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org.jpedal.fonts.tt.BaseTTGlyph Maven / Gradle / Ivy
/*
* ===========================================
* Java Pdf Extraction Decoding Access Library
* ===========================================
*
* Project Info: http://www.idrsolutions.com
* Help section for developers at http://www.idrsolutions.com/support/
*
* (C) Copyright 1997-2017 IDRsolutions and Contributors.
*
* This file is part of JPedal/JPDF2HTML5
*
@LICENSE@
*
* ---------------
* BaseTTGlyph.java
* ---------------
*/
package org.jpedal.fonts.tt;
import java.util.HashSet;
import org.jpedal.fonts.glyph.PdfGlyph;
import org.jpedal.fonts.tt.hinting.TTVM;
import org.jpedal.utils.LogWriter;
import org.jpedal.utils.repositories.*;
public abstract class BaseTTGlyph extends PdfGlyph {
boolean hasHintingApplied;
/**
* paths for the letter, marked as transient so it wont be serialized
*/
transient Vector_Path paths = new Vector_Path(10);
protected boolean ttHintingRequired;
public static boolean useHinting = true;
protected boolean containsBrokenGlyfData;
protected short compMinX, compMinY, compMaxX, compMaxY;
protected short minX, minY, maxX, maxY;
protected int[] scaledX, scaledY;
protected int BPoint1, BPoint2;
protected final Vector_Int xtranslateValues = new Vector_Int(5);
protected final Vector_Int ytranslateValues = new Vector_Int(5);
protected final short leftSideBearing;
protected final Vector_Double xscaleValues = new Vector_Double(5);
protected final Vector_Double yscaleValues = new Vector_Double(5);
protected final Vector_Double scale01Values = new Vector_Double(5);
protected final Vector_Double scale10Values = new Vector_Double(5);
protected double xscale = 1, yscale = 1, scale01, scale10;
protected int[] instructions;
protected int xtranslate, ytranslate;
protected int currentInstructionDepth = Integer.MAX_VALUE;
protected final Vector_Object glyfX = new Vector_Object(5);
protected final Vector_Object glyfY = new Vector_Object(5);
protected final Vector_Object curves = new Vector_Object(5);
protected final Vector_Object contours = new Vector_Object(5);
protected final Vector_Int endPtIndices = new Vector_Int(5);
protected int contourCount;
protected float unitsPerEm = 64;
//used to track which glyf for complex glyph
protected int compCount = 1;
protected boolean isComposite;
protected double pixelSize;
/**
* Variables used by the constructor
**/
private static final HashSet testedFonts = new HashSet();
int BP1x = -1, BP2x = -1, BP1y = -1, BP2y = -1;
//Track translations for recursion
int existingXTranslate;
int existingYTranslate;
int depth;
static {
final String value = System.getProperty("org.jpedal.useTTFontHinting");
if (value != null) {
useHinting = value.equalsIgnoreCase("true");
}
}
private TTVM vm;
private String baseFontName;
/**
* Hinted constructor
*/
public BaseTTGlyph(final Glyf currentGlyf, final FontFile2 glyfTable, final Hmtx currentHmtx, final int idx, final float unitsPerEm, final TTVM vm) {
setGlyphNumber(idx + 1);
isHinted = true;
//this.glyfName=glyfName;
//this.idx=idx;
this.leftSideBearing = currentHmtx.getLeftSideBearing(idx);
//this.advanceWidth = currentHmtx.getAdvanceWidth(idx);
this.unitsPerEm = unitsPerEm;
final int p = currentGlyf.getCharString(idx);
glyfTable.setPointer(p);
if (glyfTable.getBytesLeft() > 4) {
readGlyph(currentGlyf, glyfTable);
this.vm = vm;
if (createGlyph(isHinted)) {
failedOnHinting = true;
isHinted = false;
}
}
}
/**
* Unhinted constructor
*/
