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-rw-r--r--noncore/unsupported/qpdf/xpdf/Gfx.cc2
-rw-r--r--noncore/unsupported/qpdf/xpdf/Object.cc2
-rw-r--r--noncore/unsupported/qpdf/xpdf/Page.cc4
3 files changed, 4 insertions, 4 deletions
diff --git a/noncore/unsupported/qpdf/xpdf/Gfx.cc b/noncore/unsupported/qpdf/xpdf/Gfx.cc
index 17d613e..f016c0e 100644
--- a/noncore/unsupported/qpdf/xpdf/Gfx.cc
+++ b/noncore/unsupported/qpdf/xpdf/Gfx.cc
@@ -1099,1537 +1099,1537 @@ void Gfx::opEOFill(Object args[], int numArgs) {
return;
}
if (state->isPath()) {
if (state->getFillColorSpace()->getMode() == csPattern) {
doPatternFill(gTrue);
} else {
out->eoFill(state);
}
}
doEndPath();
}
void Gfx::opFillStroke(Object args[], int numArgs) {
if (!state->isCurPt()) {
//error(getPos(), "No path in fill/stroke");
return;
}
if (state->isPath()) {
if (state->getFillColorSpace()->getMode() == csPattern) {
doPatternFill(gFalse);
} else {
out->fill(state);
}
out->stroke(state);
}
doEndPath();
}
void Gfx::opCloseFillStroke(Object args[], int numArgs) {
if (!state->isCurPt()) {
//error(getPos(), "No path in closepath/fill/stroke");
return;
}
if (state->isPath()) {
state->closePath();
if (state->getFillColorSpace()->getMode() == csPattern) {
doPatternFill(gFalse);
} else {
out->fill(state);
}
out->stroke(state);
}
doEndPath();
}
void Gfx::opEOFillStroke(Object args[], int numArgs) {
if (!state->isCurPt()) {
//error(getPos(), "No path in eofill/stroke");
return;
}
if (state->isPath()) {
if (state->getFillColorSpace()->getMode() == csPattern) {
doPatternFill(gTrue);
} else {
out->eoFill(state);
}
out->stroke(state);
}
doEndPath();
}
void Gfx::opCloseEOFillStroke(Object args[], int numArgs) {
if (!state->isCurPt()) {
//error(getPos(), "No path in closepath/eofill/stroke");
return;
}
if (state->isPath()) {
state->closePath();
if (state->getFillColorSpace()->getMode() == csPattern) {
doPatternFill(gTrue);
} else {
out->eoFill(state);
}
out->stroke(state);
}
doEndPath();
}
void Gfx::doPatternFill(GBool eoFill) {
GfxPatternColorSpace *patCS;
GfxPattern *pattern;
GfxTilingPattern *tPat;
GfxColorSpace *cs;
fouble xMin, yMin, xMax, yMax, x, y, x1, y1;
fouble cxMin, cyMin, cxMax, cyMax;
int xi0, yi0, xi1, yi1, xi, yi;
fouble *ctm, *btm, *ptm;
fouble m[6], ictm[6], m1[6], imb[6];
fouble det;
fouble xstep, ystep;
int i;
// this is a bit of a kludge -- patterns can be really slow, so we
// skip them if we're only doing text extraction, since they almost
// certainly don't contain any text
if (!out->needNonText()) {
return;
}
// get color space
patCS = (GfxPatternColorSpace *)state->getFillColorSpace();
// get pattern
if (!(pattern = state->getFillPattern())) {
return;
}
if (pattern->getType() != 1) {
return;
}
tPat = (GfxTilingPattern *)pattern;
// construct a (pattern space) -> (current space) transform matrix
ctm = state->getCTM();
btm = baseMatrix;
ptm = tPat->getMatrix();
// iCTM = invert CTM
det = 1 / (ctm[0] * ctm[3] - ctm[1] * ctm[2]);
ictm[0] = ctm[3] * det;
ictm[1] = -ctm[1] * det;
ictm[2] = -ctm[2] * det;
ictm[3] = ctm[0] * det;
ictm[4] = (ctm[2] * ctm[5] - ctm[3] * ctm[4]) * det;
ictm[5] = (ctm[1] * ctm[4] - ctm[0] * ctm[5]) * det;
// m1 = PTM * BTM = PTM * base transform matrix
m1[0] = ptm[0] * btm[0] + ptm[1] * btm[2];
m1[1] = ptm[0] * btm[1] + ptm[1] * btm[3];
m1[2] = ptm[2] * btm[0] + ptm[3] * btm[2];
m1[3] = ptm[2] * btm[1] + ptm[3] * btm[3];
m1[4] = ptm[4] * btm[0] + ptm[5] * btm[2] + btm[4];
m1[5] = ptm[4] * btm[1] + ptm[5] * btm[3] + btm[5];
// m = m1 * iCTM = (PTM * BTM) * (iCTM)
m[0] = m1[0] * ictm[0] + m1[1] * ictm[2];
m[1] = m1[0] * ictm[1] + m1[1] * ictm[3];
m[2] = m1[2] * ictm[0] + m1[3] * ictm[2];
m[3] = m1[2] * ictm[1] + m1[3] * ictm[3];
m[4] = m1[4] * ictm[0] + m1[5] * ictm[2] + ictm[4];
m[5] = m1[4] * ictm[1] + m1[5] * ictm[3] + ictm[5];
// construct a (base space) -> (pattern space) transform matrix
det = 1 / (m1[0] * m1[3] - m1[1] * m1[2]);
imb[0] = m1[3] * det;
imb[1] = -m1[1] * det;
imb[2] = -m1[2] * det;
imb[3] = m1[0] * det;
imb[4] = (m1[2] * m1[5] - m1[3] * m1[4]) * det;
imb[5] = (m1[1] * m1[4] - m1[0] * m1[5]) * det;
// save current graphics state
out->saveState(state);
state = state->save();
// set underlying color space (for uncolored tiling patterns)
if (tPat->getPaintType() == 2 && (cs = patCS->getUnder())) {
state->setFillColorSpace(cs->copy());
} else {
state->setFillColorSpace(new GfxDeviceGrayColorSpace());
}
state->setFillPattern(NULL);
out->updateFillColor(state);
// clip to current path
state->clip();
if (eoFill) {
out->eoClip(state);
} else {
out->clip(state);
}
state->clearPath();
// transform clip region bbox to pattern space
state->getClipBBox(&cxMin, &cyMin, &cxMax, &cyMax);
xMin = xMax = cxMin * imb[0] + cyMin * imb[2] + imb[4];
yMin = yMax = cxMin * imb[1] + cyMin * imb[3] + imb[5];
x1 = cxMin * imb[0] + cyMax * imb[2] + imb[4];
y1 = cxMin * imb[1] + cyMax * imb[3] + imb[5];
if (x1 < xMin) {
xMin = x1;
} else if (x1 > xMax) {
xMax = x1;
}
if (y1 < yMin) {
yMin = y1;
} else if (y1 > yMax) {
yMax = y1;
}
x1 = cxMax * imb[0] + cyMin * imb[2] + imb[4];
y1 = cxMax * imb[1] + cyMin * imb[3] + imb[5];
if (x1 < xMin) {
xMin = x1;
} else if (x1 > xMax) {
xMax = x1;
}
if (y1 < yMin) {
yMin = y1;
} else if (y1 > yMax) {
yMax = y1;
}
x1 = cxMax * imb[0] + cyMax * imb[2] + imb[4];
y1 = cxMax * imb[1] + cyMax * imb[3] + imb[5];
if (x1 < xMin) {
xMin = x1;
} else if (x1 > xMax) {
xMax = x1;
}
if (y1 < yMin) {
yMin = y1;
} else if (y1 > yMax) {
yMax = y1;
}
// draw the pattern
//~ this should treat negative steps differently -- start at right/top
//~ edge instead of left/bottom (?)
