battery: pass voltage and current by setter

This commit is contained in:
Matthias Grob
2021-12-01 18:16:59 +01:00
parent 39641494da
commit e70d70468a
10 changed files with 71 additions and 75 deletions
@@ -405,7 +405,8 @@ Syslink::handle_message(syslink_message_t *msg)
//memcpy(&iset, &msg->data[5], sizeof(float)); //memcpy(&iset, &msg->data[5], sizeof(float));
_battery.setConnected(true); _battery.setConnected(true);
_battery.updateBatteryStatus(t, vbat, -1); _battery.updateVoltage(vbat);
_battery.updateBatteryStatus(t);
// Update battery charge state // Update battery charge state
if (charging) { if (charging) {
+9 -15
View File
@@ -84,11 +84,9 @@ INA226::INA226(const I2CSPIDriverConfig &config, int battery_index) :
// We need to publish immediately, to guarantee that the first instance of the driver publishes to uORB instance 0 // We need to publish immediately, to guarantee that the first instance of the driver publishes to uORB instance 0
_battery.setConnected(false); _battery.setConnected(false);
_battery.updateBatteryStatus( _battery.updateVoltage(0.f);
hrt_absolute_time(), _battery.updateCurrent(0.f);
0.0, _battery.updateBatteryStatus(hrt_absolute_time());
0.0
);
} }
INA226::~INA226() INA226::~INA226()
@@ -229,11 +227,9 @@ INA226::collect()
} }
_battery.setConnected(success); _battery.setConnected(success);
_battery.updateBatteryStatus( _battery.updateVoltage(static_cast<float>(_bus_voltage * INA226_VSCALE));
hrt_absolute_time(), _battery.updateCurrent(static_cast<float>(_current * _current_lsb));
(float) _bus_voltage * INA226_VSCALE, _battery.updateBatteryStatus(hrt_absolute_time());
(float) _current * _current_lsb
);
perf_end(_sample_perf); perf_end(_sample_perf);
@@ -297,11 +293,9 @@ INA226::RunImpl()
} else { } else {
_battery.setConnected(false); _battery.setConnected(false);
_battery.updateBatteryStatus( _battery.updateVoltage(0.f);
hrt_absolute_time(), _battery.updateCurrent(0.f);
0.0f, _battery.updateBatteryStatus(hrt_absolute_time());
0.0f
);
if (init() != PX4_OK) { if (init() != PX4_OK) {
ScheduleDelayed(INA226_INIT_RETRY_INTERVAL_US); ScheduleDelayed(INA226_INIT_RETRY_INTERVAL_US);
+9 -15
View File
@@ -86,11 +86,9 @@ INA228::INA228(const I2CSPIDriverConfig &config, int battery_index) :
// We need to publish immediately, to guarantee that the first instance of the driver publishes to uORB instance 0 // We need to publish immediately, to guarantee that the first instance of the driver publishes to uORB instance 0
_battery.setConnected(false); _battery.setConnected(false);
_battery.updateBatteryStatus( _battery.updateVoltage(0.f);
hrt_absolute_time(), _battery.updateCurrent(0.f);
0.0, _battery.updateBatteryStatus(hrt_absolute_time());
0.0
);
} }
INA228::~INA228() INA228::~INA228()
@@ -310,11 +308,9 @@ INA228::collect()
} }
_battery.setConnected(success); _battery.setConnected(success);
_battery.updateBatteryStatus( _battery.updateVoltage(static_cast<float>(_bus_voltage * INA228_VSCALE));
hrt_absolute_time(), _battery.updateCurrent(static_cast<float>(_current * _current_lsb));
(float) _bus_voltage * INA228_VSCALE, _battery.updateBatteryStatus(hrt_absolute_time());
(float) _current * _current_lsb
);
perf_end(_sample_perf); perf_end(_sample_perf);
@@ -378,11 +374,9 @@ INA228::RunImpl()
} else { } else {
_battery.setConnected(false); _battery.setConnected(false);
_battery.updateBatteryStatus( _battery.updateVoltage(0.f);
hrt_absolute_time(), _battery.updateCurrent(0.f);
0.0f, _battery.updateBatteryStatus(hrt_absolute_time());
0.0f
);
if (init() != PX4_OK) { if (init() != PX4_OK) {
ScheduleDelayed(INA228_INIT_RETRY_INTERVAL_US); ScheduleDelayed(INA228_INIT_RETRY_INTERVAL_US);
+9 -15
View File
@@ -69,11 +69,9 @@ INA238::INA238(const I2CSPIDriverConfig &config, int battery_index) :
// We need to publish immediately, to guarantee that the first instance of the driver publishes to uORB instance 0 // We need to publish immediately, to guarantee that the first instance of the driver publishes to uORB instance 0
