MuseScore/libmscore/layout.cpp
2014-05-09 08:51:12 -06:00

3700 lines
150 KiB
C++

//=============================================================================
// MuseScore
// Music Composition & Notation
//
// Copyright (C) 2002-2011 Werner Schweer
//
// This program is free software; you can redistribute it and/or modify
// it under the terms of the GNU General Public License version 2
// as published by the Free Software Foundation and appearing in
// the file LICENCE.GPL
//=============================================================================
// #include <fenv.h>
#include "page.h"
#include "sig.h"
#include "key.h"
#include "clef.h"
#include "score.h"
#include "segment.h"
#include "text.h"
#include "staff.h"
#include "style.h"
#include "timesig.h"
#include "chord.h"
#include "note.h"
#include "slur.h"
#include "tie.h"
#include "keysig.h"
#include "barline.h"
#include "repeat.h"
#include "box.h"
#include "system.h"
#include "part.h"
#include "utils.h"
#include "measure.h"
#include "volta.h"
#include "beam.h"
#include "tuplet.h"
#include "sym.h"
#include "fingering.h"
#include "stem.h"
#include "layoutbreak.h"
#include "mscore.h"
#include "accidental.h"
#include "undo.h"
#include "layout.h"
#include "lyrics.h"
#include "harmony.h"
#include "ottava.h"
#include "notedot.h"
#include "element.h"
namespace Ms {
//---------------------------------------------------------
// rebuildBspTree
//---------------------------------------------------------
void Score::rebuildBspTree()
{
int n = _pages.size();
for (int i = 0; i < n; ++i)
_pages.at(i)->rebuildBspTree();
}
//---------------------------------------------------------
// searchNote
// search for note or rest before or at tick position tick
// in staff
//---------------------------------------------------------
ChordRest* Score::searchNote(int tick, int track) const
{
ChordRest* ipe = 0;
Segment::SegmentTypes st = Segment::SegChordRest;
for (Segment* segment = firstSegment(st); segment; segment = segment->next(st)) {
ChordRest* cr = static_cast<ChordRest*>(segment->element(track));
if (!cr)
continue;
if (cr->tick() == tick)
return cr;
if (cr->tick() > tick)
return ipe ? ipe : cr;
ipe = cr;
}
return 0;
}
//---------------------------------------------------------
// layoutChords1
// - layout upstem and downstem chords
// - offset as necessary to avoid conflict
//---------------------------------------------------------
void Score::layoutChords1(Segment* segment, int staffIdx)
{
Staff* staff = Score::staff(staffIdx);
// if (staff->isDrumStaff() || staff->isTabStaff())
if (staff->isTabStaff())
return;
int upVoices = 0, downVoices = 0;
int startTrack = staffIdx * VOICES;
int endTrack = startTrack + VOICES;
QList<Note*> upStemNotes, downStemNotes;
qreal nominalWidth = noteHeadWidth() * staff->mag();
qreal maxUpWidth = 0.0;
qreal maxDownWidth = 0.0;
qreal maxUpMag = 0.0;
qreal maxDownMag = 0.0;
// dots can affect layout of notes as well as vice versa
int upDots = 0;
int downDots = 0;
for (int track = startTrack; track < endTrack; ++track) {
Element* e = segment->element(track);
if (e && (e->type() == Element::CHORD)) {
Chord* chord = static_cast<Chord*>(e);
for (Chord* c : chord->graceNotes()) {
// layout grace note noteheads
layoutChords2(c->notes(), c->up());
// layout grace note chords
layoutChords3(c->notes(), staff, 0);
}
if (chord->up()) {
++upVoices;
upStemNotes.append(chord->notes());
upDots = qMax(upDots, chord->dots());
maxUpMag = qMax(maxUpMag, chord->mag());
}
else {
++downVoices;
downStemNotes.append(chord->notes());
downDots = qMax(downDots, chord->dots());
maxDownMag = qMax(maxDownMag, chord->mag());
}
}
}
if (upVoices + downVoices == 0)
return;
// TODO: use track as secondary sort criteria?
// otherwise there might be issues with unisons between voices
// in some corner cases
maxUpWidth = nominalWidth * maxUpMag;
maxDownWidth = nominalWidth * maxDownMag;
// layout upstem noteheads
if (upVoices > 1) {
qSort(upStemNotes.begin(), upStemNotes.end(),
[](Note* n1, const Note* n2) ->bool {return n1->line() > n2->line(); } );
}
if (upVoices) {
qreal hw = layoutChords2(upStemNotes, true);
maxUpWidth = qMax(maxUpWidth, hw);
}
// layout downstem noteheads
if (downVoices > 1) {
qSort(downStemNotes.begin(), downStemNotes.end(),
[](Note* n1, const Note* n2) ->bool {return n1->line() > n2->line(); } );
}
if (downVoices) {
qreal hw = layoutChords2(downStemNotes, false);
maxDownWidth = qMax(maxDownWidth, hw);
}
qreal sp = staff->spatium();
qreal upOffset = 0.0;
qreal downOffset = 0.0;
qreal dotAdjust = 0.0; // additional chord offset to account for dots
// centering adjustments for whole note, breve, and small chords
qreal centerUp = 0.0;
qreal oversizeUp = 0.0;
qreal centerDown = 0.0;
qreal headDiff;
qreal centerThreshold = 0.1 * sp;
headDiff = maxUpWidth - nominalWidth;
if (headDiff > centerThreshold) {
// larger than nominal
centerUp = headDiff * 0.5;
oversizeUp = headDiff;
maxUpWidth = nominalWidth + centerUp;
}
else if (-headDiff > centerThreshold) {
// smaller than nominal
centerUp = headDiff * -0.5;
}
headDiff = maxDownWidth - nominalWidth;
if (headDiff > centerThreshold) {
centerDown = headDiff * -0.5;
maxDownWidth = nominalWidth - centerDown;
}
else if (-headDiff > centerThreshold)
centerDown = headDiff * -0.5;
// handle conflict between upstem and downstem chords
if (upVoices && downVoices) {
Note* bottomUpNote = upStemNotes.first();
Note* topDownNote = downStemNotes.last();
int separation = topDownNote->line() - bottomUpNote->line();
QList<Note*> overlapNotes;
if (separation == 1) {
// second
downOffset = maxUpWidth;
// align stems if present, leave extra room if not
if (topDownNote->chord()->stem() && bottomUpNote->chord()->stem())
downOffset -= topDownNote->chord()->stem()->lineWidth();
else
downOffset += 0.1 * sp;
}
else if (separation < 1) {
// overlap (possibly unison)
// build list of overlapping notes
for (int i = 0, n = upStemNotes.size(); i < n; ++i) {
if (upStemNotes[i]->line() >= topDownNote->line() - 1)
overlapNotes.append(upStemNotes[i]);
else
break;
}
for (int i = downStemNotes.size() - 1; i >= 0; --i) {
if (downStemNotes[i]->line() <= bottomUpNote->line() + 1)
overlapNotes.append(downStemNotes[i]);
else
break;
}
qSort(overlapNotes.begin(), overlapNotes.end(),
[](Note* n1, const Note* n2) ->bool {return n1->line() > n2->line(); } );
// determine nature of overlap
bool shareHeads = true; // can all overlapping notes share heads?
bool matchPending = false; // looking for a unison match
bool conflictUnison = false; // unison found
bool conflictSecondUpHigher = false; // second found
bool conflictSecondDownHigher = false; // second found
int lastLine = 1000;
Note* p = overlapNotes[0];
for (int i = 0, count = overlapNotes.size(); i < count; ++i) {
Note* n = overlapNotes[i];
NoteHeadType nHeadType;
NoteHeadType pHeadType;
Chord* nchord = n->chord();
Chord* pchord = p->chord();
if (n->mirror()) {
if (separation < 0) {
// don't try to share heads if there is any mirroring
shareHeads = false;
// don't worry about conflicts involving mirrored notes
continue;
}
}
int line = n->line();
int d = lastLine - line;
switch (d) {
case 0:
// unison
conflictUnison = true;
matchPending = false;
nHeadType = (n->headType() == NoteHeadType::HEAD_AUTO) ? n->chord()->durationType().headType() : n->headType();
pHeadType = (p->headType() == NoteHeadType::HEAD_AUTO) ? p->chord()->durationType().headType() : p->headType();
// the most important rules for sharing noteheads on unisons between voices are
// that notes must be one same line with same tpc
// noteheads must be unmirrored and of same group and type
// and chords must be same size (or sharing code won't work)
if (n->headGroup() != p->headGroup() || nHeadType != pHeadType || n->tpc() != p->tpc() || n->mirror() || p->mirror() || nchord->small() != pchord->small()) {
shareHeads = false;
}
else {
// noteheads are potentially shareable
// it is more subjective at this point
// current default is to require *either* of the following:
// 1) both chords have same number of dots, both have stems, and both noteheads are full size
// or 2) one or more of the noteheads is not of type AUTO, but is explicitly set to match the other
// thus user can force notes to be shared despite differing number of dots or either being stemless
// by setting one of the notehead types to match the other
// TODO: consider adding a style option, staff properties, or note property to control sharing
if ((nchord->dots() != pchord->dots() || !nchord->stem() || !pchord->stem() || n->small() || p->small()) &&
(n->headType() == NoteHeadType::HEAD_AUTO && p->headType() == NoteHeadType::HEAD_AUTO)) {
shareHeads = false;
}
}
break;
case 1:
// second
// trust that this won't be a problem for single unison
if (separation < 0) {
if (n->chord()->up())
conflictSecondUpHigher = true;
else
conflictSecondDownHigher = true;
shareHeads = false;
}
break;
default:
// no conflict
if (matchPending)
shareHeads = false;
matchPending = true;
}
p = n;
lastLine = line;
}
if (matchPending)
shareHeads = false;
// calculate offsets
if (shareHeads) {
for (int i = overlapNotes.size() - 1; i >= 1; i -= 2) {
Note* p = overlapNotes[i-1];
Note* n = overlapNotes[i];
if (!(p->chord()->isNudged() || n->chord()->isNudged())) {
if (p->chord()->dots() == n->chord()->dots()) {
// hide one set dots
bool onLine = !(p->line() & 1);
if (onLine) {
// hide dots for lower voice
if (p->voice() & 1)
p->setDotsHidden(true);
else
n->setDotsHidden(true);
}
else {
// hide dots for upper voice
if (!(p->voice() & 1))
p->setDotsHidden(true);
else
n->setDotsHidden(true);
}
}
// formerly we hid noteheads in an effort to fix playback
// but this doesn't work for cases where noteheads cannot be shared
// so better to solve the problem elsewhere
}
}
}
else if (conflictUnison && separation == 0)
downOffset = maxUpWidth + 0.3 * sp;
else if (conflictUnison)
upOffset = maxDownWidth + 0.3 * sp;
else if (conflictSecondUpHigher)
upOffset = maxDownWidth + 0.2 * sp;
else if (conflictSecondDownHigher) {
if (downDots && !upDots)
downOffset = maxUpWidth + 0.3 * sp;
else
upOffset = maxDownWidth - 0.2 * sp;
}
else {
// no direct conflict, so parts can overlap (downstem on left)
// just be sure that stems clear opposing noteheads
qreal clearLeft = 0.0, clearRight = 0.0;
if (topDownNote->chord()->stem())
clearLeft = topDownNote->chord()->stem()->lineWidth() + 0.3 * sp;
if (bottomUpNote->chord()->stem())
clearRight = bottomUpNote->chord()->stem()->lineWidth() + qMax(maxDownWidth - maxUpWidth, 0.0) + 0.3 * sp;
else
downDots = 0; // no need to adjust for dots in this case
upOffset = qMax(clearLeft, clearRight);
}
}
// adjust for dots
if ((upDots && !downDots) || (downDots && !upDots)) {
// only one sets of dots
// place between chords
int dots;
qreal mag;
if (upDots) {
dots = upDots;
mag = maxUpMag;
}
else {
dots = downDots;
mag = maxDownMag;
}
qreal dotWidth = segment->symWidth(SymId::augmentationDot);
// first dot
dotAdjust = point(styleS(ST_dotNoteDistance)) + dotWidth;
// additional dots
if (dots > 1)
dotAdjust += point(styleS(ST_dotDotDistance)) * (dots - 1);
dotAdjust *= mag;
}
if (separation == 1)
dotAdjust += 0.1 * sp;
}
// apply chord offsets
for (int track = startTrack; track < endTrack; ++track) {
Element* e = segment->element(track);
if (e && (e->type() == Element::CHORD)) {
Chord* chord = static_cast<Chord*>(e);
if (chord->up()) {
if (upOffset != 0.0) {
chord->rxpos() += upOffset + oversizeUp;
if (downDots && !upDots)
chord->rxpos() += dotAdjust;
}
else
chord->rxpos() += centerUp;
}
else {
if (downOffset != 0.0) {
chord->rxpos() += downOffset;
if (upDots && !downDots)
chord->rxpos() += dotAdjust;
}
else
chord->rxpos() += centerDown;
}
}
}
// layout chords
QList<Note*> notes;
if (upVoices)
notes.append(upStemNotes);
if (downVoices)
notes.append(downStemNotes);
if (upVoices + downVoices > 1)
qSort(notes.begin(), notes.end(),
[](Note* n1, const Note* n2) ->bool {return n1->line() > n2->line(); } );
layoutChords3(notes, staff, segment);
}
//---------------------------------------------------------
// layoutChords2
// - determine which notes need mirroring
// - this is called once for each stem direction
// eg, once for voices 1&3, once for 2&4
// with all notes combined and sorted to resemble one chord
// - return maximum non-mirrored notehead width
//---------------------------------------------------------
qreal Score::layoutChords2(QList<Note*>& notes, bool up)
{
int startIdx, endIdx, incIdx;
qreal maxWidth = 0.0;
// loop in correct direction so that first encountered notehead wins conflict
if (up) {
// loop bottom up
startIdx = 0;
endIdx = notes.size();
incIdx = 1;
}
else {
// loop top down
startIdx = notes.size() - 1;
endIdx = -1;
incIdx = -1;
}
int ll = 1000; // line distance to previous note head
// hack: start high so first note won't show as conflict
bool mirror = false; // do we need to mirror this notehead?
