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From: <md...@us...> - 2009-12-03 19:21:36
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Revision: 8003
http://matplotlib.svn.sourceforge.net/matplotlib/?rev=8003&view=rev
Author: mdboom
Date: 2009-12-03 19:21:28 +0000 (Thu, 03 Dec 2009)
Log Message:
-----------
[2896454] subscripts and \mathrm don't get along, aka the long-standing wiggle baseline problem
Modified Paths:
--------------
branches/v0_99_maint/src/ft2font.cpp
Modified: branches/v0_99_maint/src/ft2font.cpp
===================================================================
--- branches/v0_99_maint/src/ft2font.cpp 2009-12-03 19:02:07 UTC (rev 8002)
+++ branches/v0_99_maint/src/ft2font.cpp 2009-12-03 19:21:28 UTC (rev 8003)
@@ -94,8 +94,8 @@
void
FT2Image::draw_bitmap( FT_Bitmap* bitmap,
- FT_Int x,
- FT_Int y) {
+ FT_Int x,
+ FT_Int y) {
_VERBOSE("FT2Image::draw_bitmap");
FT_Int image_width = (FT_Int)_width;
FT_Int image_height = (FT_Int)_height;
@@ -126,9 +126,9 @@
for ( size_t i = 0; i< _height; i++) {
for ( size_t j = 0; j < _width; ++j) {
if (_buffer[j + i*_width])
- fputc('#', fh);
+ fputc('#', fh);
else
- fputc(' ', fh);
+ fputc(' ', fh);
}
fputc('\n', fh);
}
@@ -156,7 +156,7 @@
void
FT2Image::draw_rect(unsigned long x0, unsigned long y0,
- unsigned long x1, unsigned long y1) {
+ unsigned long x1, unsigned long y1) {
if ( x0>_width || x1>_width ||
y0>_height || y1>_height )
throw Py::ValueError("Rect coords outside image bounds");
@@ -199,7 +199,7 @@
}
void FT2Image::draw_rect_filled(unsigned long x0, unsigned long y0,
- unsigned long x1, unsigned long y1) {
+ unsigned long x1, unsigned long y1) {
x0 = std::min(x0, _width);
y0 = std::min(y0, _height);
x1 = std::min(x1, _width);
@@ -249,7 +249,7 @@
return Py::asObject
(PyString_FromStringAndSize((const char *)_buffer,
- _width*_height)
+ _width*_height)
);
}
@@ -276,9 +276,9 @@
PyArrayObject *A = (PyArrayObject *) PyArray_SimpleNew(2, dimensions, PyArray_UBYTE);
- unsigned char *src = _buffer;
- unsigned char *src_end = src + (dimensions[0] * dimensions[1]);
- unsigned char *dst = (unsigned char *)A->data;
+ unsigned char *src = _buffer;
+ unsigned char *src_end = src + (dimensions[0] * dimensions[1]);
+ unsigned char *dst = (unsigned char *)A->data;
while (src != src_end) {
*dst++ = *src++;
@@ -297,9 +297,9 @@
} else {
_rgbCopy->resize(_width * 3, _height);
}
- unsigned char *src = _buffer;
- unsigned char *src_end = src + (_width * _height);
- unsigned char *dst = _rgbCopy->_buffer;
+ unsigned char *src = _buffer;
+ unsigned char *src_end = src + (_width * _height);
+ unsigned char *dst = _rgbCopy->_buffer;
unsigned char tmp;
while (src != src_end) {
@@ -335,9 +335,9 @@
} else {
_rgbaCopy->resize(_width * 4, _height);
}
- unsigned char *src = _buffer;
- unsigned char *src_end = src + (_width * _height);
- unsigned char *dst = _rgbaCopy->_buffer;
+ unsigned char *src = _buffer;
+ unsigned char *src_end = src + (_width * _height);
+ unsigned char *dst = _rgbaCopy->_buffer;
while (src != src_end) {
// We know the array has already been zero'ed out in
@@ -480,27 +480,27 @@
// check first point to determine origin
if( tag == FT_CURVE_TAG_CONIC)
- {
- // first point is conic control. Yes, this happens.
