void EFXFixture::start(MasterTimer* timer, QList<Universe *> universes)
{
Q_UNUSED(universes);
Q_UNUSED(timer);
if (fadeIntensity() > 0 && m_started == false)
{
Fixture* fxi = doc()->fixture(head().fxi);
Q_ASSERT(fxi != NULL);
if (fxi->masterIntensityChannel(head().head) != QLCChannel::invalid())
{
FadeChannel fc;
fc.setFixture(doc(), head().fxi);
fc.setChannel(fxi->masterIntensityChannel(head().head));
if (m_parent->overrideFadeInSpeed() != Function::defaultSpeed())
fc.setFadeTime(m_parent->overrideFadeInSpeed());
else
fc.setFadeTime(m_parent->fadeInSpeed());
fc.setStart(0);
fc.setCurrent(fc.start());
// Don't use intensity() multiplier because EFX's GenericFader takes care of that
fc.setTarget(fadeIntensity());
// Fade channel up with EFX's own GenericFader to allow manual intensity control
m_parent->m_fader->add(fc);
}
}
m_started = true;
}
void EFXFixture::stop(MasterTimer* timer, QList<Universe *> universes)
{
Q_UNUSED(universes);
if (fadeIntensity() > 0 && m_started == true)
{
Fixture* fxi = doc()->fixture(head().fxi);
Q_ASSERT(fxi != NULL);
if (fxi->masterIntensityChannel(head().head) != QLCChannel::invalid())
{
FadeChannel fc;
fc.setFixture(doc(), head().fxi);
fc.setChannel(fxi->masterIntensityChannel(head().head));
if (m_parent->overrideFadeOutSpeed() != Function::defaultSpeed())
fc.setFadeTime(m_parent->overrideFadeOutSpeed());
else
fc.setFadeTime(m_parent->fadeOutSpeed());
fc.setStart(uchar(floor((float(fadeIntensity()) * intensity()) + 0.5)));
fc.setCurrent(fc.start());
fc.setTarget(0);
// Give zero-fading to MasterTimer because EFX will stop after this call
timer->faderAdd(fc);
// Remove the previously up-faded channel from EFX's internal fader to allow
// MasterTimer's fader take HTP precedence.
m_parent->m_fader->remove(fc);
}
}
m_started = false;
}
void RGBMatrix::insertStartValues(FadeChannel& fc) const
{
Q_ASSERT(m_fader != NULL);
// To create a nice and smooth fade, get the starting value from
// m_fader's existing FadeChannel (if any). Otherwise just assume
// we're starting from zero.
if (m_fader->channels().contains(fc) == true)
{
FadeChannel old = m_fader->channels()[fc];
fc.setCurrent(old.current());
fc.setStart(old.current());
}
else
{
fc.setCurrent(0);
fc.setStart(0);
}
// The channel is not ready yet
fc.setReady(false);
// Fade in speed is used for all non-zero targets
if (fc.target() == 0)
fc.setFadeTime(fadeOutSpeed());
else
fc.setFadeTime(fadeInSpeed());
}
void RGBMatrix::insertStartValues(FadeChannel& fc, uint fadeTime) const
{
Q_ASSERT(m_fader != NULL);
// To create a nice and smooth fade, get the starting value from
// m_fader's existing FadeChannel (if any). Otherwise just assume
// we're starting from zero.