bool isLeft = notes[startIdx]->chord()->up(); // is note head on left?
int move1 = notes[startIdx]->chord()->staffMove(); // chord moved to staff above or below
for (int idx = startIdx; idx != endIdx; idx += incIdx) {
Note* note = notes[idx]; // current note
int line = note->line(); // line of current note
Chord* chord = note->chord();
int ticks = chord->actualTicks(); // duration of current note
int move = chord->staffMove();
//NoteHeadGroup headGroup = note->headGroup(); // head group of current note
// calculate head type of current note if group is AUTO
//NoteHeadType headType = (note->headType() == NoteHeadType::HEAD_AUTO)
// ? note->chord()->durationType().headType() : NoteHeadType(int(note->headType()) - 1);
// there is a conflict
// if this same or adjacent line as previous note
bool conflict = (qAbs(ll - line) < 2) && (move1 == move);
// this note is on opposite side of stem as previous note
// if there is a conflict
// or if this the first note *after* a conflict
if (conflict || (chord->up() != isLeft))
isLeft = !isLeft;
// we need to mirror this note
// if it's not on the correct side
// previously we also skipped the mirror
// if it shared a note head with previous note
// but it's been suggested that it would be better
// to show the unison more clearly by default
bool nmirror = (chord->up() != isLeft);
// two notes can *possibly* share a notehead if on same line and have same group and type
// however, we will only actually do this if user mirrors
bool sameHead = (ll == line) && (nmirror == mirror);
// we will potentially hide note and dots
// for notes sharing a head
// we will only show them if one is nudged
note->setHidden(false);
note->setDotsHidden(false);
// now start the actual layout
chord->rxpos() = 0.0;
// handle conflict
if (conflict && (nmirror == mirror)) { // && idx
if (sameHead) {
Note* pnote = notes[idx-incIdx]; // idx-1
if (!(pnote->parent()->isNudged() || note->parent()->isNudged())) {
if (ticks > pnote->chord()->actualTicks()) {
pnote->setHidden(true);
if (chord->dots() == pnote->chord()->dots())
pnote->setDotsHidden(true);
// TODO: pnote->setAccidentalType(ACC_NONE);
}
else {
// TODO: note->setAccidentalType(ACC_NONE);
note->setHidden(true);
if (chord->dots() == pnote->chord()->dots())
note->setDotsHidden(true);
}
}
}
else {
qreal x = note->headWidth() - note->point(styleS(ST_stemWidth));
if ((line > ll) || !chord->up())
note->chord()->rxpos() = x;
else
notes[idx-incIdx]->chord()->rxpos() = x;
note->rxpos() = 0.0;
}
}
if (note->userMirror() == DirectionH::DH_AUTO) {
mirror = nmirror;
}
else {
mirror = note->chord()->up();
if (note->userMirror() == DirectionH::DH_LEFT)
mirror = !mirror;
}
note->setMirror(mirror);
if (!mirror)
maxWidth = qMax(maxWidth, note->headWidth());
move1 = move;
ll = line;
// lastHeadGroup = headGroup;
// lastHeadType = headType;
}
return maxWidth;
}
//---------------------------------------------------------
// AcEl
//---------------------------------------------------------
struct AcEl {
Note* note;
qreal x; // actual x position of this accidental relative to origin
qreal top; // top of accidental bbox relative to staff
qreal bottom; // bottom of accidental bbox relative to staff
int line; // line of note
int next; // index of next accidental of same pitch class (ascending list)
qreal width; // width of accidental
qreal ascent; // amount (in sp) vertical strokes extend above body
qreal descent; // amount (in sp) vertical strokes extend below body
qreal rightClear; // amount (in sp) to right of last vertical stroke above body
qreal leftClear; // amount (in sp) to left of last vertical stroke below body
};
//---------------------------------------------------------
// resolveAccidentals
//---------------------------------------------------------
static bool resolveAccidentals(AcEl* left, AcEl* right, qreal& lx, qreal pnd, qreal pd, qreal sp)
{
AcEl* upper;
AcEl* lower;
if (left->line >= right->line) {
upper = right;
lower = left;
}
else {
upper = left;
lower = right;
}
qreal gap = lower->top - upper->bottom;
// no conflict at all if there is sufficient vertical gap between accidentals
if (gap >= pd)
return false;
qreal allowableOverlap = qMax(upper->descent, lower->ascent);
// accidentals that are "close" (small gap or even slight overlap)
if (qAbs(gap) <= 0.25 * sp) {
// acceptable with slight offset
// if one of the accidentals can subsume the overlap
// and both accidentals allow it
if (-gap <= allowableOverlap && qMin(upper->descent, lower->ascent) > 0.0) {
// offset by pd (caller will subtract pnd back)
qreal align = qMin(left->width, right->width) + pnd;
lx = qMin(lx, right->x + align - pd);
return false;
}
}
// accidentals with more significant overlap
// acceptable if one accidental can subsume overlap
if (left == lower && -gap <= allowableOverlap) {
qreal offset = qMax(left->rightClear, right->leftClear);
offset = qMin(offset, left->width - pd);
lx = qMin(lx, right->x + offset);
return false;
}
// accidentals with even more overlap
// can work if both accidentals can subsume overlap
if (left == lower && -gap <= upper->descent + lower->ascent) {
qreal offset = qMin(left->rightClear, right->leftClear);
if (offset > 0.0) {
lx = qMin(lx, right->x + offset);
return false;
}
}
// otherwise, there is real conflict
lx = qMin(lx, right->x);
return true;
}
//---------------------------------------------------------
// layoutAccidental
//---------------------------------------------------------
static qreal layoutAccidental(AcEl* me, AcEl* above, AcEl* below, qreal colOffset, QList<Note*>& leftNotes, qreal pnd, qreal pd, qreal sp)
{
qreal lx = colOffset;
// extra space for ledger lines
if (me->line <= -2 || me->line >= me->note->staff()->lines() * 2)
lx = qMin(lx, -0.2 * sp);
// clear left notes
int lns = leftNotes.size();
for (int i = 0; i < lns; ++i) {
Note* ln = leftNotes[i];
int lnLine = ln->line();
qreal lnTop = (lnLine - 1) * 0.5 * sp;
qreal lnBottom = lnTop + sp;
if (me->top - lnBottom <= pnd && lnTop - me->bottom <= pnd) {
// undercut note above if possible
if (lnBottom - me->top <= me->ascent)
lx = qMin(lx, ln->x() + ln->chord()->x() + me->rightClear);
else
lx = qMin(lx, ln->x() + ln->chord()->x());
}
else if (lnTop > me->bottom)
break;
}
// clear other accidentals
bool conflictAbove = false;
bool conflictBelow = false;
Accidental* acc = me->note->accidental();
if (above)
conflictAbove = resolveAccidentals(me, above, lx, pnd, pd, sp);
if (below)
conflictBelow = resolveAccidentals(me, below, lx, pnd, pd, sp);
if (conflictAbove || conflictBelow || colOffset != 0.0)
me->x = lx - pd * acc->mag() - acc->width();
else
me->x = lx - pnd * acc->mag() - acc->width() - acc->bbox().x();
return me->x;
}
//---------------------------------------------------------
// layoutChords3
// - calculate positions of notes, accidentals, dots
//---------------------------------------------------------
void Score::layoutChords3(QList<Note*>& notes, Staff* staff, Segment* segment)
{
//---------------------------------------------------
// layout accidentals
// find column for dots
//---------------------------------------------------
QList<Note*> leftNotes; // notes to left of origin
QList<AcEl> aclist; // accidentals
// track columns of octave-separated accidentals
int columnBottom[7] = { -1, -1, -1, -1, -1, -1, -1 };
qreal sp = staff->spatium();
qreal stepDistance = sp * .5;
int stepOffset = staff->staffType()->stepOffset();
qreal lx = 10000.0; // leftmost note head position
qreal upDotPosX = 0.0;
qreal downDotPosX = 0.0;
int nNotes = notes.size();
int nAcc = 0;
for (int i = nNotes-1; i >= 0; --i) {
Note* note = notes[i];
Accidental* ac = note->accidental();
if (ac) {
ac->layout();
AcEl acel;
acel.note = note;
int line = note->line();
acel.line = line;
acel.x = 0.0;
acel.top = line * 0.5 * sp + ac->bbox().top();
acel.bottom = line * 0.5 * sp + ac->bbox().bottom();
acel.width = ac->width();
qreal scale = sp * ac->mag();
switch (ac->accidentalType()) {
case Accidental::ACC_FLAT:
acel.ascent = 1.2 * scale;
acel.descent = 0;
acel.rightClear = 0.5 * scale;
acel.leftClear = 0;
break;
case Accidental::ACC_FLAT2:
acel.ascent = 1.2 * scale;
acel.descent = 0;
acel.rightClear = 0.25 * scale;
acel.leftClear = 0;
break;
case Accidental::ACC_NATURAL:
acel.ascent = 0.5 * scale;
acel.descent = 0.7 * scale;
acel.rightClear = 0.5 * scale;
acel.leftClear = 0.5 * scale;
break;
case Accidental::ACC_SHARP:
acel.ascent = 0.25 * scale;
acel.descent = 0.25 * scale;
acel.rightClear = 0;
acel.leftClear = 0;
break;
default:
acel.ascent = 0;
acel.descent = 0;
acel.rightClear = 0;
acel.leftClear = 0;
}
int pitchClass = (line + 700) % 7;
acel.next = columnBottom[pitchClass];
columnBottom[pitchClass] = nAcc;
aclist.append(acel);
++nAcc;
}
qreal hw = note->headWidth();
Chord* chord = note->chord();
bool _up = chord->up();
qreal stemX = chord->stemPosX();
qreal overlapMirror;
if (chord->stem()) {
qreal stemWidth = chord->stem()->lineWidth();
qreal stemWidth5 = stemWidth * 0.5;
chord->stem()->rxpos() = _up ? stemX - stemWidth5 : stemWidth5;
overlapMirror = stemWidth;
}
else if (chord->durationType().headType() == NoteHeadType::HEAD_WHOLE)
overlapMirror = styleD(ST_stemWidth) * chord->mag() * sp;
else
overlapMirror = 0.0;
qreal x;
if (note->mirror()) {
if (_up)
x = stemX - overlapMirror;
else
x = stemX - hw + overlapMirror;
}
else {
if (_up)
x = stemX - hw;
else
x = 0.0;
}
note->rypos() = (note->line() + stepOffset) * stepDistance;
note->rxpos() = x;
// find leftmost non-mirrored note to set as X origin for accidental layout
// a mirrored note that extends to left of segment X origin
// will displace accidentals only if there is conflict
// currently, we ignore user note/chord offsets in setting X origin
// previous versions took these offsets into account
// replace chord->rxpos() with chord->x() + note->userOff().x()
// to restore previous behavior
qreal sx = x + chord->rxpos(); // segment-relative x position
if (note->mirror() && !chord->up() && sx < 0.0)
leftNotes.append(note);
else if (sx < lx)
lx = sx;
//if (chord->stem())
// chord->stem()->rxpos() = _up ? x + hw - stemWidth5 : x + stemWidth5;
qreal xx = x + hw + chord->pos().x();
if (chord->dots()) {
if (chord->up())
upDotPosX = qMax(upDotPosX, xx);
else
downDotPosX = qMax(downDotPosX, xx);
Direction dotPosition = note->userDotPosition();
if (dotPosition == Direction::AUTO && nNotes > 1) {
// resolve dot conflicts
int line = note->line();
Note* above = (i < nNotes - 1) ? notes[i+1] : 0;
int intervalAbove = above ? line - above->line() : 1000;
Note* below = (i > 0) ? notes[i-1] : 0;
int intervalBelow = below ? below->line() - line : 1000;
if ((line & 1) == 0) {
// line
if (intervalAbove == 1 && intervalBelow != 1)
dotPosition = Direction::DOWN;
else if (intervalBelow ==1 && intervalAbove != 1)
dotPosition = Direction::UP;
else if (intervalAbove == 0 && above->chord()->dots()) {
// unison
if (((above->voice() & 1) == (note->voice() & 1))) {
above->setDotY(Direction::UP);
dotPosition = Direction::DOWN;
}
}
}
else {
// space
if (intervalAbove == 0 && above->chord()->dots()) {
// unison
if (!(note->voice() & 1))
dotPosition = Direction::UP;
else {
if (!(above->voice() & 1))
above->setDotY(Direction::UP);
else
dotPosition = Direction::DOWN;
}
}
}
}
note->setDotY(dotPosition);
}
}
if (segment) {
// align all dots for segment/staff
// it would be possible to dots for up & down chords separately
// this would require space to have been allocated previously
// when calculating chord offsets
segment->setDotPosX(staff->idx(), qMax(upDotPosX, downDotPosX));
}
if (nAcc == 0)
return;
QList<int> umi;
qreal pd = point(styleS(ST_accidentalDistance));
qreal pnd = point(styleS(ST_accidentalNoteDistance));
qreal colOffset = 0.0;
if (nAcc >= 2 && aclist[nAcc-1].line - aclist[0].line >= 7) {
// accidentals spread over an octave or more
// set up columns for accidentals with octave matches
// these will start at right and work to the left
// unmatched accidentals will use zig zag approach (see below)
// starting to the left of the octave columns
qreal minX = 0.0;
int columnTop[7] = { -1, -1, -1, -1, -1, -1, -1 };
// find columns of octaves
for (int pc = 0; pc < 7; ++pc) {
if (columnBottom[pc] == -1)
continue;
// calculate column height
for (int j = columnBottom[pc]; j != -1; j = aclist[j].next)
columnTop[pc] = j;
}
// compute reasonable column order
// use zig zag
QList<int> column;
QList<int> unmatched;
int n = nAcc - 1;
for (int i = 0; i <= n; ++i, --n) {
int pc = (aclist[i].line + 700) % 7;
if (aclist[columnTop[pc]].line != aclist[columnBottom[pc]].line) {
if (!column.contains(pc))