- if(FT_CURVE_TAG(outline.tags[last]) == FT_CURVE_TAG_ON)
- {
- // start at last point if it is on the curve
- v_start = v_last;
- limit--;
- }
- else
- {
- // if both first and last points are conic,
- // start at their middle and record its position
- // for closure
- v_start.x = (v_start.x + v_last.x) / 2;
- v_start.y = (v_start.y + v_last.y) / 2;
+ {
+ // first point is conic control. Yes, this happens.
+ if(FT_CURVE_TAG(outline.tags[last]) == FT_CURVE_TAG_ON)
+ {
+ // start at last point if it is on the curve
+ v_start = v_last;
+ limit--;
+ }
+ else
+ {
+ // if both first and last points are conic,
+ // start at their middle and record its position
+ // for closure
+ v_start.x = (v_start.x + v_last.x) / 2;
+ v_start.y = (v_start.y + v_last.y) / 2;
- v_last = v_start;
- }
- point--;
- tags--;
- }
+ v_last = v_start;
+ }
+ point--;
+ tags--;
+ }
double x = conv(v_start.x);
double y = flip_y ? -conv(v_start.y) : conv(v_start.y);
@@ -515,157 +515,157 @@
closepoly[1] = Py::Int(0);
while(point < limit)
- {
- point++;
- tags++;
+ {
+ point++;
+ tags++;
- tag = FT_CURVE_TAG(tags[0]);
- switch(tag)
- {
- case FT_CURVE_TAG_ON: // emit a single line_to
- {
- double x = conv(point->x);
- double y = flip_y ? -conv(point->y) : conv(point->y);
- Py::Tuple tup(3);
- tup[0] = Py::Int(LINETO);
- tup[1] = Py::Float(x);
- tup[2] = Py::Float(y);
- path.append(tup);
+ tag = FT_CURVE_TAG(tags[0]);
+ switch(tag)
+ {
+ case FT_CURVE_TAG_ON: // emit a single line_to
+ {
+ double x = conv(point->x);
+ double y = flip_y ? -conv(point->y) : conv(point->y);
+ Py::Tuple tup(3);
+ tup[0] = Py::Int(LINETO);
+ tup[1] = Py::Float(x);
+ tup[2] = Py::Float(y);
+ path.append(tup);
- continue;
- }
+ continue;
+ }
- case FT_CURVE_TAG_CONIC: // consume conic arcs
- {
- v_control.x = point->x;
- v_control.y = point->y;
+ case FT_CURVE_TAG_CONIC: // consume conic arcs
+ {
+ v_control.x = point->x;
+ v_control.y = point->y;
- Do_Conic:
- if(point < limit)
- {
- FT_Vector vec;
- FT_Vector v_middle;
+ Do_Conic:
+ if(point < limit)
+ {
+ FT_Vector vec;
+ FT_Vector v_middle;
- point++;
- tags++;
- tag = FT_CURVE_TAG(tags[0]);
+ point++;
+ tags++;
+ tag = FT_CURVE_TAG(tags[0]);
- vec.x = point->x;
- vec.y = point->y;
+ vec.x = point->x;
+ vec.y = point->y;
- if(tag == FT_CURVE_TAG_ON)
- {
- double xctl = conv(v_control.x);
- double yctl = flip_y ? -conv(v_control.y) : conv(v_control.y);
- double xto = conv(vec.x);
- double yto = flip_y ? -conv(vec.y) : conv(vec.y);
- Py::Tuple tup(5);
- tup[0] = Py::Int(CURVE3);
- tup[1] = Py::Float(xctl);
- tup[2] = Py::Float(yctl);
- tup[3] = Py::Float(xto);
- tup[4] = Py::Float(yto);
- path.append(tup);
- continue;
- }
+ if(tag == FT_CURVE_TAG_ON)
+ {
+ double xctl = conv(v_control.x);
+ double yctl = flip_y ? -conv(v_control.y) : conv(v_control.y);
+ double xto = conv(vec.x);
+ double yto = flip_y ? -conv(vec.y) : conv(vec.y);
+ Py::Tuple tup(5);
+ tup[0] = Py::Int(CURVE3);
