/** Get the hotspot for this object in screen coordinates.
*/
public override FinalPoint getScreenHotspot()
{
if (_screenHotspot != null)
{
return(_screenHotspot);
}
Anchored anchor = getAnchor();
if (!(anchor is Notehead))
{
// We never found a previous Notehead in the TimesSlice, which shouldn't
// happen. Just use whatever anchor was found
_screenHotspot = anchor.getScreenHotspot();
return(_screenHotspot);
}
Notehead notehead = (Notehead)anchor;
// Debug: very preliminary. This does not account for the
// possibility of bumping into offset 2nds from the Stem, etc.
int offsetX = notehead.getLeftEdge() - (graphicShape().getRightEdge() + 3);
// offsetX should be negative
_screenHotspot = new FinalPoint(notehead.getScreenHotspot(), offsetX, 0);
return(_screenHotspot);
}
/** Draw this object
*/
public override void draw(IGraphics graphics)
{
// Draw the notehead
graphicShape().draw(graphics, getScreenHotspot());
// Draw extension to the staff as necessary
if (_staffStep >= 10)
{
// Notehead is above the staff, so draw staff line extensions.
FinalPoint staffTop = getAnchor().getScreenHotspot();
for (int step = 10; step <= _staffStep; step += 2)
{
int y = staffTop.y + staffStepOffsetY(step);
graphics.DrawLine(staffTop.x - 4, y, staffTop.x + 6, y);
}
}
else if (_staffStep <= -2)
{
// Notehead is below the staff, so draw staff line extensions.
FinalPoint staffTop = getAnchor().getScreenHotspot();
for (int step = -2; step >= _staffStep; step -= 2)
{
int y = staffTop.y + staffStepOffsetY(step);
graphics.DrawLine(staffTop.x - 4, y, staffTop.x + 6, y);
}
}
}
/** Get the hotspot for this object in screen coordinates.
*/
public FinalPoint getScreenHotspot()
{
if (_screenHotspot != null)
{
return(_screenHotspot);
}
// // Compute the position by locating our start time between the start time
// // of the measure start and the start time of the next measure start.
// // DEBUG: This all assumes that the measures in each staff of the staff
// // system have the same beats in each measure. Maybe check this.
// // DEBUG: must compute firstNoteOffset for real!
// int firstNoteOffset = 10;
// double pixelsPerDuration =
// (getParent().getWidth() - firstNoteOffset) / getParent().getDuration().doubleValue();
// _screenHotspot = new FinalPoint
// (getParent().getScreenHotspot(),
// firstNoteOffset + (int)(_startTime.doubleValue() * pixelsPerDuration),
// 0);
int position = getParentMeasureStart().getSymbolPosition(_startTime);
int x = 10 + (getParentMeasureStart().getWidth() - 10) * position /
(getParentMeasureStart().getSymbolCount() - 1);
_screenHotspot = new FinalPoint
(getParentMeasureStart().getScreenHotspot(), x, 0);
return(_screenHotspot);
}
/** Return the Y screen coordinate of the bottom of the barline. The
* top is getScreenHotspot(). Even though this is private, we always
* call this function to get the value so that invalidate() and caching
* work properly.
*/
private int getBottomY()
{
if (_bottomY.HasValue)
{
return(_bottomY.Value);
}
FinalPoint top = getScreenHotspot();
// Get the default value.
// Use staffStepOffsetY to get the position at the bottom of the staff.
int result = top.y + Notehead.staffStepOffsetY(0);
// Debug: Does not consider extendsTo, etc.
if (_extendsTo == ExtendsTo.NEXT_STAFF)
{
Staff staff = getParentTimeSlice().getParentMeasureStart().getParentStaff();
if (staff.getIndex() < staff.getParentSystem().getStaffCount() - 1)
{
// This is not the last staff, so we can extend to the next
result =
staff.getParentSystem().getStaff(staff.getIndex() + 1).getScreenHotspot().y;
}
}
_bottomY = result;
return(_bottomY.Value);
}
/** Draw this object
*/
public override void draw(IGraphics graphics)
{
// This will force the hotspot to be computed if it isn't
FinalPoint hotspot = getScreenHotspot();
if (_shape == Shape.G_CLEF)
{
if (_tags.smallSize())
{
_gClefSmall.draw(graphics, hotspot);
}
else
{
_gClef.draw(graphics, hotspot);
}
}
else if (_shape == Shape.F_CLEF)
{
if (_tags.smallSize())
{
_fClefSmall.draw(graphics, hotspot);
_fClefDot1.draw(graphics, hotspot.x, hotspot.y + 1);
_fClefDot2.draw(graphics, hotspot);
}
else
{
_fClef.draw(graphics, hotspot);
_fClefDot1.draw(graphics, hotspot);
_fClefDot2.draw(graphics, hotspot);
}
}
// Debug: must add other shapes
}
/** Get the hotspot for this object in screen coordinates.
*/
public override FinalPoint getScreenHotspot()
{
if (_screenHotspot != null)
{
return(_screenHotspot);
}
int deltaY = 0;
Anchored anchor = getAnchor();
AugmentationDot previousDot = getPreviousDot();
if (anchor is Notehead)
{
// Debug: should ensure that anchor is always a Notehead
if (previousDot == null && ((Notehead)anchor).getStaffStep() % 2 == 0)
{
// Notehead is on a line and this is the first dot, so shift up the dot
deltaY = -3;
}
}
if (previousDot == null)
{
// This is the first dot
_screenHotspot = new FinalPoint(anchor.getScreenHotspot(), 5, deltaY);
}
else
{
// Shift to the right from the previous dot
_screenHotspot = new FinalPoint(previousDot.getScreenHotspot(), 3, deltaY);
}
return(_screenHotspot);
}
/** This is a utility function to return the screen X position of
* a left-positioned symbol (as defined by isLeftPositioned()).
