vector<Evoral::Sequence<Evoral::MusicalTime>::Notes> v;
v.push_back (selected);
- return op (mrv.midi_region()->model(), v);
+ framepos_t pos_frames = mrv.midi_region()->position();
+ double pos_beats = _session->tempo_map().framewalk_to_beats(0, pos_frames);
+
+ return op (mrv.midi_region()->model(), pos_beats, v);
}
void
MidiOperator () {}
virtual ~MidiOperator() {}
- virtual Command* operator() (boost::shared_ptr<ARDOUR::MidiModel>, std::vector<Evoral::Sequence<Evoral::MusicalTime>::Notes>&) = 0;
+ virtual Command* operator() (boost::shared_ptr<ARDOUR::MidiModel>,
+ double,
+ std::vector<Evoral::Sequence<Evoral::MusicalTime>::Notes>&) = 0;
virtual std::string name() const = 0;
};
float strength, float swing, float threshold);
~Quantize ();
- Command* operator() (boost::shared_ptr<ARDOUR::MidiModel>, std::vector<Evoral::Sequence<Evoral::MusicalTime>::Notes>&);
+ Command* operator() (boost::shared_ptr<ARDOUR::MidiModel>,
+ double position,
+ std::vector<Evoral::Sequence<Evoral::MusicalTime>::Notes>&);
std::string name() const { return std::string ("quantize"); }
private:
}
Command*
-Quantize::operator () (boost::shared_ptr<MidiModel> model, std::vector<Evoral::Sequence<Evoral::MusicalTime>::Notes>& seqs)
+Quantize::operator () (boost::shared_ptr<MidiModel> model,
+ double position,
+ std::vector<Evoral::Sequence<Evoral::MusicalTime>::Notes>& seqs)
{
+ /* Calculate offset from start of model to next closest quantize step,
+ to quantize relative to actual session beats (etc.) rather than from the
+ start of the model.
+ */
+ const double round_pos = ceil(position / _start_grid) * _start_grid;
+ const double offset = round_pos - position;
+
bool even;
MidiModel::NoteDiffCommand* cmd = new MidiModel::NoteDiffCommand (model, "quantize");
for (Evoral::Sequence<MidiModel::TimeType>::Notes::iterator i = (*s).begin(); i != (*s).end(); ++i) {
- double new_start = round ((*i)->time() / _start_grid) * _start_grid;
- double new_end = round ((*i)->end_time() / _end_grid) * _end_grid;
- double delta;
+ double new_start = round ((*i)->time() / _start_grid) * _start_grid + offset;
+ double new_end = round ((*i)->end_time() / _end_grid) * _end_grid + offset;
if (_swing > 0.0 && !even) {
}
- delta = new_start - (*i)->time();
+ double delta = new_start - (*i)->time();
if (fabs (delta) >= _threshold) {
if (_snap_start) {