void OscilloscopeChannel::setDeltaTimeStamp(t_TimeStamp newDelta)
{
if ( newDelta!=0 && newDelta!=DeltaTimeStamp )
{
resetSamples();
DeltaTimeStamp = newDelta ;
}
}
void OscilloscopeChannel::reset()
{
resetSamples();
LatestValidTimeStamp = 0 ;
SamplesLocked = false ;
}
TempStatus* TempMonitor::status() {
if(temp_samples.samples < 1)
return &temp_status;
temp_status = (TempStatus){
(temp_samples.ambient) / (temp_samples.samples),
(temp_samples.boiler) / (temp_samples.samples / 2),
(temp_samples.brewgroup) / (temp_samples.samples / 2)
};
resetSamples();
return &temp_status;
}
void Analog::update()
{
if (!board.analogDataAvailable())
return;
addAnalogSamples();
if (!analogValuesSampled())
return;
uint16_t analogData;
//check values
for (int i=0; i<MAX_NUMBER_OF_ANALOG; i++)
{
//don't process component if it's not enabled
if (!database.read(CONF_BLOCK_ANALOG, analogEnabledSection, i))
continue;
if (database.read(CONF_BLOCK_ANALOG, analogTypeSection, i) != aType_button)
{
analogData = getAverageValue(i);
analogType_t type = (analogType_t)database.read(CONF_BLOCK_ANALOG, analogTypeSection, i);
switch(type)
{
case aType_potentiometer:
checkPotentiometerValue(i, analogData);
break;
case aType_fsr:
checkFSRvalue(i, analogData);
break;
default:
break;
}
}
else
{
analogData = board.getAnalogValue(i);
bool state = analogData > DIGITAL_VALUE_THRESHOLD;
buttons.processButton(i+MAX_NUMBER_OF_BUTTONS, state, false);
}
}
resetSamples();
}