public BaseTTGlyph(final Glyf currentGlyf, final FontFile2 glyfTable, final Hmtx currentHmtx, final int idx, final float unitsPerEm, final String baseFontName) {
//debug=idx==2246;
setGlyphNumber(idx + 1);
// this.glyfName=glyfName;
//this.idx=idx;
this.leftSideBearing = currentHmtx.getLeftSideBearing(idx);
//this.advanceWidth = currentHmtx.getAdvanceWidth(idx);
this.unitsPerEm = unitsPerEm;
this.baseFontName = baseFontName;
final int p = currentGlyf.getCharString(idx);
glyfTable.setPointer(p);
if (glyfTable.getBytesLeft() > 4) {
readGlyph(currentGlyf, glyfTable);
//if(!useFX)
createGlyph(false);
}
}
boolean createGlyph(final boolean isHinted) {
boolean failed = false;
if (isHinted) {
if (createHintedGlyph()) {
failed = true;
}
} else {
createUnhintedGlyph();
}
return failed;
}
void createUnhintedGlyph() {
//create glyphs the first time
for (int i = 0; i < this.compCount; i++) {
final int[] pX = (int[]) glyfX.elementAt(i);
final int[] pY = (int[]) glyfY.elementAt(i);
final boolean[] onCurve = (boolean[]) curves.elementAt(i);
final boolean[] endOfContour = (boolean[]) contours.elementAt(i);
final int endIndex = endPtIndices.elementAt(i);
if (isComposite) {
xtranslate = xtranslateValues.elementAt(i);
ytranslate = ytranslateValues.elementAt(i);
xscale = xscaleValues.elementAt(i);
yscale = yscaleValues.elementAt(i);
scale01 = scale01Values.elementAt(i);
scale10 = scale10Values.elementAt(i);
//factor in BPoint where points overlap
if (BPoint1 != -1 && BPoint2 != -1) {
if (BP1x == -1 && BP2x == -1 && BP1y == -1 && BP2y == -1) { //first point
BP1x = pX[BPoint1];
BP1y = pY[BPoint1];
} else { //second and reset
BP2x = pX[BPoint2];
BP2y = pY[BPoint2];
final int xx = BP1x - BP2x;
final int yy = BP1y - BP2y;
final int count = pX.length;
for (int ii = 0; ii < count; ii++) {
pX[ii] += xx;
pY[ii] += yy;
}
//reset for next
BP1x = -1;
BP2x = -1;
BP1y = -1;
BP2y = -1;
}
}
}
//Check if it's a font which uses instructions to move subglyphs
if (baseFontName != null && instructions != null && !testedFonts.contains(baseFontName)) {
testedFonts.add(baseFontName);
baseFontName = baseFontName.toLowerCase();
if (baseFontName.contains("mingli") ||
baseFontName.contains("kai") ||
baseFontName.contains("huatian")) {
ttHintingRequired = true;
LogWriter.writeLog("TrueType hinting probably required for font " + baseFontName);
}
}
// drawGlyf(pX,pY,onCurve,endOfContour,endIndex,debug);
createPaths(pX, pY, onCurve, endOfContour, endIndex);
}
}
/**
* returns the middle point between two values
*/
static int midPt(final int a, final int b) {
return a + (b - a) / 2;
}
/**
* create the actual shape
*
* @param pX
*/
public void scaler(final int[] pX, final int[] pY) {
scaledX = new int[pX.length];
scaledY = new int[pY.length];
final double scale = (pixelSize / (unitsPerEm * 1000)) * 64;
for (int i = 0; i < pX.length; i++) {
scaledX[i] = (int) ((scale * pX[i]) + 0.5);
scaledY[i] = (int) ((scale * pY[i]) + 0.5);
}
scaledX[pX.length - 2] = 0;
scaledY[pY.length - 2] = 0;
scaledX[pX.length - 1] = (int) ((scale * leftSideBearing) + 0.5);
scaledY[pY.length - 1] = 0;
}
public final void readComplexGlyph(final Glyf currentGlyf, final FontFile2 currentFontFile) {
isComposite = true;
//Remove elements for the compound as it's only a container
xtranslateValues.pull();
ytranslateValues.pull();
xscaleValues.pull();
yscaleValues.pull();
scale01Values.pull();
scale10Values.pull();
BPoint1 = -1;
BPoint2 = -1;
//LogWriter.writeMethod("{readComplexGlyph}", 0);
boolean WE_HAVE_INSTRUCTIONS = false;