QHash <FadeChannel,FadeChannel>::const_iterator oldChannelIterator = m_fader->channels().find(fc);
if (oldChannelIterator != m_fader->channels().end())
{
FadeChannel old = oldChannelIterator.value();
fc.setCurrent(old.current());
fc.setStart(old.current());
}
else
{
fc.setCurrent(0);
fc.setStart(0);
}
// The channel is not ready yet
fc.setReady(false);
// Fade in speed is used for all non-zero targets
if (fc.target() == 0)
fc.setFadeTime(fadeOutSpeed());
else
{
fc.setFadeTime(fadeTime);
}
}
void CueStack::switchCue(int from, int to, const QList<Universe *> ua)
{
qDebug() << Q_FUNC_INFO;
Cue newCue;
Cue oldCue;
m_mutex.lock();
if (to >= 0 && to < m_cues.size())
newCue = m_cues[to];
if (from >= 0 && from < m_cues.size())
oldCue = m_cues[from];
m_mutex.unlock();
// Fade out the HTP channels of the previous cue
QHashIterator <uint,uchar> oldit(oldCue.values());
while (oldit.hasNext() == true)
{
oldit.next();
FadeChannel fc;
fc.setFixture(doc(), Fixture::invalidId());
fc.setChannel(oldit.key());
if (fc.group(doc()) == QLCChannel::Intensity)
{
fc.setElapsed(0);
fc.setReady(false);
fc.setTarget(0);
fc.setFadeTime(oldCue.fadeOutSpeed());
insertStartValue(fc, ua);
m_fader->add(fc);
}
}
// Fade in all channels of the new cue
QHashIterator <uint,uchar> newit(newCue.values());
while (newit.hasNext() == true)
{
newit.next();
FadeChannel fc;
fc.setFixture(doc(), Fixture::invalidId());
fc.setChannel(newit.key());
fc.setTarget(newit.value());
fc.setElapsed(0);
fc.setReady(false);
fc.setFadeTime(newCue.fadeInSpeed());
insertStartValue(fc, ua);
m_fader->add(fc);
}
}
void RGBMatrix::postRun(MasterTimer* timer, QList<Universe *> universes)
{
if (m_fader != NULL)
{
QHashIterator <FadeChannel,FadeChannel> it(m_fader->channels());
while (it.hasNext() == true)
{
it.next();
FadeChannel fc = it.value();
// fade out only intensity channels
if (fc.group(doc()) != QLCChannel::Intensity)
continue;
bool canFade = true;
Fixture *fixture = doc()->fixture(fc.fixture());
if (fixture != NULL)
canFade = fixture->channelCanFade(fc.channel());
fc.setStart(fc.current(getAttributeValue(Intensity)));
fc.setCurrent(fc.current(getAttributeValue(Intensity)));
fc.setElapsed(0);
fc.setReady(false);
if (canFade == false)
{
fc.setFadeTime(0);
fc.setTarget(fc.current(getAttributeValue(Intensity)));
}
else
{
if (overrideFadeOutSpeed() == defaultSpeed())
fc.setFadeTime(fadeOutSpeed());
else
fc.setFadeTime(overrideFadeOutSpeed());
fc.setTarget(0);
}
timer->faderAdd(fc);
}
delete m_fader;
m_fader = NULL;
}
{
QMutexLocker algorithmLocker(&m_algorithmMutex);
if (m_algorithm != NULL)
m_algorithm->postRun();
}
Function::postRun(timer, universes);
}
void CueStack::postRun(MasterTimer* timer)
{
qDebug() << Q_FUNC_INFO;
Q_ASSERT(timer != NULL);
Q_ASSERT(m_fader != NULL);
// Bounce all intensity channels to MasterTimer's fader for zeroing
QHashIterator <FadeChannel,FadeChannel> it(m_fader->channels());
while (it.hasNext() == true)
{
it.next();
FadeChannel fc = it.value();
if (fc.group(doc()) == QLCChannel::Intensity)
{
fc.setStart(fc.current(intensity()));
fc.setTarget(0);