xstep = fabs(tPat->getXStep());
ystep = fabs(tPat->getYStep());
xi0 = (int)floor(xMin / xstep);
xi1 = (int)ceil(xMax / xstep);
yi0 = (int)floor(yMin / ystep);
yi1 = (int)ceil(yMax / ystep);
for (i = 0; i < 4; ++i) {
m1[i] = m[i];
}
for (yi = yi0; yi < yi1; ++yi) {
for (xi = xi0; xi < xi1; ++xi) {
x = xi * xstep;
y = yi * ystep;
m1[4] = x * m[0] + y * m[2] + m[4];
m1[5] = x * m[1] + y * m[3] + m[5];
doForm1(tPat->getContentStream(), tPat->getResDict(),
m1, tPat->getBBox());
}
}
// restore graphics state
state = state->restore();
out->restoreState(state);
}
void Gfx::opShFill(Object args[], int numArgs) {
GfxShading *shading;
fouble xMin, yMin, xMax, yMax;
if (!(shading = res->lookupShading(args[0].getName()))) {
return;
}
// save current graphics state
out->saveState(state);
state = state->save();
// clip to bbox
if (shading->getHasBBox()) {
shading->getBBox(&xMin, &yMin, &xMax, &yMax);
state->moveTo(xMin, yMin);
state->lineTo(xMax, yMin);
state->lineTo(xMax, yMax);
state->lineTo(xMin, yMax);
state->closePath();
state->clip();
out->clip(state);
state->clearPath();
}
// set the color space
state->setFillColorSpace(shading->getColorSpace()->copy());
// do shading type-specific operations
switch (shading->getType()) {
case 2:
doAxialShFill((GfxAxialShading *)shading);
break;
case 3:
doRadialShFill((GfxRadialShading *)shading);
break;
}
// restore graphics state
state = state->restore();
out->restoreState(state);
delete shading;
}
void Gfx::doAxialShFill(GfxAxialShading *shading) {
fouble xMin, yMin, xMax, yMax;
fouble x0, y0, x1, y1;
fouble dx, dy, mul;
fouble tMin, tMax, t, tx, ty;
fouble s[4], sMin, sMax, tmp;
fouble ux0, uy0, ux1, uy1, vx0, vy0, vx1, vy1;
fouble t0, t1, tt;
fouble ta[axialMaxSplits + 1];
int next[axialMaxSplits + 1];
GfxColor color0, color1;
int nComps;
int i, j, k, kk;
// get the clip region bbox
state->getUserClipBBox(&xMin, &yMin, &xMax, &yMax);
// compute min and max t values, based on the four corners of the
// clip region bbox
shading->getCoords(&x0, &y0, &x1, &y1);
dx = x1 - x0;
dy = y1 - y0;
mul = 1 / (dx * dx + dy * dy);
tMin = tMax = ((xMin - x0) * dx + (yMin - y0) * dy) * mul;
t = ((xMin - x0) * dx + (yMax - y0) * dy) * mul;
if (t < tMin) {
tMin = t;
} else if (t > tMax) {
tMax = t;
}
t = ((xMax - x0) * dx + (yMin - y0) * dy) * mul;
if (t < tMin) {
tMin = t;
} else if (t > tMax) {
tMax = t;
}
t = ((xMax - x0) * dx + (yMax - y0) * dy) * mul;
if (t < tMin) {
tMin = t;
} else if (t > tMax) {
tMax = t;
}
if (tMin < 0 && !shading->getExtend0()) {
tMin = 0;
}
if (tMax > 1 && !shading->getExtend1()) {
tMax = 1;
}
// get the function domain
t0 = shading->getDomain0();
t1 = shading->getDomain1();
// Traverse the t axis and do the shading.
//
// For each point (tx, ty) on the t axis, consider a line through
// that point perpendicular to the t axis:
//
// x(s) = tx + s * -dy --> s = (x - tx) / -dy
// y(s) = ty + s * dx --> s = (y - ty) / dx
//
// Then look at the intersection of this line with the bounding box
// (xMin, yMin, xMax, yMax). In the general case, there are four
// intersection points:
//
// s0 = (xMin - tx) / -dy
// s1 = (xMax - tx) / -dy
// s2 = (yMin - ty) / dx
// s3 = (yMax - ty) / dx
//
// and we want the middle two s values.
//
// In the case where dx = 0, take s0 and s1; in the case where dy =
// 0, take s2 and s3.
//
// Each filled polygon is bounded by two of these line segments
// perpdendicular to the t axis.
//
// The t axis is bisected into smaller regions until the color
// difference across a region is small enough, and then the region
// is painted with a single color.
// set up
nComps = shading->getColorSpace()->getNComps();
ta[0] = tMin;
ta[axialMaxSplits] = tMax;
next[0] = axialMaxSplits;
// compute the color at t = tMin
if (tMin < 0) {
tt = t0;
} else if (tMin > 1) {
tt = t1;
} else {
tt = t0 + (t1 - t0) * tMin;
}
shading->getColor(tt, &color0);
// compute the coordinates of the point on the t axis at t = tMin;
// then compute the intersection of the perpendicular line with the
// bounding box
tx = x0 + tMin * dx;
ty = y0 + tMin * dy;
if (dx == 0 && dy == 0) {
sMin = sMax = 0;
} if (dx == 0) {
sMin = (xMin - tx) / -dy;
sMax = (xMax - tx) / -dy;
if (sMin > sMax) { tmp = sMin; sMin = sMax; sMax = tmp; }
} else if (dy == 0) {
sMin = (yMin - ty) / dx;
sMax = (yMax - ty) / dx;
if (sMin > sMax) { tmp = sMin; sMin = sMax; sMax = tmp; }
} else {
s[0] = (yMin - ty) / dx;
s[1] = (yMax - ty) / dx;
s[2] = (xMin - tx) / -dy;
s[3] = (xMax - tx) / -dy;
for (j = 0; j < 3; ++j) {
kk = j;
for (k = j + 1; k < 4; ++k) {
if (s[k] < s[kk]) {
kk = k;
}
}
tmp = s[j]; s[j] = s[kk]; s[kk] = tmp;
}
sMin = s[1];
sMax = s[2];
}
ux0 = tx - sMin * dy;
uy0 = ty + sMin * dx;
vx0 = tx - sMax * dy;
vy0 = ty + sMax * dx;
i = 0;
while (i < axialMaxSplits) {
// bisect until color difference is small enough or we hit the
// bisection limit
j = next[i];
while (j > i + 1) {
if (ta[j] < 0) {
tt = t0;
} else if (ta[j] > 1) {
tt = t1;
} else {
tt = t0 + (t1 - t0) * ta[j];
}
shading->getColor(tt, &color1);
for (k = 0; k < nComps; ++k) {
if (fabs(color1.c[k] - color0.c[k]) > axialColorDelta) {
break;
}
}
if (k == nComps) {
break;
}
k = (i + j) / 2;
ta[k] = 0.5 * (ta[i] + ta[j]);
next[i] = k;
next[k] = j;
j = k;
}
// use the average of the colors of the two sides of the region
for (k = 0; k < nComps; ++k) {
color0.c[k] = 0.5 * (color0.c[k] + color1.c[k]);
}
// compute the coordinates of the point on the t axis; then
// compute the intersection of the perpendicular line with the
// bounding box
tx = x0 + ta[j] * dx;
ty = y0 + ta[j] * dy;
if (dx == 0 && dy == 0) {
sMin = sMax = 0;
} if (dx == 0) {
sMin = (xMin - tx) / -dy;
sMax = (xMax - tx) / -dy;
if (sMin > sMax) { tmp = sMin; sMin = sMax; sMax = tmp; }
} else if (dy == 0) {
sMin = (yMin - ty) / dx;
sMax = (yMax - ty) / dx;
if (sMin > sMax) { tmp = sMin; sMin = sMax; sMax = tmp; }
} else {
s[0] = (yMin - ty) / dx;
s[1] = (yMax - ty) / dx;
s[2] = (xMin - tx) / -dy;
s[3] = (xMax - tx) / -dy;
for (j = 0; j < 3; ++j) {
kk = j;
for (k = j + 1; k < 4; ++k) {
if (s[k] < s[kk]) {
kk = k;
}
}
tmp = s[j]; s[j] = s[kk]; s[kk] = tmp;
}
