvram_get_imei_record_num();
misc_cnf.status = FT_CNF_OK;
break;
}
case FT_MISC_OP_VERIFY_TEMP_SML_FILE:
{
//kal_char *pdu_ptr;
//kal_uint16 pdu_length;
kal_wchar *w_filepath;
// get the file path from peer_buffer
if(ptrMsg->peer_buff_ptr != NULL)
{
pdu_ptr = get_peer_buff_pdu( ptrMsg->peer_buff_ptr, &pdu_length );
// cast to kal_wchar
w_filepath = (kal_wchar *)pdu_ptr;
misc_cnf.status = FT_CNF_OK;
// ask nvram task to check the SML file
if(NVRAM_IO_ERRNO_OK == nvram_validate_file(NVRAM_EF_SML_LID, w_filepath))
misc_cnf.result.m_u1VerifyResult = FT_SML_VALID;
else
misc_cnf.result.m_u1VerifyResult = FT_SML_INVALID;
}
else // peer buffer is null
{
misc_cnf.status = FT_CNF_FAIL;
misc_cnf.result.m_u1VerifyResult = FT_SML_NO_FILENAME;
}
break;
}
case FT_MISC_OP_GET_CAL_INFO:
{
ft_misc_op_collect_cal_info(&misc_cnf);
return;
}
case FT_MISC_OP_QUERY_NVRAM_FOLDER:
{
kal_uint16 length;
kal_char* buf;
kal_uint8 folder_total_amount = nvram_get_folder_total_amount();
kal_int16 total_length = 0;
kal_int8 i;
misc_cnf.status = FT_CNF_OK;
// allocate peer buffer
if(NULL == peer_buff_ret)
{//FT_MISC_MAX_FRAME_SIZE
peer_buff_ret = construct_peer_buff(FT_MISC_MAX_FRAME_SIZE, 0, 0, TD_CTRL);
if(NULL == peer_buff_ret) return;
peer_buff_ret->pdu_len = 0 ;
}
pdu_ptr = get_peer_buff_pdu( peer_buff_ret, &pdu_length );
for(i = 0;i<folder_total_amount;i++)
{
buf = nvram_get_work_path(i);
kal_wsprintf(wpath, "%s", buf);
if(nvram_check_hidden_file(wpath, true))
{
continue;
}
length = (strlen(buf)+1);
kal_mem_cpy(pdu_ptr+pdu_length+total_length, (buf), length );
*(pdu_ptr+pdu_length+total_length+length-1) = '?';
total_length += length;
}
// update pdu_len
peer_buff_ret->pdu_len += (total_length);
break;
}
case FT_MISC_OP_VERIFY_NVRAM_ATTR_SETTING_COMPLETE:
{
kal_uint16 stop_index = custom_meta_check_must_backup_lid_array(p_req->cmd.m_bcheckImeiFlag);
if(stop_index == custom_meta_get_check_lid_num()) // check successfully!