* This finds the hotspot of the next symbol in the time slice
* which isLeftPositioned() (or the hotspot of the time slice itself
* if there are no more) and subtracts from its X value
* the (measure width - 10) / (the measure symbol count - 1).
*/
protected int findLeftPositionedX()
{
FinalPoint nextHotspot = null;
for (int i = getIndex() + 1; i < getParentTimeSlice().getMusicSymbolCount(); ++i)
{
MusicSymbol nextSymbol = getParentTimeSlice().getMusicSymbol(i);
if (nextSymbol.isLeftPositionedSymbol())
{
nextHotspot = nextSymbol.getScreenHotspot();
break;
}
}
if (nextHotspot == null)
{
// No next left positioned symbol, so use the time slice
nextHotspot = getParentTimeSlice().getScreenHotspot();
}
MeasureStartTimeSlice measure = getParentTimeSlice().getParentMeasureStart();
// Note that we know measure.getSymbolCount() is at least one
return(nextHotspot.x -
(measure.getWidth() - 10) / (measure.getSymbolCount() - 1));
}
/** Get the hotspot for this object in screen coordinates.
*/
public override FinalPoint getScreenHotspot()
{
if (_screenHotspot != null)
{
return(_screenHotspot);
}
// debug: Very preliminary. Should
// take into account the width of this and the previous shape, etc.
int width = 0;
// DEBUG: maybe look at actual width of a sharp or flat instead of hardcode to 5
if (_standardCode >= 1 && _standardCode <= 7)
{
// sharps
width = 5 * _standardCode;
}
else if (_standardCode >= 8 && _standardCode <= 14)
{
// flats
width = 5 * (_standardCode - 7);
}
// DEBUG: need to handle negative standard code
// Hotspot is at the left of the key signature
_screenHotspot = new FinalPoint
(findLeftPositionedX() - width / 2, getParentTimeSlice().getScreenHotspot().y);
return(_screenHotspot);
}
public override void draw(IGraphics graphics)
{
// DEBUG: should use shapes instead of drawString and handle cut time, etc.
FinalPoint hotspot = getScreenHotspot();
graphics.DrawString("" + _topNumber, hotspot.x, hotspot.y + 10);
graphics.DrawString("" + _bottomNumber, hotspot.x, hotspot.y + 20);
}
/** Return the origin in screen coordinates of the top staff.
*/
public FinalPoint getStavesScreenHotspot()
{
if (_stavesScreenHotspot != null)
return _stavesScreenHotspot;
_stavesScreenHotspot = new FinalPoint(15, 25);
return _stavesScreenHotspot;
}
/** Draw this object
*/
public override void draw(IGraphics graphics)
{
FinalPoint hotspot = getScreenHotspot();
// The hotspot is defined as the center of the text.
// Debug: need to properly compute the screen dimensions of the text.
graphics.DrawString
(_text, hotspot.x - 3 * _text.Length, hotspot.y + 4);
}
/** Return the origin in screen coordinates of the top staff.
*/
public FinalPoint getStavesScreenHotspot()
{
if (_stavesScreenHotspot != null)
{
return(_stavesScreenHotspot);
}
_stavesScreenHotspot = new FinalPoint(15, 25);
return(_stavesScreenHotspot);
}
/** Draw this object
*/
public override void draw(IGraphics graphics)
{
// This will set _topNotehead and _bottomNotehead if not already set.
FinalPoint tip = getScreenHotspot();
if (getTopNotehead() == null)
{
// No noteheads with a stem so don't even draw a stem.
return;
}
bool stemDown = getStemDown();
if (stemDown)
{
// Make the up stem go from the top notehead past the bottom notehead
// on the left side of the noteheads.
graphics.DrawLine(tip.x, tip.y, tip.x, getTopNotehead().getScreenHotspot().y);
}
else
{
// Step is up
// Make the up stem go from the bottom notehead past the top notehead
// on the right side of the noteheads.
graphics.DrawLine(tip.x, tip.y, tip.x, getBottomNotehead().getScreenHotspot().y);
}
if (_tags.numberOfFlags().HasValue)
{
int numberOfFlags = _tags.numberOfFlags().Value;
// Draw flags.
// DEBUG: assume there are not also beams. Maybe report an error.
int y = tip.y;
if (numberOfFlags > 1)
{
// Leave one flag at the tip, but for multiple, move closer to notehead
y += (stemDown ? -3 : 3);
}
for (int i = 0; i < numberOfFlags; ++i)
{
if (stemDown)
{
_stemDownFlag.draw(graphics, tip.x, y);
}
else
{
_stemUpFlag.draw(graphics, tip.x, y);
}
y += (stemDown ? 4 : -4);
}
}
}
/** Get the hotspot for this object in screen coordinates.
*/
public override FinalPoint getScreenHotspot()
{
if (_screenHotspot != null)
return _screenHotspot;
// debug: Very preliminary. Should
// take into account the width of this and the previous shape, etc.
_screenHotspot = new FinalPoint
(findLeftPositionedX(), getParentTimeSlice().getScreenHotspot().y);
return _screenHotspot;
}
public FinalPoint getScreenHotspot()
{
// debug: should compute this properly.
if (_screenHotspot != null)
{
return(_screenHotspot);
}
_screenHotspot = new FinalPoint
(getParentSystem().getScreenHotspot(), 0,
(int)(getIndex() * getParentSystem().getParentPage().getStaffSpacingY()));
return(_screenHotspot);
}
/** Get the hotspot for this object in screen coordinates.