sMin = s[1];
sMax = s[2];
}
ux1 = tx - sMin * dy;
uy1 = ty + sMin * dx;
vx1 = tx - sMax * dy;
vy1 = ty + sMax * dx;
// set the color
state->setFillColor(&color0);
out->updateFillColor(state);
// fill the region
state->moveTo(ux0, uy0);
state->lineTo(vx0, vy0);
state->lineTo(vx1, vy1);
state->lineTo(ux1, uy1);
state->closePath();
out->fill(state);
state->clearPath();
// set up for next region
ux0 = ux1;
uy0 = uy1;
vx0 = vx1;
vy0 = vy1;
color0 = color1;
i = next[i];
}
}
void Gfx::doRadialShFill(GfxRadialShading *shading) {
fouble sMin, sMax, xMin, yMin, xMax, yMax;
fouble x0, y0, r0, x1, y1, r1, t0, t1;
int nComps;
GfxColor colorA, colorB;
fouble xa, ya, xb, yb, ra, rb;
fouble ta, tb, sa, sb;
int ia, ib, k, n;
fouble *ctm;
fouble angle, t;
// get the shading info
shading->getCoords(&x0, &y0, &r0, &x1, &y1, &r1);
t0 = shading->getDomain0();
t1 = shading->getDomain1();
nComps = shading->getColorSpace()->getNComps();
// compute the (possibly extended) s range
sMin = 0;
sMax = 1;
if (shading->getExtend0()) {
if (r0 < r1) {
// extend the smaller end
sMin = -r0 / (r1 - r0);
} else {
// extend the larger end
//~ this computes the diagonal of the bounding box -- we should
//~ really compute the intersection of the moving/expanding
//~ circles with each of the four corners and look for the max
//~ radius
state->getUserClipBBox(&xMin, &yMin, &xMax, &yMax);
sMin = (sqrt((xMax - xMin) * (xMax - xMin) +
(yMax - yMin) * (yMax - yMin)) - r0) / (r1 - r0);
if (sMin > 0) {
sMin = 0;
} else if (sMin < -20) {
// sanity check
sMin = -20;
}
}
}
if (shading->getExtend1()) {
if (r1 < r0) {
// extend the smaller end
sMax = -r0 / (r1 - r0);
} else if (r1 > r0) {
// extend the larger end
state->getUserClipBBox(&xMin, &yMin, &xMax, &yMax);
sMax = (sqrt((xMax - xMin) * (xMax - xMin) +
(yMax - yMin) * (yMax - yMin)) - r0) / (r1 - r0);
if (sMax < 1) {
sMin = 1;
} else if (sMax > 20) {
// sanity check
sMax = 20;
}
}
}
// compute the number of steps into which circles must be divided to
// achieve a curve flatness of 0.1 pixel in device space for the
// largest circle (note that "device space" is 72 dpi when generating
// PostScript, hence the relatively small 0.1 pixel accuracy)
ctm = state->getCTM();
t = fabs(ctm[0]);
if (fabs(ctm[1]) > t) {
t = fabs(ctm[1]);
}
if (fabs(ctm[2]) > t) {
t = fabs(ctm[2]);
}
if (fabs(ctm[3]) > t) {
t = fabs(ctm[3]);
}
if (r0 > r1) {
t *= r0;
} else {
t *= r1;
}
if (t < 1) {
n = 3;
} else {
n = (int)(M_PI / acos(1 - 0.1 / t));
if (n < 3) {
n = 3;
} else if (n > 200) {
n = 200;
}
}
// Traverse the t axis and do the shading.
//
// This generates and fills a series of rings. Each ring is defined
// by two circles:
// sa, ta, xa, ya, ra, colorA
// sb, tb, xb, yb, rb, colorB
//
// The s/t axis is divided into radialMaxSplits parts; these parts
// are combined as much as possible while respecting the
// radialColorDelta parameter.
// setup for the start circle
ia = 0;
sa = sMin;
ta = t0 + sa * (t1 - t0);
xa = x0 + sa * (x1 - x0);
ya = y0 + sa * (y1 - y0);
ra = r0 + sa * (r1 - r0);
if (ta < t0) {
shading->getColor(t0, &colorA);
} else if (ta > t1) {
shading->getColor(t1, &colorA);
} else {
shading->getColor(ta, &colorA);
}
while (ia < radialMaxSplits) {
// go as far along the t axis (toward t1) as we can, such that the
// color difference is within the tolerance (radialColorDelta) --
// this uses bisection (between the current value, t, and t1),
// limited to radialMaxSplits points along the t axis
ib = radialMaxSplits;
sb = sMin + ((fouble)ib / (fouble)radialMaxSplits) * (sMax - sMin);
tb = t0 + sb * (t1 - t0);
if (tb < t0) {
shading->getColor(t0, &colorB);
} else if (tb > t1) {
shading->getColor(t1, &colorB);
} else {
shading->getColor(tb, &colorB);
}
while (ib - ia > 1) {
for (k = 0; k < nComps; ++k) {
if (fabs(colorB.c[k] - colorA.c[k]) > radialColorDelta) {
break;
}
}
if (k == nComps) {
break;
}
ib = (ia + ib) / 2;
sb = sMin + ((fouble)ib / (fouble)radialMaxSplits) * (sMax - sMin);
tb = t0 + sb * (t1 - t0);
if (tb < t0) {
shading->getColor(t0, &colorB);
} else if (tb > t1) {
shading->getColor(t1, &colorB);
} else {
shading->getColor(tb, &colorB);
}
}
// compute center and radius of the circle
xb = x0 + sb * (x1 - x0);
yb = y0 + sb * (y1 - y0);
rb = r0 + sb * (r1 - r0);
// use the average of the colors at the two circles
for (k = 0; k < nComps; ++k) {
colorA.c[k] = 0.5 * (colorA.c[k] + colorB.c[k]);
}
state->setFillColor(&colorA);
out->updateFillColor(state);
// construct path for first circle
state->moveTo(xa + ra, ya);
for (k = 1; k < n; ++k) {
angle = ((fouble)k / (fouble)n) * 2 * M_PI;
state->lineTo(xa + ra * cos(angle), ya + ra * sin(angle));
}
state->closePath();
// construct and append path for second circle
state->moveTo(xb + rb, yb);
for (k = 1; k < n; ++k) {
angle = ((fouble)k / (fouble)n) * 2 * M_PI;
state->lineTo(xb + rb * cos(angle), yb + rb * sin(angle));
}
state->closePath();
// fill the ring
out->eoFill(state);
state->clearPath();
// step to the next value of t
ia = ib;
sa = sb;
ta = tb;
xa = xb;
ya = yb;
ra = rb;
colorA = colorB;
}
}
void Gfx::doEndPath() {
if (state->isPath() && clip != clipNone) {
state->clip();
if (clip == clipNormal) {
out->clip(state);
} else {
out->eoClip(state);
}
}
clip = clipNone;
state->clearPath();
}
//------------------------------------------------------------------------
// path clipping operators
//------------------------------------------------------------------------
void Gfx::opClip(Object args[], int numArgs) {
clip = clipNormal;
}
void Gfx::opEOClip(Object args[], int numArgs) {
clip = clipEO;
}
//------------------------------------------------------------------------
// text object operators
//------------------------------------------------------------------------
void Gfx::opBeginText(Object args[], int numArgs) {
state->setTextMat(1, 0, 0, 1, 0, 0);
state->textMoveTo(0, 0);
out->updateTextMat(state);
out->updateTextPos(state);
fontChanged = gTrue;
}
void Gfx::opEndText(Object args[], int numArgs) {
}
//------------------------------------------------------------------------
// text state operators