{
misc_cnf.status = FT_CNF_OK;
misc_cnf.result.m_rNvramVerifyResult.m_stop_enum_value = custom_meta_get_enum_by_index(stop_index-1); // pass the imei_enum
misc_cnf.result.m_rNvramVerifyResult.m_total_lid_num = custom_meta_get_check_lid_num();
misc_cnf.result.m_rNvramVerifyResult.m_stop_index = stop_index;
}
else
{
misc_cnf.status = FT_CNF_FAIL;
misc_cnf.result.m_rNvramVerifyResult.m_stop_enum_value = custom_meta_get_enum_by_index(stop_index);
misc_cnf.result.m_rNvramVerifyResult.m_total_lid_num = custom_meta_get_check_lid_num();
misc_cnf.result.m_rNvramVerifyResult.m_stop_index = stop_index;
}
break;
}
case FT_MISC_OP_ENABLE_PATH_LIMITION:
case FT_MISC_OP_DISABLE_PATH_LIMITION:
{
ft_gl_path_check_flag = (p_req->type == FT_MISC_OP_ENABLE_PATH_LIMITION)?true:false;
misc_cnf.status = FT_CNF_OK;
break;
}
case FT_MISC_OP_GET_NVRAM_FOLDER_AMOUNT:
{
kal_uint8 i;
misc_cnf.result.m_u1NVRAMFolderAmount = nvram_get_folder_total_amount();
for(i = 0;i<nvram_get_folder_total_amount();i++)
{
kal_wsprintf(wpath, "%s", nvram_get_work_path(i));
if(nvram_check_hidden_file(wpath, true))
{
misc_cnf.result.m_u1NVRAMFolderAmount--;
}
}
misc_cnf.status = FT_CNF_OK;
}
break;
#ifndef SIM_NOT_PRESENT
case FT_MISC_OP_CHECK_SIM1_INSERTED:
{
// Send reset request to MOD_SIM
ilm_struct ilm_ptr;
sim_reset_req_struct* ptr_loc_para;
FT_ALLOC_OTHER_MSG(&ilm_ptr, sizeof(sim_reset_req_struct));
ptr_loc_para = (sim_reset_req_struct*) (ilm_ptr.local_para_ptr);
ptr_loc_para->src_id = 0xff;
// set sim cmd type to global variable
ft_gl_sim_cmd_type = FT_MISC_OP_CHECK_SIM1_INSERTED;
FT_SEND_MSG(MOD_FT, MOD_SIM, PS_SIM_SAP, MSG_ID_SIM_RESET_REQ, &ilm_ptr);
// wait for SIM task CNF message
return;
}
#ifdef __GEMINI__
case FT_MISC_OP_CHECK_SIM2_INSERTED:
{
// Send reset request to MOD_SIM_2
ilm_struct ilm_ptr;
sim_reset_req_struct* ptr_loc_para;
FT_ALLOC_OTHER_MSG(&ilm_ptr, sizeof(sim_reset_req_struct));
ptr_loc_para = (sim_reset_req_struct*) (ilm_ptr.local_para_ptr);
ptr_loc_para->src_id = 0xff;
// set sim cmd type to global variable
ft_gl_sim_cmd_type =FT_MISC_OP_CHECK_SIM2_INSERTED;
FT_SEND_MSG(MOD_FT, MOD_SIM_2, PS_SIM_SAP, MSG_ID_SIM_RESET_REQ, &ilm_ptr);
// wait for SIM task CNF message
return;
}
#endif // __GEMINI__
#ifdef GEMINI_PLUS
case FT_MISC_OP_CHECK_GEMINI_PLUS_SIM_INSERTED:
{
// Send reset request to MOD_SIM_N
ilm_struct ilm_ptr;
sim_reset_req_struct* ptr_loc_para;
// if index out of range, break and then send error status CNF
if(p_req->cmd.m_u1SimIndex >= GEMINI_PLUS)
{
break;
}
FT_ALLOC_OTHER_MSG(&ilm_ptr, sizeof(sim_reset_req_struct));
ptr_loc_para = (sim_reset_req_struct*) (ilm_ptr.local_para_ptr);