column.append(pc);
}
else
unmatched.append(i);
if (i == n)
break;
pc = (aclist[n].line + 700) % 7;
if (aclist[columnTop[pc]].line != aclist[columnBottom[pc]].line) {
if (!column.contains(pc))
column.append(pc);
}
else
unmatched.append(n);
}
int nColumns = column.size();
int nUnmatched = unmatched.size();
// handle unmatched accidentals
for (int i = 0; i < nUnmatched; ++i) {
// first try to slot it into an existing column
AcEl* me = &aclist[unmatched[i]];
// find column
bool found = false;
for (int j = 0; j < nColumns; ++j) {
int pc = column[j];
int above = -1;
int below = -1;
// find slot within column
for (int k = columnBottom[pc]; k != -1; k = aclist[k].next) {
if (aclist[k].line < me->line) {
above = k;
break;
}
below = k;
}
// check to see if accidental can fit in slot
qreal myPd = pd * me->note->mag();
bool conflict = false;
if (above != -1 && me->top - aclist[above].bottom < myPd)
conflict = true;
else if (below != -1 && aclist[below].top - me->bottom < myPd)
conflict = true;
if (!conflict) {
// insert into column
found = true;
me->next = above;
if (above == -1)
columnTop[pc] = unmatched[i];
if (below != -1)
aclist[below].next = unmatched[i];
else
columnBottom[pc] = unmatched[i];
break;
}
}
// if no slot found, then add to list of unmatched accidental indices
if (!found)
umi.append(unmatched[i]);
}
nAcc = umi.size();
if (nAcc > 1)
qSort(umi);
// lay out columns
for (int i = 0; i < nColumns; ++i) {
int pc = column[i];
AcEl* below = 0;
// lay out accidentals
for (int j = columnBottom[pc]; j != -1; j = aclist[j].next) {
qreal x = layoutAccidental(&aclist[j], 0, below, colOffset, leftNotes, pnd, pd, sp);
minX = qMin(minX, x);
below = &aclist[j];
}
// align within column
int next = -1;
for (int j = columnBottom[pc]; j != -1; j = next) {
next = aclist[j].next;
if (next != -1 && aclist[j].line == aclist[next].line)
continue;
aclist[j].x = minX;
}
// move to next column
colOffset = minX;
}
}
else {
for (int i = 0; i < nAcc; ++i)
umi.append(i);
}
if (nAcc) {
// for accidentals with no octave matches, use zig zag approach
// layout right to left in pairs, (next) highest then lowest
AcEl* me = &aclist[umi[0]];
AcEl* above = 0;
AcEl* below = 0;
// layout top accidental
layoutAccidental(me, above, below, colOffset, leftNotes, pnd, pd, sp);
// layout bottom accidental
int n = nAcc - 1;
if (n > 0) {
above = me;
me = &aclist[umi[n]];
layoutAccidental(me, above, below, colOffset, leftNotes, pnd, pd, sp);
}
// layout middle accidentals
if (n > 1) {
for (int i = 1; i < n; ++i, --n) {
// next highest
below = me;
me = &aclist[umi[i]];
layoutAccidental(me, above, below, colOffset, leftNotes, pnd, pd, sp);
if (i == n - 1)
break;
// next lowest
above = me;
me = &aclist[umi[n-1]];
layoutAccidental(me, above, below, colOffset, leftNotes, pnd, pd, sp);
}
}
}
for (const AcEl& e : aclist) {
Note* note = e.note;
qreal x = e.x + lx - (note->x() + note->chord()->x());
note->accidental()->setPos(x, 0);
note->accidental()->adjustReadPos();
}
}
//---------------------------------------------------------
// beamGraceNotes
//---------------------------------------------------------
void Score::beamGraceNotes(Chord* mainNote)
{
ChordRest* a1 = 0; // start of (potential) beam
Beam* beam = 0; // current beam
BeamMode bm = BeamMode::AUTO;
foreach (ChordRest* cr, mainNote->graceNotes()) {
bm = Groups::endBeam(cr);
if ((cr->durationType().type() <= TDuration::V_QUARTER) || (bm == BeamMode::NONE)) {
if (beam) {
beam->layoutGraceNotes();
beam = 0;
}
if (a1) {
a1->removeDeleteBeam();
a1 = 0;
}
cr->removeDeleteBeam();
continue;
}
if (beam) {
bool beamEnd = bm == BeamMode::BEGIN;
if (!beamEnd) {
cr->removeDeleteBeam(true);
beam->add(cr);
cr = 0;
beamEnd = (bm == BeamMode::END);
}
if (beamEnd) {
beam->layoutGraceNotes();
beam = 0;
}
}
if (!cr)
continue;
if (a1 == 0)
a1 = cr;
else {
if (!beamModeMid(bm) && (bm == BeamMode::BEGIN)) {
a1->removeDeleteBeam();
a1 = cr;
}
else {
beam = a1->beam();
if (beam == 0 || beam->elements().front() != a1) {
beam = new Beam(this);
beam->setGenerated(true);
beam->setTrack(mainNote->track());
a1->removeDeleteBeam(true);
beam->add(a1);
}
cr->removeDeleteBeam(true);
beam->add(cr);
a1 = 0;
}
}
}
if (beam)
beam->layoutGraceNotes();
else if (a1)
a1->removeDeleteBeam();
}
//---------------------------------------------------------
// layoutStage2
// auto - beamer
//---------------------------------------------------------
void Score::layoutStage2()
{
int tracks = nstaves() * VOICES;
bool crossMeasure = styleB(ST_crossMeasureValues);
for (int track = 0; track < tracks; ++track) {
if (!staff(track2staff(track))->show())
continue;
ChordRest* a1 = 0; // start of (potential) beam
Beam* beam = 0; // current beam
Measure* measure = 0;
BeamMode bm = BeamMode::AUTO;
Segment::SegmentTypes st = Segment::SegChordRest;
for (Segment* segment = firstSegment(st); segment; segment = segment->next1(st)) {
ChordRest* cr = static_cast<ChordRest*>(segment->element(track));
if (cr == 0)
continue;
if (cr->type() == Element::CHORD) {
Chord* chord = static_cast<Chord*>(cr);
beamGraceNotes(chord);
// set up for cross-measure values as soon as possible
// to have all computations (stems, hooks, ...) consistent with it
if (!chord->isGrace())
chord->crossMeasureSetup(crossMeasure);
}
bm = Groups::endBeam(cr);
// if chord has hooks and is 2nd element of a cross-measure value
// set beam mode to NONE (do not combine with following chord beam/hook, if any)
if (cr->durationType().hooks() > 0 && cr->crossMeasure() == CROSSMEASURE_SECOND)
bm = BeamMode::NONE;
if (cr->measure() != measure) {
if (measure && !beamModeMid(bm)) {
if (beam) {
beam->layout1();
beam = 0;
}
else if (a1) {
a1->removeDeleteBeam();
a1 = 0;
}
}
measure = cr->measure();
if (!beamModeMid(bm)) {
a1 = 0;
beam = 0;
}
}
if ((cr->durationType().type() <= TDuration::V_QUARTER) || (bm == BeamMode::NONE)) {
if (beam) {
beam->layout1();
beam = 0;
}
if (a1) {
a1->removeDeleteBeam();
a1 = 0;
}
cr->removeDeleteBeam();
continue;
}
if (beam) {
bool beamEnd = bm == BeamMode::BEGIN;
if (!beamEnd) {
cr->removeDeleteBeam(true);
beam->add(cr);
cr = 0;
beamEnd = (bm == BeamMode::END);
}
if (beamEnd) {
beam->layout1();
beam = 0;
}
}
if (!cr)
continue;
if (a1 == 0)
a1 = cr;
else {
if (!beamModeMid(bm)
&&
(bm == BeamMode::BEGIN
|| (a1->segment()->segmentType() != cr->segment()->segmentType())
|| (a1->tick() + a1->actualTicks() < cr->tick())
)
) {
a1->removeDeleteBeam();
a1 = cr;
}
else {
beam = a1->beam();
if (beam == 0 || beam->elements().front() != a1) {
beam = new Beam(this);
beam->setGenerated(true);
beam->setTrack(track);
a1->removeDeleteBeam(true);
beam->add(a1);
}
cr->removeDeleteBeam(true);
beam->add(cr);
a1 = 0;
}
}
}
if (beam)
beam->layout1();
else if (a1)
a1->removeDeleteBeam();
}
}
//---------------------------------------------------------
// layoutStage3
//---------------------------------------------------------
void Score::layoutStage3()
{
Segment::SegmentTypes st = Segment::SegChordRest;
for (int staffIdx = 0; staffIdx < nstaves(); ++staffIdx) {
if (!staff(staffIdx)->show())
continue;
for (Segment* segment = firstSegment(st); segment; segment = segment->next1(st)) {
layoutChords1(segment, staffIdx);
}
}
}
//---------------------------------------------------------
// layout
// - measures are akkumulated into systems
// - systems are akkumulated into pages
// already existent systems and pages are reused
//---------------------------------------------------------
void Score::doLayout()
{
_scoreFont = ScoreFont::fontFactory(_style.value(ST_MusicalSymbolFont).toString());
_noteHeadWidth = _scoreFont->width(SymId::noteheadBlack, spatium() / (MScore::DPI * SPATIUM20));
if (layoutFlags & LAYOUT_FIX_TICKS)
fixTicks();
if (layoutFlags & LAYOUT_FIX_PITCH_VELO)
updateVelo();
if (layoutFlags & LAYOUT_PLAY_EVENTS)
createPlayEvents();
int measureNo = 0;
for (Measure* m = firstMeasure(); m; m = m->nextMeasure()) {
Measure* measure = static_cast<Measure*>(m);
measureNo += measure->noOffset();
measure->setNo(measureNo);
if (measure->sectionBreak() && measure->sectionBreak()->startWithMeasureOne())
measureNo = 0;
else if (measure->irregular()) // dont count measure
;
else
++measureNo;
measure->setBreakMMRest(false);
}
for (MeasureBase* m = first(); m; m = m->next())
m->layout0();
layoutFlags = 0;
int nstaves = _staves.size();
for (int staffIdx = 0; staffIdx < nstaves; ++staffIdx) {
Staff* st = _staves[staffIdx];
if (!st->updateKeymap())
continue;
int track = staffIdx * VOICES;
st->keymap()->clear();
KeySig* key1 = 0;
for (Measure* m = firstMeasure(); m; m = m->nextMeasure()) {
for (Segment* s = m->first(); s; s = s->next()) {
Element* e = s->element(track);
if (e == 0 || e->generated())
continue;
if ((s->segmentType() == Segment::SegKeySig)) {
KeySig* ks = static_cast<KeySig*>(e);
int naturals = key1 ? key1->keySigEvent().accidentalType() : 0;
ks->setOldSig(naturals);
st->setKey(s->tick(), ks->keySigEvent());
key1 = ks;
}
}
if (m->sectionBreak() && (_layoutMode != LayoutFloat))
key1 = 0;
}
st->setUpdateKeymap(false);
}
if (_staves.isEmpty() || first() == 0) {
// score is empty
qDeleteAll(_pages);
_pages.clear();
Page* page = addPage();
page->layout();
page->setNo(0);
page->setPos(0.0, 0.0);
page->rebuildBspTree();
return;
}
for (Measure* m = firstMeasure(); m; m = m->nextMeasure())
m->layoutStage1();
if (styleB(ST_createMultiMeasureRests))
createMMRests();
layoutStage2(); // beam notes, finally decide if chord is up/down
layoutStage3(); // compute note head horizontal positions
if (layoutMode() == LayoutLine)
layoutLinear();
else
layoutSystems(); // create list of systems
//---------------------------------------------------
// place Spanner & beams
//---------------------------------------------------
int tracks = nstaves * VOICES;
for (int track = 0; track < tracks; ++track) {
for (Segment* segment = firstSegmentMM(); segment; segment = segment->next1MM()) {
if (track == tracks-1) {
for (Element* e : segment->annotations())
e->layout();
}
Element* e = segment->element(track);
if (!e)
continue;
if (e->isChordRest()) {
if (!staff(track2staff(track))->show())
continue;
ChordRest* cr = static_cast<ChordRest*>(e);
if (cr->beam() && cr->beam()->elements().front() == cr)
cr->beam()->layout();
if (cr->type() == Element::CHORD) {
Chord* c = static_cast<Chord*>(cr);
for (Chord* cc : c->graceNotes()) {
if (cc->beam() && cc->beam()->elements().front() == cc)
cc->beam()->layout();
for (Element* e : cc->el()) {
if (e->type() == Element::SLUR)
e->layout();
}
}
c->layoutStem();
c->layoutArpeggio2();
for (Note* n : c->notes()) {
Tie* tie = n->tieFor();
if (tie)
tie->layout();
for (Spanner* sp : n->spannerFor())
sp->layout();
}
}
cr->layoutArticulations();
}
else if (e->type() == Element::BAR_LINE)
e->layout();
}
}
for (const std::pair<int,Spanner*>& s : _spanner.map()) {
Spanner* sp = s.second;
if (sp->type() == Element::OTTAVA && sp->tick2() == -1) {
sp->setTick2(lastMeasure()->endTick());
sp->staff()->updateOttava(static_cast<Ottava*>(sp));
}
// 1.3 scores can have ties in this list
if (sp->type() != Element::TIE) {
if (sp->tick() == -1) {
qDebug("bad spanner id %d %s %d - %d", sp->id(), sp->name(), sp->tick(), sp->tick2());
}
else
sp->layout();
}
}
if (layoutMode() != LayoutLine) {
layoutSystems2();
layoutPages(); // create list of pages
}
for (Measure* m = firstMeasureMM(); m; m = m->nextMeasureMM())
m->layout2();
rebuildBspTree();
int n = viewer.size();
for (int i = 0; i < n; ++i) {
viewer.at(i)->layoutChanged();
viewer.at(i)->updateLoopCursors();
}
_layoutAll = false;
}
//---------------------------------------------------------
// layoutSpanner
// called after dragging a staff
//---------------------------------------------------------
void Score::layoutSpanner()
{
int tracks = ntracks();
for (int track = 0; track < tracks; ++track) {
for (Segment* segment = firstSegment(); segment; segment = segment->next1()) {
if (track == tracks-1) {
int n = segment->annotations().size();
for (int i = 0; i < n; ++i)
segment->annotations().at(i)->layout();
}
Element* e = segment->element(track);
if (!e)
continue;
if (e->isChordRest()) {
Chord* c = static_cast<Chord*>(e);
if (c->type() == Element::CHORD) {
for (Chord* cc : c->graceNotes()) {
for (Element* e : cc->el()) {
if (e->type() == Element::SLUR)
e->layout();
}
}
c->layoutStem();
for (Note* n : c->notes()) {
Tie* tie = n->tieFor();
if (tie)
tie->layout();
for (Spanner* sp : n->spannerFor())
sp->layout();
}
}
}
}
}
rebuildBspTree();
}
//-------------------------------------------------------------------
// addSystemHeader
/// Add elements to make this measure suitable as the first measure
/// of a system.