fc.setElapsed(0);
fc.setReady(false);
fc.setFadeTime(fadeOutSpeed());
timer->fader()->add(fc);
}
}
m_currentIndex = -1;
delete m_fader;
m_fader = NULL;
emit currentCueChanged(m_currentIndex);
emit stopped();
}
void FadeChannel_Test::fadeTime()
{
FadeChannel ch;
QVERIFY(ch.fadeTime() == 0);
ch.setFadeTime(50);
QVERIFY(ch.fadeTime() == 50);
}
void GenericFader_Test::writeLoop()
{
UniverseArray ua(512);
GenericFader fader(m_doc);
FadeChannel fc;
fc.setFixture(0);
fc.setChannel(5);
fc.setStart(0);
fc.setTarget(250);
fc.setFadeTime(1000);
fader.add(fc);
QCOMPARE(ua.preGMValues()[15], (char) 0);
int expected = 0;
for (int i = MasterTimer::tick(); i <= 1000; i += MasterTimer::tick())
{
ua.zeroIntensityChannels();
fader.write(&ua);
int actual = uchar(ua.preGMValues()[15]);
expected += 5;
QCOMPARE(actual, expected);
}
}
void GenericFader_Test::writeZeroFade()
{
UniverseArray ua(512);
GenericFader fader(m_doc);
FadeChannel fc;
fc.setFixture(0);
fc.setChannel(5);
fc.setStart(0);
fc.setTarget(255);
fc.setFadeTime(0);
fader.add(fc);
QCOMPARE(ua.preGMValues()[15], (char) 0);
fader.write(&ua);
QCOMPARE(ua.preGMValues()[15], (char) 255);
}
void GenericFader_Test::adjustIntensity()
{
UniverseArray ua(512);
GenericFader fader(m_doc);
FadeChannel fc;
// HTP channel
fc.setFixture(0);
fc.setChannel(5);
fc.setStart(0);
fc.setTarget(250);
fc.setFadeTime(1000);
fader.add(fc);
// LTP channel
fc.setChannel(0);
fader.add(fc);
qreal intensity = 0.5;
fader.adjustIntensity(intensity);
QCOMPARE(fader.intensity(), intensity);
int expected = 0;
for (int i = MasterTimer::tick(); i <= 1000; i += MasterTimer::tick())
{
ua.zeroIntensityChannels();
fader.write(&ua);
expected += 5;
// GenericFader should apply intensity only to HTP channels
int actual = uchar(ua.preGMValues()[15]);
int expectedWithIntensity = floor((qreal(expected) * intensity) + 0.5);
QVERIFY(actual == expectedWithIntensity);
// No intensity adjustment on LTP channels
actual = uchar(ua.preGMValues()[10]);
QVERIFY(actual == expected);
}
}
void FadeChannel_Test::nextStep()
{
FadeChannel fc;
fc.setStart(0);
fc.setTarget(250);
fc.setFadeTime(1000);
for (int i = 5; i < 250; i += 5)
{
int value = fc.nextStep(MasterTimer::tick());
QCOMPARE(value, i);
}
fc.setCurrent(0);
fc.setReady(false);
fc.setFadeTime(0);
fc.setElapsed(0);
QCOMPARE(fc.nextStep(MasterTimer::tick()), uchar(250));
fc.setCurrent(0);
fc.setReady(false);
fc.setFadeTime(MasterTimer::tick() / 5);
fc.setElapsed(0);
QCOMPARE(fc.nextStep(MasterTimer::tick()), uchar(250));
fc.setCurrent(0);
fc.setReady(false);
fc.setFadeTime(1 * MasterTimer::tick());
fc.setElapsed(0);
QCOMPARE(fc.nextStep(MasterTimer::tick()), uchar(250));
fc.setCurrent(0);
fc.setReady(false);
fc.setFadeTime(2 * MasterTimer::tick());
fc.setElapsed(0);
QCOMPARE(fc.nextStep(MasterTimer::tick()), uchar(125));
QCOMPARE(fc.nextStep(MasterTimer::tick()), uchar(250));
fc.setCurrent(0);
fc.setReady(false);
fc.setFadeTime(5 * MasterTimer::tick());
fc.setElapsed(0);
QCOMPARE(fc.nextStep(MasterTimer::tick()), uchar(50));
QCOMPARE(fc.nextStep(MasterTimer::tick()), uchar(100));
