void Timer::startTimer()
{
if (m_delayMillis > 0)
{
m_currentTimeMillis = UptimeInfo::tMillis();
startInterval();
}
}
void Timer::startTimer(unsigned long timeMillis)
{
m_delayMillis = timeMillis;
if (m_delayMillis > 0)
{
m_currentTimeMillis = UptimeInfo::tMillis();
startInterval();
}
else
{
cancelTimer();
}
}
void Timer::internalTick()
{
m_currentTimeMillis = UptimeInfo::tMillis();
// check if interval is over, as long as (m_delayMillis > 0)
if ((m_delayMillis > 0) && (m_triggerTimeMillis < m_currentTimeMillis) && (m_currentTimeMillis < m_triggerTimeMillisUpperLimit))
{
if (m_isRecurring)
{
startInterval();
}
else
{
m_delayMillis = 0;
}
m_isExpiredFlag = true;
if (0 != m_adapter)
{
m_adapter->timeExpired();
}
}
}
void KisScanlineFill::runImpl(T &pixelPolicy)
{
KIS_ASSERT_RECOVER_RETURN(m_d->forwardStack.isEmpty());
KisFillInterval startInterval(m_d->startPoint.x(), m_d->startPoint.x(), m_d->startPoint.y());
m_d->forwardStack.push(startInterval);
/**
* In the end of the first pass we should add an interval
* containing the starting pixel, but directed into the opposite
* direction. We cannot do it in the very beginning because the
* intervals are offset by 1 pixel during every swap operation.
*/
bool firstPass = true;
while (!m_d->forwardStack.isEmpty()) {
while (!m_d->forwardStack.isEmpty()) {
KisFillInterval interval = m_d->forwardStack.pop();
if (interval.row > m_d->boundingRect.bottom() ||
interval.row < m_d->boundingRect.top()) {
continue;
}
processLine(interval, m_d->rowIncrement, pixelPolicy);
}
m_d->swapDirection();
if (firstPass) {
startInterval.row--;
m_d->forwardStack.push(startInterval);
firstPass = false;
}
}
}
