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livetrax/libs/evoral/src/Sequence.cpp
Paul Davis bf91ed99ec add note IDs and use them for looking up notes during a history rebuild. NOTE: INVALIDATES OLDER HISTORY FILES 
git-svn-id: svn://localhost/ardour2/branches/3.0@7449 d708f5d6-7413-0410-9779-e7cbd77b26cf
2010-07-20 16:27:34 +00:00

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/* This file is part of Evoral.
* Copyright (C) 2008 Dave Robillard <http://drobilla.net>
* Copyright (C) 2000-2008 Paul Davis
*
* Evoral is free software; you can redistribute it and/or modify it under the
* terms of the GNU General Public License as published by the Free Software
* Foundation; either version 2 of the License, or (at your option) any later
* version.
*
* Evoral is distributed in the hope that it will be useful, but WITHOUT ANY
* WARRANTY; without even the implied warranty of MERCHANTABILITY or FITNESS
* FOR A PARTICULAR PURPOSE. See the GNU General Public License for details.
*
* You should have received a copy of the GNU General Public License along
* with this program; if not, write to the Free Software Foundation, Inc.,
* 51 Franklin St, Fifth Floor, Boston, MA 02110-1301 USA
*/
#define __STDC_LIMIT_MACROS 1
#include <algorithm>
#include <cmath>
#include <iostream>
#include <limits>
#include <stdexcept>
#include <stdint.h>
#include <cstdio>
#include "pbd/compose.h"
#include "evoral/Control.hpp"
#include "evoral/ControlList.hpp"
#include "evoral/ControlSet.hpp"
#include "evoral/EventSink.hpp"
#include "evoral/MIDIParameters.hpp"
#include "evoral/Sequence.hpp"
#include "evoral/TypeMap.hpp"
#include "evoral/midi_util.h"
using namespace std;
using namespace PBD;
namespace Evoral {
// Read iterator (const_iterator)
template<typename Time>
Sequence<Time>::const_iterator::const_iterator()
: _seq(NULL)
, _is_end(true)
, _control_iter(_control_iters.end())
{
_event = boost::shared_ptr< Event<Time> >(new Event<Time>());
}
/** @param force_discrete true to force ControlLists to use discrete evaluation, otherwise false to get them to use their configured mode */
template<typename Time>
Sequence<Time>::const_iterator::const_iterator(const Sequence<Time>& seq, Time t, bool force_discrete, std::set<Evoral::Parameter> const & filtered)
: _seq(&seq)
, _type(NIL)
, _is_end((t == DBL_MAX) || seq.empty())
, _note_iter(seq.notes().end())
, _sysex_iter(seq.sysexes().end())
, _control_iter(_control_iters.end())
, _force_discrete (force_discrete)
{
DEBUG_TRACE (DEBUG::Sequence, string_compose ("Created Iterator @ %1 (is end: %2)\n)", t, _is_end));
if (!_is_end) {
_lock = seq.read_lock();
} else {
return;
}
typename Sequence<Time>::ReadLock lock(seq.read_lock());
// Find first note which begins at or after t
_note_iter = seq.note_lower_bound(t);
// Find first sysex event at or after t
for (typename Sequence<Time>::SysExes::const_iterator i = seq.sysexes().begin();
i != seq.sysexes().end(); ++i) {
if ((*i)->time() >= t) {
_sysex_iter = i;
break;
}
}
assert(_sysex_iter == seq.sysexes().end() || (*_sysex_iter)->time() >= t);
// Find first control event after t
ControlIterator earliest_control(boost::shared_ptr<ControlList>(), DBL_MAX, 0.0);
_control_iters.reserve(seq._controls.size());
bool found = false;
size_t earliest_control_index = 0;
for (Controls::const_iterator i = seq._controls.begin(); i != seq._controls.end(); ++i) {
if (filtered.find (i->first) != filtered.end()) {
/* this parameter is filtered, so don't bother setting up an iterator for it */
continue;
}
DEBUG_TRACE (DEBUG::Sequence, string_compose ("Iterator: control: %1\n", seq._type_map.to_symbol(i->first)));
double x, y;
bool ret;
if (_force_discrete) {