*/
public override FinalPoint getScreenHotspot()
{
if (_screenHotspot != null)
{
return(_screenHotspot);
}
// debug: Very preliminary. Should
// take into account the width of this and the previous shape, etc.
_screenHotspot = new FinalPoint
(findLeftPositionedX(), getParentTimeSlice().getScreenHotspot().y);
return(_screenHotspot);
}
/** Draw this object
*/
public override void draw(IGraphics graphics)
{
// DEBUG: does not deal with barlines next to each other.
FinalPoint top = getScreenHotspot();
int bottomY = getBottomY();
graphics.DrawLine(top.x, top.y, top.x, bottomY);
if (_type == Type.THICK)
{
// Thicken by drawing more of the same line to the left
graphics.DrawLine(top.x - 1, top.y, top.x - 1, bottomY);
graphics.DrawLine(top.x - 2, top.y, top.x - 2, bottomY);
}
}
/** Override the y position to use the value from staffStepOffsetY
* from the parent time slice's position at the top of the staff.
*/
public override FinalPoint getScreenHotspot()
{
if (_screenHotspot != null)
{
return(_screenHotspot);
}
// override the y position to use the value from staffStepOffsetY
// from the parent time slice's position at the top of the staff.
_screenHotspot = new FinalPoint
(getAnchor().getScreenHotspot().x,
getParentTimeSlice().getScreenHotspot().y + staffStepOffsetY(_staffStep));
return(_screenHotspot);
}
/** Override the y position to use the value from staffStepOffsetY
* from the parent time slice's position at the top of the staff.
*/
public override FinalPoint getScreenHotspot()
{
if (_screenHotspot != null)
{
return(_screenHotspot);
}
// DEBUG: should handle multi-measure rests
// DEBUG: should center half and whole rests
// override the y position to use the value from staffStepOffsetY
// from the parent time slice's position at the top of the staff.
_screenHotspot = new FinalPoint
(getAnchor().getScreenHotspot().x,
getParentTimeSlice().getScreenHotspot().y +
Notehead.staffStepOffsetY(_staffStep));
return(_screenHotspot);
}
/** Get the hotspot for this object in screen coordinates.
*/
public override FinalPoint getScreenHotspot()
{
if (_screenHotspot != null)
{
return(_screenHotspot);
}
// debug: Very preliminary. Should
// take into account the width of this and the previous shape, etc.
// Use the Y value from staffStepOffsetY
// from the parent time slice's position at the top of the staff.
_screenHotspot = new FinalPoint
(findLeftPositionedX(),
getParentTimeSlice().getScreenHotspot().y +
Notehead.staffStepOffsetY(_staffStep));
return(_screenHotspot);
}
public override void draw(IGraphics graphics)
{
// This will force the hotspot to be computed if it isn't
FinalPoint hotspot = getScreenHotspot();
int width = getParentSystem().getWidth();
// Draw the staff lines
for (int y = 0; y <= 20; y += 5)
{
graphics.DrawLine(hotspot.x, hotspot.y + y,
hotspot.x + width, hotspot.y + y);
}
// Draw all time slices.
for (int i = 0; i < getMeasureStartCount(); ++i)
{
getMeasureStart(i).draw(graphics);
}
}
/** Get the hotspot for this object in screen coordinates.
*/
public FinalPoint getScreenHotspot()
{
if (_screenHotspot != null)
{
return(_screenHotspot);
}
// Compute the position by locating the start time within the staff duration.
// DEBUG: This all assumes that the measures in each staff of the staff
// system have the same number of measures. Maybe check this.
StaffSystem parentSystem = getParentStaff().getParentSystem();
_screenHotspot = new FinalPoint
(getParentStaff().getScreenHotspot(),
(int)((_startTime.doubleValue() - parentSystem.getStartTime().doubleValue())
* parentSystem.getWidth() /
parentSystem.getDuration().doubleValue()), 0);
return(_screenHotspot);
}
public override void draw(IGraphics graphics)
{
if (getStaffCount() == 0)
{
// Nothing to draw
return;
}
// Debug: should check for multistaff barline tags
FinalPoint top = getScreenHotspot();
int bottomY =
getStaff(getStaffCount() - 1).getScreenHotspot().y +
Notehead.staffStepOffsetY(0);
graphics.DrawLine(top.x, top.y, top.x, bottomY);
for (int i = 0; i < getStaffCount(); ++i)
{
getStaff(i).draw(graphics);
}
}
public FinalPoint getScreenHotspot()
{
// debug: should compute this properly relative to the page.
if (_screenHotspot != null)
{
return(_screenHotspot);
}
// The staff system has a vertical offset from the stavesHotspot
// based on how many total staves there are above this system.
int stavesAbove = 0;
for (int i = 0; i < getIndex(); ++i)
{
stavesAbove += getParentPage().getSystem(i).getStaffCount();
}
_screenHotspot = new FinalPoint
(getParentScore().getStavesScreenHotspot(), 0,
(int)(stavesAbove * getParentPage().getStaffSpacingY()));
return(_screenHotspot);
}
/** Draw this object
*/
public override void draw(IGraphics graphics)
{
int multiNodeCount = getMultiNodeCount();
if (multiNodeCount == 0)
{
// Only the defining Beam draws the beams for all in the multi-node group
return;
}
if (multiNodeCount != 2)
{
// DEBUG: should handle this case
return;
}
Tie leftNode = getMultiNode(0);
Tie rightNode = getMultiNode(1);
FinalPoint leftHotspot = leftNode.getAnchor().getScreenHotspot();
FinalPoint rightHotspot = rightNode.getAnchor().getScreenHotspot();
Staff leftNodeParentStaff =
leftNode.getParentTimeSlice().getParentMeasureStart().getParentStaff();
if (leftNodeParentStaff !=
rightNode.getParentTimeSlice().getParentMeasureStart().getParentStaff())
{
// The two ends of the tie are on different staves. Assume that
// the left end should extend to the end of the staff and that
// the right end should have a little continuation from the beginning
int endX = leftNodeParentStaff.getParentSystem().getScreenHotspot().x +
leftNodeParentStaff.getParentSystem().getWidth() + 10;
drawTie(graphics, leftHotspot.x + 3, leftHotspot.y, endX);
drawTie(graphics, rightHotspot.x - 12, rightHotspot.y, rightHotspot.x - 3);
}
else
{
drawTie(graphics, leftHotspot.x + 3, leftHotspot.y, rightHotspot.x - 3);
}
}
/** Get the hotspot for this object in screen coordinates.