//------------------------------------------------------------------------
void Gfx::opSetCharSpacing(Object args[], int numArgs) {
state->setCharSpace(args[0].getNum());
out->updateCharSpace(state);
}
void Gfx::opSetFont(Object args[], int numArgs) {
GfxFont *font;
if (!(font = res->lookupFont(args[0].getName()))) {
return;
}
if (printCommands) {
printf(" font: tag=%s name='%s' %g\n",
font->getTag()->getCString(),
font->getName() ? font->getName()->getCString() : "???",
- args[1].getNum());
+ static_cast<double>(args[1].getNum()));
fflush(stdout);
}
state->setFont(font, args[1].getNum());
fontChanged = gTrue;
}
void Gfx::opSetTextLeading(Object args[], int numArgs) {
state->setLeading(args[0].getNum());
}
void Gfx::opSetTextRender(Object args[], int numArgs) {
state->setRender(args[0].getInt());
out->updateRender(state);
}
void Gfx::opSetTextRise(Object args[], int numArgs) {
state->setRise(args[0].getNum());
out->updateRise(state);
}
void Gfx::opSetWordSpacing(Object args[], int numArgs) {
state->setWordSpace(args[0].getNum());
out->updateWordSpace(state);
}
void Gfx::opSetHorizScaling(Object args[], int numArgs) {
state->setHorizScaling(args[0].getNum());
out->updateHorizScaling(state);
fontChanged = gTrue;
}
//------------------------------------------------------------------------
// text positioning operators
//------------------------------------------------------------------------
void Gfx::opTextMove(Object args[], int numArgs) {
fouble tx, ty;
tx = state->getLineX() + args[0].getNum();
ty = state->getLineY() + args[1].getNum();
state->textMoveTo(tx, ty);
out->updateTextPos(state);
}
void Gfx::opTextMoveSet(Object args[], int numArgs) {
fouble tx, ty;
tx = state->getLineX() + args[0].getNum();
ty = args[1].getNum();
state->setLeading(-ty);
ty += state->getLineY();
state->textMoveTo(tx, ty);
out->updateTextPos(state);
}
void Gfx::opSetTextMatrix(Object args[], int numArgs) {
state->setTextMat(args[0].getNum(), args[1].getNum(),
args[2].getNum(), args[3].getNum(),
args[4].getNum(), args[5].getNum());
state->textMoveTo(0, 0);
out->updateTextMat(state);
out->updateTextPos(state);
fontChanged = gTrue;
}
void Gfx::opTextNextLine(Object args[], int numArgs) {
fouble tx, ty;
tx = state->getLineX();
ty = state->getLineY() - state->getLeading();
state->textMoveTo(tx, ty);
out->updateTextPos(state);
}
//------------------------------------------------------------------------
// text string operators
//------------------------------------------------------------------------
void Gfx::opShowText(Object args[], int numArgs) {
if (!state->getFont()) {
error(getPos(), "No font in show");
return;
}
doShowText(args[0].getString());
}
void Gfx::opMoveShowText(Object args[], int numArgs) {
fouble tx, ty;
if (!state->getFont()) {
error(getPos(), "No font in move/show");
return;
}
tx = state->getLineX();
ty = state->getLineY() - state->getLeading();
state->textMoveTo(tx, ty);
out->updateTextPos(state);
doShowText(args[0].getString());
}
void Gfx::opMoveSetShowText(Object args[], int numArgs) {
fouble tx, ty;
if (!state->getFont()) {
error(getPos(), "No font in move/set/show");
return;
}
state->setWordSpace(args[0].getNum());
state->setCharSpace(args[1].getNum());
tx = state->getLineX();
ty = state->getLineY() - state->getLeading();
state->textMoveTo(tx, ty);
out->updateWordSpace(state);
out->updateCharSpace(state);
out->updateTextPos(state);
doShowText(args[2].getString());
}
void Gfx::opShowSpaceText(Object args[], int numArgs) {
Array *a;
Object obj;
int wMode;
int i;
if (!state->getFont()) {
error(getPos(), "No font in show/space");
return;
}
wMode = state->getFont()->getWMode();
a = args[0].getArray();
for (i = 0; i < a->getLength(); ++i) {
a->get(i, &obj);
if (obj.isNum()) {
if (wMode) {
state->textShift(0, -obj.getNum() * 0.001 * state->getFontSize());
} else {
state->textShift(-obj.getNum() * 0.001 * state->getFontSize(), 0);
}
out->updateTextShift(state, obj.getNum());
} else if (obj.isString()) {
doShowText(obj.getString());
} else {
error(getPos(), "Element of show/space array must be number or string");
}
obj.free();
}
}
void Gfx::doShowText(GString *s) {
GfxFont *font;
int wMode;
fouble riseX, riseY;
CharCode code;
Unicode u[8];
fouble x, y, dx, dy, dx2, dy2, curX, curY, tdx, tdy;
fouble originX, originY, tOriginX, tOriginY;
fouble oldCTM[6], newCTM[6];
fouble *mat;
Object charProc;
Dict *resDict;
Parser *oldParser;
char *p;
int len, n, uLen, nChars, nSpaces, i;
if (fontChanged) {
out->updateFont(state);
fontChanged = gFalse;
}
font = state->getFont();
wMode = font->getWMode();
if (out->useDrawChar()) {
out->beginString(state, s);
}
// handle a Type 3 char
if (font->getType() == fontType3 && out->interpretType3Chars()) {
mat = state->getCTM();
for (i = 0; i < 6; ++i) {
oldCTM[i] = mat[i];
}
mat = state->getTextMat();
newCTM[0] = mat[0] * oldCTM[0] + mat[1] * oldCTM[2];
newCTM[1] = mat[0] * oldCTM[1] + mat[1] * oldCTM[3];
newCTM[2] = mat[2] * oldCTM[0] + mat[3] * oldCTM[2];
newCTM[3] = mat[2] * oldCTM[1] + mat[3] * oldCTM[3];
mat = font->getFontMatrix();
newCTM[0] = mat[0] * newCTM[0] + mat[1] * newCTM[2];
newCTM[1] = mat[0] * newCTM[1] + mat[1] * newCTM[3];
newCTM[2] = mat[2] * newCTM[0] + mat[3] * newCTM[2];
newCTM[3] = mat[2] * newCTM[1] + mat[3] * newCTM[3];
newCTM[0] *= state->getFontSize();
newCTM[3] *= state->getFontSize();
newCTM[0] *= state->getHorizScaling();
newCTM[2] *= state->getHorizScaling();
state->textTransformDelta(0, state->getRise(), &riseX, &riseY);
curX = state->getCurX();
curY = state->getCurY();
oldParser = parser;
p = s->getCString();
len = s->getLength();
while (len > 0) {
n = font->getNextChar(p, len, &code,
u, (int)(sizeof(u) / sizeof(Unicode)), &uLen,
&dx, &dy, &originX, &originY);
dx = dx * state->getFontSize() + state->getCharSpace();
if (n == 1 && *p == ' ') {
dx += state->getWordSpace();
}
dx *= state->getHorizScaling();
dy *= state->getFontSize();
state->textTransformDelta(dx, dy, &tdx, &tdy);
state->transform(curX + riseX, curY + riseY, &x, &y);
out->saveState(state);
state = state->save();
state->setCTM(newCTM[0], newCTM[1], newCTM[2], newCTM[3], x, y);
//~ out->updateCTM(???)