ret = i->second->list()->rt_safe_earliest_event_discrete_unlocked (t, DBL_MAX, x, y, true);
} else {
ret = i->second->list()->rt_safe_earliest_event_unlocked(t, DBL_MAX, x, y, true);
}
if (!ret) {
DEBUG_TRACE (DEBUG::Sequence, string_compose ("Iterator: CC %1 (size %2) has no events past %3\n",
i->first.id(), i->second->list()->size(), t));
continue;
}
assert(x >= 0);
if (y < i->first.min() || y > i->first.max()) {
cerr << "ERROR: Controller value " << y
<< " out of range [" << i->first.min() << "," << i->first.max()
<< "], event ignored" << endl;
continue;
}
DEBUG_TRACE (DEBUG::Sequence, string_compose ("Iterator: CC %1 added (%2, %3)\n", i->first.id(), x, y));
const ControlIterator new_iter(i->second->list(), x, y);
_control_iters.push_back(new_iter);
// Found a new earliest_control
if (x < earliest_control.x) {
earliest_control = new_iter;
earliest_control_index = _control_iters.size() - 1;
found = true;
}
}
if (found) {
_control_iter = _control_iters.begin() + earliest_control_index;
assert(_control_iter != _control_iters.end());
} else {
_control_iter = _control_iters.end();
}
// Now find the earliest event overall and point to it
Time earliest_t = t;
if (_note_iter != seq.notes().end()) {
_type = NOTE_ON;
earliest_t = (*_note_iter)->time();
}
if (_sysex_iter != seq.sysexes().end()
&& ((*_sysex_iter)->time() < earliest_t || _type == NIL)) {
_type = SYSEX;
earliest_t = (*_sysex_iter)->time();
}
if (_control_iter != _control_iters.end()
&& earliest_control.list && earliest_control.x >= t
&& (earliest_control.x < earliest_t || _type == NIL)) {
_type = CONTROL;
earliest_t = earliest_control.x;
}
switch (_type) {
case NOTE_ON:
DEBUG_TRACE (DEBUG::Sequence, string_compose ("Starting at note on event @ %1\n", earliest_t));
_event = boost::shared_ptr<Event<Time> > (new Event<Time> ((*_note_iter)->on_event(), true));
_active_notes.push(*_note_iter);
break;
case SYSEX:
DEBUG_TRACE (DEBUG::Sequence, string_compose ("Starting at sysex event @ %1\n", earliest_t));
_event = boost::shared_ptr< Event<Time> >(
new Event<Time>(*(*_sysex_iter), true));
break;
case CONTROL:
DEBUG_TRACE (DEBUG::Sequence, string_compose ("Starting at control event @ %1\n", earliest_t));
seq.control_to_midi_event(_event, earliest_control);
break;
default:
break;
}
if (_type == NIL || !_event || _event->size() == 0) {
DEBUG_TRACE (DEBUG::Sequence, string_compose ("Starting at end @ %1\n", t));
_type = NIL;
_is_end = true;
} else {
DEBUG_TRACE (DEBUG::Sequence, string_compose ("New iterator = 0x%x : 0x%x @ %f\n",
(int)_event->event_type(),
(int)((MIDIEvent<Time>*)_event.get())->type(),
_event->time()));
assert(midi_event_is_valid(_event->buffer(), _event->size()));
}
}
template<typename Time>
Sequence<Time>::const_iterator::~const_iterator()
{
}
template<typename Time>
void
Sequence<Time>::const_iterator::invalidate()
{
while (!_active_notes.empty()) {
_active_notes.pop();
}
_type = NIL;
_is_end = true;
if (_seq) {
_note_iter = _seq->notes().end();
_sysex_iter = _seq->sysexes().end();
}
_control_iter = _control_iters.end();
_lock.reset();
}
template<typename Time>
const typename Sequence<Time>::const_iterator&
Sequence<Time>::const_iterator::operator++()
{
if (_is_end) {
throw std::logic_error("Attempt to iterate past end of Sequence");
}
DEBUG_TRACE(DEBUG::Sequence, "Sequence::const_iterator++\n");
assert(_event && _event->buffer() && _event->size() > 0);
const MIDIEvent<Time>& ev = *((MIDIEvent<Time>*)_event.get());
if (!( ev.is_note()
|| ev.is_cc()
|| ev.is_pgm_change()
|| ev.is_pitch_bender()
|| ev.is_channel_pressure()
|| ev.is_sysex()) ) {
cerr << "WARNING: Unknown event (type " << _type << "): " << hex
<< int(ev.buffer()[0]) << int(ev.buffer()[1]) << int(ev.buffer()[2]) << endl;