ptr_loc_para->src_id = 0xff;
// set sim cmd type to global variable
ft_gl_sim_cmd_type = FT_MISC_OP_CHECK_GEMINI_PLUS_SIM_INSERTED;
FT_SEND_MSG(MOD_FT, (module_type)(MOD_SIM + p_req->cmd.m_u1SimIndex), PS_SIM_SAP, MSG_ID_SIM_RESET_REQ, &ilm_ptr);
// wait for SIM task CNF message
return;
}
#endif // GEMINI_PLUS
#endif // SIM_NOT_PRESENT
case FT_MISC_OP_SET_MUIC_CHARGER_MODE:
{
#ifdef __DRV_EXT_CHARGER_DETECTION__
MU_BQ25040_Charger_Mode(p_req->cmd.m_u1ChargerMode);
misc_cnf.status = FT_CNF_OK;
#else
misc_cnf.status = FT_CNF_FAIL;
#endif
break;
}
#if !defined(NVRAM_NOT_PRESENT)
case FT_MISC_OP_CALDATA_INTEGRITY_START_REC:
{
if(g_b_ft_nvram_rec)
{
misc_cnf.status = FT_CNF_FAIL;
break;
}
i4_ft_cur_misc_op = p_req->type;
ft_misc_cal_data_read_from_nvram();
return;
}
case FT_MISC_OP_CALDATA_INTEGRITY_STOP_REC:
{
if(!g_b_ft_nvram_rec)
{
misc_cnf.status = FT_CNF_FAIL;
break;
}
g_b_ft_nvram_rec = false; // stop record
i4_ft_cur_misc_op = p_req->type;
ft_misc_cal_data_write_to_nvram();
return;
}
case FT_MISC_OP_CALDATA_INTEGRITY_ADD_ONE:
case FT_MISC_OP_CALDATA_INTEGRITY_DEL_ONE:
case FT_MISC_OP_CALDATA_INTEGRITY_CHECK_ONE:
ft_misc_cal_data_proc_one.u2LidEnumVal = p_req->cmd.m_rCalDataOne.u2LidEnum;
ft_misc_cal_data_proc_one.u2LidRec = p_req->cmd.m_rCalDataOne.u2RID;
ft_misc_cal_data_proc_one.u2CheckVal = 0;
// note: don't break, keep going
case FT_MISC_OP_CALDATA_INTEGRITY_DEL_ALL:
case FT_MISC_OP_CALDATA_INTEGRITY_CHECK_ALL:
{
if(g_b_ft_nvram_rec)
{
misc_cnf.status = FT_CNF_FAIL;
break;
}
i4_ft_cur_misc_op = p_req->type;
ft_misc_cal_data_read_from_nvram();
return;
}
#endif // #if !defined(NVRAM_NOT_PRESENT)
case FT_MISC_OP_GET_ADC_FROM_EFUSE:
{
kal_bool b_ret_code;
kal_uint8 i;
kal_uint8 adc_max_channel;
DCL_HANDLE adc_handle;
ADC_CTRL_READ_CALIBRATION_DATA_T prReadCalibrationData;
adc_handle = DclSADC_Open(DCL_ADC, FLAGS_NONE);
adc_max_channel = FT_GetAdcMaxChannel();
b_ret_code = (STATUS_OK == DclSADC_Control(adc_handle, ADC_CMD_READ_CALIBRATION_DATA, (DCL_CTRL_DATA_T*)&prReadCalibrationData)) ?
KAL_TRUE : KAL_FALSE;
misc_cnf.status = FT_CNF_OK;
misc_cnf.result.m_rGetAdcFromEfuse.bADCStoredInEfuse = b_ret_code;
misc_cnf.result.m_rGetAdcFromEfuse.u2ADCChnNum = b_ret_code ? adc_max_channel : 0;
// if channel number > 0, construct peer buffer
if(misc_cnf.result.m_rGetAdcFromEfuse.u2ADCChnNum > 0) // i.e. FT_GetAdcMaxChannel()
{
if( NULL != (peer_buff_ret=construct_peer_buff(adc_max_channel*8, 0, 0, TD_CTRL)) )
{
pdu_ptr = get_peer_buff_pdu( peer_buff_ret, &pdu_length );
peer_buff_ret->pdu_len = adc_max_channel *8;
for(i =0; i< adc_max_channel; i++) // append slope first