QCOMPARE(fc.nextStep(MasterTimer::tick()), uchar(150));
QCOMPARE(fc.nextStep(MasterTimer::tick()), uchar(200));
QCOMPARE(fc.nextStep(MasterTimer::tick()), uchar(250));
// Maximum elapsed() reached
fc.setCurrent(0);
fc.setTarget(255);
fc.setReady(false);
fc.setElapsed(UINT_MAX);
fc.setFadeTime(5 * MasterTimer::tick());
QCOMPARE(fc.nextStep(MasterTimer::tick()), uchar(255));
QCOMPARE(fc.elapsed(), UINT_MAX);
QCOMPARE(fc.nextStep(MasterTimer::tick()), uchar(255));
QCOMPARE(fc.elapsed(), UINT_MAX);
QCOMPARE(fc.nextStep(MasterTimer::tick()), uchar(255));
QCOMPARE(fc.elapsed(), UINT_MAX);
QCOMPARE(fc.nextStep(MasterTimer::tick()), uchar(255));
QCOMPARE(fc.elapsed(), UINT_MAX);
QCOMPARE(fc.nextStep(MasterTimer::tick()), uchar(255));
QCOMPARE(fc.elapsed(), UINT_MAX);
// Channel marked as ready
fc.setReady(true);
fc.setElapsed(0);
QCOMPARE(fc.nextStep(MasterTimer::tick()), uchar(255));
QCOMPARE(fc.elapsed(), MasterTimer::tick() * 1);
QCOMPARE(fc.nextStep(MasterTimer::tick()), uchar(255));
QCOMPARE(fc.elapsed(), MasterTimer::tick() * 2);
QCOMPARE(fc.nextStep(MasterTimer::tick()), uchar(255));
QCOMPARE(fc.elapsed(), MasterTimer::tick() * 3);
}
QString Script::handleSetFixture(const QList<QStringList>& tokens, QList<Universe *> universes)
{
qDebug() << Q_FUNC_INFO;
if (tokens.size() > 4)
return QString("Too many arguments");
bool ok = false;
quint32 id = 0;
quint32 ch = 0;
uchar value = 0;
double time = 0;
id = tokens[0][1].toUInt(&ok);
if (ok == false)
return QString("Invalid fixture (ID: %1)").arg(tokens[0][1]);
for (int i = 1; i < tokens.size(); i++)
{
QStringList list = tokens[i];
list[0] = list[0].toLower().trimmed();
if (list.size() == 2)
{
ok = false;
if (list[0] == "val" || list[0] == "value")
value = uchar(list[1].toUInt(&ok));
else if (list[0] == "ch" || list[0] == "channel")
ch = list[1].toUInt(&ok);
else if (list[0] == "time")
time = list[1].toDouble(&ok);
else
return QString("Unrecognized keyword: %1").arg(list[0]);
if (ok == false)
return QString("Invalid value (%1) for keyword: %2").arg(list[1]).arg(list[0]);
}
}
Doc* doc = qobject_cast<Doc*> (parent());
Q_ASSERT(doc != NULL);
Fixture* fxi = doc->fixture(id);
if (fxi != NULL)
{
if (ch < fxi->channels())
{
int address = fxi->address() + ch;
if (address < 512)
{
GenericFader* gf = fader();
Q_ASSERT(gf != NULL);
FadeChannel fc;
fc.setFixture(doc, fxi->id());
fc.setChannel(ch);
fc.setTarget(value);
fc.setFadeTime(time);
// If the script has used the channel previously, it might still be in
// the bowels of GenericFader so get the starting value from there.
// Otherwise get it from universes (HTP channels are always 0 then).
quint32 uni = fc.universe();
if (gf->channels().contains(fc) == true)
fc.setStart(gf->channels()[fc].current());
else
fc.setStart(universes[uni]->preGMValue(address));
fc.setCurrent(fc.start());
gf->add(fc);
return QString();
}
else
{
return QString("Invalid address: %1").arg(address);
}
}
else
{
return QString("Fixture (%1) has no channel number %2").arg(fxi->name()).arg(ch);
}
}
else
{
return QString("No such fixture (ID: %1)").arg(id);
}
}