* Note that the hotspot for a Lyric is the center of the text.
*/
public override FinalPoint getScreenHotspot()
{
if (_screenHotspot != null)
{
return(_screenHotspot);
}
// Debug: Maybe we need to find the lowest notehead, not just the anchor.
Anchored anchor = getAnchor();
int staffStep;
if (anchor is Notehead)
{
staffStep = ((Notehead)anchor).getStaffStep();
}
else
{
// Not a Notehead, but staffStep will be adjusted below.
staffStep = 0;
}
// Adjust so we put the text below the note
staffStep -= 6;
if (staffStep > -8)
{
// Note is high enough that we need to keep the text below the staff
staffStep = -8;
}
_screenHotspot = new FinalPoint
(anchor.getScreenHotspot().x,
getParentTimeSlice().getScreenHotspot().y +
Notehead.staffStepOffsetY(staffStep));
return(_screenHotspot);
}
/** Draw this object
*/
public override void draw(IGraphics graphics)
{
// Look at the clef we are in and shift the staff step given
// by SHARP_STEPS, etc. accordingly. Use G_CLEF as default.
int clefStepOffset = 0;
if (getClefShape() == Clef.Shape.F_CLEF)
{
clefStepOffset = -2;
}
// DEBUG: add support for clefs other than G clef and F clef.
FinalPoint hotspot = getScreenHotspot();
// DEBUG: does not handle negative standard code.
if (_standardCode >= 1 && _standardCode <= 7)
{
// sharps
for (int i = 0; i < _standardCode; ++i)
{
Accidental._sharp.draw
(graphics, hotspot.x + i * 5,
hotspot.y + Notehead.staffStepOffsetY(SHARP_STEPS[i] + clefStepOffset));
}
}
else if (_standardCode >= 8 && _standardCode <= 14)
{
// flats
for (int i = 0; i < _standardCode - 7; ++i)
{
Accidental._flat.draw
(graphics, hotspot.x + i * 5,
hotspot.y + Notehead.staffStepOffsetY(FLAT_STEPS[i] + clefStepOffset));
}
}
}
/** Get the hotspot for this object in screen coordinates.
*/
public override FinalPoint getScreenHotspot()
{
if (_screenHotspot != null)
return _screenHotspot;
int deltaY = 0;
Anchored anchor = getAnchor();
AugmentationDot previousDot = getPreviousDot();
if (anchor is Notehead) {
// Debug: should ensure that anchor is always a Notehead
if (previousDot == null && ((Notehead)anchor).getStaffStep() % 2 == 0)
// Notehead is on a line and this is the first dot, so shift up the dot
deltaY = -3;
}
if (previousDot == null)
// This is the first dot
_screenHotspot = new FinalPoint(anchor.getScreenHotspot(), 5, deltaY);
else
// Shift to the right from the previous dot
_screenHotspot = new FinalPoint(previousDot.getScreenHotspot(), 3, deltaY);
return _screenHotspot;
}
/** Override the y position to use the value from staffStepOffsetY
* from the parent time slice's position at the top of the staff.
*/
public override FinalPoint getScreenHotspot()
{
if (_screenHotspot != null)
return _screenHotspot;
// DEBUG: should handle multi-measure rests
// DEBUG: should center half and whole rests
// override the y position to use the value from staffStepOffsetY
// from the parent time slice's position at the top of the staff.
_screenHotspot = new FinalPoint
(getAnchor().getScreenHotspot().x,
getParentTimeSlice().getScreenHotspot().y +
Notehead.staffStepOffsetY(_staffStep));
return _screenHotspot;
}
public FinalPoint getScreenHotspot()
{
// debug: should compute this properly relative to the page.
if (_screenHotspot != null)
return _screenHotspot;
// The staff system has a vertical offset from the stavesHotspot
// based on how many total staves there are above this system.
int stavesAbove = 0;
for (int i = 0; i < getIndex(); ++i)
stavesAbove += getParentPage().getSystem(i).getStaffCount();
_screenHotspot = new FinalPoint
(getParentScore().getStavesScreenHotspot(), 0,
(int)(stavesAbove * getParentPage().getStaffSpacingY()));
return _screenHotspot;
}
/** Get the hotspot for this object in screen coordinates.
*/
public override FinalPoint getScreenHotspot()
{
if (_screenHotspot != null)
return _screenHotspot;
// debug: Very preliminary. Should
// take into account the width of this and the previous shape, etc.
int width = 0;
// DEBUG: maybe look at actual width of a sharp or flat instead of hardcode to 5
if (_standardCode >= 1 && _standardCode <= 7)
// sharps
width = 5 * _standardCode;
else if (_standardCode >= 8 && _standardCode <= 14)
// flats
width = 5 * (_standardCode - 7);
// DEBUG: need to handle negative standard code
// Hotspot is at the left of the key signature
_screenHotspot = new FinalPoint
(findLeftPositionedX() - width / 2, getParentTimeSlice().getScreenHotspot().y);
return _screenHotspot;
}
/** Override the y position to use the value from staffStepOffsetY
* from the parent time slice's position at the top of the staff.