}
double x = 0.0;
double y = 0.0;
bool ret = false;
// Increment past current event
switch (_type) {
case NOTE_ON:
++_note_iter;
break;
case NOTE_OFF:
break;
case CONTROL:
// Increment current controller iterator
if (_force_discrete) {
ret = _control_iter->list->rt_safe_earliest_event_discrete_unlocked (_control_iter->x, DBL_MAX, x, y, false);
} else {
ret = _control_iter->list->rt_safe_earliest_event_unlocked (_control_iter->x, DBL_MAX, x, y, false);
}
assert(!ret || x > _control_iter->x);
if (ret) {
_control_iter->x = x;
_control_iter->y = y;
} else {
_control_iter->list.reset();
_control_iter->x = DBL_MAX;
_control_iter->y = DBL_MAX;
}
// Find the controller with the next earliest event time
_control_iter = _control_iters.begin();
for (ControlIterators::iterator i = _control_iters.begin();
i != _control_iters.end(); ++i) {
if (i->x < _control_iter->x) {
_control_iter = i;
}
}
break;
case SYSEX:
++_sysex_iter;
break;
default:
assert(false);
}
// Now find the earliest event overall and point to it
_type = NIL;
Time earliest_t = std::numeric_limits<Time>::max();
// Next earliest note on
if (_note_iter != _seq->notes().end()) {
_type = NOTE_ON;
earliest_t = (*_note_iter)->time();
}
// Use the next note off iff it's earlier or the same time as the note on
if (!_seq->percussive() && (!_active_notes.empty())) {
if (_type == NIL || _active_notes.top()->end_time() <= earliest_t) {
_type = NOTE_OFF;
earliest_t = _active_notes.top()->end_time();
}
}
// Use the next earliest controller iff it's earlier than the note event
if (_control_iter != _control_iters.end() && _control_iter->x != DBL_MAX) {
if (_type == NIL || _control_iter->x < earliest_t) {
_type = CONTROL;
earliest_t = _control_iter->x;
}
}
// Use the next earliest SysEx iff it's earlier than the controller
if (_sysex_iter != _seq->sysexes().end()) {
if (_type == NIL || (*_sysex_iter)->time() < earliest_t) {
_type = SYSEX;
earliest_t = (*_sysex_iter)->time();
}
}
// Set event to reflect new position
switch (_type) {
case NOTE_ON:
DEBUG_TRACE(DEBUG::Sequence, "iterator = note on\n");
*_event = (*_note_iter)->on_event();
_active_notes.push(*_note_iter);
break;
case NOTE_OFF:
DEBUG_TRACE(DEBUG::Sequence, "iterator = note off\n");
assert(!_active_notes.empty());
*_event = _active_notes.top()->off_event();
_active_notes.pop();
break;
case CONTROL:
DEBUG_TRACE(DEBUG::Sequence, "iterator = control\n");
_seq->control_to_midi_event(_event, *_control_iter);
break;
case SYSEX:
DEBUG_TRACE(DEBUG::Sequence, "iterator = sysex\n");
*_event = *(*_sysex_iter);
break;
default:
DEBUG_TRACE(DEBUG::Sequence, "iterator = end\n");
_is_end = true;
}
assert(_is_end || (_event->size() > 0 && _event->buffer() && _event->buffer()[0] != '\0'));
return *this;
}
template<typename Time>
bool
Sequence<Time>::const_iterator::operator==(const const_iterator& other) const
{
if (_seq != other._seq) {
return false;
} else if (_is_end || other._is_end) {
return (_is_end == other._is_end);
} else if (_type != other._type) {
return false;
} else {
return (_event == other._event);
}
}
template<typename Time>
typename Sequence<Time>::const_iterator&
Sequence<Time>::const_iterator::operator=(const const_iterator& other)
{
_seq = other._seq;
_event = other._event;
_active_notes = other._active_notes;
_type = other._type;
_is_end = other._is_end;
_note_iter = other._note_iter;
_sysex_iter = other._sysex_iter;
_control_iters = other._control_iters;
_force_discrete = other._force_discrete;
if (other._lock)
_lock = _seq->read_lock();
else
_lock.reset();
if (other._control_iter == other._control_iters.end()) {
_control_iter = _control_iters.end();
} else {