final int count = currentGlyf.getGlypfCount();
while (true) {
final int flag = currentFontFile.getNextUint16();
final int glyphIndex = currentFontFile.getNextUint16();
//allow for bum data
if (glyphIndex >= count) {
containsBrokenGlyfData = true;
break;
}
//set flag options
final boolean ARG_1AND_2_ARE_WORDS = (flag & 1) == 1;
final boolean ARGS_ARE_XY_VALUES = (flag & 2) == 2;
final boolean WE_HAVE_A_SCALE = (flag & 8) == 8;
final boolean WE_HAVE_AN_X_AND_Y_SCALE = (flag & 64) == 64;
final boolean WE_HAVE_A_TWO_BY_TWO = (flag & 128) == 128;
WE_HAVE_INSTRUCTIONS = WE_HAVE_INSTRUCTIONS || (flag & 256) == 256;
if (LogWriter.isRunningFromIDE && (flag & 0x800) == 0x800) {
System.out.println("{internal only} This file contains an OpenType font with a flag specifying mac style");
System.out.println("composite scaling should be used. Look in TTGlyph.readComplexGlyph() - details are");
System.out.println("on FontForge's website. (Search for TrueType Composites differences.)");
}
if (ARG_1AND_2_ARE_WORDS && ARGS_ARE_XY_VALUES) {
//1st short contains the value of e
//2nd short contains the value of f
xtranslate = currentFontFile.getNextInt16();
ytranslate = currentFontFile.getNextInt16();
} else if (!ARG_1AND_2_ARE_WORDS && ARGS_ARE_XY_VALUES) {
//1st byte contains the value of e
//2nd byte contains the value of f
xtranslate = currentFontFile.getNextint8();
ytranslate = currentFontFile.getNextint8();
} else if (ARG_1AND_2_ARE_WORDS && !ARGS_ARE_XY_VALUES) {
//1st short contains the index of matching point in compound being constructed
//2nd short contains index of matching point in component
BPoint1 = currentFontFile.getNextUint16();
BPoint2 = currentFontFile.getNextUint16();
xtranslate = 0;
ytranslate = 0;
} else if (!ARG_1AND_2_ARE_WORDS && !ARGS_ARE_XY_VALUES) {
// 1st byte containing index of matching point in compound being constructed
// 2nd byte containing index of matching point in component
BPoint1 = currentFontFile.getNextUint8();
BPoint2 = currentFontFile.getNextUint8();
xtranslate = 0;
ytranslate = 0;
}
//set defaults
xscale = 1; //a
scale01 = 0; //b
scale10 = 0; //c
yscale = 1; //d
//workout scaling factors
if ((!WE_HAVE_A_SCALE) && (!WE_HAVE_AN_X_AND_Y_SCALE) && (!WE_HAVE_A_TWO_BY_TWO)) {
//uses defaults already set
} else if ((WE_HAVE_A_SCALE) && (!WE_HAVE_AN_X_AND_Y_SCALE) && (!WE_HAVE_A_TWO_BY_TWO)) {
xscale = currentFontFile.getF2Dot14(); //a
scale01 = 0; //b
scale10 = 0; //c
yscale = xscale; //d
} else if ((!WE_HAVE_A_SCALE) && (WE_HAVE_AN_X_AND_Y_SCALE) && (!WE_HAVE_A_TWO_BY_TWO)) {
xscale = currentFontFile.getF2Dot14(); //a
scale01 = 0; //b
scale10 = 0; //c
yscale = currentFontFile.getF2Dot14(); //d
} else if ((!WE_HAVE_A_SCALE) && (!WE_HAVE_AN_X_AND_Y_SCALE) && (WE_HAVE_A_TWO_BY_TWO)) {
xscale = currentFontFile.getF2Dot14(); //a
scale01 = currentFontFile.getF2Dot14(); //b
scale10 = currentFontFile.getF2Dot14(); //c
yscale = currentFontFile.getF2Dot14(); //d
}
//store so we can remove later
final int localX = xtranslate;
final int localY = ytranslate;
//Get total translation
xtranslate += existingXTranslate;
ytranslate += existingYTranslate;
//save values
xtranslateValues.addElement(xtranslate);
ytranslateValues.addElement(ytranslate);
xscaleValues.addElement(xscale);
yscaleValues.addElement(yscale);
scale01Values.addElement(scale01);
scale10Values.addElement(scale10);
//save location so we can restore
final int pointer = currentFontFile.getPointer();
/**/
//now read the simple glyphs
int p = currentGlyf.getCharString(glyphIndex);