_battery.setConnected(false); _battery.setConnected(false);
_battery.updateBatteryStatus( _battery.updateVoltage(0.f);
hrt_absolute_time(), _battery.updateCurrent(0.f);
0.0, _battery.updateBatteryStatus(hrt_absolute_time());
0.0
);
} }
INA238::~INA238() INA238::~INA238()
@@ -197,11 +195,9 @@ int INA238::collect()
} }
_battery.setConnected(success); _battery.setConnected(success);
_battery.updateBatteryStatus( _battery.updateVoltage(static_cast<float>(bus_voltage * INA238_VSCALE));
hrt_absolute_time(), _battery.updateCurrent(static_cast<float>(current * _current_lsb));
(float) bus_voltage * INA238_VSCALE, _battery.updateBatteryStatus(hrt_absolute_time());
(float) current * _current_lsb
);
perf_end(_sample_perf); perf_end(_sample_perf);
@@ -256,11 +252,9 @@ void INA238::RunImpl()
} else { } else {
_battery.setConnected(false); _battery.setConnected(false);
_battery.updateBatteryStatus( _battery.updateVoltage(0.f);
hrt_absolute_time(), _battery.updateCurrent(0.f);
0.0f, _battery.updateBatteryStatus(hrt_absolute_time());
0.0f
);
if (init() != PX4_OK) { if (init() != PX4_OK) {
ScheduleDelayed(INA238_INIT_RETRY_INTERVAL_US); ScheduleDelayed(INA238_INIT_RETRY_INTERVAL_US);
+9 -11
View File
@@ -72,11 +72,9 @@ VOXLPM::init()
if (_ch_type == VOXLPM_CH_TYPE_VBATT) { if (_ch_type == VOXLPM_CH_TYPE_VBATT) {
_battery.setConnected(false); _battery.setConnected(false);
_battery.updateBatteryStatus( _battery.updateVoltage(0.f);
hrt_absolute_time(), _battery.updateCurrent(0.f);
0.0, _battery.updateBatteryStatus(hrt_absolute_time());
0.0
);
} }
/* do I2C init, it will probe the bus for two possible configurations, LTC2946 or INA231 */ /* do I2C init, it will probe the bus for two possible configurations, LTC2946 or INA231 */
@@ -345,9 +343,9 @@ VOXLPM::measure()
case VOXLPM_CH_TYPE_VBATT: { case VOXLPM_CH_TYPE_VBATT: {
_battery.setConnected(true); _battery.setConnected(true);
_battery.updateBatteryStatus(tnow, _battery.updateVoltage(_voltage);
_voltage, _battery.updateCurrent(_amperage);
_amperage); _battery.updateBatteryStatus(tnow);
} }
// fallthrough // fallthrough
@@ -371,9 +369,9 @@ VOXLPM::measure()
switch (_ch_type) { switch (_ch_type) {
case VOXLPM_CH_TYPE_VBATT: { case VOXLPM_CH_TYPE_VBATT: {
_battery.setConnected(true); _battery.setConnected(true);
_battery.updateBatteryStatus(tnow, _battery.updateVoltage(0.f);
0.0, _battery.updateCurrent(0.f);
0.0); _battery.updateBatteryStatus(tnow);
} }
break; break;
+19 -9
View File
@@ -97,16 +97,26 @@ Battery::Battery(int index, ModuleParams *parent, const int sample_interval_us,
updateParams(); updateParams();
} }
void Battery::updateBatteryStatus(const hrt_abstime &timestamp, float voltage_v, float current_a) void Battery::updateVoltage(const float voltage_v)
{
_voltage_v = voltage_v;
_voltage_filter_v.update(voltage_v);
}
void Battery::updateCurrent(const float current_a)
{
_current_a = current_a;
_current_filter_a.update(current_a);
}
void Battery::updateBatteryStatus(const hrt_abstime &timestamp)
{ {
if (!_battery_initialized) { if (!_battery_initialized) {
_voltage_filter_v.reset(voltage_v); _voltage_filter_v.reset(_voltage_v);
_current_filter_a.reset(current_a); _current_filter_a.reset(_current_a);
} }
_voltage_filter_v.update(voltage_v); sumDischarged(timestamp, _current_a);
_current_filter_a.update(current_a);
sumDischarged(timestamp, current_a);
estimateStateOfCharge(_voltage_filter_v.getState(), _current_filter_a.getState()); estimateStateOfCharge(_voltage_filter_v.getState(), _current_filter_a.getState());
computeScale(); computeScale();
@@ -122,15 +132,15 @@ void Battery::updateBatteryStatus(const hrt_abstime &timestamp, float voltage_v,
} }
battery_status_s battery_status{}; battery_status_s battery_status{};
battery_status.voltage_v = voltage_v; battery_status.voltage_v = _voltage_v;