const size_t index = other._control_iter - other._control_iters.begin();
_control_iter = _control_iters.begin() + index;
}
return *this;
}
// Sequence
template<typename Time>
Sequence<Time>::Sequence(const TypeMap& type_map)
: _edited(false)
, _overlapping_pitches_accepted (true)
, _overlap_pitch_resolution (FirstOnFirstOff)
, _writing(false)
, _type_map(type_map)
, _end_iter(*this, DBL_MAX, false, std::set<Evoral::Parameter> ())
, _percussive(false)
, _lowest_note(127)
, _highest_note(0)
{
DEBUG_TRACE (DEBUG::Sequence, string_compose ("Sequence constructed: %1\n", this));
assert(_end_iter._is_end);
assert( ! _end_iter._lock);
}
template<typename Time>
Sequence<Time>::Sequence(const Sequence<Time>& other)
: ControlSet (other)
, _edited(false)
, _overlapping_pitches_accepted (other._overlapping_pitches_accepted)
, _overlap_pitch_resolution (other._overlap_pitch_resolution)
, _writing(false)
, _type_map(other._type_map)
, _end_iter(*this, DBL_MAX, false, std::set<Evoral::Parameter> ())
, _percussive(other._percussive)
, _lowest_note(other._lowest_note)
, _highest_note(other._highest_note)
{
for (typename Notes::const_iterator i = other._notes.begin(); i != other._notes.end(); ++i) {
NotePtr n (new Note<Time> (**i));
_notes.insert (n);
}
for (typename SysExes::const_iterator i = other._sysexes.begin(); i != other._sysexes.end(); ++i) {
boost::shared_ptr<Event<Time> > n (new Event<Time> (**i, true));
_sysexes.push_back (n);
}
DEBUG_TRACE (DEBUG::Sequence, string_compose ("Sequence copied: %1\n", this));
assert(_end_iter._is_end);
assert(! _end_iter._lock);
}
/** Write the controller event pointed to by \a iter to \a ev.
* The buffer of \a ev will be allocated or resized as necessary.
* The event_type of \a ev should be set to the expected output type.
* \return true on success
*/
template<typename Time>
bool
Sequence<Time>::control_to_midi_event(
boost::shared_ptr< Event<Time> >& ev,
const ControlIterator& iter) const
{
assert(iter.list.get());
const uint32_t event_type = iter.list->parameter().type();
// initialize the event pointer with a new event, if necessary
if (!ev) {
ev = boost::shared_ptr< Event<Time> >(new Event<Time>(event_type, 0, 3, NULL, true));
}
uint8_t midi_type = _type_map.parameter_midi_type(iter.list->parameter());
ev->set_event_type(_type_map.midi_event_type(midi_type));
switch (midi_type) {
case MIDI_CMD_CONTROL:
assert(iter.list.get());
assert(iter.list->parameter().channel() < 16);
assert(iter.list->parameter().id() <= INT8_MAX);
assert(iter.y <= INT8_MAX);
ev->time() = iter.x;
ev->realloc(3);
ev->buffer()[0] = MIDI_CMD_CONTROL + iter.list->parameter().channel();
ev->buffer()[1] = (uint8_t)iter.list->parameter().id();
ev->buffer()[2] = (uint8_t)iter.y;
break;
case MIDI_CMD_PGM_CHANGE:
assert(iter.list.get());
assert(iter.list->parameter().channel() < 16);
assert(iter.y <= INT8_MAX);
ev->time() = iter.x;
ev->realloc(2);
ev->buffer()[0] = MIDI_CMD_PGM_CHANGE + iter.list->parameter().channel();
ev->buffer()[1] = (uint8_t)iter.y;
break;
case MIDI_CMD_BENDER:
assert(iter.list.get());
assert(iter.list->parameter().channel() < 16);
assert(iter.y < (1<<14));
ev->time() = iter.x;
ev->realloc(3);
ev->buffer()[0] = MIDI_CMD_BENDER + iter.list->parameter().channel();
ev->buffer()[1] = uint16_t(iter.y) & 0x7F; // LSB
ev->buffer()[2] = (uint16_t(iter.y) >> 7) & 0x7F; // MSB
break;
case MIDI_CMD_CHANNEL_PRESSURE:
assert(iter.list.get());
assert(iter.list->parameter().channel() < 16);
assert(iter.y <= INT8_MAX);
ev->time() = iter.x;
ev->realloc(2);
ev->buffer()[0] = MIDI_CMD_CHANNEL_PRESSURE + iter.list->parameter().channel();
ev->buffer()[1] = (uint8_t)iter.y;
break;
default:
return false;
}
return true;
}
/** Clear all events from the model.