if (p != -1) {
if (p < 0) {
p = -p;
}
currentFontFile.setPointer(p);
existingXTranslate = xtranslate;
existingYTranslate = ytranslate;
depth++;
readGlyph(currentGlyf, currentFontFile);
depth--;
existingXTranslate -= localX;
existingYTranslate -= localY;
}
currentFontFile.setPointer(pointer);
//break out at end
if ((flag & 32) == 0) {
if (WE_HAVE_INSTRUCTIONS) {
final int instructionLength = currentFontFile.getNextUint16();
final int[] instructions = new int[instructionLength];
for (int i = 0; i < instructionLength; i++) {
instructions[i] = currentFontFile.getNextUint8();
}
if (depth <= currentInstructionDepth) {
this.instructions = instructions;
currentInstructionDepth = depth;
}
} else {
if (depth <= currentInstructionDepth) {
this.instructions = new int[]{};
currentInstructionDepth = depth;
}
}
break;
}
compCount++;
}
}
public void readSimpleGlyph(final FontFile2 currentFontFile) {
//LogWriter.writeMethod("{readSimpleGlyph}", 0);
int flagCount = 1;
short x1;
final Vector_Int rawFlags = new Vector_Int(50);
final Vector_Int endPts = new Vector_Int(50);
final Vector_Short XX = new Vector_Short(50);
final Vector_Short Y = new Vector_Short(50);
//all endpoints
try {
int lastPt = 0;
for (int i = 0; i < contourCount; i++) {
lastPt = currentFontFile.getNextUint16();
endPts.addElement(lastPt);
}
//allow for corrupted value with not enough entries
//ie customers3/ICG3Q03.pdf
if (currentFontFile.hasValuesLeft()) {
/*Don;t comment out !!!!!!!!!
* needs to be read to advance pointer*/
final int instructionLength = currentFontFile.getNextUint16();
final int[] instructions = new int[instructionLength];
for (int i = 0; i < instructionLength; i++) {
instructions[i] = currentFontFile.getNextUint8();
}
if (depth < currentInstructionDepth) {
this.instructions = instructions;
}
int count = lastPt + 1;
int flag;
/*we read the flags (some can repeat)*/
for (int i = 0; i < count; i++) {
if (currentFontFile.getBytesLeft() < 1) {
return;
}
flag = currentFontFile.getNextUint8();
rawFlags.addElement(flag);
flagCount++;
if ((flag & 8) == 8) { //repeating flags }
final int repeatCount = currentFontFile.getNextUint8();
for (int r = 1; r <= repeatCount; r++) {
rawFlags.addElement(flag);
flagCount++;
}
i += repeatCount;
}
}
/*read the x values and set segment for complex glyph*/
for (int i = 0; i < count; i++) {
flag = rawFlags.elementAt(i);
//boolean twoByteValue=((flag & 2)==0);
if ((flag & 16) != 0) { //
if ((flag & 2) != 0) { //1 byte + value
x1 = (short) currentFontFile.getNextUint8();
XX.addElement(x1);
} else { //2 byte value - same as previous - ??? same X coord or value
XX.addElement((short) 0);
}
} else {
if ((flag & 2) != 0) { //1 byte - value
x1 = (short) -currentFontFile.getNextUint8();
XX.addElement(x1);
} else { //signed 16 bit delta vector
x1 = currentFontFile.getNextSignedInt16();
XX.addElement(x1);
}
}
}
/*read the y values*/
for (int i = 0; i < count; i++) {
flag = rawFlags.elementAt(i);
if ((flag & 32) != 0) {
if ((flag & 4) != 0) {
if (currentFontFile.getBytesLeft() < 1) {
return;
}
Y.addElement((short) currentFontFile.getNextUint8());
} else {
Y.addElement((short) 0);
}
} else {
if ((flag & 4) != 0) {
Y.addElement((short) -currentFontFile.getNextUint8());
} else {
final short val = currentFontFile.getNextSignedInt16();
Y.addElement(val);
}
}
}
/*
* calculate the points
*/
int endPtIndex = 0;
int x = 0, y = 0;
final int[] flags = rawFlags.get();
final int[] endPtsOfContours = endPts.get();
final short[] XPoints = XX.get();
final short[] YPoints = Y.get();