+ tup[1] = Py::Float(xctl);
+ tup[2] = Py::Float(yctl);
+ tup[3] = Py::Float(xto);
+ tup[4] = Py::Float(yto);
+ path.append(tup);
+ continue;
+ }
- if(tag != FT_CURVE_TAG_CONIC) return Py::Object();
+ if(tag != FT_CURVE_TAG_CONIC) return Py::Object();
- v_middle.x = (v_control.x + vec.x) / 2;
- v_middle.y = (v_control.y + vec.y) / 2;
+ v_middle.x = (v_control.x + vec.x) / 2;
+ v_middle.y = (v_control.y + vec.y) / 2;
- double xctl = conv(v_control.x);
- double yctl = flip_y ? -conv(v_control.y) : conv(v_control.y);
- double xto = conv(v_middle.x);
- double yto = flip_y ? -conv(v_middle.y) : conv(v_middle.y);
- Py::Tuple tup(5);
- tup[0] = Py::Int(CURVE3);
- tup[1] = Py::Float(xctl);
- tup[2] = Py::Float(yctl);
- tup[3] = Py::Float(xto);
- tup[4] = Py::Float(yto);
- path.append(tup);
+ double xctl = conv(v_control.x);
+ double yctl = flip_y ? -conv(v_control.y) : conv(v_control.y);
+ double xto = conv(v_middle.x);
+ double yto = flip_y ? -conv(v_middle.y) : conv(v_middle.y);
+ Py::Tuple tup(5);
+ tup[0] = Py::Int(CURVE3);
+ tup[1] = Py::Float(xctl);
+ tup[2] = Py::Float(yctl);
+ tup[3] = Py::Float(xto);
+ tup[4] = Py::Float(yto);
+ path.append(tup);
- v_control = vec;
- goto Do_Conic;
- }
- double xctl = conv(v_control.x);
- double yctl = flip_y ? -conv(v_control.y) : conv(v_control.y);
- double xto = conv(v_start.x);
- double yto = flip_y ? -conv(v_start.y) : conv(v_start.y);
- Py::Tuple tup(5);
- tup[0] = Py::Int(CURVE3);
- tup[1] = Py::Float(xctl);
- tup[2] = Py::Float(yctl);
- tup[3] = Py::Float(xto);
- tup[4] = Py::Float(yto);
- path.append(tup);
- goto Close;
- }
+ v_control = vec;
+ goto Do_Conic;
+ }
+ double xctl = conv(v_control.x);
+ double yctl = flip_y ? -conv(v_control.y) : conv(v_control.y);
+ double xto = conv(v_start.x);
+ double yto = flip_y ? -conv(v_start.y) : conv(v_start.y);
+ Py::Tuple tup(5);
+ tup[0] = Py::Int(CURVE3);
+ tup[1] = Py::Float(xctl);
+ tup[2] = Py::Float(yctl);
+ tup[3] = Py::Float(xto);
+ tup[4] = Py::Float(yto);
+ path.append(tup);
+ goto Close;
+ }
- default: // FT_CURVE_TAG_CUBIC
- {
- FT_Vector vec1, vec2;
+ default: // FT_CURVE_TAG_CUBIC
+ {
+ FT_Vector vec1, vec2;
- if(point + 1 > limit || FT_CURVE_TAG(tags[1]) != FT_CURVE_TAG_CUBIC)
- {
- return Py::Object();
- }
+ if(point + 1 > limit || FT_CURVE_TAG(tags[1]) != FT_CURVE_TAG_CUBIC)
+ {
+ return Py::Object();
+ }
- vec1.x = point[0].x;
- vec1.y = point[0].y;
- vec2.x = point[1].x;
- vec2.y = point[1].y;
+ vec1.x = point[0].x;
+ vec1.y = point[0].y;
+ vec2.x = point[1].x;
+ vec2.y = point[1].y;
- point += 2;
- tags += 2;
+ point += 2;
+ tags += 2;
- if(point <= limit)
- {
- FT_Vector vec;
+ if(point <= limit)
+ {
+ FT_Vector vec;
- vec.x = point->x;
- vec.y = point->y;
+ vec.x = point->x;
+ vec.y = point->y;
- double xctl1 = conv(vec1.x);
- double yctl1 = flip_y ? -conv(vec1.y) : conv(vec1.y);
- double xctl2 = conv(vec2.x);
- double yctl2 = flip_y ? -conv(vec2.y) : conv(vec2.y);
- double xto = conv(vec.x);