// The system header can contain a Clef, a KeySig and a
// RepeatBarLine.
//-------------------------------------------------------------------
void Score::addSystemHeader(Measure* m, bool isFirstSystem)
{
if (undoRedo()) // no change possible in this state
return;
int tick = m->tick();
int i = 0;
foreach (Staff* staff, _staves) {
if (!m->system()->staff(i)->show()) {
++i;
continue;
}
KeySig* keysig = 0;
Clef* clef = 0;
int strack = i * VOICES;
// we assume that keysigs and clefs are only in the first
// track (voice 0) of a staff
const KeySigEvent& keyIdx = staff->key(tick);
const KeySigEvent& oKeySigBefore = staff->key(tick-1);
for (Segment* seg = m->first(); seg; seg = seg->next()) {
// search only up to the first ChordRest
if (seg->segmentType() == Segment::SegChordRest)
break;
Element* el = seg->element(strack);
if (!el)
continue;
switch (el->type()) {
case Element::KEYSIG:
keysig = static_cast<KeySig*>(el);
keysig->changeKeySigEvent(keyIdx);
if (!keysig->isCustom() && oKeySigBefore.accidentalType() == keysig->keySignature())
keysig->setOldSig(0);
break;
case Element::CLEF:
clef = static_cast<Clef*>(el);
clef->setSmall(false);
break;
default:
break;
}
}
bool needKeysig = /* !staff->isTabStaff() // keep key sigs in TABs: TABs themselves should hide them
&& */ keyIdx.isValid()
&& (isFirstSystem || styleB(ST_genKeysig));
if (needKeysig && !keysig) {
//
// create missing key signature
//
keysig = keySigFactory(keyIdx);
if (keysig) {
// if signature is not custom or prev. signature has same accid. as
// this one, reset naturals
if (!keysig->isCustom() && oKeySigBefore.accidentalType() == keysig->keySignature())
keysig->setOldSig(0);
keysig->setTrack(i * VOICES);
keysig->setGenerated(true);
Segment* seg = m->undoGetSegment(Segment::SegKeySig, tick);
keysig->setParent(seg);
keysig->layout();
undoAddElement(keysig);
}
}
else if (!needKeysig && keysig)
undoRemoveElement(keysig);
else if (keysig && keysig->keySigEvent() != keyIdx)
undo(new ChangeKeySig(keysig, keyIdx, keysig->showCourtesy() /*, keysig->showNaturals()*/));
bool needClef = isFirstSystem || styleB(ST_genClef);
if (needClef) {
if (!clef) {
//
// create missing clef
//
clef = new Clef(this);
clef->setTrack(i * VOICES);
clef->setSmall(false);
clef->setGenerated(staff->clef(tick) == staff->clef(tick-1));
Segment* s = m->undoGetSegment(Segment::SegClef, tick);
clef->setParent(s);
clef->layout();
clef->setClefType(staff->clefTypeList(tick)); // set before add !
undoAddElement(clef);
}
else if (clef->generated()) {
ClefTypeList cl = staff->clefTypeList(tick);
if (cl != clef->clefTypeList())
undo(new ChangeClefType(clef, cl._concertClef, cl._transposingClef));
}
}
else {
if (clef && clef->generated())
undoRemoveElement(clef);
}
++i;
}
m->setStartRepeatBarLine(m->repeatFlags() & RepeatStart);
}
//---------------------------------------------------------
// getNextSystem
//---------------------------------------------------------
System* Score::getNextSystem(bool isFirstSystem, bool isVbox)
{
System* system;
if (curSystem >= _systems.size()) {
system = new System(this);
_systems.append(system);
}
else {
system = _systems[curSystem];
system->clear(); // remove measures from system
}
system->setFirstSystem(isFirstSystem);
system->setVbox(isVbox);
if (!isVbox) {
int nstaves = Score::nstaves();
for (int i = system->staves()->size(); i < nstaves; ++i)
system->insertStaff(i);
int dn = system->staves()->size() - nstaves;
for (int i = 0; i < dn; ++i)
system->removeStaff(system->staves()->size()-1);
}
return system;
}
//---------------------------------------------------------
// validMMRestMeasure
// return true if this might be a measure in a
// multi measure rest
//---------------------------------------------------------
static bool validMMRestMeasure(Measure* m)
{
if (!m->isEmpty())
return false;
#if 0
auto l = m->score()->spannerMap().findOverlapping(m->tick(), m->endTick());
for (::Interval<Spanner*> isp : l) {
Spanner* s = isp.value;
if (s->type() == Element::VOLTA && (s->tick() == m->tick() || s->tick2() == m->tick()))
return false;
}
#endif
for (Segment* s = m->first(); s; s = s->next()) {
for (Element* e : s->annotations()) {
if (e->type() != Element::REHEARSAL_MARK && e->type() != Element::TEMPO_TEXT && e->type() != Element::STAFF_TEXT)
return false;
}
}
return true;
}
//---------------------------------------------------------
// breakMultiMeasureRest
// return true if this measure should start a new
// multi measure rest
//---------------------------------------------------------
static bool breakMultiMeasureRest(Measure* m)
{
if (m->breakMultiMeasureRest())
return true;
auto sl = m->score()->spannerMap().findOverlapping(m->tick(), m->endTick());
foreach (auto i, sl) {
Spanner* s = i.value;
if (s->type() == Element::VOLTA && (s->tick() == m->tick() || s->tick2() == m->tick()))
return true;
}
for (Segment* s = m->first(); s; s = s->next()) {
for (Element* e : s->annotations()) {
if (e->type() == Element::REHEARSAL_MARK ||
e->type() == Element::TEMPO_TEXT ||
(e->type() == Element::STAFF_TEXT && (e->systemFlag() || m->score()->staff(e->staffIdx())->show())))
return true;
}
}
return false;
}
//---------------------------------------------------------
// createMMRests
//---------------------------------------------------------
void Score::createMMRests()
{
//
// create mm rest measures
//
for (Measure* m = firstMeasure(); m; m = m->nextMeasure()) {
Measure* nm = m;
Measure* lm = nm;
int n = 0;
Fraction len;
while (validMMRestMeasure(nm)) {
m->setMMRestCount(0);
MeasureBase* mb = _showVBox ? nm->next() : nm->nextMeasure();
if (breakMultiMeasureRest(nm) && n)
break;
++n;
len += nm->len();
lm = nm;
nm = static_cast<Measure*>(mb);
if (!nm || (nm->type() != Element::MEASURE))
break;
}
if (n >= styleI(ST_minEmptyMeasures)) {
//
// create a multi measure rest from m to lm (inclusive)
// attach the measure to m
//
for (Measure* mm = m->nextMeasure(); mm; mm = mm->nextMeasure()) {
mm->setMMRestCount(-1);
if (mm->mmRest())
undo(new ChangeMMRest(mm, 0));
if (mm == lm)
break;
}
Measure* mmr;
if (m->mmRest()) {
mmr = m->mmRest();
if (mmr->len() != len) {
Segment* s = mmr->findSegment(Segment::SegEndBarLine, mmr->endTick());
mmr->setLen(len);
if (s)
s->setTick(mmr->endTick());
}
}
else {
mmr = new Measure(this);
mmr->setLen(len);
undo(new ChangeMMRest(m, mmr));
}
mmr->setMMRestCount(n);
mmr->setTick(m->tick());
mmr->setNo(m->no());
mmr->setPageBreak(lm->pageBreak());
mmr->setLineBreak(lm->lineBreak());
mmr->setSectionBreak(lm->sectionBreak());
mmr->setEndBarLineType(lm->endBarLineType(), false, lm->endBarLineVisible(), lm->endBarLineColor());
mmr->setRepeatFlags(lm->repeatFlags());
qDeleteAll(*mmr->el());
mmr->el()->clear();
for (Element* e : *lm->el())
mmr->add(e->clone());
Segment* s = mmr->undoGetSegment(Segment::SegChordRest, m->tick());
for (int staffIdx = 0; staffIdx < _staves.size(); ++staffIdx) {
int track = staffIdx * VOICES;
if (s->element(track) == 0) {
Rest* r = new Rest(this);
r->setDurationType(TDuration::V_MEASURE);
r->setTrack(track);
r->setParent(s);
undo(new AddElement(r));
}
}
//
// check for clefs
//
Segment* cs = lm->findSegment(Segment::SegClef, lm->endTick());
Segment* ns = mmr->findSegment(Segment::SegClef, lm->endTick());
if (cs) {
if (ns == 0)
ns = mmr->undoGetSegment(Segment::SegClef, lm->endTick());
for (int staffIdx = 0; staffIdx < _staves.size(); ++staffIdx) {
int track = staffIdx * VOICES;
Clef* clef = static_cast<Clef*>(cs->element(track));
if (clef) {
if (ns->element(track) == 0)
ns->add(clef->clone());
else {
//TODO: check if same clef
}
}
}
}
else if (ns)
undo(new RemoveElement(ns));
//
// check for time signature
//
cs = m->findSegment(Segment::SegTimeSig, m->tick());
ns = mmr->findSegment(Segment::SegTimeSig, m->tick());
if (cs) {
if (ns == 0)
ns = mmr->undoGetSegment(Segment::SegTimeSig, m->tick());
for (int staffIdx = 0; staffIdx < _staves.size(); ++staffIdx) {
int track = staffIdx * VOICES;
TimeSig* ts = static_cast<TimeSig*>(cs->element(track));
if (ts) {
if (ns->element(track) == 0) {
TimeSig* nts = ts->clone();
nts->setParent(ns);
undo(new AddElement(nts));
}
else {
//TODO: check if same time signature
}
}
}
}
else if (ns)
undo(new RemoveElement(ns));
//
// check for key signature
//
cs = m->findSegment(Segment::SegKeySig, m->tick());
ns = mmr->findSegment(Segment::SegKeySig, m->tick());
if (cs) {
if (ns == 0)
ns = mmr->undoGetSegment(Segment::SegKeySig, m->tick());
for (int staffIdx = 0; staffIdx < _staves.size(); ++staffIdx) {
int track = staffIdx * VOICES;
KeySig* ts = static_cast<KeySig*>(cs->element(track));
if (ts) {
if (ns->element(track) == 0)
ns->add(ts->clone());
else {
//TODO: check if same key signature
}
}
}
}
else if (ns)
undo(new RemoveElement(ns));
//
// check for rehearsal mark and tempo text
//
cs = m->findSegment(Segment::SegChordRest, m->tick());
for (Element* e : cs->annotations()) {
if (e->type() != Element::REHEARSAL_MARK && e->type() != Element::TEMPO_TEXT && e->type() != Element::STAFF_TEXT)
continue;
bool found = false;
for (Element* ee : s->annotations()) {
if (ee->type() == e->type() && ee->track() == e->track()) {
found = true;
break;
}
}
if (!found) {
Element* ne = e->linkedClone();
ne->setParent(s);
undo(new AddElement(ne));
}
}
for (Element* e : s->annotations()) {
if (e->type() != Element::REHEARSAL_MARK && e->type() != Element::TEMPO_TEXT && e->type() != Element::STAFF_TEXT)
continue;
bool found = false;
for (Element* ee : cs->annotations()) {
if (ee->type() == e->type() && ee->track() == e->track()) {
found = true;
break;
}
}
if (!found)
undo(new RemoveElement(e));
}
mmr->setNext(nm);
mmr->setPrev(m->prev());
m = lm;
}
else if (m->mmRest()) {
undo(new ChangeMMRest(m, 0));
}
}
/* Update Notes After creating mmRest Because on load, mmRest->next() was not set
on first pass in updateNotes() and break occur */
updateNotes();
}
//---------------------------------------------------------
// cautionaryWidth
// Compute the width difference of actual measure m
// and the width of m if it were the last measure in a
// staff. The reason for any difference are courtesy
// time signatures and key signatures.