count = XPoints.length;
final int[] pX = new int[count + 2];
final int[] pY = new int[count + 2];
final boolean[] onCurve = new boolean[count + 2];
final boolean[] endOfContour = new boolean[count + 2];
int endIndex = 0;
for (int i = 0; i < count; i++) {
final boolean endPt = endPtsOfContours[endPtIndex] == i;
if (endPt) {
endPtIndex++;
endIndex = i + 1;
}
x += XPoints[i];
y += YPoints[i];
pX[i] = x;
pY[i] = y;
onCurve[i] = i < flagCount && (flags[i] & 1) != 0;
endOfContour[i] = endPt;
}
for (int i = 0; i < pX.length; i++) {
final int lX = pX[i];
final int lY = pY[i];
//Convert x
//pX[i] = convertX(lX,lY);
if (!isComposite) {
if (!hasHinting()) {
pX[i] = (int) (lX / unitsPerEm);
} else {
pX[i] = lX;
}
} else {
if (!hasHinting()) {
pX[i] = (int) ((((lX * xscale) + (lY * scale10)) + xtranslate) / unitsPerEm);
} else {
pX[i] = (int) ((((lX * xscale) + (lY * scale10)) + xtranslate));
}
}
//Convert Y
//pY[i] = convertY(lX,lY);
if (!isComposite) {
if (!hasHinting()) {
pY[i] = (int) (lY / unitsPerEm);
} else {
pY[i] = lY;
}
} else {
if (!hasHinting()) {
pY[i] = (int) ((((lX * scale01) + (lY * yscale)) + ytranslate) / unitsPerEm);
} else {
pY[i] = (int) ((((lX * scale01) + (lY * yscale)) + ytranslate));
}
}
}
//store
glyfX.addElement(pX);
glyfY.addElement(pY);
this.curves.addElement(onCurve);
this.contours.addElement(endOfContour);
this.endPtIndices.addElement(endIndex);
}
} catch (final Exception e) {
//System.err.println("error occured while reading TTGlyph bytes");
//there are many files in which the glyph length is not matched with specification
LogWriter.writeLog("Caught an Exception while reading TTGlyph bytes" + e);
}
}
public void readGlyph(final Glyf currentGlyf, final FontFile2 currentFontFile) {
//LogWriter.writeMethod("{readGlyph}", 0);
contourCount = currentFontFile.getNextUint16();
//read the max/min co-ords
minX = (short) currentFontFile.getNextUint16();
minY = (short) currentFontFile.getNextUint16();
maxX = (short) currentFontFile.getNextUint16();
maxY = (short) currentFontFile.getNextUint16();
if (minX > maxX || minY > maxY) {
return;
}
if (contourCount != 65535) {
if (contourCount > 0) {
readSimpleGlyph(currentFontFile);
}
} else {
compMinX = minX;
compMinY = minY;
compMaxX = maxX;
compMaxY = maxY;
readComplexGlyph(currentGlyf, currentFontFile);
}
}
/**
* @return Whether the font requires hinting in order to correctly arrange its subglyphs
*/
public boolean isTTHintingRequired() {
return ttHintingRequired;
}
public void createPaths(final int[] pX, final int[] pY, final boolean[] onCurve, final boolean[] endOfContour, final int endIndex) {
throw new UnsupportedOperationException("createPaths Not supported yet.");
}
void clearPaths() {
throw new UnsupportedOperationException("clearPaths Not supported yet.");
}
public int getFontBB(final int type) {
if (isComposite) {
switch (type) {
case PdfGlyph.FontBB_X:
return compMinX;
case PdfGlyph.FontBB_Y:
return compMinY;
case PdfGlyph.FontBB_WIDTH:
return compMaxX;
case PdfGlyph.FontBB_HEIGHT:
return compMaxY;
default:
return 0;
}
} else {
switch (type) {
case PdfGlyph.FontBB_X:
return minX;
case PdfGlyph.FontBB_Y:
return minY;
case PdfGlyph.FontBB_WIDTH:
return maxX;
case PdfGlyph.FontBB_HEIGHT:
return maxY;
default:
return 0;
}
}
}
//use by TT to handle broken TT fonts
@Override
public boolean containsBrokenData() {
return this.containsBrokenGlyfData;
}
boolean createHintedGlyph() {
boolean failedOnHinting = false;
/*create glyphs the first time*/
