inline void nextStep()
{
advanceNextStep();
m_runtime.prevAnim = m_runtime.currAnim;
m_runtime.currAnim = currentStep()->info.animation;
m_runtime.duration = currentStep()->duration;
}
virtual void process()
{
switch (m_runtime.currAnim)
{
case LedAnimation_On:
if (m_runtime.prevAnim != LedAnimation_On)
{
m_runtime.pwm = m_runtime.pwm == 0 ? 255 : m_runtime.pwm;
analogWrite(m_pin, m_runtime.pwm);
m_runtime.prevAnim = LedAnimation_On;
}
break;
case LedAnimation_Off:
if (m_runtime.prevAnim != LedAnimation_Off)
{
analogWrite(m_pin, 0);
m_runtime.prevAnim = LedAnimation_Off;
}
break;
case LedAnimation_FadeIn:
if (m_runtime.prevAnim != LedAnimation_FadeIn)
{
m_runtime.prevAnim = LedAnimation_FadeIn;
}
switch (currentStep()->info.factor)
{
case LedAnimationFactor_Quarter: m_runtime.pwm += 0.25; break;
case LedAnimationFactor_Half: m_runtime.pwm += 0.5; break;
case LedAnimationFactor_Once: m_runtime.pwm += 1.0; break;
case LedAnimationFactor_Twice: m_runtime.pwm += 2.0; break;
}
analogWrite(m_pin, (int)m_runtime.pwm);
break;
case LedAnimation_FadeOut:
if (m_runtime.prevAnim != LedAnimation_FadeOut)
{
m_runtime.prevAnim = LedAnimation_FadeOut;
}
switch (currentStep()->info.factor)
{
case LedAnimationFactor_Quarter: m_runtime.pwm -= 0.25; break;
case LedAnimationFactor_Half: m_runtime.pwm -= 0.5; break;
case LedAnimationFactor_Once: m_runtime.pwm -= 1.0; break;
case LedAnimationFactor_Twice: m_runtime.pwm -= 2.0; break;
}
analogWrite(m_pin, (int)m_runtime.pwm);
break;
}
if (isNextStep())
{
nextStep();
#ifdef _LED_PROCESSOR_DEBUG
if (m_runtime.prevAnim != m_runtime.currAnim)
{
debug();
}
#endif
}
}
virtual void apply(const LedAnimationStep* steps, const byte stepsCount)
{
m_steps = steps;
m_stepsCount = stepsCount;
m_runtime.step = 0;
m_runtime.pwm = .0;
m_runtime.currAnim = currentStep()->info.animation;
m_runtime.duration = currentStep()->duration;
#ifdef _LED_PROCESSOR_DEBUG
debug();
#endif
}
bool WorkflowJSON_Impl::incrementStep()
{
unsigned index = currentStepIndex();
m_value["current_step"] = index + 1;
onUpdate();
return currentStep();
}
void ItemAnimation::setTransform(const QTransform &m)
{
mItem->setTransform(m);
switch (mFade) {
case FadeOut:
mItem->setOpacity(qMax<qreal>(1.0 - currentStep(), 0));
break;
case FadeIn:
mItem->setVisible(true);
mItem->setOpacity(currentStep());
break;
case None:
mItem->setOpacity(1.0);
break;
default:
break;
}
}
void advanceNextStep()
{
const byte initialStepIndex = m_runtime.step;
const LedAnimationStep * step = NULL;
do
{
m_runtime.step = (m_runtime.step + 1) % getStepsCount();
step = currentStep();
}
while ((!thisLedStep(step) || onceStep(step)) && m_runtime.step != initialStepIndex);
}
void debug() const
{
// [step_idx:led_name] prev to curr: pwm
Serial.print(F("["));
Serial.print(m_runtime.step);
Serial.print(F(","));
Serial.print(LedNameToString(currentStep()->info.name));
Serial.print(F("]: transit from '"));
Serial.print(LedAnimationToString(m_runtime.prevAnim));
Serial.print(F("' to '"));
Serial.print(LedAnimationToString(m_runtime.currAnim));
Serial.print(F("': duration="));
Serial.print(m_runtime.duration);
Serial.print(F(", pwm="));
Serial.println(m_runtime.pwm);
}
void EthereumMiner::setCurrentStep(Step step) {
_currentStep = step;
emit currentStep(_currentStep);
}