//---------------------------------------------------------
qreal Score::cautionaryWidth(Measure* m)
{
qreal w = 0.0;
if (m == 0)
return w;
Measure* nm = m ? m->nextMeasure() : 0;
if (nm == 0 || (m->sectionBreak() && _layoutMode != LayoutFloat))
return w;
int tick = m->tick() + m->ticks();
// locate a time sig. in the next measure and, if found,
// check if it has caut. sig. turned off
Segment* ns = nm->findSegment(Segment::SegTimeSig, tick);
TimeSig* ts = 0;
bool showCourtesy = styleB(ST_genCourtesyTimesig) && ns;
if (showCourtesy) {
ts = static_cast<TimeSig*>(ns->element(0));
if (ts && !ts->showCourtesySig())
showCourtesy = false; // this key change has court. sig turned off
}
Segment* s = m->findSegment(Segment::SegTimeSigAnnounce, tick);
if (showCourtesy && !s)
w += ts->space().width();
else if (!showCourtesy && s && s->element(0))
w -= static_cast<TimeSig*>(s->element(0))->space().width();
// courtesy key signatures
qreal wwMin = 0.0;
qreal wwMax = 0.0;
int n = _staves.size();
for (int staffIdx = 0; staffIdx < n; ++staffIdx) {
int track = staffIdx * VOICES;
ns = nm->findSegment(Segment::SegKeySig, tick);
KeySig* ks = 0;
showCourtesy = styleB(ST_genCourtesyKeysig) && ns;
if (showCourtesy) {
ks = static_cast<KeySig*>(ns->element(track));
if (ks && !ks->showCourtesy())
showCourtesy = false;
}
Segment* s = m->findSegment(Segment::SegKeySigAnnounce, tick);
if (showCourtesy && !s && ks)
wwMax = qMax(wwMax, ks->space().width());
else if (!showCourtesy && s && s->element(track))
wwMin = qMin(wwMin, -static_cast<KeySig*>(s->element(track))->space().width());
}
if (wwMax > 0.0)
w += wwMax;
else
w += wwMin;
return w;
}
//---------------------------------------------------------
// layoutSystem
// return true if line continues
//---------------------------------------------------------
bool Score::layoutSystem(qreal& minWidth, qreal w, bool isFirstSystem, bool longName)
{
if (undoRedo()) // no change possible in this state
return layoutSystem1(minWidth, isFirstSystem, longName);
System* system = getNextSystem(isFirstSystem, false);
qreal xo = 0;
if (curMeasure->type() == Element::HBOX)
xo = point(static_cast<Box*>(curMeasure)->boxWidth());
system->setInstrumentNames(longName);
system->layout(xo);
qreal minMeasureWidth = point(styleS(ST_minMeasureWidth));
minWidth = system->leftMargin();
qreal systemWidth = w;
bool continueFlag = false;
bool isFirstMeasure = true;
Measure* firstMeasure = 0;
Measure* lastMeasure = 0;
qreal measureSpacing = styleD(ST_measureSpacing);
for (; curMeasure;) {
MeasureBase* nextMeasure;
if (curMeasure->type() == Element::MEASURE && !_showVBox)
nextMeasure = curMeasure->nextMeasureMM();
else
nextMeasure = curMeasure->nextMM();
Q_ASSERT(nextMeasure != curMeasure);
System* oldSystem = curMeasure->system();
curMeasure->setSystem(system);
qreal ww = 0.0;
qreal cautionaryW = 0.0;
if (curMeasure->type() == Element::HBOX) {
ww = point(static_cast<Box*>(curMeasure)->boxWidth());
if (!isFirstMeasure) {
// try to put another system on current row
// if not a line break
switch(_layoutMode) {
case LayoutFloat:
break;
case LayoutLine:
case LayoutPage:
case LayoutSystem:
continueFlag = !(curMeasure->lineBreak() || curMeasure->pageBreak());
break;
}
}
}
else if (curMeasure->type() == Element::MEASURE) {
Measure* m = static_cast<Measure*>(curMeasure);
m->createEndBarLines(); // TODO: type not set right here
if (isFirstMeasure) {
firstMeasure = m;
addSystemHeader(m, isFirstSystem);
ww = m->minWidth2();
}
else
ww = m->minWidth1();
Segment* s = m->last();
if ((s->segmentType() == Segment::SegEndBarLine) && s->element(0)) {
BarLine* bl = static_cast<BarLine*>(s->element(0));
BarLineType ot = bl->barLineType();
BarLineType nt = m->endBarLineType();
if (m->repeatFlags() & RepeatEnd)
nt = END_REPEAT;
else {
Measure* nm = m->nextMeasureMM();
if (nm && (nm->repeatFlags() & RepeatStart))
nt = START_REPEAT;
}
if (ot != nt) {
qreal mag = bl->magS();
ww += BarLine::layoutWidth(this, nt, mag)
- BarLine::layoutWidth(this, ot, mag);
}
}
qreal stretch = m->userStretch() * measureSpacing;
cautionaryW = 0.0; // TODO: cautionaryWidth(m) * stretch;
ww *= stretch;
if (ww < minMeasureWidth)
ww = minMeasureWidth;
isFirstMeasure = false;
}
// collect at least one measure
bool empty = system->measures().isEmpty();
if (!empty && (minWidth + ww + cautionaryW > systemWidth)) {
curMeasure->setSystem(oldSystem);
break;
}
if (curMeasure->type() == Element::MEASURE)
lastMeasure = static_cast<Measure*>(curMeasure);
system->measures().append(curMeasure);
Element::ElementType nt;
if (_showVBox)
nt = curMeasure->nextMM() ? curMeasure->nextMM()->type() : Element::INVALID;
else
nt = curMeasure->nextMeasureMM() ? curMeasure->nextMeasureMM()->type() : Element::INVALID;
int n = styleI(ST_FixMeasureNumbers);
bool pbreak;
switch (_layoutMode) {
case LayoutPage:
case LayoutSystem:
pbreak = curMeasure->pageBreak() || curMeasure->lineBreak();
break;
case LayoutFloat:
case LayoutLine:
pbreak = false;
break;
}
if ((n && system->measures().size() >= n)
|| continueFlag
|| pbreak
|| (nt == Element::VBOX || nt == Element::TBOX || nt == Element::FBOX)
) {
if (_layoutMode != LayoutSystem)
system->setPageBreak(curMeasure->pageBreak());
curMeasure = nextMeasure;
break;
}
curMeasure = nextMeasure;
if (minWidth + minMeasureWidth > systemWidth)
break; // next measure will not fit
minWidth += ww;
}
//
// remember line breaks in list of measures
//
int n = system->measures().size() - 1;
if (n >= 0) {
for (int i = 0; i < n; ++i)
undoChangeProperty(system->measure(i), P_BREAK_HINT, false);
undoChangeProperty(system->measures().last(), P_BREAK_HINT, true);
}
if (!undoRedo() && firstMeasure && lastMeasure && firstMeasure != lastMeasure)
removeGeneratedElements(firstMeasure, lastMeasure);
hideEmptyStaves(system, isFirstSystem);
return continueFlag && curMeasure;
}
void Score::hideEmptyStaves(System* system, bool isFirstSystem)
{
//
// hide empty staves
//
int staves = _staves.size();
int staffIdx = 0;
foreach (Staff* staff, _staves) {
SysStaff* s = system->staff(staffIdx);
bool oldShow = s->show();
if (styleB(ST_hideEmptyStaves)
&& (staves > 1)
&& !(isFirstSystem && styleB(ST_dontHideStavesInFirstSystem))
) {
bool hideStaff = true;
foreach(MeasureBase* m, system->measures()) {
if (m->type() != Element::MEASURE)
continue;
Measure* measure = static_cast<Measure*>(m);
if (!measure->isMeasureRest(staffIdx)) {
hideStaff = false;
break;
}
}
// check if notes moved into this staff
Part* part = staff->part();
int n = part->nstaves();
if (hideStaff && (n > 1)) {
int idx = part->staves()->front()->idx();
for (int i = 0; i < part->nstaves(); ++i) {
int st = idx + i;
foreach(MeasureBase* mb, system->measures()) {
if (mb->type() != Element::MEASURE)
continue;
Measure* m = static_cast<Measure*>(mb);
for (Segment* s = m->first(Segment::SegChordRest); s; s = s->next(Segment::SegChordRest)) {
for (int voice = 0; voice < VOICES; ++voice) {
ChordRest* cr = static_cast<ChordRest*>(s->element(st * VOICES + voice));
if (cr == 0 || cr->type() == Element::REST)
continue;
int staffMove = cr->staffMove();
if (staffIdx == st + staffMove) {
hideStaff = false;
break;
}
}
}
if (!hideStaff)
break;
}
if (!hideStaff)
break;
}
}
s->setShow(hideStaff ? false : staff->show());
}
else {
s->setShow(true);
}
if (oldShow != s->show()) {
foreach (MeasureBase* mb, system->measures()) {
if (mb->type() != Element::MEASURE)
continue;
static_cast<Measure*>(mb)->createEndBarLines();
}
}
++staffIdx;
}
}
//---------------------------------------------------------
// layoutSystem1
// used in undoRedo state
// return true if line continues
//---------------------------------------------------------
bool Score::layoutSystem1(qreal& minWidth, bool isFirstSystem, bool longName)
{
System* system = getNextSystem(isFirstSystem, false);
qreal xo = 0;
if (curMeasure->type() == Element::HBOX)
xo = point(static_cast<Box*>(curMeasure)->boxWidth());
system->setInstrumentNames(longName);
system->layout(xo);
qreal minMeasureWidth = point(styleS(ST_minMeasureWidth));
minWidth = system->leftMargin();
bool continueFlag = false;
bool isFirstMeasure = true;
for (; curMeasure;) {
MeasureBase* nextMeasure;
if (curMeasure->type() == Element::MEASURE && !_showVBox)
nextMeasure = curMeasure->nextMeasureMM();
else
nextMeasure = curMeasure->nextMM();
// System* oldSystem = curMeasure->system();
curMeasure->setSystem(system);
qreal ww = 0.0;
if (curMeasure->type() == Element::HBOX) {
ww = point(static_cast<Box*>(curMeasure)->boxWidth());
if (!isFirstMeasure) {
// try to put another system on current row
// if not a line break
switch(_layoutMode) {
case LayoutFloat:
break;
case LayoutLine:
case LayoutPage:
case LayoutSystem:
continueFlag = !(curMeasure->lineBreak() || curMeasure->pageBreak());
break;
}
}
}
else if (curMeasure->type() == Element::MEASURE) {
Measure* m = static_cast<Measure*>(curMeasure);
m->createEndBarLines(); // TODO: type not set right here
if (isFirstMeasure) {
addSystemHeader(m, isFirstSystem);
ww = m->minWidth2();
}
else
ww = m->minWidth1();
ww *= m->userStretch() * styleD(ST_measureSpacing);
if (ww < minMeasureWidth)
ww = minMeasureWidth;
isFirstMeasure = false;
}
minWidth += ww;
system->measures().append(curMeasure);
Element::ElementType nt = curMeasure->next() ? curMeasure->next()->type() : Element::INVALID;
int n = styleI(ST_FixMeasureNumbers);
bool pbreak;
switch (_layoutMode) {
case LayoutPage:
case LayoutSystem:
pbreak = curMeasure->pageBreak() || curMeasure->lineBreak();
break;
case LayoutFloat:
case LayoutLine:
pbreak = false;
break;
}
if ((n && system->measures().size() >= n)
|| continueFlag || pbreak || (nt == Element::VBOX || nt == Element::TBOX || nt == Element::FBOX)) {
if (_layoutMode != LayoutSystem)
system->setPageBreak(curMeasure->pageBreak());
curMeasure = nextMeasure;
break;
}
// do not change line break
if (curMeasure->breakHint()) {
curMeasure = nextMeasure;
break;
}
curMeasure = nextMeasure;
}
hideEmptyStaves(system,isFirstSystem);
return continueFlag && curMeasure;
}
//---------------------------------------------------------
// removeGeneratedElements (System Header + TimeSig Announce)
// helper function
//---------------------------------------------------------
void Score::removeGeneratedElements(Measure* sm, Measure* em)
{
for (Measure* m = sm; m; m = m->nextMeasureMM()) {
//
// remove generated elements from all measures in [sm;em]
// assume: generated elements are only living in voice 0
// - do not remove end bar lines
// - set size of clefs to small
//
for (Segment* seg = m->first(); seg; seg = seg->next()) {
Segment::SegmentType st = seg->segmentType();
if (st == Segment::SegEndBarLine)
continue;
if (st == Segment::SegStartRepeatBarLine && m != sm) {
if (!undoRedo())
undoRemoveElement(seg);
else
qDebug("remove repeat segment in undo/redo");
continue;
}
for (int staffIdx = 0; staffIdx < nstaves(); ++staffIdx) {
Element* el = seg->element(staffIdx * VOICES);
if (el == 0)
continue;
/*
if (el->generated() && ((st == Segment::SegTimeSigAnnounce && m != em)
|| (el->type() == Element::CLEF && seg->tick() != sm->tick())
|| (el->type() == Element::KEYSIG && seg->tick() != sm->tick())))
*/
// courtesy time sigs and key sigs: remove if not in last measure (generated or not!)
