public GroupMetrics(string ID_Type, Metrics metrics)
: base()
{
MetricsList.Add(metrics);
_objectType = ID_Type;
_originX = metrics.OriginX;
_originY = metrics.OriginY;
_top = metrics.Top;
_right = metrics.Right;
_bottom = metrics.Bottom;
_left = metrics.Left;
}
/// <summary>
/// If isBelow, metrics.Top is moved to bottomBoundary + bottomPadding and bottomBoundary is then set to metrics.Bottom
/// otherwise metrics.Bottom is moved to topBoundary - topPadding ans topBoundary is then set to metrics.Top.
/// Does nothing if metrics is null.
/// </summary>
private void MoveMetrics(Metrics metrics, bool isBelow,
ref float topBoundary, float topPadding,
ref float bottomBoundary, float bottomPadding)
{
Debug.Assert(NoteheadExtendersMetrics == null);
if(isBelow)
{
MoveBelowBottomBoundary(metrics, ref bottomBoundary, bottomPadding);
}
else
{
MoveAboveTopBoundary(metrics, ref topBoundary, topPadding);
}
SetExternalBoundary();
}
private void MoveBelowBottomBoundary(Metrics metrics, ref float bottomBoundary, float padding)
{
Debug.Assert(padding >= 0.0F);
float newTop = bottomBoundary + padding;
metrics.Move(0F, newTop - metrics.Top);
bottomBoundary = metrics.Bottom;
SetExternalBoundary();
}
private void MoveAboveTopBoundary(Metrics metrics, ref float topBoundary, float padding)
{
Debug.Assert(padding >= 0.0F);
float newBottom = topBoundary - padding;
metrics.Move(0F, newBottom - metrics.Bottom);
topBoundary = metrics.Top;
SetExternalBoundary();
}
/// <summary>
/// Returns the stem which the otherChordTopDownHeadsMetrics would have if their duration class was crotchet.
/// DummyStemMetrics are used when aligning synchronous chords.
/// </summary>
private StemMetrics DummyStemMetrics(
List<HeadMetrics> otherChordTopDownHeadsMetrics,
VerticalDir stemDirection,
float fontHeight,
Metrics flagsBlockMetrics,
BeamBlock beamBlock,
float strokeWidth)
{
List<HeadMetrics> tempTopDownHeadsMetrics = new List<HeadMetrics>();
foreach(HeadMetrics headMetrics in otherChordTopDownHeadsMetrics)
{
HeadMetrics newHeadMetrics = new HeadMetrics(headMetrics, DurationClass.crotchet);
tempTopDownHeadsMetrics.Add(newHeadMetrics);
}
return NewStemMetrics(tempTopDownHeadsMetrics, stemDirection, fontHeight, flagsBlockMetrics, beamBlock, strokeWidth);
}
/// <summary>
/// Writes a time signature to the SVG file.
/// The metrics have been set in SvgSystem.Justify()
/// </summary>
public void WriteSVG(SvgWriter w, string timeSigSignature, double originX, double originY)
{
Metrics.WriteSVG(w);
}
/// <summary>
/// Returns the (positive) amount by which to raise the metrics argument
/// so that its bottom is level with the top of a chord component which
/// it overlaps.
/// The argument metrics is padded on all sides using the padding argument.
