uint8_t SettingsMenu::printItem(uint8_t index)
{
StaticMenu::printItem(index);
if(getBlinkIndex() != index) {
START_CASE_COUNTER;
switch (index) {
#ifdef ENABLE_LCD_BACKLIGHT
case NEXT_CASE: lcdPrintUnsigned(p_.backlight_, 3); break;
#endif
#ifdef ENABLE_FAN
case NEXT_CASE: printTemp(p_.fanTempOn_); break;
#endif
#ifdef ENABLE_T_INTERNAL
case NEXT_CASE: printTemp(p_.dischargeTempOff_); break;
#endif
case NEXT_CASE: lcdPrintYesNo(p_.externT_); break;
case NEXT_CASE: printTemp(p_.externTCO_); break;
case NEXT_CASE: printDeltaT(p_.deltaT_); break;
case NEXT_CASE: lcdPrint_mV(p_.deltaV_NiMH_, 5); break;
case NEXT_CASE: lcdPrint_mV(p_.deltaV_NiCd_, 5); break;
case NEXT_CASE: lcdPrintUnsigned(p_.CDcycles_, 3); break;
case NEXT_CASE: lcdPrintPercentage(p_.capCutoff_, 5); break;
case NEXT_CASE: printVolt(p_.inputVoltageLow_); break;
case NEXT_CASE: lcdPrint_mV(p_.dischargeOffset_LiXX_,6);break;
case NEXT_CASE: lcdPrint_mV(p_.balancerError_, 5); break;
case NEXT_CASE: printUART(); break;
case NEXT_CASE: printUARTSpeed(); break;
}
}
}
void lcdPrint_mV(AnalogInputs::ValueType p, int8_t dig)
{
if(dig > 2) {
lcdPrintUnsigned(p,dig-2);
lcdPrint_P(PSTR("mV"));
}
}
void lcdPrintPercentage(AnalogInputs::ValueType p, int8_t dig)
{
if(dig > 0) {
lcdPrintUnsigned(p,--dig);
lcdPrintChar('%');
}
}
void SettingsMenu::printDeltaT(AnalogInputs::ValueType dt)
{
lcdPrintUnsigned(dt/100, 3);
lcdPrintChar('.');
lcdPrintDigit((dt%100)/10);
lcdPrint_P(PSTR("C/m"));
}
void Screen::displayCalibrationErrorScreen(uint8_t errNo)
{
lcdClear();
lcdSetCursor0_0();
lcdPrint_P(PSTR("Cal.err. F:"));
lcdPrintUnsigned(errNo, 2);
Time::delay(8000);
}
void SettingsMenu::printUARTSpeed() const
{
//TODO: add printULong
uint32_t s = p_.getUARTspeed();
s/=100;
lcdPrintUnsigned(s,5);
lcdPrintChar('0');
lcdPrintChar('0');
}
virtual void printItem(uint8_t index) {
//TODO: hack, should be improved ... Gyuri: R138 burned.