// clefs & keysig: remove if generated and not at beginning of first measure
if ( ((st == Segment::SegTimeSigAnnounce || st == Segment::SegKeySigAnnounce) && m != em)
|| ((el->type() == Element::CLEF || el->type() == Element::KEYSIG) && el->generated() && seg->tick() != sm->tick())
)
{
undoRemoveElement(el);
}
else if (el->type() == Element::CLEF) {
Clef* clef = static_cast<Clef*>(el);
System* s = m->system();
bool small = seg != m->first() || s->firstMeasure() != m;
if (clef->small() != small) {
clef->setSmall(small);
m->setDirty();
}
//
// if measure is not the first in the system, the clef at
// measure start has to be moved to the end of the previous measure
//
if (s->firstMeasure() != m && seg->tick() == m->tick()) {
undoRemoveElement(el);
Measure* pm = m->prevMeasure();
Segment* s = pm->undoGetSegment(Segment::SegClef, m->tick());
Clef* nc = clef->clone();
nc->setParent(s);
undoAddElement(nc);
m->setDirty();
pm->setDirty();
}
}
}
}
if (m == em)
break;
}
}
//---------------------------------------------------------
// addPage
//---------------------------------------------------------
Page* Score::addPage()
{
Page* page = new Page(this);
page->setNo(_pages.size());
_pages.push_back(page);
return page;
}
//---------------------------------------------------------
// connectTies
/// Rebuild tie connections.
//---------------------------------------------------------
void Score::connectTies()
{
int tracks = nstaves() * VOICES;
Measure* m = firstMeasure();
if (!m)
return;
Segment::SegmentTypes st = Segment::SegChordRest;
for (Segment* s = m->first(st); s; s = s->next1(st)) {
for (int i = 0; i < tracks; ++i) {
Chord* c = static_cast<Chord*>(s->element(i));
if (c == 0 || c->type() != Element::CHORD)
continue;
for (Note* n : c->notes()) {
Tie* tie = n->tieFor();
if (!tie || tie->endNote())
continue;
Note* nnote;
if (_mscVersion <= 114)
nnote = searchTieNote114(n);
else
nnote = searchTieNote(n);
if (nnote == 0) {
qDebug("next note at %d track %d for tie not found",
s->tick(), i);
// n->setTieFor(0); show short bow
// delete tie;
}
else {
tie->setEndNote(nnote);
nnote->setTieBack(tie);
}
}
}
}
}
//---------------------------------------------------------
// add
//---------------------------------------------------------
void Score::add(Element* el)
{
switch(el->type()) {
case Element::MEASURE:
case Element::HBOX:
case Element::VBOX:
case Element::TBOX:
case Element::FBOX:
measures()->add(static_cast<MeasureBase*>(el));
break;
case Element::BEAM:
{
Beam* b = static_cast<Beam*>(el);
int n = b->elements().size();
for (int i = 0; i < n; ++i)
b->elements().at(i)->setBeam(b);
}
break;
case Element::TEXTLINE:
if (static_cast<Spanner*>(el)->anchor() == Spanner::ANCHOR_NOTE)
break;
// fall through
case Element::SLUR:
case Element::VOLTA:
case Element::TRILL:
case Element::PEDAL:
case Element::HAIRPIN:
case Element::OTTAVA:
addSpanner(static_cast<Spanner*>(el));
break;
default:
qFatal("Score::add() invalid element <%s>", el->name());
break;
}
}
//---------------------------------------------------------
// remove
//---------------------------------------------------------
void Score::remove(Element* el)
{
switch(el->type()) {
case Element::MEASURE:
case Element::HBOX:
case Element::VBOX:
case Element::TBOX:
case Element::FBOX:
measures()->remove(static_cast<MeasureBase*>(el));
break;
case Element::BEAM:
{
Beam* b = static_cast<Beam*>(el);
foreach(ChordRest* cr, b->elements())
cr->setBeam(0);
}
break;
case Element::SLUR:
case Element::TEXTLINE:
case Element::VOLTA:
case Element::TRILL:
case Element::PEDAL:
case Element::HAIRPIN:
case Element::OTTAVA:
removeSpanner(static_cast<Spanner*>(el));
break;
default:
qDebug("Score::remove(): invalid element %s", el->name());
break;
}
}
//---------------------------------------------------------
// layoutFingering
// - place numbers above a note execpt for the last
// staff in a multi stave part (piano)
// - does not handle chords
//---------------------------------------------------------
void Score::layoutFingering(Fingering* f)
{
if (f == 0)
return;
Note* note = f->note();
Chord* chord = note->chord();
Staff* staff = chord->staff();
Part* part = staff->part();
int n = part->nstaves();
bool below = (n > 1) && (staff->rstaff() == n-1);
f->layout();
qreal x = 0.0;
qreal y = 0.0;
qreal headWidth = note->headWidth();
qreal headHeight = note->headHeight();
qreal fh = headHeight; // TODO: fingering number height
if (chord->notes().size() == 1) {
x = headWidth * .5;
if (below) {
// place fingering below note
y = fh + spatium() * .4;
if (chord->stem() && !chord->up()) {
// on stem side
y += chord->stem()->height();
x -= spatium() * .4;
}
}
else {
// place fingering above note
y = -headHeight - spatium() * .4;
if (chord->stem() && chord->up()) {
// on stem side
y -= chord->stem()->height();
x += spatium() * .4;
}
}
}
f->setUserOff(QPointF(x, y));
}
//---------------------------------------------------------
// layoutSystemRow
// return height in h
//---------------------------------------------------------
QList<System*> Score::layoutSystemRow(qreal rowWidth, bool isFirstSystem, bool useLongName)
{
bool raggedRight = MScore::layoutDebug;
QList<System*> sl;
qreal ww = rowWidth;
qreal minWidth;
for (bool a = true; a;) {
a = layoutSystem(minWidth, ww, isFirstSystem, useLongName);
sl.append(_systems[curSystem]);
++curSystem;
ww -= minWidth;
}
//
// dont stretch last system row, if minWidth is <= lastSystemFillLimit
//
if (curMeasure == 0 && ((minWidth / rowWidth) <= styleD(ST_lastSystemFillLimit)))
raggedRight = true;
//-------------------------------------------------------
// Round II
// stretch measures
// "nm" measures fit on this line of score
//-------------------------------------------------------
bool needRelayout = false;
foreach (System* system, sl) {
//
// add cautionary time/key signatures if needed
//
if (system->measures().isEmpty()) {
qFatal("System %p is empty\n", system);
}
Measure* m = system->lastMeasure();
bool hasCourtesyKeysig = false;
Measure* nm = m ? m->nextMeasure() : 0;
Segment* s;
if (m && nm && !(m->sectionBreak() && _layoutMode != LayoutFloat)) {
int tick = m->tick() + m->ticks();
// locate a time sig. in the next measure and, if found,
// check if it has cout. sig. turned off
TimeSig* ts;
Segment* tss = nm->findSegment(Segment::SegTimeSig, tick);
bool showCourtesySig = tss && styleB(ST_genCourtesyTimesig);
if (showCourtesySig) {
ts = static_cast<TimeSig*>(tss->element(0));
if (ts && !ts->showCourtesySig())
showCourtesySig = false; // this key change has court. sig turned off
}
if (showCourtesySig) {
// if due, create a new courtesy time signature for each staff
s = m->undoGetSegment(Segment::SegTimeSigAnnounce, tick);
int nstaves = Score::nstaves();
for (int track = 0; track < nstaves * VOICES; track += VOICES) {
TimeSig* nts = static_cast<TimeSig*>(tss->element(track));
if (!nts)
continue;
ts = static_cast<TimeSig*>(s->element(track));
if (ts == 0) {
ts = new TimeSig(this);
ts->setTrack(track);
ts->setGenerated(true);
ts->setParent(s);
undoAddElement(ts);
}
ts->setFrom(nts);
m->setDirty();
}
}
else {
// remove any existing time signatures
Segment* tss = m->findSegment(Segment::SegTimeSigAnnounce, tick);
if (tss) {
undoRemoveElement(tss);
}
}
// courtesy key signatures
int n = _staves.size();
for (int staffIdx = 0; staffIdx < n; ++staffIdx) {
int track = staffIdx * VOICES;
Staff* staff = _staves[staffIdx];
showCourtesySig = false;
KeySigEvent key1 = staff->key(tick - 1);
KeySigEvent key2 = staff->key(tick);
if (styleB(ST_genCourtesyKeysig) && (key1 != key2)) {
// locate a key sig. in next measure and, if found,
// check if it has court. sig turned off
s = nm->findSegment(Segment::SegKeySig, tick);
showCourtesySig = true; // assume this key change has court. sig turned on
if (s) {
KeySig* ks = static_cast<KeySig*>(s->element(track));
if (ks && !ks->showCourtesy())
showCourtesySig = false; // this key change has court. sig turned off
}
if (showCourtesySig) {
hasCourtesyKeysig = true;
s = m->undoGetSegment(Segment::SegKeySigAnnounce, tick);
KeySig* ks = static_cast<KeySig*>(s->element(track));
KeySigEvent ksv(key2);
ksv.setNaturalType(key1.accidentalType());
if (!ks) {
ks = new KeySig(this);
ks->setKeySigEvent(ksv);
ks->setTrack(track);
ks->setGenerated(true);
ks->setParent(s);
undoAddElement(ks);
}
else if (ks->keySigEvent() != ksv) {
undo(new ChangeKeySig(ks, ksv,
ks->showCourtesy() /*, ks->showNaturals()*/));
}
// change bar line to qreal bar line
// m->setEndBarLineType(DOUBLE_BAR, true); // this caused issue #12918
}
}
if (!showCourtesySig) {
// remove any existent courtesy key signature
Segment* s = m->findSegment(Segment::SegKeySigAnnounce, tick);
if (s && s->element(track))
undoRemoveElement(s->element(track));
}
}
// courtesy clefs: show/hide of courtesy clefs moved to Clef::layout()
}
//
// compute repeat bar lines
//
bool firstMeasure = true;
const QList<MeasureBase*>& ml = system->measures();
MeasureBase* lmb = ml.back();
for (MeasureBase* mb : ml) {
if (mb->type() != Element::MEASURE)
continue;
Measure* m = static_cast<Measure*>(mb);
// first measure repeat?
bool fmr = firstMeasure && (m->repeatFlags() & RepeatStart);
if (mb == lmb) { // last measure in system?