if (!out->beginType3Char(state, code, u, uLen)) {
((Gfx8BitFont *)font)->getCharProc(code, &charProc);
if ((resDict = ((Gfx8BitFont *)font)->getResources())) {
pushResources(resDict);
}
if (charProc.isStream()) {
display(&charProc, gFalse);
} else {
error(getPos(), "Missing or bad Type3 CharProc entry");
}
out->endType3Char(state);
if (resDict) {
popResources();
}
charProc.free();
}
state = state->restore();
out->restoreState(state);
// GfxState::restore() does *not* restore the current position,
// so we track it here with (curX, curY)
curX += tdx;
curY += tdy;
state->moveTo(curX, curY);
p += n;
len -= n;
}
parser = oldParser;
} else if (out->useDrawChar()) {
state->textTransformDelta(0, state->getRise(), &riseX, &riseY);
p = s->getCString();
len = s->getLength();
while (len > 0) {
n = font->getNextChar(p, len, &code,
u, (int)(sizeof(u) / sizeof(Unicode)), &uLen,
&dx, &dy, &originX, &originY);
if (wMode) {
dx *= state->getFontSize();
dy = dy * state->getFontSize() + state->getCharSpace();
if (n == 1 && *p == ' ') {
dy += state->getWordSpace();
}
} else {
dx = dx * state->getFontSize() + state->getCharSpace();
if (n == 1 && *p == ' ') {
dx += state->getWordSpace();
}
dx *= state->getHorizScaling();
dy *= state->getFontSize();
}
state->textTransformDelta(dx, dy, &tdx, &tdy);
originX *= state->getFontSize();
originY *= state->getFontSize();
state->textTransformDelta(originX, originY, &tOriginX, &tOriginY);
out->drawChar(state, state->getCurX() + riseX, state->getCurY() + riseY,
tdx, tdy, tOriginX, tOriginY, code, u, uLen);
state->shift(tdx, tdy);
p += n;
len -= n;
}
} else {
dx = dy = 0;
p = s->getCString();
len = s->getLength();
nChars = nSpaces = 0;
while (len > 0) {
n = font->getNextChar(p, len, &code,
u, (int)(sizeof(u) / sizeof(Unicode)), &uLen,
&dx2, &dy2, &originX, &originY);
dx += dx2;
dy += dy2;
if (n == 1 && *p == ' ') {
++nSpaces;
}
++nChars;
p += n;
len -= n;
}
if (wMode) {
dx *= state->getFontSize();
dy = dy * state->getFontSize()
+ nChars * state->getCharSpace()
+ nSpaces * state->getWordSpace();
} else {
dx = dx * state->getFontSize()
+ nChars * state->getCharSpace()
+ nSpaces * state->getWordSpace();
dx *= state->getHorizScaling();
dy *= state->getFontSize();
}
state->textTransformDelta(dx, dy, &tdx, &tdy);
out->drawString(state, s);
state->shift(tdx, tdy);
}
if (out->useDrawChar()) {
out->endString(state);
}
updateLevel += 10 * s->getLength();
}
//------------------------------------------------------------------------
// XObject operators
//------------------------------------------------------------------------
void Gfx::opXObject(Object args[], int numArgs) {
Object obj1, obj2, obj3, refObj;
#if OPI_SUPPORT
Object opiDict;
#endif
if (!res->lookupXObject(args[0].getName(), &obj1)) {
return;
}
if (!obj1.isStream()) {
error(getPos(), "XObject '%s' is wrong type", args[0].getName());
obj1.free();
return;
}
#if OPI_SUPPORT
obj1.streamGetDict()->lookup("OPI", &opiDict);
if (opiDict.isDict()) {
out->opiBegin(state, opiDict.getDict());
}
#endif
obj1.streamGetDict()->lookup("Subtype", &obj2);
if (obj2.isName("Image")) {
res->lookupXObjectNF(args[0].getName(), &refObj);
doImage(&refObj, obj1.getStream(), gFalse);
refObj.free();
} else if (obj2.isName("Form")) {
doForm(&obj1);
} else if (obj2.isName("PS")) {
obj1.streamGetDict()->lookup("Level1", &obj3);
out->psXObject(obj1.getStream(),
obj3.isStream() ? obj3.getStream() : (Stream *)NULL);
} else if (obj2.isName()) {
error(getPos(), "Unknown XObject subtype '%s'", obj2.getName());
} else {
error(getPos(), "XObject subtype is missing or wrong type");
}
obj2.free();
#if OPI_SUPPORT
if (opiDict.isDict()) {
out->opiEnd(state, opiDict.getDict());
}
opiDict.free();
#endif
obj1.free();
}
void Gfx::doImage(Object *ref, Stream *str, GBool inlineImg) {
Dict *dict;
int width, height;
int bits;
GBool mask;
GBool invert;
GfxColorSpace *colorSpace;
GfxImageColorMap *colorMap;
Object maskObj;
GBool haveMask;
int maskColors[2*gfxColorMaxComps];
Object obj1, obj2;
int i;
// get stream dict
dict = str->getDict();
// get size
dict->lookup("Width", &obj1);
if (obj1.isNull()) {
obj1.free();
dict->lookup("W", &obj1);
}
if (!obj1.isInt())
goto err2;
width = obj1.getInt();
obj1.free();
dict->lookup("Height", &obj1);
if (obj1.isNull()) {
obj1.free();
dict->lookup("H", &obj1);
}
if (!obj1.isInt())
goto err2;
height = obj1.getInt();
obj1.free();
// image or mask?