/// </summary>
public new float OverlapHeight(Metrics metrics, float padding)
{
float maxOverlapHeight = float.MinValue;
float overlap = 0;
#region _stemMetrics
if(_stemMetrics != null)
{
overlap = _stemMetrics.OverlapHeight(metrics, padding);
if(overlap != 0F)
maxOverlapHeight = maxOverlapHeight > overlap ? maxOverlapHeight : overlap;
}
#endregion
#region _flagsBlockMetrics
if(_flagsBlockMetrics != null)
{
overlap = _flagsBlockMetrics.OverlapHeight(metrics, padding);
if(overlap != 0F)
maxOverlapHeight = maxOverlapHeight > overlap ? maxOverlapHeight : overlap;
}
#endregion
#region _topDownHeadsMetrics
if(_headsMetricsTopDown != null)
{
foreach(HeadMetrics headMetric in _headsMetricsTopDown)
{
overlap = headMetric.OverlapHeight(metrics, padding);
if(overlap != 0F)
maxOverlapHeight = maxOverlapHeight > overlap ? maxOverlapHeight : overlap;
}
}
#endregion
#region _accidentalsMetrics
if(_topDownAccidentalsMetrics != null)
{
foreach(AccidentalMetrics accidentalMetric in _topDownAccidentalsMetrics)
{
overlap = accidentalMetric.OverlapHeight(metrics, padding);
if(overlap != 0F)
maxOverlapHeight = maxOverlapHeight > overlap ? maxOverlapHeight : overlap;
}
}
#endregion
#region _ledgerlineBlocksMetrics
if(_upperLedgerlineBlockMetrics != null)
{
overlap = _upperLedgerlineBlockMetrics.OverlapHeight(metrics, padding);
if(overlap != 0F)
maxOverlapHeight = maxOverlapHeight > overlap ? maxOverlapHeight : overlap;
}
if(_lowerLedgerlineBlockMetrics != null)
{
overlap = _lowerLedgerlineBlockMetrics.OverlapHeight(metrics, padding);
if(overlap != 0F)
maxOverlapHeight = maxOverlapHeight > overlap ? maxOverlapHeight : overlap;
}
#endregion
#region
if(_cautionaryBracketsMetrics != null)
{
foreach(CautionaryBracketMetrics cautionaryBracketMetrics in _cautionaryBracketsMetrics)
{
overlap = cautionaryBracketMetrics.OverlapHeight(metrics, padding);
if(overlap != 0F)
maxOverlapHeight = maxOverlapHeight > overlap ? maxOverlapHeight : overlap;
}
}
#endregion
#region _ornamentMetrics
if(_ornamentMetrics != null)
{
overlap = _ornamentMetrics.OverlapHeight(metrics, padding);
if(overlap != 0F)
maxOverlapHeight = maxOverlapHeight > overlap ? maxOverlapHeight : overlap;
}
#endregion
#region _lyricMetrics
if(_lyricMetrics != null)
{
overlap = _lyricMetrics.OverlapHeight(metrics, padding);
if(overlap != 0F)
maxOverlapHeight = maxOverlapHeight > overlap ? maxOverlapHeight : overlap;
}
#endregion
#region _dynamicMetrics
if(_dynamicMetrics != null)
{
overlap = _dynamicMetrics.OverlapHeight(metrics, padding);
if(overlap != 0F)
maxOverlapHeight = maxOverlapHeight > overlap ? maxOverlapHeight : overlap;
}
#endregion
#region NoteheadExtendersMetricsBefore
if(NoteheadExtendersMetricsBefore != null)
{
foreach(NoteheadExtenderMetrics nem in NoteheadExtendersMetricsBefore)
{
overlap = nem.OverlapHeight(metrics, padding);
if(overlap != 0F)
maxOverlapHeight = maxOverlapHeight > overlap ? maxOverlapHeight : overlap;
}
}
#endregion
return maxOverlapHeight;
}
private void SetBoundary(Metrics metrics)
{
_top = _top < metrics.Top ? _top : metrics.Top;
_right = _right > metrics.Right ? _right : metrics.Right;
_bottom = _bottom > metrics.Bottom ? _bottom : metrics.Bottom;
_left = _left < metrics.Left ? _left : metrics.Left;
}
/// <summary>
/// Use this function to check all atomic overlaps (single character or line boxMetrics).
/// </summary>
/// <param name="metrics"></param>
/// <returns></returns>
public bool Overlaps(Metrics metrics)
{
bool verticalOverlap = true;
bool horizontalOverlap = true;
if((metrics.Top > Bottom) || (metrics.Bottom < Top))
verticalOverlap = false;
if((metrics.Left > Right) || (metrics.Right < Left))
horizontalOverlap = false;
return verticalOverlap && horizontalOverlap;
}
/// <summary>
/// If the padded argument overlaps this metrics horizontally,
/// and this.Top is smaller than paddedArgument.Bottom,
/// this.Bottom - paddedArgument.Right is returned.
/// Otherwise 0F is returned.