*/
public override FinalPoint getScreenHotspot()
{
if (_screenHotspot != null)
return _screenHotspot;
// override the y position to use the value from staffStepOffsetY
// from the parent time slice's position at the top of the staff.
_screenHotspot = new FinalPoint
(getAnchor().getScreenHotspot().x,
getParentTimeSlice().getScreenHotspot().y + staffStepOffsetY(_staffStep));
return _screenHotspot;
}
/** Return the screen hotspot, computing it if called for the first time.
* This also sets _topNotehead and _bottomNotehead used internally.
*
* @return The position of the hotspot in screen coordinates.
*/
public override FinalPoint getScreenHotspot()
{
if (_screenHotspot != null)
{
// We have already computed it
return(_screenHotspot);
}
// Set up _topNotehead and _bottomNotehead.
_topNotehead = null;
_bottomNotehead = null;
for (int i = 0; i < getNoteheadCount(); ++i)
{
Notehead notehead = getNotehead(i);
if (notehead.getShape() == Notehead.Shape.BREVE ||
notehead.getShape() == Notehead.Shape.WHOLE)
{
// Lime has a bug where it defines a stem for these, so ignore
continue;
}
// DEBUG: should also check height of zero as described in the NIFF spec.
if (_topNotehead == null)
{
// This is the first one, so just initialize and continue.
_topNotehead = notehead;
_bottomNotehead = notehead;
continue;
}
int hotspotY = notehead.getScreenHotspot().y;
if (hotspotY < _topNotehead.getScreenHotspot().y)
{
_topNotehead = notehead;
}
if (hotspotY > _bottomNotehead.getScreenHotspot().y)
{
_bottomNotehead = notehead;
}
}
if (_topNotehead == null)
{
// There will not be a stem. Just use the anchor's hotspot.
_screenHotspot = getAnchor().getScreenHotspot();
return(_screenHotspot);
}
_stemDown = false;
if (_tags.logicalPlacement() != null)
{
if (_tags.logicalPlacement().getVertical() == LogicalPlacement.BELOW)
{
_stemDown = true;
}
}
// The hotspot is the tip of the stem
if (_stemDown)
{
// Make the up stem go from the top notehead past the bottom notehead
// on the left side of the noteheads.
// The notehead's hotspot is in the middle of the notehead, so move
// to its left, and move down to the bottom of the stem.
_screenHotspot = new FinalPoint
(_bottomNotehead.getScreenHotspot(), _bottomNotehead.getLeftEdge(), 16);
}
else
{
// Stem is up
// Make the up stem go from the bottom notehead past the top notehead
// on the right side of the noteheads.
// The notehead's hotspot is in the middle of the notehead, so move to
// its right, and move up to the top of the stem.
_screenHotspot = new FinalPoint
(_topNotehead.getScreenHotspot(), _bottomNotehead.getRightEdge(), -16);
}
return(_screenHotspot);
}
/** Get the hotspot for this object in screen coordinates.
*/
public override FinalPoint getScreenHotspot()
{
if (_screenHotspot != null)
return _screenHotspot;
Anchored anchor = getAnchor();
if (!(anchor is Notehead)) {
// We never found a previous Notehead in the TimesSlice, which shouldn't
// happen. Just use whatever anchor was found
_screenHotspot = anchor.getScreenHotspot();
return _screenHotspot;
}
Notehead notehead = (Notehead)anchor;
// Debug: very preliminary. This does not account for the
// possibility of bumping into offset 2nds from the Stem, etc.
int offsetX = notehead.getLeftEdge() - (graphicShape().getRightEdge() + 3);
// offsetX should be negative
_screenHotspot = new FinalPoint(notehead.getScreenHotspot(), offsetX, 0);
return _screenHotspot;
}
/** Get the hotspot for this object in screen coordinates.
* Note that the hotspot for a Lyric is the center of the text.
*/
public override FinalPoint getScreenHotspot()
{
if (_screenHotspot != null)
return _screenHotspot;
// Debug: Maybe we need to find the lowest notehead, not just the anchor.
Anchored anchor = getAnchor();
int staffStep;
if (anchor is Notehead)
staffStep = ((Notehead)anchor).getStaffStep();
else
// Not a Notehead, but staffStep will be adjusted below.
staffStep = 0;
// Adjust so we put the text below the note
staffStep -= 6;
if (staffStep > -8)
// Note is high enough that we need to keep the text below the staff
staffStep = -8;
_screenHotspot = new FinalPoint
(anchor.getScreenHotspot().x,
getParentTimeSlice().getScreenHotspot().y +
Notehead.staffStepOffsetY(staffStep));
return _screenHotspot;
}
/** Draw this object
*/
public override void draw(IGraphics graphics)
{
int multiNodeCount = getMultiNodeCount();
if (multiNodeCount == 0)
{
// Only the defining Beam draws the beams for all in the multi-node group
return;
}
if (multiNodeCount == 1)
{
// DEBUG: should handle this case
return;
}
FinalPoint left = getScreenHotspot();
double slope = getSlope();
int maxParts = getMaxParts();
int stemDirection = getStemDirection();
for (int i = 0; i < multiNodeCount; ++i)
{
Beam beam = getMultiNode(i);
Beam previousBeam = null, nextBeam = null;
if (i > 0)
{
previousBeam = getMultiNode(i - 1);
}
if (i < (multiNodeCount - 1))
{
nextBeam = getMultiNode(i + 1);
}
FinalPoint stemTip = beam.getAnchor().getScreenHotspot();
// Get X and Y for this beam
int beamX = stemTip.x;
int beamY = (int)(left.y + slope * (beamX - left.x));
// First, extend the stem.
