int32_t pm8xxx_adc_scale_batt_therm(int32_t adc_code,
const struct pm8xxx_adc_properties *adc_properties,
const struct pm8xxx_adc_chan_properties *chan_properties,
struct pm8xxx_adc_chan_result *adc_chan_result)
{
int64_t bat_voltage = 0;
struct pm8xxx_adc_map_pt *adc_map = NULL;
uint32_t adc_map_array_size;
unsigned int phaseid = 0;
bat_voltage = pm8xxx_adc_scale_ratiometric_calib(adc_code,
adc_properties, chan_properties);
ext_bat_voltage = bat_voltage;
if (phaseid == 0)
phaseid = fih_get_product_phase();
if (phaseid <= PHASE_SP) {
adc_map = adcmap_btm_threshold;
adc_map_array_size = ARRAY_SIZE(adcmap_btm_threshold);
}
else {
adc_map = adcmap_btm_threshold_pre_ap;
adc_map_array_size = ARRAY_SIZE(adcmap_btm_threshold_pre_ap);
}
return pm8xxx_adc_map_batt_therm(
adc_map,
adc_map_array_size,
bat_voltage,
&adc_chan_result->physical);
}
int32_t pm8xxx_adc_scale_batt_therm(int32_t adc_code,
const struct pm8xxx_adc_properties *adc_properties,
const struct pm8xxx_adc_chan_properties *chan_properties,
struct pm8xxx_adc_chan_result *adc_chan_result)
{
int64_t bat_voltage = 0;
bat_voltage = pm8xxx_adc_scale_ratiometric_calib(adc_code,
adc_properties, chan_properties);
return pm8xxx_adc_map_batt_therm(
adcmap_btm_threshold,
ARRAY_SIZE(adcmap_btm_threshold),
bat_voltage,
&adc_chan_result->physical);
}
int32_t pm8xxx_adc_scale_sys_therm(int32_t adc_code,
const struct pm8xxx_adc_properties *adc_properties,
const struct pm8xxx_adc_chan_properties *chan_properties,
struct pm8xxx_adc_chan_result *adc_chan_result)
{
int64_t sys_voltage = 0;
sys_voltage = pm8xxx_adc_scale_ratiometric_calib(adc_code,
adc_properties, chan_properties);
ext_sys_voltage = sys_voltage;
//printk(KERN_ERR "temperature ADC sys = %lld\n", sys_voltage);
return pm8xxx_adc_map_batt_therm(
adcmap_sys_therm,
ARRAY_SIZE(adcmap_sys_therm),
sys_voltage,
&adc_chan_result->physical);
}
int32_t pm8xxx_adc_scale_batt_therm(int32_t adc_code,
const struct pm8xxx_adc_properties *adc_properties,
const struct pm8xxx_adc_chan_properties *chan_properties,
struct pm8xxx_adc_chan_result *adc_chan_result)
{
int64_t bat_voltage = 0;
struct pm8xxx_adc_map_pt *adc_map = NULL;
uint32_t adc_map_array_size;
unsigned int phaseid = 0;
bat_voltage = pm8xxx_adc_scale_ratiometric_calib(adc_code,
adc_properties, chan_properties);
ext_bat_voltage = bat_voltage;
if (ext_bat_voltage > 1700) {
pr_err("[chg %s %d]ERROR!! Battery removed %lld", __func__, __LINE__, ext_bat_voltage);
machine_power_off();
}
if (phaseid == 0)
phaseid = fih_get_product_phase();
if (phaseid <= PHASE_SP) {
adc_map = adcmap_btm_threshold;
adc_map_array_size = ARRAY_SIZE(adcmap_btm_threshold);
}
else {
adc_map = adcmap_btm_threshold_pre_ap;
adc_map_array_size = ARRAY_SIZE(adcmap_btm_threshold_pre_ap);
}
return pm8xxx_adc_map_batt_therm(
adc_map,
adc_map_array_size,
bat_voltage,
&adc_chan_result->physical);
}
int32_t pm8xxx_adc_scale_batt_therm(int32_t adc_code,
const struct pm8xxx_adc_properties *adc_properties,
const struct pm8xxx_adc_chan_properties *chan_properties,
struct pm8xxx_adc_chan_result *adc_chan_result)
{
int64_t bat_voltage = 0;
bat_voltage = pm8xxx_adc_scale_ratiometric_calib(adc_code,
adc_properties, chan_properties);
#if defined(ORG_VER)
#else
adc_chan_result->measurement = bat_voltage;
#endif
return pm8xxx_adc_map_batt_therm(
adcmap_btm_threshold,
ARRAY_SIZE(adcmap_btm_threshold),
bat_voltage,
&adc_chan_result->physical);
}