/// </summary>
/// <param name="arg"></param>
/// <returns></returns>
public float OverlapHeight(Metrics arg, float padding)
{
float newArgRight = arg.Right + padding;
float newArgLeft = arg.Left - padding;
float newArgBottom = arg.Bottom + padding;
bool horizontalOverlap = true;
if((newArgRight < Left) || (newArgLeft > Right))
horizontalOverlap = false;
if(horizontalOverlap && newArgBottom > Top)
{
float overlap = newArgBottom - Top;
return (overlap);
}
else
return 0F;
}
/// <summary>
/// Adds the metrics to the MetricsList and includes it in this object's boundary.
/// The boundary is used for collision checking. All objects which should move together with this object
/// must be added to the MetricsList.
/// </summary>
/// <param name="metrics"></param>
public virtual void Add(Metrics metrics)
{
MetricsList.Add(metrics);
ResetBoundary();
}
/// <summary>
/// If the top edge of the metrics object lies above any line in this top edge,
/// then this top edge is adjusted accordingly.
/// </summary>
public override void Add(Metrics metrics)
{
HLine hLine = new HLine(metrics.Left, metrics.Right, metrics.Top);
AddLineToUpperEdge(hLine);
}
/// <summary> /// Adds either the top or the bottom of the metrics object to this horizontal edge, /// depending on whether this is a top or bottom edge. /// </summary> /// <param name="metrics"></param> public abstract void Add(Metrics metrics);
/// <summary>
/// If the bottom edge of the metrics object lies below any line in this bottom edge,
/// then this bottom edge is adjusted accordingly.
/// </summary>
public override void Add(Metrics metrics)
{
HLine line = new HLine(metrics.Left, metrics.Right, metrics.Bottom);
Add(line);
}
/// <summary>
/// Sets the stem. Pass flagsBlockMetrics=null for duration classes having no flags.
/// </summary>
private StemMetrics NewStemMetrics(List<HeadMetrics> topDownHeadsMetrics, ChordSymbol chord, Metrics flagsBlockMetrics, float strokeWidth)
{
return NewStemMetrics(topDownHeadsMetrics, chord.Stem.Direction, chord.FontHeight, flagsBlockMetrics, chord.BeamBlock, strokeWidth);
}
private StemMetrics NewStemMetrics(
List<HeadMetrics> topDownHeadsMetrics,
VerticalDir stemDirection,
float fontHeight,
Metrics flagsBlockMetrics,
BeamBlock beamBlock,
float strokeWidth)
{
HeadMetrics outerNotehead = FindOuterNotehead(topDownHeadsMetrics, stemDirection);
HeadMetrics innerNotehead = FindInnerNotehead(topDownHeadsMetrics, stemDirection);
string noteheadID = outerNotehead.ID_Type;
NoteheadStemPositions_px nspPX = CLichtFontMetrics.ClichtNoteheadStemPositionsDictPX[noteheadID];
float outerNoteheadAlignmentY = (outerNotehead.Bottom + outerNotehead.Top) / 2F;
float innerNoteheadAlignmentY = (innerNotehead.Bottom + innerNotehead.Top) / 2F;
float delta = _gap * 0.1F;
float octave = (_gap * 3.5F) + delta; // a little more than 1 octave
float sixth = (_gap * 2.5F) + delta; // a little more than 1 sixth
float top = 0F;
float bottom = 0F;
float x = 0F;
if(stemDirection == VerticalDir.up)
{
x = outerNotehead.RightStemX - (strokeWidth / 2);
bottom = outerNoteheadAlignmentY + (nspPX.RightStemY_px * fontHeight);
if(beamBlock != null)
{
top = beamBlock.DefaultStemTipY;
}
else
{
if(flagsBlockMetrics != null)
{
top = flagsBlockMetrics.Top;
}
else
top = innerNoteheadAlignmentY - octave;
if(top > (_gap * 2))
{
top = (_gap * 2) - delta;
}
}
}
else // stem is down
{
x = outerNotehead.LeftStemX + (strokeWidth / 2);
top = outerNoteheadAlignmentY + (nspPX.LeftStemY_px * fontHeight);
if(beamBlock != null)
{
bottom = beamBlock.DefaultStemTipY;
}
else
{
if(flagsBlockMetrics != null)
{
bottom = flagsBlockMetrics.Bottom;
}
else
bottom = innerNoteheadAlignmentY + octave;
if(bottom < (_gap * 2))
{
bottom = (_gap * 2) + delta;
}
}
}
StemMetrics stemMetrics = new StemMetrics(top, x, bottom, strokeWidth, stemDirection);
return stemMetrics;
}
/// <summary>
/// If the previousMetrics overlaps this metrics vertically, and this.Left is les than
/// than previousMetrics.Right, previousMetrics.Right - this.Left is returned.