dict->lookup("ImageMask", &obj1);
if (obj1.isNull()) {
obj1.free();
dict->lookup("IM", &obj1);
}
mask = gFalse;
if (obj1.isBool())
mask = obj1.getBool();
else if (!obj1.isNull())
goto err2;
obj1.free();
// bit depth
dict->lookup("BitsPerComponent", &obj1);
if (obj1.isNull()) {
obj1.free();
dict->lookup("BPC", &obj1);
}
if (!obj1.isInt())
goto err2;
bits = obj1.getInt();
obj1.free();
// display a mask
if (mask) {
// check for inverted mask
if (bits != 1)
goto err1;
invert = gFalse;
dict->lookup("Decode", &obj1);
if (obj1.isNull()) {
obj1.free();
dict->lookup("D", &obj1);
}
if (obj1.isArray()) {
obj1.arrayGet(0, &obj2);
if (obj2.isInt() && obj2.getInt() == 1)
invert = gTrue;
obj2.free();
} else if (!obj1.isNull()) {
goto err2;
}
obj1.free();
// draw it
out->drawImageMask(state, ref, str, width, height, invert, inlineImg);
} else {
// get color space and color map
dict->lookup("ColorSpace", &obj1);
if (obj1.isNull()) {
obj1.free();
dict->lookup("CS", &obj1);
}
if (obj1.isName()) {
res->lookupColorSpace(obj1.getName(), &obj2);
if (!obj2.isNull()) {
obj1.free();
obj1 = obj2;
} else {
obj2.free();
}
}
colorSpace = GfxColorSpace::parse(&obj1);
obj1.free();
if (!colorSpace) {
goto err1;
}
dict->lookup("Decode", &obj1);
if (obj1.isNull()) {
obj1.free();
dict->lookup("D", &obj1);
}
colorMap = new GfxImageColorMap(bits, &obj1, colorSpace);
obj1.free();
if (!colorMap->isOk()) {
delete colorMap;
goto err1;
}
// get the mask
haveMask = gFalse;
dict->lookup("Mask", &maskObj);
if (maskObj.isArray()) {
for (i = 0; i < maskObj.arrayGetLength(); ++i) {
maskObj.arrayGet(i, &obj1);
maskColors[i] = obj1.getInt();
obj1.free();
}
haveMask = gTrue;
}
// draw it
out->drawImage(state, ref, str, width, height, colorMap,
haveMask ? maskColors : (int *)NULL, inlineImg);
delete colorMap;
maskObj.free();
}
if ((i = width * height) > 1000) {
i = 1000;
}
updateLevel += i;
return;
err2:
obj1.free();
err1:
error(getPos(), "Bad image parameters");
}
void Gfx::doForm(Object *str) {
Dict *dict;
Object matrixObj, bboxObj;
fouble m[6], bbox[6];
Object resObj;
Dict *resDict;
Object obj1;
int i;
// get stream dict
dict = str->streamGetDict();
// check form type
dict->lookup("FormType", &obj1);
if (!(obj1.isInt() && obj1.getInt() == 1)) {
error(getPos(), "Unknown form type");
}
obj1.free();
// get bounding box
dict->lookup("BBox", &bboxObj);
if (!bboxObj.isArray()) {
matrixObj.free();
bboxObj.free();
error(getPos(), "Bad form bounding box");
return;
}
for (i = 0; i < 4; ++i) {
bboxObj.arrayGet(i, &obj1);
bbox[i] = obj1.getNum();
obj1.free();
}
bboxObj.free();
// get matrix
dict->lookup("Matrix", &matrixObj);
if (matrixObj.isArray()) {
for (i = 0; i < 6; ++i) {
matrixObj.arrayGet(i, &obj1);
m[i] = obj1.getNum();
obj1.free();
}
} else {
m[0] = 1; m[1] = 0;
m[2] = 0; m[3] = 1;
m[4] = 0; m[5] = 0;
}
matrixObj.free();
// get resources
dict->lookup("Resources", &resObj);
resDict = resObj.isDict() ? resObj.getDict() : (Dict *)NULL;
// draw it
doForm1(str, resDict, m, bbox);
resObj.free();
}
void Gfx::doAnnot(Object *str, fouble xMin, fouble yMin,
fouble xMax, fouble yMax) {
Dict *dict, *resDict;
Object matrixObj, bboxObj, resObj;
Object obj1;
fouble m[6], bbox[6], ictm[6];
fouble *ctm;
fouble formX0, formY0, formX1, formY1;
fouble annotX0, annotY0, annotX1, annotY1;
fouble det, x, y, sx, sy;
int i;
// get stream dict
dict = str->streamGetDict();
// get the form bounding box
dict->lookup("BBox", &bboxObj);
if (!bboxObj.isArray()) {
bboxObj.free();
error(getPos(), "Bad form bounding box");
return;
}
for (i = 0; i < 4; ++i) {
bboxObj.arrayGet(i, &obj1);
bbox[i] = obj1.getNum();
obj1.free();
}
bboxObj.free();
// get the form matrix
dict->lookup("Matrix", &matrixObj);
if (matrixObj.isArray()) {
for (i = 0; i < 6; ++i) {
matrixObj.arrayGet(i, &obj1);
m[i] = obj1.getNum();
obj1.free();
}
} else {
m[0] = 1; m[1] = 0;
m[2] = 0; m[3] = 1;
m[4] = 0; m[5] = 0;
}
matrixObj.free();
// transform the form bbox from form space to user space
formX0 = bbox[0] * m[0] + bbox[1] * m[2] + m[4];
formY0 = bbox[0] * m[1] + bbox[1] * m[3] + m[5];
formX1 = bbox[2] * m[0] + bbox[3] * m[2] + m[4];
formY1 = bbox[2] * m[1] + bbox[3] * m[3] + m[5];
// transform the annotation bbox from default user space to user
// space: (bbox * baseMatrix) * iCTM
ctm = state->getCTM();
det = 1 / (ctm[0] * ctm[3] - ctm[1] * ctm[2]);
ictm[0] = ctm[3] * det;
ictm[1] = -ctm[1] * det;
ictm[2] = -ctm[2] * det;
ictm[3] = ctm[0] * det;
ictm[4] = (ctm[2] * ctm[5] - ctm[3] * ctm[4]) * det;
ictm[5] = (ctm[1] * ctm[4] - ctm[0] * ctm[5]) * det;
x = baseMatrix[0] * xMin + baseMatrix[2] * yMin + baseMatrix[4];
y = baseMatrix[1] * xMin + baseMatrix[3] * yMin + baseMatrix[5];
annotX0 = ictm[0] * x + ictm[2] * y + ictm[4];
annotY0 = ictm[1] * x + ictm[3] * y + ictm[5];
x = baseMatrix[0] * xMax + baseMatrix[2] * yMax + baseMatrix[4];
y = baseMatrix[1] * xMax + baseMatrix[3] * yMax + baseMatrix[5];
annotX1 = ictm[0] * x + ictm[2] * y + ictm[4];
annotY1 = ictm[1] * x + ictm[3] * y + ictm[5];
// swap min/max coords
if (formX0 > formX1) {
x = formX0; formX0 = formX1; formX1 = x;
}
if (formY0 > formY1) {
y = formY0; formY0 = formY1; formY1 = y;
}
if (annotX0 > annotX1) {
x = annotX0; annotX0 = annotX1; annotX1 = x;
}
if (annotY0 > annotY1) {
y = annotY0; annotY0 = annotY1; annotY1 = y;
}
// scale the form to fit the annotation bbox
if (formX1 == formX0) {
// this shouldn't happen
sx = 1;
} else {
sx = (annotX1 - annotX0) / (formX1 - formX0);
}
if (formY1 == formY0) {
// this shouldn't happen
sy = 1;
} else {
sy = (annotY1 - annotY0) / (formY1 - formY0);
}
m[0] *= sx;
m[2] *= sx;
m[4] = (m[4] - formX0) * sx + annotX0;
m[1] *= sy;
m[3] *= sy;
m[5] = (m[5] - formY0) * sy + annotY0;
// get resources
dict->lookup("Resources", &resObj);
resDict = resObj.isDict() ? resObj.getDict() : (Dict *)NULL;