if(!AnalogInputs::isConnected(AnalogInputs::Vout)) {
Screen::displayStrings(string_connect, string_battery);
if(cName1_ == AnalogInputs::IdischargeSet) {
Discharger::powerOff();
}
} else {
StaticMenu::printItem(index);
if(getBlinkIndex() != index) {
if(index == 0) {
lcdPrintUnsigned(value_, 9);
} else {
lcdPrintCurrent(AnalogInputs::getIout(), 7);
lcdPrintUnsigned(AnalogInputs::getAvrADCValue(cName2_), 6);
}
}
}
}
virtual uint8_t printItem(uint8_t index) {
StaticMenu::printItem(index);
if(getBlinkIndex() != index) {
if(index == 0) {
AnalogInputs::printRealValue(tName_, 7);
} else {
lcdPrintUnsigned(AnalogInputs::getAvrADCValue(tName_), 7);
}
}
}
void Screen::displayDebugDelta()
{
lcdSetCursor0_0();
lcdPrint_P(PSTR("C="));
lcdPrintUnsigned(analogInputs.getRealValue(AnalogInputs::deltaLastCount),5);
lcdPrint_P(PSTR(" L="));
int x = analogInputs.deltaLastT_;
lcdPrintSigned(x, 6);
lcdPrintSpaces();
lcdSetCursor0_1();
lcdPrint_P(PSTR("N="));
lcdPrintUnsigned(analogInputs.deltaCount_,5);
lcdPrint_P(PSTR(" L="));
x = ProgramData::currentProgramData.getDeltaVLimit();
lcdPrintSigned(x, 6);
lcdPrintSpaces();
}
virtual uint8_t printItem(uint8_t index) {
StaticMenu::printItem(index);
if(getBlinkIndex() != index) {
if(index == 0) {
lcdPrintUnsigned(value_, 5);
} else {
lcdPrintCurrent(AnalogInputs::getIout(), 7);
}
}
}
void Screen::displayScreenReversedPolarity()
{
lcdSetCursor0_0();
lcdPrint_P(PSTR("REVERSE POLARITY"));
if(settings.isDebug()) {
lcdSetCursor0_1();
lcdPrint_P(PSTR("Vrev:"));
lcdPrintUnsigned(analogInputs.getRealValue(AnalogInputs::VreversePolarity), 8);
}
}
void Screen::Cycle::displayCycles()
{
uint8_t c, time = Blink::blinkTime_/8;
uint8_t all_scr = ProgramDCcycle::currentCycle/2 + 1;
c = time % all_scr;
lcdSetCursor0_0();
lcdPrintUnsigned(c+1, 1);
lcdPrintChar(SCREEN_EMPTY_CELL_CHAR);
lcdPrintTime(cyclesHistoryTime[c*2], 6);
lcdPrintSpace1();
lcdPrintChar(SCREEN_FULL_CELL_CHAR);
lcdPrintTime(cyclesHistoryTime[c*2+1], 6);
lcdPrintSpaces();
lcdSetCursor0_1();
lcdPrintCharge(cyclesHistoryCapacity[c*2],8);
lcdPrintCharge(cyclesHistoryCapacity[c*2+1],8);
lcdPrintSpaces();
}
void Screen::displayStartInfo()
{
lcdSetCursor0_0();
ProgramData::currentProgramData.printBatteryString(4);
lcdPrintChar(' ');
ProgramData::currentProgramData.printVoltageString();
lcdPrintChar(' ');
printProgram2chars(Program::programType_);
lcdSetCursor0_1();
uint16_t procent = getChargeProcent();
if(procent == 100) {
if(getBlinkOff())
lcdPrintSpaces(4);
else
lcdPrint_P(PSTR("FUL "));
} else {
lcdPrintUnsigned(procent, 2);
lcdPrint_P(PSTR("% "));
}
int bindex = getBlinkIndex();
if(bindex & 1) analogInputs.printRealValue(AnalogInputs::Vout, 5);
else lcdPrintSpaces(5);
lcdPrintChar(' ');
if(ProgramData::currentProgramData.isLiXX()) {
//display balance port
if(bindex & 2) analogInputs.printRealValue(AnalogInputs::Vbalancer, 5);
else lcdPrintSpaces(5);
if(bindex & 4) lcdPrintDigit(analogInputs.getConnectedBalancePorts());
else lcdPrintChar(' ');
} else {
lcdPrintCharge(ProgramData::currentProgramData.battery.C, 6);
lcdPrintSpaces();
}
}
void lcdPrintTime(uint16_t timeSec)
{
lcdPrintUnsigned(timeSec/60, 3, '0');
lcdPrintChar(':');
lcdPrintUnsigned(timeSec%60, 2, '0');
}
void Screen::runCalibrationError(const char *s, uint8_t error) {
displayStrings(PSTR("calib. error"), s);
lcdPrintUnsigned(error, 3);
waitButtonPressed();
}
void SettingsMenu::printTemp(AnalogInputs::ValueType t) {
lcdPrintUnsigned(t/100, 3);
lcdPrintChar('C');
}
void lcdPrintUnsigned(uint16_t x, int8_t dig)
{
lcdPrintUnsigned(x,dig, ' ');
}
void SettingsMenu::printVolt(AnalogInputs::ValueType v) {
lcdPrintUnsigned(v/1000, 3);
lcdPrintChar('V');
}