/// If there is no vertical overlap, this or the previousMetrics is a RestMetrics, and
/// the metrics overlap, half the width of the rest is returned.
/// Otherwise float.MinValue is returned.
/// </summary>
public float OverlapWidth(Metrics previousMetrics)
{
bool verticalOverlap = true;
if(!(this is BarlineMetrics))
{
if((previousMetrics.Top > Bottom) || (previousMetrics.Bottom < Top))
verticalOverlap = false;
}
float overlap = float.MinValue;
if(verticalOverlap && previousMetrics.Right > Left)
{
overlap = previousMetrics.Right - this.Left;
if(this._objectType == "b" || this._objectType == "n")
{
overlap -= ((this.Right - this.Left) * 0.15F);
overlap = overlap > 0F ? overlap : 0F;
}
}
if(!verticalOverlap && this is RestMetrics && this.OriginX <= previousMetrics.Right)
overlap = previousMetrics.Right - this.OriginX;
if(!verticalOverlap && previousMetrics is RestMetrics && previousMetrics.OriginX >= Left)
overlap = previousMetrics.OriginX - Left;
return overlap;
}
/// <summary>
/// The flagBlock is moved to the correct x-position wrt noteheads.
/// The distance between the inner notehead's alignmentY and the closest edge of the flagsBlock is set to a little less than two spaces.
/// If there is only one flag, the distance is increased to a little less than three spaces (1 octave).
/// If the stem is up and the bottom of the flagBlock is too low, the flagBlock is moved up.
/// If the stem is down and the top of the flagBlock is too high, the flagBlock is moved down.
/// </summary>
private void SetFlagsPositionReNoteheads(List<HeadMetrics> topDownHeadsMetrics, Metrics flagsBlockMetrics, VerticalDir stemDirection, float stemThickness)
{
Debug.Assert(flagsBlockMetrics != null);
HeadMetrics outerNoteheadMetrics = FindOuterNotehead(topDownHeadsMetrics, stemDirection);
HeadMetrics innerNoteheadMetrics = FindInnerNotehead(topDownHeadsMetrics, stemDirection);
float innerNoteheadAlignmentY = (innerNoteheadMetrics.Bottom + innerNoteheadMetrics.Top) / 2F;
float minDist = _gap * 1.8F; // constant found by experiment
float deltaX = 0;
float deltaY = 0;
if(stemDirection == VerticalDir.up)
{
deltaY = minDist - (innerNoteheadAlignmentY - flagsBlockMetrics.Bottom);
if(flagsBlockMetrics.ID_Type == "Right1Flag")
deltaY += _gap;
deltaY *= -1;
if(flagsBlockMetrics.ID_Type == "Right1Flag")
{
if((flagsBlockMetrics.Bottom + deltaY) > (_gap * 2.5F))
{
deltaY = (_gap * 2.5F) - flagsBlockMetrics.Bottom;
}
}
else // other right flag types
if((flagsBlockMetrics.Bottom + deltaY) > (_gap * 3.5F))
{
deltaY = (_gap * 3.5F) - flagsBlockMetrics.Bottom;
}
deltaX = outerNoteheadMetrics.RightStemX - (stemThickness / 2F);
}
else // stem is down
{
deltaY = minDist - (flagsBlockMetrics.Top - innerNoteheadAlignmentY);
if(flagsBlockMetrics.ID_Type == "Left1Flag")
deltaY += _gap;
if(flagsBlockMetrics.ID_Type == "Left1Flag")
{
if((flagsBlockMetrics.Top + deltaY) < (_gap * 1.5F))
{
deltaY = (_gap * 1.5F) - flagsBlockMetrics.Top;
}
}
else // other left flag types
if((flagsBlockMetrics.Top + deltaY) < (_gap * 0.5F))
{
deltaY = (_gap * 0.5F) - flagsBlockMetrics.Top;
}
deltaX = outerNoteheadMetrics.LeftStemX + (stemThickness / 2F);
}
flagsBlockMetrics.Move(deltaX, deltaY);
// the flagsBlockMetrics is added to either this.MetricsList or this.PostJustificationMetrics in a later function.