*/
template<typename Time>
void
Sequence<Time>::clear()
{
WriteLock lock(write_lock());
_notes.clear();
for (Controls::iterator li = _controls.begin(); li != _controls.end(); ++li)
li->second->list()->clear();
}
/** Begin a write of events to the model.
*
* If \a mode is Sustained, complete notes with length are constructed as note
* on/off events are received. Otherwise (Percussive), only note on events are
* stored; note off events are discarded entirely and all contained notes will
* have length 0.
*/
template<typename Time>
void
Sequence<Time>::start_write()
{
DEBUG_TRACE (DEBUG::Sequence, string_compose ("%1 : start_write (percussive = %2)\n", this, _percussive));
WriteLock lock(write_lock());
_writing = true;
for (int i = 0; i < 16; ++i) {
_write_notes[i].clear();
}
}
/** Finish a write of events to the model.
*
* If \a delete_stuck is true and the current mode is Sustained, note on events
* that were never resolved with a corresonding note off will be deleted.
* Otherwise they will remain as notes with length 0.
*/
template<typename Time>
void
Sequence<Time>::end_write (bool delete_stuck)
{
WriteLock lock(write_lock());
if (!_writing) {
return;
}
DEBUG_TRACE (DEBUG::Sequence, string_compose ("%1 : end_write (%2 notes)\n", this, _notes.size()));
if (!_percussive && delete_stuck) {
for (typename Notes::iterator n = _notes.begin(); n != _notes.end() ;) {
typename Notes::iterator next = n;
++next;
if ((*n)->length() == 0) {
cerr << "WARNING: Stuck note lost: " << (*n)->note() << endl;
_notes.erase(n);
}
n = next;
}
}
for (int i = 0; i < 16; ++i) {
if (!_write_notes[i].empty()) {
cerr << "WARNING: Sequence<Time>::end_write: Channel " << i << " has "
<< _write_notes[i].size() << " stuck notes" << endl;
}
_write_notes[i].clear();
}
_writing = false;
}
template<typename Time>
bool
Sequence<Time>::add_note_unlocked(const NotePtr note, void* arg)
{
/* This is the core method to add notes to a Sequence
*/
DEBUG_TRACE (DEBUG::Sequence, string_compose ("%1 add note %2 @ %3\n", this, (int)note->note(), note->time()));
if (resolve_overlaps_unlocked (note, arg)) {
return false;
}
if (note->id() < 0) {
note->set_id (Evoral::next_event_id());
}
if (note->note() < _lowest_note)
_lowest_note = note->note();
if (note->note() > _highest_note)
_highest_note = note->note();
_notes.insert (note);
_pitches[note->channel()].insert (note);
_edited = true;
return true;
}
template<typename Time>
void
Sequence<Time>::remove_note_unlocked(const constNotePtr note)
{
bool erased = false;
_edited = true;
DEBUG_TRACE (DEBUG::Sequence, string_compose ("%1 remove note %2 @ %3\n", this, (int)note->note(), note->time()));
for (typename Sequence<Time>::Notes::iterator i = note_lower_bound(note->time());
i != _notes.end() && (*i)->time() == note->time(); ++i) {
if (*i == note) {
DEBUG_TRACE (DEBUG::Sequence, string_compose ("%1\terasing note %2 @ %3\n", this, (int)(*i)->note(), (*i)->time()));
_notes.erase (i);
if ((*i)->note() == _lowest_note || (*i)->note() == _highest_note) {
_lowest_note = 127;
_highest_note = 0;
for (typename Sequence<Time>::Notes::iterator ii = _notes.begin(); ii != _notes.end(); ++ii) {
if ((*ii)->note() < _lowest_note)
_lowest_note = (*ii)->note();
if ((*ii)->note() > _highest_note)
_highest_note = (*ii)->note();
}
}
erased = true;
}
}
Pitches& p (pitches (note->channel()));
NotePtr search_note(new Note<Time>(0, 0, 0, note->note(), 0));
for (typename Pitches::iterator i = p.lower_bound (search_note);
i != p.end() && (*i)->note() == note->note(); ++i) {
if (*i == note) {
DEBUG_TRACE (DEBUG::Sequence, string_compose ("%1\terasing pitch %2 @ %3\n", this, (int)(*i)->note(), (*i)->time()));
p.erase (i);
}
}
if (!erased) {
cerr << "Unable to find note to erase" << endl;
}
}
/** Append \a ev to model. NOT realtime safe.