graphics.DrawLine(beamX, beamY, stemTip.x, stemTip.y);
// For each of the possible parts, draw as needed to the left or right
for (int part = 1; part <= maxParts; part++)
{
if (i > 0)
{
// Only do parts to left if we are not the leftmost stem
if (part <= beam._partsToLeft && part > previousBeam._partsToRight)
{
// Draw a stub to the left
// DEBUG: should make sure this doesn't run into the other stem
drawBeam(graphics, beamX, beamY, beamX - 6);
}
// The case where the beam would extend all the way was handled
// by the previousBeam drawing to here.
}
if (i < (multiNodeCount - 1))
{
// Only do parts to right if we are not the rightmost stem
if (part <= beam._partsToRight && part > nextBeam._partsToLeft)
{
// Draw a stub to the right
// DEBUG: should make sure this doesn't run into the other stem
drawBeam(graphics, beamX, beamY, beamX + 6);
}
if (part <= beam._partsToRight && part <= nextBeam._partsToLeft)
{
// Draw beam extended over to the other
drawBeam(graphics, beamX, beamY,
nextBeam.getAnchor().getScreenHotspot().x);
}
}
beamY += -stemDirection * SPACING;
}
}
}
/** Get the hotspot for this object in screen coordinates.
*/
public FinalPoint getScreenHotspot()
{
if (_screenHotspot != null)
return _screenHotspot;
// Compute the position by locating the start time within the staff duration.
// DEBUG: This all assumes that the measures in each staff of the staff
// system have the same number of measures. Maybe check this.
StaffSystem parentSystem = getParentStaff().getParentSystem();
_screenHotspot = new FinalPoint
(getParentStaff().getScreenHotspot(),
(int)((_startTime.doubleValue() - parentSystem.getStartTime().doubleValue())
* parentSystem.getWidth() /
parentSystem.getDuration().doubleValue()), 0);
return _screenHotspot;
}
/** This is automatically called after the object is modified to force
* this to recompute all its values when the "get"
* method is called for the value.
*/
public override void invalidate()
{
_multiNodes = null;
_screenHotspot = null;
_anchor = null;
}
public override FinalPoint getScreenHotspot()
{
if (_screenHotspot != null)
return _screenHotspot;
if (getParentTimeSlice().getStartTime().getN() == 0)
// Usually a Barline is given as the last time slice in a measure,
// but this barline is at the time zero time slice in the measure,
// so make sure that it appears at the beginning of the whole
// measure instead of the place where a note with a time zero
// time slice would appear.
_screenHotspot =
getParentTimeSlice().getParentMeasureStart().getScreenHotspot();
else
// Use the hot spot of the time slice.
_screenHotspot = getParentTimeSlice().getScreenHotspot();
return _screenHotspot;
}
/** This is automatically called after the object is modified to force
* this and all child objects to recompute their values when the "get"
* method is called for the value.
*/
public void invalidate()
{
for (int i = 0; i < getMusicSymbolCount(); ++i)
getMusicSymbol(i).invalidate();
_screenHotspot = null;
}
/** Get the hotspot for this object in screen coordinates.
*/
public FinalPoint getScreenHotspot()
{
if (_screenHotspot != null)
return _screenHotspot;
// // Compute the position by locating our start time between the start time
// // of the measure start and the start time of the next measure start.
// // DEBUG: This all assumes that the measures in each staff of the staff
// // system have the same beats in each measure. Maybe check this.
// // DEBUG: must compute firstNoteOffset for real!
// int firstNoteOffset = 10;
// double pixelsPerDuration =
// (getParent().getWidth() - firstNoteOffset) / getParent().getDuration().doubleValue();
// _screenHotspot = new FinalPoint
// (getParent().getScreenHotspot(),
// firstNoteOffset + (int)(_startTime.doubleValue() * pixelsPerDuration),
// 0);
int position = getParentMeasureStart().getSymbolPosition(_startTime);
int x = 10 + (getParentMeasureStart().getWidth() - 10) * position /
(getParentMeasureStart().getSymbolCount() - 1);
_screenHotspot = new FinalPoint
(getParentMeasureStart().getScreenHotspot(), x, 0);
return _screenHotspot;
}
/** Return the screen hotspot, computing it if called for the first time.
* This also sets _topNotehead and _bottomNotehead used internally.
*
* @return The position of the hotspot in screen coordinates.
*/
public override FinalPoint getScreenHotspot()
{
if (_screenHotspot != null)
// We have already computed it
return _screenHotspot;
// Set up _topNotehead and _bottomNotehead.
_topNotehead = null;
_bottomNotehead = null;
for (int i = 0; i < getNoteheadCount(); ++i) {
Notehead notehead = getNotehead(i);
if (notehead.getShape() == Notehead.Shape.BREVE ||
notehead.getShape() == Notehead.Shape.WHOLE)
// Lime has a bug where it defines a stem for these, so ignore
continue;
// DEBUG: should also check height of zero as described in the NIFF spec.
if (_topNotehead == null) {
// This is the first one, so just initialize and continue.
_topNotehead = notehead;
_bottomNotehead = notehead;
continue;
}
int hotspotY = notehead.getScreenHotspot().y;
if (hotspotY < _topNotehead.getScreenHotspot().y)
_topNotehead = notehead;
if (hotspotY > _bottomNotehead.getScreenHotspot().y)
_bottomNotehead = notehead;
}
if (_topNotehead == null) {
// There will not be a stem. Just use the anchor's hotspot.