{
kal_mem_cpy(pdu_ptr+(i*4), &(prReadCalibrationData.i4ADCSlope[i]), sizeof(kal_int32));
}
for(i =0; i<adc_max_channel; i++) // append offset second
{
kal_mem_cpy(pdu_ptr+((adc_max_channel+i)*4), &(prReadCalibrationData.i4ADCOffset[i]), sizeof(kal_int32));
}
}
}
break;
}
case FT_MISC_OP_GET_CALFLAG_ENUM:
{
misc_cnf.result.m_u2CalFlagEnum = custom_ft_get_calflag_enum();
misc_cnf.status = FT_CNF_OK;
}
break;
case FT_MISC_OP_GET_ADC_MAX_CHANNEL:
{
// HAL modification
misc_cnf.status = FT_CNF_OK;
misc_cnf.result.m_u1ADCMaxChannel = FT_GetAdcMaxChannel();
break;
}
case FT_MISC_OP_GET_TADC_INDEX:
{
// HAL modification
//misc_cnf.result.m_u1TADCChannelIndex = custom_adc_get_channel(rftmp_adc_channel);
DCL_HANDLE adc_handle;
ADC_CTRL_GET_PHYSICAL_CHANNEL_T adc_ch;
misc_cnf.status = FT_CNF_OK;
adc_handle = DclSADC_Open(DCL_ADC, FLAGS_NONE);
adc_ch.u2AdcName = DCL_RFTMP_ADC_CHANNEL;
if(DclSADC_Control( adc_handle, ADC_CMD_GET_CHANNEL, (DCL_CTRL_DATA_T *)& adc_ch) != STATUS_OK)
{
misc_cnf.status = FT_CNF_FAIL;
}
misc_cnf.result.m_u1TADCChannelIndex = adc_ch.u1AdcPhyCh;
if(DclSADC_Close(adc_handle) != STATUS_OK)
{
misc_cnf.status = FT_CNF_FAIL;
}
break;
}
case FT_MISC_OP_GET_RF_CAL_ENV_ENUM:
misc_cnf.result.m_u2Enum = custom_ft_get_rf_cal_env_enum();
misc_cnf.status = FT_CNF_OK;
break;
case FT_MISC_OP_GET_RF_CAL_LOSS_SETTING_ENUM:
misc_cnf.result.m_u2Enum = custom_ft_get_rf_loss_setting_enum();
misc_cnf.status = FT_CNF_OK;
break;
case FT_MISC_OP_GET_RF_TEST_POWER_RESULT_ENUM:
misc_cnf.result.m_u2Enum = custom_ft_get_rf_test_power_result_enum();
misc_cnf.status = FT_CNF_OK;
break;
case FT_MISC_OP_GET_RID:
{
if(KAL_TRUE == SST_Get_ChipRID((kal_char*)misc_cnf.result.m_rRIDData.buf, (p_req->cmd.m_RIDLength*8)))
{
misc_cnf.result.m_rRIDData.buf_len = p_req->cmd.m_RIDLength; // return RID length in bytes
}
else
{
misc_cnf.result.m_rRIDData.buf_len = 0; // return length = 0 for error check
}
misc_cnf.status = FT_CNF_OK;
break;
}
case FT_MISC_OP_GET_BARCODE_VALUE:
{
if(p_req->cmd.m_u1RecordIndex < 1 || p_req->cmd.m_u1RecordIndex > NVRAM_EF_BARCODE_NUM_TOTAL)
{
p_req->cmd.m_u1RecordIndex = 1;
}
if( NULL != (peer_buff_ret=construct_peer_buff(NVRAM_EF_BARCODE_NUM_SIZE, 0, 0, TD_CTRL)))
{
peer_buff_ret->pdu_len = NVRAM_EF_BARCODE_NUM_SIZE;
pdu_ptr = get_peer_buff_pdu( peer_buff_ret, &pdu_length );
if(KAL_TRUE == nvram_external_read_data(NVRAM_EF_BARCODE_NUM_LID, p_req->cmd.m_u1RecordIndex, (kal_uint8*)pdu_ptr, NVRAM_EF_BARCODE_NUM_SIZE))
{
misc_cnf.status = FT_CNF_OK;
}
}
break;
}
default:
return;
}
// send confirm to PC side
FT_MISC_SendCnf(&misc_cnf, peer_buff_ret);
}