void reportLcdParameters(void)
{
print_P(PSTR("HMLB" CSV_DELIMITER));
SerialX.print(g_LcdBacklight, DEC);
Serial_csv();
SerialX.print(g_HomeDisplayMode, DEC);
for (unsigned char i=0; i<LED_COUNT; ++i)
{
Serial_csv();
SerialX.print(ledmanager.getAssignment(i), DEC);
}
Serial_nl();
}
static void reportFanParams(void)
{
print_P(PSTR("HMFN" CSV_DELIMITER));
SerialX.print(pid.getMinFanSpeed(), DEC);
Serial_csv();
SerialX.print(pid.getMaxFanSpeed(), DEC);
Serial_csv();
SerialX.print(pid.getMinServoPos(), DEC);
Serial_csv();
SerialX.print(pid.getMaxServoPos(), DEC);
Serial_csv();
SerialX.print(pid.getOutputFlags(), DEC);
Serial_nl();
}
static void reportProbeCoeff(unsigned char probeIdx)
{
print_P(PSTR("HMPC" CSV_DELIMITER));
SerialX.print(probeIdx, DEC);
Serial_csv();
TempProbe *p = pid.Probes[probeIdx];
for (unsigned char i=0; i<STEINHART_COUNT; ++i)
{
printSciFloat(p->Steinhart[i]);
Serial_csv();
}
SerialX.print(p->getProbeType(), DEC);
Serial_nl();
}
static void reportAlarmLimits(void)
{
#ifdef HEATERMETER_SERIAL
print_P(PSTR("HMAL"));
for (unsigned char i=0; i<TEMP_COUNT; ++i)
{
ProbeAlarm &a = pid.Probes[i]->Alarms;
Serial_csv();
SerialX.print(a.getLow(), DEC);
if (a.getLowRinging()) Serial_char('L');
Serial_csv();
SerialX.print(a.getHigh(), DEC);
if (a.getHighRinging()) Serial_char('H');
}
Serial_nl();
#endif
}
static void reportLidParameters(void)
{
print_P(PSTR("HMLD" CSV_DELIMITER));
SerialX.print(pid.LidOpenOffset, DEC);
Serial_csv();
SerialX.print(pid.getLidOpenDuration(), DEC);
Serial_nl();
}
static void reportProbeOffsets(void)
{
print_P(PSTR("HMPO"));
for (unsigned char i=0; i<TEMP_COUNT; ++i)
{
Serial_csv();
SerialX.print(pid.Probes[i]->Offset, DEC);
}
Serial_nl();
}
static void reportPidParams(void)
{
print_P(PSTR("HMPD"));
for (unsigned char i=0; i<4; ++i)
{
Serial_csv();
//printSciFloat(pid.Pid[i]);
SerialX.print(pid.Pid[i], 8);
}
Serial_nl();
}
static void reportProbeNames(void)
{
print_P(PSTR("HMPN"));
for (unsigned char i=0; i<TEMP_COUNT; ++i)
{
loadProbeName(i);
Serial_csv();
SerialX.print(editString);
}
Serial_nl();
}
static void reportRfMap(void)
{
print_P(PSTR("HMRM"));
for (unsigned char i=0; i<TEMP_COUNT; ++i)
{
Serial_csv();
if (pid.Probes[i]->getProbeType() == PROBETYPE_RF12)
SerialX.print(rfMap[i], DEC);
}
Serial_nl();
}
void GrillPid::status(void) const
{
SerialX.print(getSetPoint(), DEC);
Serial_csv();
for (unsigned char i=0; i<TEMP_COUNT; ++i)
{
if (Probes[i]->hasTemperature())
SerialX.print(Probes[i]->Temperature, 1);
else
Serial_char('U');
Serial_csv();
}
SerialX.print(getPidOutput(), DEC);
Serial_csv();
SerialX.print((int)PidOutputAvg, DEC);
Serial_csv();
SerialX.print(LidOpenResumeCountdown, DEC);
}
static void outputAdcStatus(void)
{
#if defined(HEATERMETER_SERIAL)
print_P(PSTR("HMAR"));
for (unsigned char i=0; i<NUM_ANALOG_INPUTS; ++i)
{
Serial_csv();
SerialX.print(analogReadRange(i), DEC);
}
Serial_nl();
#endif
}
void GrillPid::pidStatus(void) const
{
TempProbe const* const pit = Probes[TEMP_PIT];
if (pit->hasTemperature())
{
print_P(PSTR("HMPS"CSV_DELIMITER));
for (unsigned char i=PIDB; i<=PIDD; ++i)
{
SerialX.print(_pidCurrent[i], 2);
Serial_csv();
}
SerialX.print(pit->Temperature - pit->TemperatureAvg, 2);
Serial_nl();
}
}
static void reportFanParams(void)
{
print_P(PSTR("HMFN" CSV_DELIMITER));
SerialX.print(pid.getFanMinSpeed(), DEC);
Serial_csv();
SerialX.print(pid.getFanMaxSpeed(), DEC);
Serial_csv();
SerialX.print(pid.getServoMinPos(), DEC);
Serial_csv();
SerialX.print(pid.getServoMaxPos(), DEC);
Serial_csv();
SerialX.print(pid.getOutputFlags(), DEC);
Serial_csv();
SerialX.print(pid.getFanMaxStartupSpeed(), DEC);
Serial_csv();
SerialX.print(pid.getFanActiveFloor(), DEC);
Serial_csv();
SerialX.print(pid.getServoActiveCeil(), DEC);
Serial_nl();
}