*
* The timestamp of event is expected to be relative to
* the start of this model (t=0) and MUST be monotonically increasing
* and MUST be >= the latest event currently in the model.
*/
template<typename Time>
void
Sequence<Time>::append(const Event<Time>& event, event_id_t evid)
{
WriteLock lock(write_lock());
const MIDIEvent<Time>& ev = (const MIDIEvent<Time>&)event;
assert(_notes.empty() || ev.time() >= (*_notes.rbegin())->time());
assert(_writing);
if (!midi_event_is_valid(ev.buffer(), ev.size())) {
cerr << "WARNING: Sequence ignoring illegal MIDI event" << endl;
return;
}
if (ev.is_note_on()) {
NotePtr note(new Note<Time>(ev.channel(), ev.time(), 0, ev.note(), ev.velocity()));
append_note_on_unlocked (note, evid);
} else if (ev.is_note_off()) {
NotePtr note(new Note<Time>(ev.channel(), ev.time(), 0, ev.note(), ev.velocity()));
/* XXX note: event ID is discarded because we merge the on+off events into
a single note object
*/
append_note_off_unlocked (note);
} else if (ev.is_sysex()) {
append_sysex_unlocked(ev, evid);
} else if (ev.is_cc()) {
append_control_unlocked(
Evoral::MIDI::ContinuousController(ev.event_type(), ev.channel(), ev.cc_number()),
ev.time(), ev.cc_value(), evid);
} else if (ev.is_pgm_change()) {
append_control_unlocked(
Evoral::MIDI::ProgramChange(ev.event_type(), ev.channel()),
ev.time(), ev.pgm_number(), evid);
} else if (ev.is_pitch_bender()) {
append_control_unlocked(
Evoral::MIDI::PitchBender(ev.event_type(), ev.channel()),
ev.time(), double ((0x7F & ev.pitch_bender_msb()) << 7
| (0x7F & ev.pitch_bender_lsb())),
evid);
} else if (ev.is_channel_pressure()) {
append_control_unlocked(
Evoral::MIDI::ChannelPressure(ev.event_type(), ev.channel()),
ev.time(), ev.channel_pressure(), evid);
} else if (!_type_map.type_is_midi(ev.event_type())) {
printf("WARNING: Sequence: Unknown event type %X: ", ev.event_type());
for (size_t i=0; i < ev.size(); ++i) {
printf("%X ", ev.buffer()[i]);
}
printf("\n");
} else {
printf("WARNING: Sequence: Unknown MIDI event type %X\n", ev.type());
}
_edited = true;
}
template<typename Time>
void
Sequence<Time>::append_note_on_unlocked (NotePtr note, event_id_t evid)
{
DEBUG_TRACE (DEBUG::Sequence, string_compose ("%1 c=%2 note %3 on @ %4 v=%5\n", this,
(int) note->channel(), (int) note->note(),
note->time(), (int) note->velocity()));
assert(note->note() <= 127);
assert(note->channel() < 16);
assert(_writing);
if (note->id() < 0) {
note->set_id (evid);
}
if (note->velocity() == 0) {
append_note_off_unlocked (note);
return;
}
add_note_unlocked (note);
if (!_percussive) {
DEBUG_TRACE (DEBUG::Sequence, string_compose ("Sustained: Appending active note on %1 channel %2\n",
(unsigned)(uint8_t)note->note(), note->channel()));
_write_notes[note->channel()].insert (note);
} else {
DEBUG_TRACE(DEBUG::Sequence, "Percussive: NOT appending active note on\n");
}
}
template<typename Time>
void
Sequence<Time>::append_note_off_unlocked (NotePtr note)
{
DEBUG_TRACE (DEBUG::Sequence, string_compose ("%1 c=%2 note %3 on @ %4 v=%5\n",
this, (int)note->channel(),
(int)note->note(), note->time(), (int)note->velocity()));
assert(note->note() <= 127);
assert(note->channel() < 16);
assert(_writing);
_edited = true;
if (_percussive) {
DEBUG_TRACE(DEBUG::Sequence, "Sequence Ignoring note off (percussive mode)\n");
return;
}
bool resolved = false;
/* _write_notes is sorted earliest-latest, so this will find the first matching note (FIFO) that
matches this note (by pitch & channel). the MIDI specification doesn't provide any guidance
whether to use FIFO or LIFO for this matching process, so SMF is fundamentally a lossy
format.