_screenHotspot = getAnchor().getScreenHotspot();
return _screenHotspot;
}
_stemDown = false;
if (_tags.logicalPlacement() != null) {
if (_tags.logicalPlacement().getVertical() == LogicalPlacement.BELOW)
_stemDown = true;
}
// The hotspot is the tip of the stem
if (_stemDown) {
// Make the up stem go from the top notehead past the bottom notehead
// on the left side of the noteheads.
// The notehead's hotspot is in the middle of the notehead, so move
// to its left, and move down to the bottom of the stem.
_screenHotspot = new FinalPoint
(_bottomNotehead.getScreenHotspot(), _bottomNotehead.getLeftEdge(), 16);
} else {
// Stem is up
// Make the up stem go from the bottom notehead past the top notehead
// on the right side of the noteheads.
// The notehead's hotspot is in the middle of the notehead, so move to
// its right, and move up to the top of the stem.
_screenHotspot = new FinalPoint
(_topNotehead.getScreenHotspot(), _bottomNotehead.getRightEdge(), -16);
}
return _screenHotspot;
}
/** Creates a new FinalPoint with the coordinates of point added to
* deltaX and deltaY.
*/
public FinalPoint(FinalPoint point, int deltaX, int deltaY)
: this(point.x + deltaX, point.y + deltaY)
{
}
/** Creates a new FinalPoint with the coordinates of point added to
* deltaX and deltaY.
*/
public FinalPoint(FinalPoint point, int deltaX, int deltaY) :
this(point.x + deltaX, point.y + deltaY)
{
}
/** This is automatically called after the object is modified to force
* this and all child objects to recompute their values when the "get"
* method is called for the value.
*/
public void invalidate()
{
_data.invalidate();
_stavesScreenHotspot = null;
}
/** If this is the defining node, return the screen hotspot, computing it if
* called for the first time. The screen hotspot for the beam group is
* the position of the left end of the beam group at the beam farthest from
* the notehead. If not the defining node, return the
* anchor hotspot.
* Strictly speaking, this is the hotspot of the left end of the beam, which
* is not necessarily the defining node.
* This also sets _maxParts and other values used internally.
*
* @return The position of the hotspot in screen coordinates.
*/
public override FinalPoint getScreenHotspot()
{
if (_screenHotspot != null)
// We have already computed it
return _screenHotspot;
int multiNodeCount = getMultiNodeCount();
if (multiNodeCount == 0) {
// Not the defining node. Just use the anchor's hot spot
_screenHotspot = getAnchor().getScreenHotspot();
return _screenHotspot;
}
if (multiNodeCount == 1) {
// This is an unexpected case with the beam on only one stem.
_screenHotspot = getAnchor().getScreenHotspot();
return _screenHotspot;
}
// A beam is either horizontal (if the first and last stem tip are
// at the same y value) or slanted with one end of the beam
// 5 points higher or lower than the beginning, based on whether
// the last stem tip is higher or lower.
// Don't assume that this defining node is the leftmost, but do
// assume multiNode(0) is leftmost.
// Assume the anchor for a beam is the stem whos hotspot is its tip.
Point hotspot = getMultiNode(0).getAnchor().getScreenHotspot().newPoint();
FinalPoint rightmost = getMultiNode (multiNodeCount - 1).getAnchor().getScreenHotspot();
if (rightmost.y == hotspot.y)
_slope = 0.0;
else if (rightmost.y > hotspot.y)
_slope = 5.0 / (rightmost.x - hotspot.x);
else
_slope = -5.0 / (rightmost.x - hotspot.x);
// DEBUG: this assumes all stems in the same direction.
_stemDirection = ((Stem)getMultiNode(0).getAnchor()).getStemDown() ? 1 : -1;
// The Y position along the beam at x is
// hotspot.y + _slope * (x - hotspot.x).
// Check each stem tip and adjust the hotspot.y as necessary
// to make sure the beam does not cross the stem.
for (int i = 1; i < multiNodeCount; ++i) {
FinalPoint stemTip = getMultiNode(i).getAnchor().getScreenHotspot();
int beamY = (int)(hotspot.y + _slope * (stemTip.x - hotspot.x));
// Note that larger Y is lower on the screen!
// _stemDirection > 0 means stems down.
if (_stemDirection > 0 && stemTip.y > beamY)
hotspot.translate (0, stemTip.y - beamY);
else if (_stemDirection < 0 && stemTip.y < beamY)
hotspot.translate (0, -(beamY - stemTip.y));
}
// Compute _maxParts to be used later.
_maxParts = 0;
for (int i = 0; i < multiNodeCount; ++i) {
Beam beam = getMultiNode(i);
if (beam._partsToLeft > _maxParts)
_maxParts = beam._partsToLeft;
if (beam._partsToRight > _maxParts)
_maxParts = beam._partsToRight;
}
// Move the hotspot to the beam farthest from the notehead.
hotspot.translate (0, (_maxParts - 1) * _stemDirection * SPACING);
if (_maxParts > 1)
// As a special case for 16th notes and higher, move the beams
// closer to the notehead.
hotspot.translate (0, - _stemDirection * SPACING);
_screenHotspot = new FinalPoint (hotspot);
return _screenHotspot;
}
/** This is automatically called after the object is modified to force
* this to recompute all its values when the "get"
* method is called for the value.
*/
public override void invalidate()
{
_anchor = null;
_screenHotspot = null;
_noteheads = null;
}
/** This is automatically called after the object is modified to force
* this and all child objects to recompute their values when the "get"
* method is called for the value.