//
// if last bar has a courtesy key signature,
// create a double bar line as end bar line
//
BarLineType bl = hasCourtesyKeysig ? DOUBLE_BAR : NORMAL_BAR;
if (m->repeatFlags() & RepeatEnd)
m->setEndBarLineType(END_REPEAT, m->endBarLineGenerated());
else if (m->endBarLineGenerated())
m->setEndBarLineType(bl, true);
if (m->setStartRepeatBarLine(fmr))
m->setDirty();
}
else {
MeasureBase* mb = m->next();
while (mb && mb->type() != Element::MEASURE && (mb != lmb))
mb = mb->next();
Measure* nm = 0;
if (mb && mb->type() == Element::MEASURE)
nm = static_cast<Measure*>(mb);
needRelayout |= m->setStartRepeatBarLine(fmr);
if (m->repeatFlags() & RepeatEnd) {
if (nm && (nm->repeatFlags() & RepeatStart))
m->setEndBarLineType(END_START_REPEAT, m->endBarLineGenerated());
else
m->setEndBarLineType(END_REPEAT, m->endBarLineGenerated());
}
else if (nm && (nm->repeatFlags() & RepeatStart))
m->setEndBarLineType(START_REPEAT, m->endBarLineGenerated());
else if (m->endBarLineGenerated())
m->setEndBarLineType(NORMAL_BAR, m->endBarLineGenerated());
}
if (m->createEndBarLines())
m->setDirty();
firstMeasure = false;
}
}
minWidth = 0.0;
qreal totalWeight = 0.0;
foreach(System* system, sl) {
foreach (MeasureBase* mb, system->measures()) {
if (mb->type() == Element::HBOX)
minWidth += point(((Box*)mb)->boxWidth());
else if (mb->type() == Element::MEASURE) {
Measure* m = (Measure*)mb;
if (needRelayout)
m->setDirty();
minWidth += m->minWidth2();
totalWeight += m->ticks() * m->userStretch();
}
}
minWidth += system->leftMargin();
}
// stretch incomplete row
qreal rest;
if (MScore::layoutDebug)
rest = 0;
else {
rest = rowWidth - minWidth;
if (raggedRight) {
if (minWidth > rest)
rest = rest * .5;
else
rest = minWidth;
}
rest /= totalWeight;
}
qreal xx = 0.0;
qreal y = 0.0;
foreach(System* system, sl) {
QPointF pos;
bool firstMeasure = true;
foreach(MeasureBase* mb, system->measures()) {
qreal ww = 0.0;
if (mb->type() == Element::MEASURE) {
if (firstMeasure) {
pos.rx() += system->leftMargin();
firstMeasure = false;
}
mb->setPos(pos);
Measure* m = static_cast<Measure*>(mb);
if (styleB(ST_FixMeasureWidth)) {
ww = rowWidth / system->measures().size();
}
else {
qreal weight = m->ticks() * m->userStretch();
ww = m->minWidth2() + rest * weight;
}
m->layout(ww);
}
else if (mb->type() == Element::HBOX) {
mb->setPos(pos);
ww = point(static_cast<Box*>(mb)->boxWidth());
mb->layout();
}
pos.rx() += ww;
}
system->setPos(xx, y);
qreal w = pos.x();
system->setWidth(w);
system->layout2();
foreach(MeasureBase* mb, system->measures()) {
if (mb->type() == Element::HBOX) {
mb->setHeight(system->height());
}
}
xx += w;
}
return sl;
}
//---------------------------------------------------------
// layoutSystems
// create list of systems
//---------------------------------------------------------
void Score::layoutSystems()
{
curMeasure = _showVBox ? firstMM() : firstMeasureMM();
curSystem = 0;
bool firstSystem = true;
bool startWithLongNames = true;
qreal w = pageFormat()->printableWidth() * MScore::DPI;
while (curMeasure) {
Element::ElementType t = curMeasure->type();
if (t == Element::VBOX || t == Element::TBOX || t == Element::FBOX) {
System* system = getNextSystem(false, true);
foreach(SysStaff* ss, *system->staves())
delete ss;
system->staves()->clear();
system->setWidth(w);
VBox* vbox = static_cast<VBox*>(curMeasure);
vbox->setParent(system);
vbox->layout();
system->setHeight(vbox->height());
system->rxpos() = 0.0;
system->setPageBreak(vbox->pageBreak());
system->measures().push_back(vbox);
curMeasure = curMeasure->nextMM();
++curSystem;
}
else {
QList<System*> sl = layoutSystemRow(w, firstSystem, startWithLongNames);
for (int i = 0; i < sl.size(); ++i)
sl[i]->setSameLine(i != 0);
firstSystem = false;
startWithLongNames = false;
if (!sl.isEmpty()) {
Measure* lm = sl.back()->lastMeasure();
firstSystem = lm && lm->sectionBreak() && _layoutMode != LayoutFloat;
startWithLongNames = firstSystem && lm->sectionBreak()->startWithLongNames();
}
else
qDebug("empty system!");
}
}
// TODO: make undoable:
while (_systems.size() > curSystem)
_systems.takeLast();
}
//---------------------------------------------------------
// layoutSystems2
// update distanceUp, distanceDown
//---------------------------------------------------------
void Score::layoutSystems2()
{
int n = _systems.size();
for (int i = 0; i < n; ++i) {
System* system = _systems.at(i);
if (!system->isVbox()) {
system->layout2();
}
}
}
//---------------------------------------------------------
// layoutLinear
//---------------------------------------------------------
void Score::layoutLinear()
{
curMeasure = first();
curSystem = 0;
System* system = getNextSystem(true, false);
system->setInstrumentNames(true);
qreal xo = 0;
Measure* fm = firstMeasure();
for (MeasureBase* m = first(); m != fm ; m = m->next()) {
if (m->type() == Element::HBOX)
xo += point(static_cast<Box*>(m)->boxWidth());
}
system->layout(xo);
system->setPos(0.0, spatium() * 10.0);
curPage = 0;
Page* page = getEmptyPage();
page->appendSystem(system);
for (MeasureBase* mb = _measures.first(); mb; mb = mb->next()) {
Element::ElementType t = curMeasure->type();
if (t == Element::VBOX || t == Element::TBOX || t == Element::FBOX) {
curMeasure = curMeasure->next();
continue;
}
if (styleB(ST_createMultiMeasureRests) && t == Element::MEASURE) {
Measure* m = static_cast<Measure*>(mb);
if (m->hasMMRest())
mb = m->mmRest();
}
mb->setSystem(system);
system->measures().append(mb);
}
if (system->measures().isEmpty())
return;
addSystemHeader(firstMeasureMM(), true);
removeGeneratedElements(firstMeasureMM(), lastMeasureMM());
QPointF pos(0.0, 0.0);
bool isFirstMeasure = true;
foreach (MeasureBase* mb, system->measures()) {
qreal w = 0.0;
if (mb->type() == Element::MEASURE) {
if(isFirstMeasure) {
pos.rx() += system->leftMargin();
isFirstMeasure = false;
}
Measure* m = static_cast<Measure*>(mb);
Measure* nm = m->nextMeasure();
if (m->repeatFlags() & RepeatEnd) {
if (nm && (nm->repeatFlags() & RepeatStart))
m->setEndBarLineType(END_START_REPEAT, m->endBarLineGenerated());
else
m->setEndBarLineType(END_REPEAT, m->endBarLineGenerated());
}
else if (nm && (nm->repeatFlags() & RepeatStart))
m->setEndBarLineType(START_REPEAT, m->endBarLineGenerated());
m->createEndBarLines();
w = m->minWidth1() * styleD(ST_linearStretch);
m->layout(w);
}
else {
mb->layout();
w = mb->width();
}
mb->setPos(pos);
pos.rx() += w;
}
system->setWidth(pos.x());
page->setWidth(pos.x());
system->layout2();
while (_pages.size() > 1)
_pages.takeLast();
}
//---------------------------------------------------------
// getEmptyPage
//---------------------------------------------------------
Page* Score::getEmptyPage()
{
Page* page = curPage >= _pages.size() ? addPage() : _pages[curPage];
page->setNo(curPage);
page->layout();
qreal x = (curPage == 0) ? 0.0 : _pages[curPage - 1]->pos().x()
+ page->width() + ((curPage & 1) ? 50.0 : 1.0);
++curPage;
page->setPos(x, 0.0);
page->systems()->clear();
return page;
}
//---------------------------------------------------------
// SystemRow
//---------------------------------------------------------
struct SystemRow {
QList<System*> systems;
qreal height() const {
qreal h = 0.0;
foreach(System* s, systems) {
if (s->height() > h)
h = s->height();
}
return h;
}
bool isVbox() const {
return (systems.size() > 0) ? systems.back()->isVbox() : false;
}
VBox* vbox() const {
return (systems.size() > 0) ? systems.back()->vbox() : 0;
}
bool pageBreak() const {
return (systems.size() > 0) ? systems.back()->pageBreak() : false;
}
qreal tm() const {
qreal v = 0.0;
foreach(System* s, systems) {
if (!s->staves()->isEmpty())
v = qMax(s->distanceUp(0), v);
}
return v;
}
qreal bm() const {
qreal v = 0.0;
foreach(System* s, systems) {
int staffIdx = s->staves()->size() - 1;
if (staffIdx >= 0)
v = qMax(s->distanceDown(staffIdx), v);
}
return v;
}
void clear() {
systems.clear();
}
};
//---------------------------------------------------------
// PageContext
//---------------------------------------------------------
struct PageContext {
qreal _spatium;
qreal slb;
Score* score;
Page* page;
qreal ey;
qreal y;
int gaps;
SystemRow sr;
System* lastSystem;
qreal prevDist;
PageContext(Score* s) : score(s) {
_spatium = score->spatium();
slb = score->styleS(ST_staffLowerBorder).val() * _spatium;
}
void newPage() {
page = score->getEmptyPage();
ey = page->height() - page->bm();
y = page->tm();
gaps = 0;
lastSystem = 0;
prevDist = 0.0;
}
void layoutPage() {
qreal d = sr.isVbox() ? sr.vbox()->bottomGap() : slb;
score->layoutPage(*this, d);
}
qreal bm() const { return sr.bm(); }
qreal tm() const { return sr.tm(); }
};
//---------------------------------------------------------
// layoutPages
// create list of pages
//---------------------------------------------------------
void Score::layoutPages()
{
const qreal _spatium = spatium();
const qreal slb = styleS(ST_staffLowerBorder).val() * _spatium;
const qreal sub = styleS(ST_staffUpperBorder).val() * _spatium;
const qreal systemDist = styleS(ST_minSystemDistance).val() * _spatium;
const qreal systemFrameDistance = styleS(ST_systemFrameDistance).val() * _spatium;
const qreal frameSystemDistance = styleS(ST_frameSystemDistance).val() * _spatium;
curPage = 0;
PageContext pC(this);
pC.newPage();
int nSystems = _systems.size();
for (int i = 0; i < nSystems; ++i) {
//
// collect system row
//
pC.sr.clear();
for (;;) {
System* system = _systems[i];
pC.sr.systems.append(system);
if (i+1 == nSystems)
break;
if (!_systems[i+1]->sameLine())
break;
++i;
}
qreal tmargin = 0.0; // top system margin
qreal bmargin; // bottom system margin
if (pC.sr.isVbox()) {
VBox* vbox = pC.sr.vbox();
bmargin = vbox->bottomGap();
tmargin += vbox->topGap();
if (pC.lastSystem) {
if (pC.lastSystem->isVbox())
tmargin += pC.lastSystem->vbox()->bottomGap();
else
tmargin += systemFrameDistance;
}
}
else {
if (pC.lastSystem) {
if (pC.lastSystem->isVbox())
tmargin = pC.lastSystem->vbox()->bottomGap() + frameSystemDistance;
else
tmargin = qMax(pC.tm(), systemDist);
}
else
tmargin = qMax(pC.tm(), sub);
bmargin = pC.bm();
}
tmargin = qMax(tmargin, pC.prevDist);
pC.prevDist = bmargin;
qreal h = pC.sr.height();
if (pC.lastSystem && (pC.y + h + tmargin + qMax(bmargin, slb) > pC.ey)) {
//
// prepare next page
//
qreal d;
if (pC.lastSystem->isVbox())
d = pC.lastSystem->vbox()->bottomGap();
else
d = slb;
layoutPage(pC, d);
pC.newPage();
if (pC.sr.isVbox())
tmargin = pC.sr.vbox()->topGap();
else
tmargin = qMax(pC.sr.tm(), sub);
}
qreal x = pC.page->lm();
pC.y += tmargin;
foreach(System* system, pC.sr.systems) {
system->setPos(x, pC.y);
x += system->width();
pC.page->appendSystem(system);
system->setAddStretch(false);
}
if (pC.lastSystem) {
bool addStretch = !pC.lastSystem->isVbox() && !pC.sr.isVbox();
pC.lastSystem->setAddStretch(addStretch);
if (addStretch)
++pC.gaps;
}
pC.y += h;
if (pC.sr.pageBreak() && (_layoutMode == LayoutPage)) {
if ((i + 1) == nSystems)
break;
pC.layoutPage();
pC.newPage();
}
else
pC.lastSystem = pC.sr.systems.back();
}
if (pC.page)
pC.layoutPage();
// Remove not needed pages. TODO: make undoable:
while (_pages.size() > curPage)
_pages.takeLast();
}
//---------------------------------------------------------
// systemDistCompare
//---------------------------------------------------------
static bool systemDistCompare(System* s1, System* s2)
{
return s1->distance() < s2->distance();
}
//---------------------------------------------------------
// layoutPage
// increase system distance upto maxSystemDistance
// to fill page
//---------------------------------------------------------
void Score::layoutPage(const PageContext& pC, qreal d)
{
Page* page = pC.page;
int gaps = pC.gaps;
qreal restHeight = pC.ey - pC.y - d;
if (!gaps || MScore::layoutDebug) {
if (_layoutMode == LayoutFloat) {
qreal y = restHeight * .5;
int n = page->systems()->size();
for (int i = 0; i < n; ++i) {
System* system = page->systems()->at(i);
system->move(0, y);
}
}
return;
}
const qreal maxStretch = styleP(ST_maxSystemDistance) - styleP(ST_minSystemDistance);
QList<System*> slist;
int n = page->systems()->size();
for (int i = 0; i < n; ++i) {
System* system = page->systems()->at(i);
qreal lastY1 = system->pos().y() + system->height();
if (system->addStretch()) {
System* ns = page->systems()->at(i + 1);
qreal dist = ns->pos().y() - lastY1;
system->setDistance(dist);
slist.append(system);
system->setStretchDistance(0.0);
}
}
qSort(slist.begin(), slist.end(), systemDistCompare);
n = slist.size();
for (int i = 0; i < (n-1); ++i) {
System* s1 = slist.at(i);
System* s2 = slist.at(i + 1);
qreal td = s2->distance() - s1->distance();
if (td > 0.001) {
int nn = i + 1;