- double yto = flip_y ? -conv(vec.y) : conv(vec.y);
- Py::Tuple tup(7);
- tup[0] = Py::Int(CURVE4);
- tup[1] = Py::Float(xctl1);
- tup[2] = Py::Float(yctl1);
- tup[3] = Py::Float(xctl2);
- tup[4] = Py::Float(yctl2);
- tup[5] = Py::Float(xto);
- tup[6] = Py::Float(yto);
- path.append(tup);
+ double xctl1 = conv(vec1.x);
+ double yctl1 = flip_y ? -conv(vec1.y) : conv(vec1.y);
+ double xctl2 = conv(vec2.x);
+ double yctl2 = flip_y ? -conv(vec2.y) : conv(vec2.y);
+ double xto = conv(vec.x);
+ double yto = flip_y ? -conv(vec.y) : conv(vec.y);
+ Py::Tuple tup(7);
+ tup[0] = Py::Int(CURVE4);
+ tup[1] = Py::Float(xctl1);
+ tup[2] = Py::Float(yctl1);
+ tup[3] = Py::Float(xctl2);
+ tup[4] = Py::Float(yctl2);
+ tup[5] = Py::Float(xto);
+ tup[6] = Py::Float(yto);
+ path.append(tup);
- continue;
- }
+ continue;
+ }
- double xctl1 = conv(vec1.x);
- double yctl1 = flip_y ? -conv(vec1.y) : conv(vec1.y);
- double xctl2 = conv(vec2.x);
- double yctl2 = flip_y ? -conv(vec2.y) : conv(vec2.y);
- double xto = conv(v_start.x);
- double yto = flip_y ? -conv(v_start.y) : conv(v_start.y);
- Py::Tuple tup(7);
- tup[0] = Py::Int(CURVE4);
- tup[1] = Py::Float(xctl1);
- tup[2] = Py::Float(yctl1);
- tup[3] = Py::Float(xctl2);
- tup[4] = Py::Float(yctl2);
- tup[5] = Py::Float(xto);
- tup[6] = Py::Float(yto);
- path.append(tup);
+ double xctl1 = conv(vec1.x);
+ double yctl1 = flip_y ? -conv(vec1.y) : conv(vec1.y);
+ double xctl2 = conv(vec2.x);
+ double yctl2 = flip_y ? -conv(vec2.y) : conv(vec2.y);
+ double xto = conv(v_start.x);
+ double yto = flip_y ? -conv(v_start.y) : conv(v_start.y);
+ Py::Tuple tup(7);
+ tup[0] = Py::Int(CURVE4);
+ tup[1] = Py::Float(xctl1);
+ tup[2] = Py::Float(yctl1);
+ tup[3] = Py::Float(xctl2);
+ tup[4] = Py::Float(yctl2);
+ tup[5] = Py::Float(xto);
+ tup[6] = Py::Float(yto);
+ path.append(tup);
- goto Close;
- }
- }
- }
+ goto Close;
+ }
+ }
+ }
path.append(closepoly);
@@ -850,14 +850,14 @@
#ifdef VERTICAL_HINTING
int error = FT_Set_Char_Size( face, (long)(ptsize * 64), 0,
- (unsigned int)dpi * HORIZ_HINTING,
- (unsigned int)dpi );
+ (unsigned int)dpi * HORIZ_HINTING,
+ (unsigned int)dpi );
static FT_Matrix transform = { 65536 / HORIZ_HINTING, 0, 0, 65536 };
FT_Set_Transform( face, &transform, 0 );
#else
int error = FT_Set_Char_Size( face, (long)(ptsize * 64), 0,
- (unsigned int)dpi,
- (unsigned int)dpi );
+ (unsigned int)dpi,
+ (unsigned int)dpi );
#endif
if (error)
throw Py::RuntimeError("Could not set the fontsize");
@@ -1009,7 +1009,7 @@
if ( use_kerning && previous && glyph_index ) {
FT_Vector delta;
FT_Get_Kerning( face, previous, glyph_index,
- FT_KERNING_DEFAULT, &delta );
+ FT_KERNING_DEFAULT, &delta );
pen.x += delta.x / HORIZ_HINTING;
}
error = FT_Load_Glyph( face, glyph_index, flags );
@@ -1167,12 +1167,12 @@
FT_Glyph_Get_CBox(glyphs[n], ft_glyph_bbox_pixels, &bbox);
error = FT_Glyph_To_Bitmap(&glyphs[n],
- ft_render_mode_normal,
- 0,
- 1
- );
+ ft_render_mode_normal,
+ 0,