}
/// <summary>
/// Adds the metrics to the MetricsList and includes it in this object's boundary.
/// The boundary is used for collision checking. All objects which should move together with this object
/// must be added to the MetricsList.
/// </summary>
/// <param name="metrics"></param>
public virtual void Add(Metrics metrics)
{
MetricsList.Add(metrics);
ResetBoundary();
}
/// <summary>
/// returns float.MinValue if no overlap is found
/// </summary>
/// <param name="followingMetrics"></param>
/// <returns></returns>
public new float OverlapWidth(Metrics followingMetrics)
{
float maxOverlapWidth = float.MinValue;
float overlap = float.MinValue;
#region _stemMetrics
if(_stemMetrics != null)
{
overlap = followingMetrics.OverlapWidth(_stemMetrics);
maxOverlapWidth = maxOverlapWidth > overlap ? maxOverlapWidth : overlap;
}
#endregion
#region _flagsBlockMetrics
if(_flagsBlockMetrics != null)
{
overlap = followingMetrics.OverlapWidth(_flagsBlockMetrics);
maxOverlapWidth = maxOverlapWidth > overlap ? maxOverlapWidth : overlap;
}
#endregion
#region _topDownHeadsMetrics
if(_headsMetricsTopDown != null)
{
foreach(HeadMetrics headMetric in _headsMetricsTopDown)
{
overlap = followingMetrics.OverlapWidth(headMetric);
maxOverlapWidth = maxOverlapWidth > overlap ? maxOverlapWidth : overlap;
}
}
#endregion
#region _accidentalsMetrics
if(_topDownAccidentalsMetrics != null)
{
foreach(AccidentalMetrics accidentalMetric in _topDownAccidentalsMetrics)
{
overlap = followingMetrics.OverlapWidth(accidentalMetric);
maxOverlapWidth = maxOverlapWidth > overlap ? maxOverlapWidth : overlap;
}
}
#endregion
#region ledgerlineBlocksMetrics
if(_upperLedgerlineBlockMetrics != null)
{
overlap = followingMetrics.OverlapWidth(_upperLedgerlineBlockMetrics);
maxOverlapWidth = maxOverlapWidth > overlap ? maxOverlapWidth : overlap;
}
if(_lowerLedgerlineBlockMetrics != null)
{
overlap = followingMetrics.OverlapWidth(_lowerLedgerlineBlockMetrics);
maxOverlapWidth = maxOverlapWidth > overlap ? maxOverlapWidth : overlap;
}
#endregion
#region
if(_cautionaryBracketsMetrics != null)
{
foreach(CautionaryBracketMetrics cautionaryBracketMetrics in _cautionaryBracketsMetrics)
{
overlap = followingMetrics.OverlapWidth(cautionaryBracketMetrics);
maxOverlapWidth = maxOverlapWidth > overlap ? maxOverlapWidth : overlap;
}
}
#endregion
#region _ornamentMetrics
if(_ornamentMetrics != null)
{
overlap = followingMetrics.OverlapWidth(_ornamentMetrics);
maxOverlapWidth = maxOverlapWidth > overlap ? maxOverlapWidth : overlap;
}
#endregion
#region _lyricMetrics
if(_lyricMetrics != null)
{
overlap = followingMetrics.OverlapWidth(_lyricMetrics);
maxOverlapWidth = maxOverlapWidth > overlap ? maxOverlapWidth : overlap;
}
#endregion
#region _dynamicMetrics
if(_dynamicMetrics != null)
{
overlap = followingMetrics.OverlapWidth(_dynamicMetrics);
maxOverlapWidth = maxOverlapWidth > overlap ? maxOverlapWidth : overlap;
}
#endregion
#region NoteheadExtendersMetrics
// NoteheadExtenders should only be created after JustifyHorizontally(),
// so they should be null here.