// draw it
doForm1(str, resDict, m, bbox);
resObj.free();
bboxObj.free();
}
void Gfx::doForm1(Object *str, Dict *resDict, fouble *matrix, fouble *bbox) {
Parser *oldParser;
fouble oldBaseMatrix[6];
int i;
// push new resources on stack
pushResources(resDict);
// save current graphics state
out->saveState(state);
state = state->save();
// save current parser
oldParser = parser;
// set form transformation matrix
state->concatCTM(matrix[0], matrix[1], matrix[2],
matrix[3], matrix[4], matrix[5]);
out->updateCTM(state, matrix[0], matrix[1], matrix[2],
matrix[3], matrix[4], matrix[5]);
// set new base matrix
for (i = 0; i < 6; ++i) {
oldBaseMatrix[i] = baseMatrix[i];
baseMatrix[i] = state->getCTM()[i];
}
// set form bounding box
state->moveTo(bbox[0], bbox[1]);
state->lineTo(bbox[2], bbox[1]);
state->lineTo(bbox[2], bbox[3]);
state->lineTo(bbox[0], bbox[3]);
state->closePath();
state->clip();
out->clip(state);
state->clearPath();
// draw the form
display(str, gFalse);
// restore base matrix
for (i = 0; i < 6; ++i) {
baseMatrix[i] = oldBaseMatrix[i];
}
// restore parser
parser = oldParser;
// restore graphics state
state = state->restore();
out->restoreState(state);
// pop resource stack
popResources();
return;
}
void Gfx::pushResources(Dict *resDict) {
res = new GfxResources(xref, resDict, res);
}
void Gfx::popResources() {
GfxResources *resPtr;
resPtr = res->getNext();
delete res;
res = resPtr;
}
//------------------------------------------------------------------------
// in-line image operators
diff --git a/noncore/unsupported/qpdf/xpdf/Object.cc b/noncore/unsupported/qpdf/xpdf/Object.cc
index 6d92c6a..77f1317 100644
--- a/noncore/unsupported/qpdf/xpdf/Object.cc
+++ b/noncore/unsupported/qpdf/xpdf/Object.cc
@@ -1,223 +1,223 @@
//========================================================================
//
// Object.cc
//
// Copyright 1996-2002 Glyph & Cog, LLC
//
//========================================================================
#ifdef __GNUC__
#pragma implementation
#endif
#include <aconf.h>
#include <stddef.h>
#include "Object.h"
#include "Array.h"
#include "Dict.h"
#include "Error.h"
#include "Stream.h"
#include "XRef.h"
//------------------------------------------------------------------------
// Object
//------------------------------------------------------------------------
char *objTypeNames[numObjTypes] = {
"boolean",
"integer",
"real",
"string",
"name",
"null",
"array",
"dictionary",
"stream",
"ref",
"cmd",
"error",
"eof",
"none"
};
#ifdef DEBUG_MEM
int Object::numAlloc[numObjTypes] =
{0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0};
#endif
Object *Object::initArray(XRef *xref) {
initObj(objArray);
array = new Array(xref);
return this;
}
Object *Object::initDict(XRef *xref) {
initObj(objDict);
dict = new Dict(xref);
return this;
}
Object *Object::initStream(Stream *streamA) {
initObj(objStream);
stream = streamA;
return this;
}
Object *Object::copy(Object *obj) {
*obj = *this;
switch (type) {
case objString:
obj->string = string->copy();
break;
case objName:
obj->name = copyString(name);
break;
case objArray:
array->incRef();
break;
case objDict:
dict->incRef();
break;
case objStream:
stream->incRef();
break;
case objCmd:
obj->cmd = copyString(cmd);
break;
default:
break;
}
#ifdef DEBUG_MEM
++numAlloc[type];
#endif
return obj;
}
Object *Object::fetch(XRef *xref, Object *obj) {
return (type == objRef && xref) ?
xref->fetch(ref.num, ref.gen, obj) : copy(obj);
}
void Object::free() {
switch (type) {
case objString:
delete string;
break;
case objName:
gfree(name);
break;
case objArray:
if (!array->decRef()) {
delete array;
}
break;
case objDict:
if (!dict->decRef()) {
delete dict;
}
break;
case objStream:
if (!stream->decRef()) {
delete stream;
}
break;
case objCmd:
gfree(cmd);
break;
default:
break;
}
#ifdef DEBUG_MEM
--numAlloc[type];
#endif
type = objNone;
}
char *Object::getTypeName() {
return objTypeNames[type];
}
void Object::print(FILE *f) {
Object obj;
int i;
switch (type) {
case objBool:
fprintf(f, "%s", booln ? "true" : "false");
break;
case objInt:
fprintf(f, "%d", intg);
break;
case objReal:
- fprintf(f, "%g", real);
+ fprintf(f, "%g", static_cast<double>(real));
break;
case objString:
fprintf(f, "(");
fwrite(string->getCString(), 1, string->getLength(), stdout);
fprintf(f, ")");
break;
case objName:
fprintf(f, "/%s", name);
break;
case objNull:
fprintf(f, "null");
break;
case objArray:
fprintf(f, "[");
for (i = 0; i < arrayGetLength(); ++i) {
if (i > 0)
fprintf(f, " ");
arrayGetNF(i, &obj);
obj.print(f);
obj.free();
}
fprintf(f, "]");
break;
case objDict:
fprintf(f, "<<");
for (i = 0; i < dictGetLength(); ++i) {
fprintf(f, " /%s ", dictGetKey(i));
dictGetValNF(i, &obj);
obj.print(f);
obj.free();
}
fprintf(f, " >>");
break;
case objStream:
fprintf(f, "<stream>");
break;
case objRef:
fprintf(f, "%d %d R", ref.num, ref.gen);
break;
case objCmd:
fprintf(f, "%s", cmd);
break;
case objError:
fprintf(f, "<error>");
break;
case objEOF:
fprintf(f, "<EOF>");
break;
case objNone:
fprintf(f, "<none>");
break;
}
}
void Object::memCheck(FILE *f) {
#ifdef DEBUG_MEM
int i;
int t;
t = 0;
for (i = 0; i < numObjTypes; ++i)
t += numAlloc[i];
if (t > 0) {
fprintf(f, "Allocated objects:\n");
for (i = 0; i < numObjTypes; ++i) {
if (numAlloc[i] > 0)
fprintf(f, " %-20s: %6d\n", objTypeNames[i], numAlloc[i]);
}
}
#endif
}
diff --git a/noncore/unsupported/qpdf/xpdf/Page.cc b/noncore/unsupported/qpdf/xpdf/Page.cc
index 9cc08c4..aead7da 100644
--- a/noncore/unsupported/qpdf/xpdf/Page.cc
+++ b/noncore/unsupported/qpdf/xpdf/Page.cc
@@ -1,281 +1,281 @@
//========================================================================
//
// Page.cc
//
// Copyright 1996-2002 Glyph & Cog, LLC
//
//========================================================================