+ 1
+ );
if (error)
- throw Py::RuntimeError("Could not convert glyph to bitmap");
+ throw Py::RuntimeError("Could not convert glyph to bitmap");
FT_BitmapGlyph bitmap = (FT_BitmapGlyph)glyphs[n];
// now, draw to our target surface (convert position)
@@ -1209,12 +1209,12 @@
FT_Glyph_Get_CBox(glyphs[n], ft_glyph_bbox_pixels, &bbox);
error = FT_Glyph_To_Bitmap(&glyphs[n],
- ft_render_mode_normal,
- 0,
- 1
- );
+ ft_render_mode_normal,
+ 0,
+ 1
+ );
if (error)
- throw Py::RuntimeError("Could not convert glyph to bitmap");
+ throw Py::RuntimeError("Could not convert glyph to bitmap");
FT_BitmapGlyph bitmap = (FT_BitmapGlyph)glyphs[n];
@@ -1260,8 +1260,8 @@
long x = (long)xd;
long y = (long)yd;
FT_Vector sub_offset;
- sub_offset.x = int((xd - (double)x) * 64.0);
- sub_offset.y = int((yd - (double)y) * 64.0);
+ sub_offset.x = int(-(xd - (double)x) * 64.0);
+ sub_offset.y = int(-(yd - (double)y) * 64.0);
if (!Glyph::check(args[3].ptr()))
throw Py::TypeError("Usage: draw_glyph_to_bitmap(bitmap, x,y,glyph)");
@@ -1271,10 +1271,10 @@
throw Py::ValueError("glyph num is out of range");
error = FT_Glyph_To_Bitmap(&glyphs[glyph->glyphInd],
- ft_render_mode_normal,
- &sub_offset, //no additional translation
- 1 //destroy image;
- );
+ ft_render_mode_normal,
+ &sub_offset, //no additional translation
+ 1 //destroy image;
+ );
if (error)
throw Py::RuntimeError("Could not convert glyph to bitmap");
@@ -1407,7 +1407,7 @@
key[2] = Py::Int(sfnt.language_id);
key[3] = Py::Int(sfnt.name_id);
names[key] = Py::String((char *) sfnt.string,
- (int) sfnt.string_len);
+ (int) sfnt.string_len);
}
return names;
}
@@ -1425,7 +1425,7 @@
std::string glyphname = Py::String(args[0]);
return Py::Long((long)
- FT_Get_Name_Index(face, (FT_String *) glyphname.c_str()));
+ FT_Get_Name_Index(face, (FT_String *) glyphname.c_str()));
}
char FT2Font::get_ps_font_info__doc__[] =
@@ -1473,7 +1473,7 @@
int tag;
const char *tags[] = {"head", "maxp", "OS/2", "hhea",
- "vhea", "post", "pclt", NULL};
+ "vhea", "post", "pclt", NULL};
for (tag=0; tags[tag] != NULL; tag++)
if (strcmp(tagname.c_str(), tags[tag]) == 0)
@@ -1488,140 +1488,140 @@
case 0:
{
char head_dict[] = "{s:(h,h), s:(h,h), s:l, s:l, s:i, s:i,"
- "s:(l,l), s:(l,l), s:h, s:h, s:h, s:h, s:i, s:i, s:h, s:h, s:h}";
+ "s:(l,l), s:(l,l), s:h, s:h, s:h, s:h, s:i, s:i, s:h, s:h, s:h}";
TT_Header *t = (TT_Header *)table;
return Py::asObject(Py_BuildValue(head_dict,
- "version",
- FIXED_MAJOR(t->Table_Version),
- FIXED_MINOR(t->Table_Version),
- "fontRevision",
- FIXED_MAJOR(t->Font_Revision),
- FIXED_MINOR(t->Font_Revision),
- "checkSumAdjustment", t->CheckSum_Adjust,
- "magicNumber" , t->Magic_Number,
- "flags", (unsigned)t->Flags,
- "unitsPerEm", (unsigned)t->Units_Per_EM,
- "created", t->Created[0], t->Created[1],
- "modified", t->Modified[0],t->Modified[1],
- "xMin", t->xMin,
- "yMin", t->yMin,
- "xMax", t->xMax,
- "yMax", t->yMax,
- "macStyle", (unsigned)t->Mac_Style,