battery_status.voltage_filtered_v = _voltage_filter_v.getState(); battery_status.voltage_filtered_v = _voltage_filter_v.getState();
battery_status.current_a = current_a; battery_status.current_a = _current_a;
battery_status.current_filtered_a = _current_filter_a.getState(); battery_status.current_filtered_a = _current_filter_a.getState();
battery_status.current_average_a = _current_average_filter_a.getState(); battery_status.current_average_a = _current_average_filter_a.getState();
battery_status.discharged_mah = _discharged_mah; battery_status.discharged_mah = _discharged_mah;
battery_status.remaining = _state_of_charge; battery_status.remaining = _state_of_charge;
battery_status.scale = _scale; battery_status.scale = _scale;
battery_status.time_remaining_s = computeRemainingTime(current_a); battery_status.time_remaining_s = computeRemainingTime(_current_a);
battery_status.temperature = NAN; battery_status.temperature = NAN;
battery_status.cell_count = _params.n_cells; battery_status.cell_count = _params.n_cells;
battery_status.connected = _connected; battery_status.connected = _connected;
+5 -3
View File
@@ -87,15 +87,15 @@ public:
void setPriority(const uint8_t priority) { _priority = priority; } void setPriority(const uint8_t priority) { _priority = priority; }
void setConnected(const bool connected) { _connected = connected; } void setConnected(const bool connected) { _connected = connected; }
void updateVoltage(const float voltage_v);
void updateCurrent(const float current_a);
/** /**
* Update current battery status message. * Update current battery status message.
* *
* @param voltage_raw: Battery voltage, in Volts
* @param current_raw: Battery current, in Amps
* @param timestamp: Time at which the ADC was read (use hrt_absolute_time()) * @param timestamp: Time at which the ADC was read (use hrt_absolute_time())
*/ */
void updateBatteryStatus(const hrt_abstime &timestamp, float voltage_v, float current_a); void updateBatteryStatus(const hrt_abstime &timestamp);
protected: protected:
struct { struct {
@@ -143,7 +143,9 @@ private:
const uint8_t _source{}; const uint8_t _source{};
uint8_t _priority{0}; uint8_t _priority{0};
bool _battery_initialized{false}; bool _battery_initialized{false};
float _voltage_v{0.f};
AlphaFilter<float> _voltage_filter_v; AlphaFilter<float> _voltage_filter_v;
float _current_a{-1};
AlphaFilter<float> _current_filter_a; AlphaFilter<float> _current_filter_a;
AlphaFilter<float> _current_average_filter_a; AlphaFilter<float> _current_average_filter_a;
AlphaFilter<float> _throttle_filter; AlphaFilter<float> _throttle_filter;
@@ -81,7 +81,9 @@ AnalogBattery::updateBatteryStatusADC(hrt_abstime timestamp, float voltage_raw,
(BOARD_ADC_OPEN_CIRCUIT_V <= BOARD_VALID_UV || is_valid()); (BOARD_ADC_OPEN_CIRCUIT_V <= BOARD_VALID_UV || is_valid());
Battery::setConnected(connected); Battery::setConnected(connected);
Battery::updateBatteryStatus(timestamp, voltage_v, current_a); Battery::updateVoltage(voltage_v);
Battery::updateCurrent(current_a);
Battery::updateBatteryStatus(timestamp);
} }
bool AnalogBattery::is_valid() bool AnalogBattery::is_valid()
+3 -4
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@@ -100,10 +100,9 @@ EscBattery::Run()
average_voltage_v /= esc_status.esc_count; average_voltage_v /= esc_status.esc_count;
_battery.setConnected(true); _battery.setConnected(true);
_battery.updateBatteryStatus( _battery.updateVoltage(average_voltage_v);
esc_status.timestamp, _battery.updateCurrent(total_current_a);
average_voltage_v, _battery.updateBatteryStatus(esc_status.timestamp);
total_current_a);
} }
} }
@@ -100,7 +100,9 @@ void BatterySimulator::Run()
vbatt *= _battery.cell_count(); vbatt *= _battery.cell_count();
_battery.setConnected(true); _battery.setConnected(true);
_battery.updateBatteryStatus(now_us, vbatt, ibatt); _battery.updateVoltage(vbatt);
_battery.updateCurrent(ibatt);
_battery.updateBatteryStatus(now_us);
perf_end(_loop_perf); perf_end(_loop_perf);
} }