void ProgramData::changedType()
{
battery.Vc_per_cell = getDefaultVoltagePerCell(VCharged);
battery.Vd_per_cell = getDefaultVoltagePerCell(VDischarged);
if(battery.type == NoneBatteryType) {
battery.capacity = ANALOG_CHARGE(2.000);
battery.cells = 3;
battery.time = ANALOG_MAX_TIME_LIMIT;
battery.enable_externT = false;
battery.externTCO = ANALOG_CELCIUS(60);
battery.enable_adaptiveDischarge = false;
battery.DCRestTime = 30;
battery.capCutoff = 120;
}
if(isNiXX()) {
battery.enable_deltaV = true;
if(battery.type == NiMH) {
battery.deltaV = -ANALOG_VOLT(0.005);
} else {
battery.deltaV = -ANALOG_VOLT(0.015);
}
battery.deltaVIgnoreTime = 3;
battery.deltaT = ANALOG_CELCIUS(1);
battery.DCcycles = 5;
} else {
battery.balancerError = ANALOG_VOLT(0.008);
battery.Vs_per_cell = getDefaultVoltagePerCell(VStorage);
}
changedCapacity();
}
uint16_t ProgramData::getMaxCells()
{
if(battery.type == Unknown || battery.type == LED)
return 1;
uint16_t v = getDefaultVoltagePerCell(VCharged);
return MAX_CHARGE_V / v;
}
uint16_t ProgramData::getDefaultVoltage(VoltageType type)
{
uint16_t cells = battery.cells;
uint16_t voltage = getDefaultVoltagePerCell(type);
if(type == VDischarged && battery.type == NiMH && cells > 6) {
//based on http://eu.industrial.panasonic.com/sites/default/pidseu/files/downloads/files/ni-mh-handbook-2014_interactive.pdf
//page 11: "Discharge end voltage"
cells--;
voltage = ANALOG_VOLT(1.200);
}
return cells * voltage;
}
uint16_t ProgramData::getVoltage(VoltageType type) {
uint16_t cells = battery.cells;
uint16_t voltage = getDefaultVoltagePerCell(type);
if (type == VCharged) {
voltage = battery.Vc_per_cell;
} else if (type == VDischarged) {
voltage = battery.Vd_per_cell;
} else if (type == VStorage) {
voltage = battery.Vs_per_cell;
}
//TODO:type == VDischarge && battery.type == NiMH && cells > 6
//see getDefaultVoltage
return cells * voltage;
}