*/
/* XXX use _overlap_pitch_resolution to determine FIFO/LIFO ... */
for (typename WriteNotes::iterator n = _write_notes[note->channel()].begin(); n != _write_notes[note->channel()].end(); ++n) {
NotePtr nn = *n;
if (note->note() == nn->note() && nn->channel() == note->channel()) {
assert(note->time() >= nn->time());
nn->set_length (note->time() - nn->time());
nn->set_off_velocity (note->velocity());
_write_notes[note->channel()].erase(n);
DEBUG_TRACE (DEBUG::Sequence, string_compose ("resolved note, length: %1\n", note->length()));
resolved = true;
break;
}
}
if (!resolved) {
cerr << this << " spurious note off chan " << (int)note->channel()
<< ", note " << (int)note->note() << " @ " << note->time() << endl;
}
}
template<typename Time>
void
Sequence<Time>::append_control_unlocked(const Parameter& param, Time time, double value, event_id_t evid)
{
DEBUG_TRACE (DEBUG::Sequence, string_compose ("%1 %2 @ %3\t=\t%4 # controls: %5\n",
this, _type_map.to_symbol(param), time, value, _controls.size()));
boost::shared_ptr<Control> c = control(param, true);
c->list()->rt_add(time, value);
/* XXX control events should use IDs */
}
template<typename Time>
void
Sequence<Time>::append_sysex_unlocked(const MIDIEvent<Time>& ev, event_id_t evid)
{
#ifdef DEBUG_SEQUENCE
cerr << this << " SysEx @ " << ev.time() << " \t= \t [ " << hex;
for (size_t i=0; i < ev.size(); ++i) {
cerr << int(ev.buffer()[i]) << " ";
} cerr << "]" << endl;
#endif
boost::shared_ptr<MIDIEvent<Time> > event(new MIDIEvent<Time>(ev, true));
/* XXX sysex events should use IDs */
_sysexes.push_back(event);
}
template<typename Time>
bool
Sequence<Time>::contains (const NotePtr& note) const
{
ReadLock lock (read_lock());
return contains_unlocked (note);
}
template<typename Time>
bool
Sequence<Time>::contains_unlocked (const NotePtr& note) const
{
const Pitches& p (pitches (note->channel()));
NotePtr search_note(new Note<Time>(0, 0, 0, note->note()));
for (typename Pitches::const_iterator i = p.lower_bound (search_note);
i != p.end() && (*i)->note() == note->note(); ++i) {
if (**i == *note) {
return true;
}
}
return false;
}
template<typename Time>
bool
Sequence<Time>::overlaps (const NotePtr& note, const NotePtr& without) const
{
ReadLock lock (read_lock());
return overlaps_unlocked (note, without);
}
template<typename Time>
bool
Sequence<Time>::overlaps_unlocked (const NotePtr& note, const NotePtr& without) const
{
Time sa = note->time();
Time ea = note->end_time();
const Pitches& p (pitches (note->channel()));
NotePtr search_note(new Note<Time>(0, 0, 0, note->note()));
for (typename Pitches::const_iterator i = p.lower_bound (search_note);
i != p.end() && (*i)->note() == note->note(); ++i) {
if (without && (**i) == *without) {
continue;
}
Time sb = (*i)->time();
Time eb = (*i)->end_time();
if (((sb > sa) && (eb <= ea)) ||
((eb >= sa) && (eb <= ea)) ||
((sb > sa) && (sb <= ea)) ||
((sa >= sb) && (sa <= eb) && (ea <= eb))) {
return true;
}
}
return false;
}
template<typename Time>
void
Sequence<Time>::set_notes (const Sequence<Time>::Notes& n)
{
_notes = n;
}
/** Return the earliest note with time >= t */
template<typename Time>
typename Sequence<Time>::Notes::const_iterator