#ifdef __GNUC__
#pragma implementation
#endif
#include <aconf.h>
#include <stddef.h>
#include "Object.h"
#include "Array.h"
#include "Dict.h"
#include "XRef.h"
#include "Link.h"
#include "OutputDev.h"
#ifndef PDF_PARSER_ONLY
#include "Gfx.h"
#include "Annot.h"
#endif
#include "Error.h"
#include "Page.h"
//------------------------------------------------------------------------
// PageAttrs
//------------------------------------------------------------------------
PageAttrs::PageAttrs(PageAttrs *attrs, Dict *dict) {
Object obj1;
fouble w, h;
// get old/default values
if (attrs) {
mediaBox = attrs->mediaBox;
cropBox = attrs->cropBox;
haveCropBox = attrs->haveCropBox;
rotate = attrs->rotate;
attrs->resources.copy(&resources);
} else {
// set default MediaBox to 8.5" x 11" -- this shouldn't be necessary
// but some (non-compliant) PDF files don't specify a MediaBox
mediaBox.x1 = 0;
mediaBox.y1 = 0;
mediaBox.x2 = 612;
mediaBox.y2 = 792;
cropBox.x1 = cropBox.y1 = cropBox.x2 = cropBox.y2 = 0;
haveCropBox = gFalse;
rotate = 0;
resources.initNull();
}
// media box
readBox(dict, "MediaBox", &mediaBox);
// crop box
cropBox = mediaBox;
haveCropBox = readBox(dict, "CropBox", &cropBox);
// if the MediaBox is excessively larger than the CropBox,
// just use the CropBox
limitToCropBox = gFalse;
if (haveCropBox) {
w = 0.25 * (cropBox.x2 - cropBox.x1);
h = 0.25 * (cropBox.y2 - cropBox.y1);
if ((cropBox.x1 - mediaBox.x1) + (mediaBox.x2 - cropBox.x2) > w ||
(cropBox.y1 - mediaBox.y1) + (mediaBox.y2 - cropBox.y2) > h) {
limitToCropBox = gTrue;
}
}
// other boxes
bleedBox = cropBox;
readBox(dict, "BleedBox", &bleedBox);
trimBox = cropBox;
readBox(dict, "TrimBox", &trimBox);
artBox = cropBox;
readBox(dict, "ArtBox", &artBox);
// rotate
dict->lookup("Rotate", &obj1);
if (obj1.isInt()) {
rotate = obj1.getInt();
}
obj1.free();
while (rotate < 0) {
rotate += 360;
}
while (rotate >= 360) {
rotate -= 360;
}
// misc attributes
dict->lookup("LastModified", &lastModified);
dict->lookup("BoxColorInfo", &boxColorInfo);
dict->lookup("Group", &group);
dict->lookup("Metadata", &metadata);
dict->lookup("PieceInfo", &pieceInfo);
dict->lookup("SeparationInfo", &separationInfo);
// resource dictionary
dict->lookup("Resources", &obj1);
if (obj1.isDict()) {
resources.free();
obj1.copy(&resources);
}
obj1.free();
}
PageAttrs::~PageAttrs() {
lastModified.free();
boxColorInfo.free();
group.free();
metadata.free();
pieceInfo.free();
separationInfo.free();
resources.free();
}
GBool PageAttrs::readBox(Dict *dict, char *key, PDFRectangle *box) {
PDFRectangle tmp;
Object obj1, obj2;
GBool ok;
dict->lookup(key, &obj1);
if (obj1.isArray() && obj1.arrayGetLength() == 4) {
ok = gTrue;
obj1.arrayGet(0, &obj2);
if (obj2.isNum()) {
tmp.x1 = obj2.getNum();
} else {
ok = gFalse;
}
obj2.free();
obj1.arrayGet(1, &obj2);
if (obj2.isNum()) {
tmp.y1 = obj2.getNum();
} else {
ok = gFalse;
}
obj2.free();
obj1.arrayGet(2, &obj2);
if (obj2.isNum()) {
tmp.x2 = obj2.getNum();
} else {
ok = gFalse;
}
obj2.free();
obj1.arrayGet(3, &obj2);
if (obj2.isNum()) {
tmp.y2 = obj2.getNum();
} else {
ok = gFalse;
}
obj2.free();
if (ok) {
*box = tmp;
}
} else {
ok = gFalse;
}
obj1.free();
return ok;
}
//------------------------------------------------------------------------
// Page
//------------------------------------------------------------------------
Page::Page(XRef *xrefA, int numA, Dict *pageDict, PageAttrs *attrsA,
GBool printCommandsA) {
ok = gTrue;
xref = xrefA;
num = numA;
printCommands = printCommandsA;
// get attributes
attrs = attrsA;
// annotations
pageDict->lookupNF("Annots", &annots);
if (!(annots.isRef() || annots.isArray() || annots.isNull())) {
error(-1, "Page annotations object (page %d) is wrong type (%s)",
num, annots.getTypeName());
annots.free();
goto err2;
}
// contents
pageDict->lookupNF("Contents", &contents);
if (!(contents.isRef() || contents.isArray() ||
contents.isNull())) {
error(-1, "Page contents object (page %d) is wrong type (%s)",
num, contents.getTypeName());
contents.free();
goto err1;
}
return;
err2:
annots.initNull();
err1:
contents.initNull();
ok = gFalse;
}
Page::~Page() {
delete attrs;
annots.free();
contents.free();
}
void Page::display(OutputDev *out, fouble dpi, int rotate,
Links *links, Catalog *catalog) {
#ifndef PDF_PARSER_ONLY
PDFRectangle *box, *cropBox;
Gfx *gfx;
Object obj;
Link *link;
int i;
Annots *annotList;
box = getBox();
cropBox = getCropBox();
if (printCommands) {
printf("***** MediaBox = ll:%g,%g ur:%g,%g\n",
- box->x1, box->y1, box->x2, box->y2);
+ static_cast<double>(box->x1), static_cast<double>(box->y1), static_cast<double>(box->x2), static_cast<double>(box->y2));
if (isCropped()) {
printf("***** CropBox = ll:%g,%g ur:%g,%g\n",
- cropBox->x1, cropBox->y1, cropBox->x2, cropBox->y2);
+ static_cast<double>(cropBox->x1), static_cast<double>(cropBox->y1), static_cast<double>(cropBox->x2), static_cast<double>(cropBox->y2));
}
printf("***** Rotate = %d\n", attrs->getRotate());
}
rotate += getRotate();
if (rotate >= 360) {
rotate -= 360;
} else if (rotate < 0) {
rotate += 360;
}
gfx = new Gfx(xref, out, num, attrs->getResourceDict(),
dpi, box, isCropped(), cropBox, rotate, printCommands);
contents.fetch(xref, &obj);
if (!obj.isNull()) {
gfx->display(&obj);
}
obj.free();
// draw links
if (links) {
for (i = 0; i < links->getNumLinks(); ++i) {
link = links->getLink(i);
out->drawLink(link, catalog);
}
out->dump();
}
// draw non-link annotations
//~ need to reset CTM ???
annotList = new Annots(xref, annots.fetch(xref, &obj));
obj.free();
if (annotList->getNumAnnots() > 0) {
if (printCommands) {
printf("***** Annotations\n");
}
for (i = 0; i < annotList->getNumAnnots(); ++i) {
annotList->getAnnot(i)->draw(gfx);
}
out->dump();
}
delete annotList;
delete gfx;
#endif
}