qreal tdd = td * nn;
if (tdd > restHeight) {
tdd = restHeight;
td = tdd / nn;
}
if (s1->stretchDistance() + td > maxStretch) {
td = maxStretch - s1->stretchDistance();
tdd = td * nn;
}
for (int k = 0; k <= i; ++k)
slist.at(k)->addStretchDistance(td);
restHeight -= tdd;
}
}
qreal td = restHeight / n;
if (td > 0.001) {
qreal sd = slist.at(0)->stretchDistance();
if (sd + td > maxStretch)
td = maxStretch - sd;
for (int k = 0; k < n; ++k)
slist.at(k)->addStretchDistance(td);
}
qreal y = 0.0;
n = page->systems()->size();
for (int i = 0; i < n; ++i) {
System* system = page->systems()->at(i);
system->move(0, y);
if (system->addStretch())
y += system->stretchDistance();
}
}
//---------------------------------------------------------
// doLayoutSystems
// layout staves in a system
// layout pages
//---------------------------------------------------------
void Score::doLayoutSystems()
{
foreach(System* system, _systems)
system->layout2();
layoutPages();
rebuildBspTree();
_updateAll = true;
foreach(MuseScoreView* v, viewer)
v->layoutChanged();
}
//---------------------------------------------------------
// doLayoutPages
// small wrapper for layoutPages()
//---------------------------------------------------------
void Score::doLayoutPages()
{
layoutPages();
rebuildBspTree();
_updateAll = true;
foreach(MuseScoreView* v, viewer)
v->layoutChanged();
}
//---------------------------------------------------------
// sff
// compute 1/Force for a given Extend
//---------------------------------------------------------
qreal sff(qreal x, qreal xMin, const SpringMap& springs)
{
if (x <= xMin)
return 0.0;
iSpring i = springs.begin();
qreal c = i->second.stretch;
if (c == 0.0) //DEBUG
c = 1.1;
qreal f = 0.0;
for (; i != springs.end();) {
xMin -= i->second.fix;
f = (x - xMin) / c;
++i;
if (i == springs.end() || f <= i->first)
break;
c += i->second.stretch;
}
return f;
}
//---------------------------------------------------------
// respace
//---------------------------------------------------------
void Score::respace(QList<ChordRest*>* elements)
{
ChordRest* cr1 = elements->front();
ChordRest* cr2 = elements->back();
int n = elements->size();
qreal x1 = cr1->segment()->pos().x();
qreal x2 = cr2->segment()->pos().x();
qreal width[n-1];
int ticksList[n-1];
int minTick = 100000;
for (int i = 0; i < n-1; ++i) {
ChordRest* cr = (*elements)[i];
ChordRest* ncr = (*elements)[i+1];
Space space(cr->space());
Space nspace(ncr->space());
width[i] = space.rw() + nspace.lw();
ticksList[i] = ncr->segment()->tick() - cr->segment()->tick();
minTick = qMin(ticksList[i], minTick);
}
//---------------------------------------------------
// compute stretches
//---------------------------------------------------
SpringMap springs;
qreal minimum = 0.0;
for (int i = 0; i < n-1; ++i) {
qreal w = width[i];
int t = ticksList[i];
// qreal str = 1.0 + .6 * log(qreal(t) / qreal(minTick)) / log(2.0);
qreal str = 1.0 + 0.865617 * log(qreal(t) / qreal(minTick));
qreal d = w / str;
springs.insert(std::pair<qreal, Spring>(d, Spring(i, str, w)));
minimum += w;
}
//---------------------------------------------------
// distribute stretch to elements
//---------------------------------------------------
qreal force = sff(x2 - x1, minimum, springs);
for (iSpring i = springs.begin(); i != springs.end(); ++i) {
qreal stretch = force * i->second.stretch;
if (stretch < i->second.fix)
stretch = i->second.fix;
width[i->second.seg] = stretch;
}
qreal x = x1;
for (int i = 1; i < n-1; ++i) {
x += width[i-1];
ChordRest* cr = (*elements)[i];
qreal dx = x - cr->segment()->pos().x();
cr->rxpos() += dx;
}
}
//---------------------------------------------------------
// computeMinWidth
/// compute the minimum width of a measure with
/// segment list fs
//---------------------------------------------------------
qreal Score::computeMinWidth(Segment* fs)
{
int _nstaves = nstaves();
if (_nstaves == 0)
return 1.0;
qreal _spatium = spatium();
qreal clefKeyRightMargin = styleS(ST_clefKeyRightMargin).val() * _spatium;
qreal minNoteDistance = styleS(ST_minNoteDistance).val() * _spatium;
qreal minHarmonyDistance = styleS(ST_minHarmonyDistance).val() * _spatium;
qreal maxHarmonyBarDistance = styleS(ST_maxHarmonyBarDistance).val() * _spatium;
qreal rest[_nstaves]; // fixed space needed from previous segment
memset(rest, 0, _nstaves * sizeof(qreal));
qreal hRest[_nstaves]; // fixed space needed from previous harmony
memset(hRest, 0, _nstaves * sizeof(qreal));
qreal clefWidth[_nstaves];
memset(clefWidth, 0, _nstaves * sizeof(qreal));
std::vector<QRectF> hLastBbox(_nstaves); // bbox of previous harmony to test vertical separation
int segmentIdx = 0;
qreal x = 0.0;
const Segment* pSeg = 0;
for (Segment* s = fs; s; s = s->next(), ++segmentIdx) {
qreal elsp = s->extraLeadingSpace().val() * _spatium;
qreal etsp = s->extraTrailingSpace().val() * _spatium;
if ((s->segmentType() == Segment::SegClef) && (s != fs)) {
--segmentIdx;
for (int staffIdx = 0; staffIdx < _nstaves; ++staffIdx) {
if (!staff(staffIdx)->show())
continue;
int track = staffIdx * VOICES;
Element* e = s->element(track);
if (e) {
e->layout();
clefWidth[staffIdx] = e->width() + _spatium + elsp;
}
}
continue;
}
bool rest2[_nstaves];
bool hRest2[_nstaves];
bool spaceHarmony = false;
Segment::SegmentType segType = s->segmentType();
qreal segmentWidth = 0.0;
qreal harmonyWidth = 0.0;
qreal stretchDistance = 0.0;
int pt = pSeg ? pSeg->segmentType() : Segment::SegBarLine;
for (int staffIdx = 0; staffIdx < _nstaves; ++staffIdx) {
if (!staff(staffIdx)->show())
continue;
qreal minDistance = 0.0;
Space space;
Space hSpace;
QRectF hBbox;
int track = staffIdx * VOICES;
bool found = false;
bool hFound = false;
bool eFound = false;
if (segType & (Segment::SegChordRest)) {
qreal llw = 0.0;
qreal rrw = 0.0;
Lyrics* lyrics = 0;
for (int voice = 0; voice < VOICES; ++voice) {
ChordRest* cr = static_cast<ChordRest*>(s->element(track+voice));
if (!cr)
continue;
found = true;
if (pt & (Segment::SegStartRepeatBarLine | Segment::SegBarLine | Segment::SegTimeSig)) {
// check for accidentals in chord
bool accidental = false;
bool grace = false;
qreal accidentalX = 0.0;
qreal noteX = 0.0;
if (cr->type() == Element::CHORD) {
Chord* c = static_cast<Chord*>(cr);
if (!c->graceNotes().empty())
grace = true;
else {
for (Note* note : c->notes()) {
if (note->accidental()) {
accidental = true;
accidentalX = qMin(accidentalX, note->accidental()->x() + note->x());
}
else
noteX = qMin(noteX, note->x());
}
}
}
qreal sp;
qreal bnd = styleS(ST_barNoteDistance).val() * _spatium;
if (accidental) {
qreal bad = styleS(ST_barAccidentalDistance).val() * _spatium;
qreal diff = qMax(noteX - accidentalX, 0.0);
sp = qMax(bad, bnd - diff);
}
else if (grace)
sp = styleS(ST_barAccidentalDistance).val() * _spatium;
else
sp = bnd;
if (pt & Segment::SegTimeSig)
sp += clefKeyRightMargin - bnd;
minDistance = qMax(minDistance, sp);
if (!(pt & Segment::SegTimeSig))
stretchDistance = sp * .7;
}
else if (pt & Segment::SegChordRest) {
minDistance = qMax(minDistance, minNoteDistance);
}
else {
// if (pt & (Segment::SegKeySig | Segment::SegClef))
bool firstClef = (segmentIdx == 1) && (pt == Segment::SegClef);
if ((pt & Segment::SegKeySig) || firstClef)
minDistance = qMax(minDistance, clefKeyRightMargin);
}
cr->layout();
space.max(cr->space());
foreach(Lyrics* l, cr->lyricsList()) {
if (!l)
continue;
if (!l->isEmpty()) {
l->layout();
lyrics = l;
if (!lyrics->isMelisma()) {
QRectF b(l->bbox().translated(l->pos()));
llw = qMax(llw, -b.left());
rrw = qMax(rrw, b.right());
}
}
}
}
if (lyrics)
space.max(Space(llw, rrw));
// add spacing for chord symbols
foreach (Element* e, s->annotations()) {
if (e->type() != Element::HARMONY || e->track() < track || e->track() >= track+VOICES)
continue;
Harmony* h = static_cast<Harmony*>(e);
//h->layout();
h->calculateBoundingRect();
QRectF b(h->bboxtight().translated(h->pos()));
if (hFound)
hBbox |= b;
else
hBbox = b;
hFound = true;
spaceHarmony = true;
// allow chord to be dragged
qreal xoff = h->pos().x();
qreal bl = -b.left() + qMin(xoff, 0.0);
qreal br = b.right() - qMax(xoff, 0.0);
hSpace.max(Space(bl, br));
}
}
else {
// current segment (s) is not a ChordRest
Element* e = s->element(track);
if ((segType == Segment::SegClef) && (pt != Segment::SegChordRest))
minDistance = styleP(ST_clefLeftMargin);
else if (segType == Segment::SegStartRepeatBarLine)
minDistance = .5 * _spatium;
else if ((segType == Segment::SegEndBarLine) && segmentIdx) {
if (pt == Segment::SegClef)
minDistance = styleP(ST_clefBarlineDistance);
else
stretchDistance = styleP(ST_noteBarDistance);
if (e == 0) {
// look for barline
for (int i = track - VOICES; i >= 0; i -= VOICES) {
e = s->element(i);
if (e)
break;
}
}
}
if (e) {
eFound = true;
if (!s->next()) // segType & Segment::SegEndBarLine
spaceHarmony = true; // to space last Harmony to end of measure
e->layout();
space.max(e->space());
}
}
space += Space(elsp, etsp);
if (found || eFound) {
space.rLw() += clefWidth[staffIdx];
qreal sp = minDistance + rest[staffIdx] + qMax(space.lw(), stretchDistance);
rest[staffIdx] = space.rw();
rest2[staffIdx] = false;
segmentWidth = qMax(segmentWidth, sp);
}
else
rest2[staffIdx] = true;
// space chord symbols separately from segments
if (hFound || eFound) {
qreal sp = 0.0;
// space chord symbols unless they miss each other vertically
if (eFound || (hFound && hBbox.top() < hLastBbox[staffIdx].bottom() && hBbox.bottom() > hLastBbox[staffIdx].top()))
sp = hRest[staffIdx] + minHarmonyDistance + hSpace.lw();
// barline: limit space to maxHarmonyBarDistance
if (eFound && !hFound && spaceHarmony)
sp = qMin(sp, maxHarmonyBarDistance);
hLastBbox[staffIdx] = hBbox;
hRest[staffIdx] = hSpace.rw();
hRest2[staffIdx] = false;
harmonyWidth = qMax(harmonyWidth, sp);
}
else
hRest2[staffIdx] = true;
clefWidth[staffIdx] = 0.0;
}
// make room for harmony if needed
segmentWidth = qMax(segmentWidth, harmonyWidth);
x += segmentWidth;
// if (segmentIdx && pSeg)
// pSeg->setbbox(QRectF(0.0, 0.0, segmentWidth, _spatium * 5)); //??
for (int staffIdx = 0; staffIdx < _nstaves; ++staffIdx) {
if (!staff(staffIdx)->show())
continue;
if (rest2[staffIdx])
rest[staffIdx] -= qMin(rest[staffIdx], segmentWidth);
if (hRest2[staffIdx])
hRest[staffIdx] -= qMin(hRest[staffIdx], segmentWidth);
}
//
// set pSeg only to used segments
//
for (int voice = 0; voice < _nstaves * VOICES; ++voice) {
if (!staff(voice/VOICES)->show()) {
voice += VOICES-1;
continue;
}
if (s->element(voice)) {
pSeg = s;
break;
}
}
}
qreal segmentWidth = 0.0;
for (int staffIdx = 0; staffIdx < _nstaves; ++staffIdx) {
if (!staff(staffIdx)->show())
continue;
segmentWidth = qMax(segmentWidth, rest[staffIdx]);
segmentWidth = qMax(segmentWidth, hRest[staffIdx]);
}
x += segmentWidth;
return x;
}
//---------------------------------------------------------
// updateBarLineSpans
/// updates bar line span(s) when the number of lines of a staff changes
//---------------------------------------------------------
void Score::updateBarLineSpans(int idx, int linesOld, int linesNew)
{
int nStaves = nstaves();
Staff* _staff;
// scan staves and check the destination staff of each bar line span
// barLineSpan is not changed; barLineFrom and barLineTo are changed if they occur in the bottom half of a staff
// in practice, a barLineFrom/To from/to the top half of the staff is linked to the staff top line,
// a barLineFrom/To from/to the bottom half of the staff is linked to staff bottom line;
// this ensures plainchant and mensurstrich special bar lines keep their relationships to the staff lines.
// 1-line staves are traited as a special case.
for(int sIdx = 0; sIdx < nStaves; sIdx++) {
_staff = staff(sIdx);
// if this is the modified staff
if(sIdx == idx) {
// if it has no bar line, set barLineTo to a default value
if(_staff->barLineSpan() == 0)
_staff->setBarLineTo( (linesNew-1) * 2);
// if new line number is 1, set default From for 1-line staves
else if(linesNew == 1)
_staff->setBarLineFrom(BARLINE_SPAN_1LINESTAFF_FROM);
// if barLineFrom was below the staff middle position
// raise or lower it to account for new number of lines
else if(_staff->barLineFrom() > linesOld - 1)
_staff->setBarLineFrom(_staff->barLineFrom() + (linesNew - linesOld)*2);
}
// if the modified staff is the destination of the current staff bar span:
if(sIdx + _staff->barLineSpan() - 1 == idx) {
// if new line number is 1, set default To for 1-line staves
if(linesNew == 1)
_staff->setBarLineTo(BARLINE_SPAN_1LINESTAFF_TO);
// if barLineTo was below its middle position, raise or lower it
else if(_staff->barLineTo() > linesOld - 1)
_staff->setBarLineTo(_staff->barLineTo() + (linesNew - linesOld)*2);
}
}
}
}