*/
public void invalidate()
{
for (int i = 0; i < getTimeSliceCount(); ++i)
getTimeSlice(i).invalidate();
_screenHotspot = null;
_duration = null;
_width = null;
_symbolPositioner = null;
}
/** Get the hotspot for this object in screen coordinates.
*/
public override FinalPoint getScreenHotspot()
{
if (_screenHotspot != null)
return _screenHotspot;
// debug: Very preliminary. Should
// take into account the width of this and the previous shape, etc.
// Use the Y value from staffStepOffsetY
// from the parent time slice's position at the top of the staff.
_screenHotspot = new FinalPoint
(findLeftPositionedX(),
getParentTimeSlice().getScreenHotspot().y +
Notehead.staffStepOffsetY(_staffStep));
return _screenHotspot;
}
/** This is automatically called after the object is modified to force
* this and all child objects to recompute their values when the "get"
* method is called for the value.
*/
public void invalidate()
{
for (int i = 0; i < getStaffCount(); ++i)
getStaff(i).invalidate();
_screenHotspot = null;
_startTime = null;
_duration = null;
}
public FinalPoint getScreenHotspot()
{
// debug: should compute this properly.
if (_screenHotspot != null)
return _screenHotspot;
_screenHotspot = new FinalPoint
(getParentSystem().getScreenHotspot(), 0,
(int)(getIndex() * getParentSystem().getParentPage().getStaffSpacingY()));
return _screenHotspot;
}
/** This is automatically called after the object is modified to to force
* this to recompute all its values when the "get"
* method is called for the value.
*/
public override void invalidate()
{
_screenHotspot = null;
}
/** This is automatically called after the object is modified to force
* this and all child objects to recompute their values when the "get"
* method is called for the value.
*/
public void invalidate()
{
for (int i = 0; i < getMeasureStartCount(); ++i)
getMeasureStart(i).invalidate();
_screenHotspot = null;
}
/** If this is the defining node, return the screen hotspot, computing it if
* called for the first time. The screen hotspot for the beam group is
* the position of the left end of the beam group at the beam farthest from
* the notehead. If not the defining node, return the
* anchor hotspot.
* Strictly speaking, this is the hotspot of the left end of the beam, which
* is not necessarily the defining node.
* This also sets _maxParts and other values used internally.
*
* @return The position of the hotspot in screen coordinates.
*/
public override FinalPoint getScreenHotspot()
{
if (_screenHotspot != null)
{
// We have already computed it
return(_screenHotspot);
}
int multiNodeCount = getMultiNodeCount();
if (multiNodeCount == 0)
{
// Not the defining node. Just use the anchor's hot spot
_screenHotspot = getAnchor().getScreenHotspot();
return(_screenHotspot);
}
if (multiNodeCount == 1)
{
// This is an unexpected case with the beam on only one stem.
_screenHotspot = getAnchor().getScreenHotspot();
return(_screenHotspot);
}
// A beam is either horizontal (if the first and last stem tip are
// at the same y value) or slanted with one end of the beam
// 5 points higher or lower than the beginning, based on whether
// the last stem tip is higher or lower.
// Don't assume that this defining node is the leftmost, but do
// assume multiNode(0) is leftmost.
// Assume the anchor for a beam is the stem whos hotspot is its tip.
Point hotspot = getMultiNode(0).getAnchor().getScreenHotspot().newPoint();
FinalPoint rightmost = getMultiNode(multiNodeCount - 1).getAnchor().getScreenHotspot();
if (rightmost.y == hotspot.y)
{
_slope = 0.0;
}
else if (rightmost.y > hotspot.y)
{
_slope = 5.0 / (rightmost.x - hotspot.x);
}
else
{
_slope = -5.0 / (rightmost.x - hotspot.x);
}
// DEBUG: this assumes all stems in the same direction.
_stemDirection = ((Stem)getMultiNode(0).getAnchor()).getStemDown() ? 1 : -1;
// The Y position along the beam at x is
// hotspot.y + _slope * (x - hotspot.x).
// Check each stem tip and adjust the hotspot.y as necessary
// to make sure the beam does not cross the stem.
for (int i = 1; i < multiNodeCount; ++i)
{
FinalPoint stemTip = getMultiNode(i).getAnchor().getScreenHotspot();
int beamY = (int)(hotspot.y + _slope * (stemTip.x - hotspot.x));
// Note that larger Y is lower on the screen!
// _stemDirection > 0 means stems down.
if (_stemDirection > 0 && stemTip.y > beamY)
{
hotspot.translate(0, stemTip.y - beamY);
}
else if (_stemDirection < 0 && stemTip.y < beamY)
{
hotspot.translate(0, -(beamY - stemTip.y));
}
}
// Compute _maxParts to be used later.
_maxParts = 0;
for (int i = 0; i < multiNodeCount; ++i)
{
Beam beam = getMultiNode(i);
if (beam._partsToLeft > _maxParts)
{
_maxParts = beam._partsToLeft;
}
if (beam._partsToRight > _maxParts)
{
_maxParts = beam._partsToRight;
}
}
// Move the hotspot to the beam farthest from the notehead.
hotspot.translate(0, (_maxParts - 1) * _stemDirection * SPACING);
if (_maxParts > 1)
{
// As a special case for 16th notes and higher, move the beams
// closer to the notehead.
hotspot.translate(0, -_stemDirection * SPACING);
}
_screenHotspot = new FinalPoint(hotspot);
return(_screenHotspot);
}
/** This is automatically called after the object is modified to force
* this to recompute all its values when the "get"
* method is called for the value.
*/
public override void invalidate()
{
_previousDot = null;
_anchor = null;
_screenHotspot = null;
}