void AnalogIODevice::applyChannelValues(SimpleCB aDoneCB, bool aForDimming)
{
MLMicroSeconds transitionTime = 0;
// abort previous transition
MainLoop::currentMainLoop().cancelExecutionTicket(timerTicket);
// generic device, show changed channels
if (analogIOType==analogio_dimmer) {
// single channel PWM dimmer
LightBehaviourPtr l = boost::dynamic_pointer_cast<LightBehaviour>(output);
if (l && l->brightnessNeedsApplying()) {
transitionTime = l->transitionTimeToNewBrightness();
l->brightnessTransitionStep(); // init
applyChannelValueSteps(aForDimming, transitionTime==0 ? 1 : (double)TRANSITION_STEP_TIME/transitionTime);
}
// consider applied
l->brightnessApplied();
}
else if (analogIOType==analogio_rgbdimmer) {
// three channel RGB PWM dimmer
RGBColorLightBehaviourPtr cl = boost::dynamic_pointer_cast<RGBColorLightBehaviour>(output);
if (cl) {
if (needsToApplyChannels()) {
// needs update
// - derive (possibly new) color mode from changed channels
cl->deriveColorMode();
// - calculate and start transition
// TODO: depending to what channel has changed, take transition time from that channel. For now always using brightness transition time
transitionTime = cl->transitionTimeToNewBrightness();
cl->brightnessTransitionStep(); // init
cl->colorTransitionStep(); // init
applyChannelValueSteps(aForDimming, transitionTime==0 ? 1 : (double)TRANSITION_STEP_TIME/transitionTime);
} // if needs update
// consider applied
cl->appliedColorValues();
}
}
else {
// direct single channel PWM output, no smooth transitions
ChannelBehaviourPtr ch = getChannelByIndex(0);
if (ch && ch->needsApplying()) {
double chVal = ch->getTransitionalValue()-ch->getMin();
double chSpan = ch->getMax()-ch->getMin();
analogIO->setValue(chVal/chSpan*100); // 0..100%
ch->channelValueApplied(); // confirm having applied the value
}
}
// always consider apply done, even if transition is still running
inherited::applyChannelValues(aDoneCB, aForDimming);
}
void DigitalIODevice::applyChannelValues(SimpleCB aDoneCB, bool aForDimming)
{
LightBehaviourPtr lightBehaviour = boost::dynamic_pointer_cast<LightBehaviour>(output);
if (lightBehaviour) {
// light
if (lightBehaviour->brightnessNeedsApplying()) {
indicatorOutput->set(lightBehaviour->brightnessForHardware());
lightBehaviour->brightnessApplied(); // confirm having applied the value
}
}
else if (output) {
// simple switch output, activates at 50% of possible output range
ChannelBehaviourPtr ch = output->getChannelByIndex(0);
if (ch->needsApplying()) {
indicatorOutput->set(ch->getChannelValue() >= (ch->getMax()-ch->getMin())/2);
ch->channelValueApplied();
}
}
inherited::applyChannelValues(aDoneCB, aForDimming);
}
void OlaDevice::applyChannelValues(SimpleCB aDoneCB, bool aForDimming)
{
MLMicroSeconds transitionTime = 0;
// abort previous transition
MainLoop::currentMainLoop().cancelExecutionTicket(transitionTicket);
// generic device, show changed channels
if (olaType==ola_dimmer) {
// single channel dimmer
LightBehaviourPtr l = boost::dynamic_pointer_cast<LightBehaviour>(output);
if (l && l->brightnessNeedsApplying()) {
transitionTime = l->transitionTimeToNewBrightness();
l->brightnessTransitionStep(); // init
applyChannelValueSteps(aForDimming, transitionTime==0 ? 1 : (double)TRANSITION_STEP_TIME/transitionTime);
}
// consider applied
l->brightnessApplied();
}
else if (olaType==ola_fullcolordimmer) {
// RGB, RGBW or RGBWA dimmer
RGBColorLightBehaviourPtr cl = boost::dynamic_pointer_cast<RGBColorLightBehaviour>(output);
if (cl) {
MovingLightBehaviourPtr ml = boost::dynamic_pointer_cast<MovingLightBehaviour>(output);
if (needsToApplyChannels()) {
// needs update
// - derive (possibly new) color mode from changed channels
cl->deriveColorMode();
// - calculate and start transition
// TODO: depending to what channel has changed, take transition time from that channel. For now always using brightness transition time
transitionTime = cl->transitionTimeToNewBrightness();
cl->brightnessTransitionStep(); // init
cl->colorTransitionStep(); // init
if (ml) ml->positionTransitionStep(); // init
applyChannelValueSteps(aForDimming, transitionTime==0 ? 1 : (double)TRANSITION_STEP_TIME/transitionTime);
}
// consider applied
if (ml) ml->appliedPosition();
cl->appliedColorValues();
}
}
inherited::applyChannelValues(aDoneCB, aForDimming);
}
void DemoDevice::applyChannelValues(SimpleCB aDoneCB, bool aForDimming)
{
// light device
LightBehaviourPtr lightBehaviour = boost::dynamic_pointer_cast<LightBehaviour>(output);
if (lightBehaviour && lightBehaviour->brightnessNeedsApplying()) {
// This would be the place to implement sending the output value to the hardware
// For the demo device, we show the output as a bar of 0..64 '#' chars
// - read the brightness value from the behaviour
int hwValue = lightBehaviour->brightnessForHardware();
// - display as a bar of hash chars
string bar;
while (hwValue>0) {
// one hash character per 2 output value steps (0..100 = 0..50 hashes)
bar += '#';
hwValue -= 2;
}
printf("Demo Device Output: %s\n", bar.c_str());
lightBehaviour->brightnessApplied(); // confirm having applied the value
}
inherited::applyChannelValues(aDoneCB, aForDimming);
}