- "lowestRecPPEM", (unsigned)t->Lowest_Rec_PPEM,
- "fontDirectionHint", t->Font_Direction,
- "indexToLocFormat", t->Index_To_Loc_Format,
- "glyphDataFormat", t->Glyph_Data_Format));
+ "version",
+ FIXED_MAJOR(t->Table_Version),
+ FIXED_MINOR(t->Table_Version),
+ "fontRevision",
+ FIXED_MAJOR(t->Font_Revision),
+ FIXED_MINOR(t->Font_Revision),
+ "checkSumAdjustment", t->CheckSum_Adjust,
+ "magicNumber" , t->Magic_Number,
+ "flags", (unsigned)t->Flags,
+ "unitsPerEm", (unsigned)t->Units_Per_EM,
+ "created", t->Created[0], t->Created[1],
+ "modified", t->Modified[0],t->Modified[1],
+ "xMin", t->xMin,
+ "yMin", t->yMin,
+ "xMax", t->xMax,
+ "yMax", t->yMax,
+ "macStyle", (unsigned)t->Mac_Style,
+ "lowestRecPPEM", (unsigned)t->Lowest_Rec_PPEM,
+ "fontDirectionHint", t->Font_Direction,
+ "indexToLocFormat", t->Index_To_Loc_Format,
+ "glyphDataFormat", t->Glyph_Data_Format));
}
case 1:
{
char maxp_dict[] = "{s:(h,h), s:i, s:i, s:i, s:i, s:i, s:i,"
- "s:i, s:i, s:i, s:i, s:i, s:i, s:i, s:i}";
+ "s:i, s:i, s:i, s:i, s:i, s:i, s:i, s:i}";
TT_MaxProfile *t = (TT_MaxProfile *)table;
return Py::asObject(Py_BuildValue(maxp_dict,
- "version",
- FIXED_MAJOR(t->version),
- FIXED_MINOR(t->version),
- "numGlyphs", (unsigned)t->numGlyphs,
- "maxPoints", (unsigned)t->maxPoints,
- "maxContours", (unsigned)t->maxContours,
- "maxComponentPoints",
- (unsigned)t->maxCompositePoints,
- "maxComponentContours",
- (unsigned)t->maxCompositeContours,
- "maxZones", (unsigned)t->maxZones,
- "maxTwilightPoints",(unsigned)t->maxTwilightPoints,
- "maxStorage", (unsigned)t->maxStorage,
- "maxFunctionDefs",(unsigned)t->maxFunctionDefs,
- "maxInstructionDefs",
- (unsigned)t->maxInstructionDefs,
- "maxStackElements",(unsigned)t->maxStackElements,
- "maxSizeOfInstructions",
- (unsigned)t->maxSizeOfInstructions,
- "maxComponentElements",
- (unsigned)t->maxComponentElements,
- "maxComponentDepth",
- (unsigned)t->maxComponentDepth));
+ "version",
+ FIXED_MAJOR(t->version),
+ FIXED_MINOR(t->version),
+ "numGlyphs", (unsigned)t->numGlyphs,
+ "maxPoints", (unsigned)t->maxPoints,
+ "maxContours", (unsigned)t->maxContours,
+ "maxComponentPoints",
+ (unsigned)t->maxCompositePoints,
+ "maxComponentContours",
+ (unsigned)t->maxCompositeContours,
+ "maxZones", (unsigned)t->maxZones,
+ "maxTwilightPoints",(unsigned)t->maxTwilightPoints,
+ "maxStorage", (unsigned)t->maxStorage,
+ "maxFunctionDefs",(unsigned)t->maxFunctionDefs,
+ "maxInstructionDefs",
+ (unsigned)t->maxInstructionDefs,
+ "maxStackElements",(unsigned)t->maxStackElements,
+ "maxSizeOfInstructions",
+ (unsigned)t->maxSizeOfInstructions,
+ "maxComponentElements",
+ (unsigned)t->maxComponentElements,
+ "maxComponentDepth",
+ (unsigned)t->maxComponentDepth));
}
case 2:
{
char os_2_dict[] = "{s:h, s:h, s:h, s:h, s:h, s:h, s:h, s:h,"
- "s:h, s:h, s:h, s:h, s:h, s:h, s:h, s:h, s:s#, s:(llll),"
- "s:s#, s:h, s:h, s:h}";
+ "s:h, s:h, s:h, s:h, s:h, s:h, s:h, s:h, s:s#, s:(llll),"