for (int i = 0; i < this.compCount; i++) {
final int[] pX = (int[]) glyfX.elementAt(i);
final int[] pY = (int[]) glyfY.elementAt(i);
// Ideal place to isolate a glyph for hinting debugging
// if (!(pX[0] == 512 && pY[0] == 0)) {
// return false;
// }
if (isComposite) {
xtranslate = xtranslateValues.elementAt(i);
ytranslate = ytranslateValues.elementAt(i);
xscale = xscaleValues.elementAt(i);
yscale = yscaleValues.elementAt(i);
scale01 = scale01Values.elementAt(i);
scale10 = scale10Values.elementAt(i);
//factor in BPoint where points overlap
if (BPoint1 != -1 && BPoint2 != -1) {
if (BP1x == -1 && BP2x == -1 && BP1y == -1 && BP2y == -1) { //first point
BP1x = pX[BPoint1];
BP1y = pY[BPoint1];
} else { //second and reset
BP2x = pX[BPoint2];
BP2y = pY[BPoint2];
final int xx = BP1x - BP2x;
final int yy = BP1y - BP2y;
final int count = pX.length;
for (int ii = 0; ii < count; ii++) {
pX[ii] += xx;
pY[ii] += yy;
}
//reset for next
BP1x = -1;
BP2x = -1;
BP1y = -1;
BP2y = -1;
}
}
}
}
//Use a preset size to generate at
pixelSize = 1000 * 100 / 64d;
int coordCount = 2;
final int[] componentLengths = new int[this.compCount];
for (int i = 0; i < this.compCount; i++) {
coordCount += endPtIndices.elementAt(i);
componentLengths[i] = endPtIndices.elementAt(i);
}
//Combine sets of glyph points to get whole glyph
final int[] allX = new int[coordCount];
final int[] allY = new int[coordCount];
final boolean[] allOnCurve = new boolean[coordCount];
final boolean[] allEndOfContour = new boolean[coordCount];
final int[] allEndIndex = new int[this.compCount];
int offset = 0;
for (int i = 0; i < this.compCount; i++) {
final int[] pX = (int[]) glyfX.elementAt(i);
final int[] pY = (int[]) glyfY.elementAt(i);
final boolean[] onCurve = (boolean[]) curves.elementAt(i);
final boolean[] endOfContour = (boolean[]) contours.elementAt(i);
final int endIndex = endPtIndices.elementAt(i);
//This is the ideal place to specify to only print one glyph. Use the unscaled coordinates of the first
// point of the relevant glyph, which can be easily found using FontForge.
// if (i==0 && !(pY[0] == 921 && pX[0] == 317))
// return;
//Scale raw coords
if (pX != null) {
scaler(pX, pY);
}
for (int j = 0; j < componentLengths[i]; j++) {
allX[offset + j] = scaledX[j];
allY[offset + j] = scaledY[j];
allOnCurve[offset + j] = onCurve[j];
allEndOfContour[offset + j] = endOfContour[j];
allEndIndex[i] = endIndex;
}
offset += componentLengths[i];
}
final double scaler = (pixelSize / (unitsPerEm * 1000)) * 64;
allX[allX.length - 1] = (int) ((scaler * leftSideBearing) + 0.5);
//prepare VM and process glyph
if (vm.processGlyph(instructions, allX, allY, allOnCurve, allEndOfContour, pixelSize, scaler)) {
failedOnHinting = true;
}
hasHintingApplied = true;
//Split back into individual glyphs and create paths
clearPaths();
offset = 0;
for (int i = 0; i < this.compCount; i++) {
final int[] thisX = (int[]) glyfX.elementAt(i);
final int[] thisY = (int[]) glyfY.elementAt(i);
final boolean[] onCurve = (boolean[]) curves.elementAt(i);
final boolean[] endOfContour = (boolean[]) contours.elementAt(i);
final int endIndex = allEndIndex[i];
for (int j = 0; j < componentLengths[i]; j++) {
thisX[j] = allX[offset + j];
thisY[j] = allY[offset + j];
onCurve[j] = allOnCurve[offset + j];
endOfContour[j] = allEndOfContour[offset + j];
}
createPaths(thisX, thisY, onCurve, endOfContour, endIndex);
offset += componentLengths[i];
}
return failedOnHinting;
}
@Override
public boolean hasHintingApplied() {
return this.hasHintingApplied;
}
}