Sequence<Time>::note_lower_bound (Time t) const
{
NotePtr search_note(new Note<Time>(0, t, 0, 0, 0));
typename Sequence<Time>::Notes::const_iterator i = _notes.lower_bound(search_note);
assert(i == _notes.end() || (*i)->time() >= t);
return i;
}
template<typename Time>
void
Sequence<Time>::get_notes (Notes& n, NoteOperator op, uint8_t val, int chan_mask) const
{
switch (op) {
case PitchEqual:
case PitchLessThan:
case PitchLessThanOrEqual:
case PitchGreater:
case PitchGreaterThanOrEqual:
get_notes_by_pitch (n, op, val, chan_mask);
break;
case VelocityEqual:
case VelocityLessThan:
case VelocityLessThanOrEqual:
case VelocityGreater:
case VelocityGreaterThanOrEqual:
get_notes_by_velocity (n, op, val, chan_mask);
break;
}
}
template<typename Time>
void
Sequence<Time>::get_notes_by_pitch (Notes& n, NoteOperator op, uint8_t val, int chan_mask) const
{
for (uint8_t c = 0; c < 16; ++c) {
if (chan_mask != 0 && !((1<<c) & chan_mask)) {
continue;
}
const Pitches& p (pitches (c));
NotePtr search_note(new Note<Time>(0, 0, 0, val, 0));
typename Pitches::const_iterator i;
switch (op) {
case PitchEqual:
i = p.lower_bound (search_note);
while (i != p.end() && (*i)->note() == val) {
n.insert (*i);
}
break;
case PitchLessThan:
i = p.upper_bound (search_note);
while (i != p.end() && (*i)->note() < val) {
n.insert (*i);
}
break;
case PitchLessThanOrEqual:
i = p.upper_bound (search_note);
while (i != p.end() && (*i)->note() <= val) {
n.insert (*i);
}
break;
case PitchGreater:
i = p.lower_bound (search_note);
while (i != p.end() && (*i)->note() > val) {
n.insert (*i);
}
break;
case PitchGreaterThanOrEqual:
i = p.lower_bound (search_note);
while (i != p.end() && (*i)->note() >= val) {
n.insert (*i);
}
break;
default:
//fatal << string_compose (_("programming error: %1 %2", X_("get_notes_by_pitch() called with illegal operator"), op)) << endmsg;
abort ();
/* NOTREACHED*/
}
}
}
template<typename Time>
void
Sequence<Time>::get_notes_by_velocity (Notes& n, NoteOperator op, uint8_t val, int chan_mask) const
{
ReadLock lock (read_lock());
for (typename Notes::const_iterator i = _notes.begin(); i != _notes.end(); ++i) {
if (chan_mask != 0 && !((1<<((*i)->channel())) & chan_mask)) {
continue;
}
switch (op) {
case VelocityEqual:
if ((*i)->velocity() == val) {
n.insert (*i);
}
break;
case VelocityLessThan:
if ((*i)->velocity() < val) {
n.insert (*i);
}
break;
case VelocityLessThanOrEqual:
if ((*i)->velocity() <= val) {
n.insert (*i);
}
break;
case VelocityGreater:
if ((*i)->velocity() > val) {
n.insert (*i);
}
break;
case VelocityGreaterThanOrEqual:
if ((*i)->velocity() >= val) {
n.insert (*i);
}
break;
default:
// fatal << string_compose (_("programming error: %1 %2", X_("get_notes_by_velocity() called with illegal operator"), op)) << endmsg;
abort ();
/* NOTREACHED*/
}
}
}
template<typename Time>
void
Sequence<Time>::set_overlap_pitch_resolution (OverlapPitchResolution opr)
{
_overlap_pitch_resolution = opr;
/* XXX todo: clean up existing overlaps in source data? */
}
template<typename Time>
void
Sequence<Time>::control_list_marked_dirty ()
{
set_edited (true);
}
template class Sequence<Evoral::MusicalTime>;
} // namespace Evoral
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