Debug.Assert(NoteheadExtendersMetrics == null);
#endregion
return maxOverlapWidth;
}
/// <summary>
/// noteObjects[noteObjectIndex] is the first OutputChordSymbol or OutputRestSymbol in the tuplet, and is the
/// noteObject to which the tuplet is attached,
/// </summary>
/// <param name="graphics"></param>
/// <param name="tupletDef"></param>
/// <param name="noteObjects"></param>
/// <param name="noteObjectIndex"></param>
public Tuplet(Graphics graphics, TupletDef tupletDef, List <NoteObject> noteObjects, int noteObjectIndex)
: base(noteObjects[noteObjectIndex])
{
List <NoteObject> tupletChordsAndRests = GetTupletChordsAndRests(noteObjects, noteObjectIndex, tupletDef);
var gap = M.PageFormat.GapVBPX;
var textInfo = GetTupletTextInfo(tupletDef.InnerDuration, tupletDef.OuterDuration);
Metrics = new TextMetrics(CSSObjectClass.tupletText, graphics, textInfo);
var textHeight = (Metrics.Bottom - Metrics.Top);
var textWidth = (Metrics.Right - Metrics.Left);
bool isOver = (tupletDef.Orient == Orientation.up);
double textXAlignment;
if (tupletChordsAndRests.Count > 2)
{
int alignedIndex = (int)(tupletChordsAndRests.Count) / 2;
Metrics metrics = tupletChordsAndRests[alignedIndex].Metrics;
if (metrics is ChordMetrics cMetrics)
{
textXAlignment = cMetrics.OriginX - textWidth / 4;
}
else
{
textXAlignment = ((metrics.Right - metrics.Left) / 2) + metrics.Left;
}
}
else
{
M.Assert(tupletChordsAndRests.Count == 2);
Metrics metrics1 = tupletChordsAndRests[0].Metrics;
Metrics metrics2 = tupletChordsAndRests[1].Metrics;
textXAlignment = ((metrics1.Left + metrics2.Right) / 2) - textWidth / 4;
}
//textYAlignment = (isOver) ? metrics.Top - gap - (textHeight / 2) : metrics.Bottom + gap + (textHeight / 2);
double textYAlignment = (isOver) ? double.MaxValue : double.MinValue;;
foreach (NoteObject noteObject in tupletChordsAndRests)
{
var metrics = noteObject.Metrics;
if (isOver)
{
textYAlignment = (metrics.Top < textYAlignment) ? metrics.Top : textYAlignment;
}
else
{
textYAlignment = (metrics.Bottom > textYAlignment) ? metrics.Bottom : textYAlignment;
}
}
#region move vertically off the staff if necessary
StaffMetrics staffMetrics = tupletChordsAndRests[0].Voice.Staff.Metrics;
if (isOver)
{
double topMax = staffMetrics.StafflinesTop - gap - (textHeight / 2);
if (textYAlignment > topMax)
{
textYAlignment = topMax;
}
}
else
{
double topMin = staffMetrics.StafflinesBottom + gap + (textHeight / 2);
if (textYAlignment < topMin)
{
textYAlignment = topMin;
}
}
#endregion
Metrics.Move(textXAlignment, textYAlignment + (textHeight / 2));
// set auto correctly later -- depends on beaming
if (tupletDef.Bracket == TupletBracketDisplay.yes || tupletDef.Bracket == TupletBracketDisplay.auto)
{
double bracketHoriz = textYAlignment;
double bracketLeft = tupletChordsAndRests[0].Metrics.Left - M.PageFormat.StafflineStemStrokeWidthVBPX;
double bracketRight = tupletChordsAndRests[tupletChordsAndRests.Count - 1].Metrics.Right + M.PageFormat.StafflineStemStrokeWidthVBPX;
double bracketHeight = gap * 0.75;
_textAndBracketMetrics = new TupletMetrics((TextMetrics)Metrics, bracketHoriz, bracketLeft, bracketRight, bracketHeight, isOver);
}
}