+ "s:s#, s:h, s:h, s:h}";
TT_OS2 *t = (TT_OS2 *)table;
return Py::asObject(Py_BuildValue(os_2_dict,
- "version", (unsigned)t->version,
- "xAvgCharWidth", t->xAvgCharWidth,
- "usWeightClass", (unsigned)t->usWeightClass,
- "usWidthClass", (unsigned)t->usWidthClass,
- "fsType", t->fsType,
- "ySubscriptXSize", t->ySubscriptXSize,
- "ySubscriptYSize", t->ySubscriptYSize,
- "ySubscriptXOffset", t->ySubscriptXOffset,
- "ySubscriptYOffset", t->ySubscriptYOffset,
- "ySuperscriptXSize", t->ySuperscriptXSize,
- "ySuperscriptYSize", t->ySuperscriptYSize,
- "ySuperscriptXOffset", t->ySuperscriptXOffset,
- "ySuperscriptYOffset", t->ySuperscriptYOffset,
- "yStrikeoutSize", t->yStrikeoutSize,
- "yStrikeoutPosition", t->yStrikeoutPosition,
- "sFamilyClass", t->sFamilyClass,
- "panose", t->panose, 10,
- "ulCharRange",
- (unsigned long) t->ulUnicodeRange1,
- (unsigned long) t->ulUnicodeRange2,
- (unsigned long) t->ulUnicodeRange3,
- (unsigned long) t->ulUnicodeRange4,
- "achVendID", t->achVendID, 4,
- "fsSelection", (unsigned)t->fsSelection,
- "fsFirstCharIndex",(unsigned)t->usFirstCharIndex,
- "fsLastCharIndex",(unsigned)t->usLastCharIndex));
+ "version", (unsigned)t->version,
+ "xAvgCharWidth", t->xAvgCharWidth,
+ "usWeightClass", (unsigned)t->usWeightClass,
+ "usWidthClass", (unsigned)t->usWidthClass,
+ "fsType", t->fsType,
+ "ySubscriptXSize", t->ySubscriptXSize,
+ "ySubscriptYSize", t->ySubscriptYSize,
+ "ySubscriptXOffset", t->ySubscriptXOffset,
+ "ySubscriptYOffset", t->ySubscriptYOffset,
+ "ySuperscriptXSize", t->ySuperscriptXSize,
+ "ySuperscriptYSize", t->ySuperscriptYSize,
+ "ySuperscriptXOffset", t->ySuperscriptXOffset,
+ "ySuperscriptYOffset", t->ySuperscriptYOffset,
+ "yStrikeoutSize", t->yStrikeoutSize,
+ "yStrikeoutPosition", t->yStrikeoutPosition,
+ "sFamilyClass", t->sFamilyClass,
+ "panose", t->panose, 10,
+ "ulCharRange",
+ (unsigned long) t->ulUnicodeRange1,
+ (unsigned long) t->ulUnicodeRange2,
+ (unsigned long) t->ulUnicodeRange3,
+ (unsigned long) t->ulUnicodeRange4,
+ "achVendID", t->achVendID, 4,
+ "fsSelection", (unsigned)t->fsSelection,
+ "fsFirstCharIndex",(unsigned)t->usFirstCharIndex,
+ "fsLastCharIndex",(unsigned)t->usLastCharIndex));
}
case 3:
{
char hhea_dict[] = "{s:(h,h), s:h, s:h, s:h, s:i, s:h, s:h, s:h,"
- "s:h, s:h, s:h, s:h, s:i}";
+ "s:h, s:h, s:h, s:h, s:i}";
TT_HoriHeader *t = (TT_HoriHeader *)table;
return Py::asObject(Py_BuildValue(hhea_dict,
- "version",
- FIXED_MAJOR(t->Version),
- FIXED_MINOR(t->Version),
- "ascent", t->Ascender,
- "descent", t->Descender,
- "lineGap", t->Line_Gap,
- "advanceWidthMax",(unsigned)t->advance_Width_Max,
- "minLeftBearing", t->min_Left_Side_Bearing,
- "minRightBearing", t->min_Right_Side_Bearing,
- "xMaxExtent", t->xMax_Extent,
- "caretSlopeRise", t->caret_Slope_Rise,
- "caretSlopeRun", t->caret_Slope_Run,
- "caretOffset", t->caret_Offset,
- "metricDataFormat", t->metric_Data_Format,
- "numOfLongHorMetrics",
- (unsigned)t->number_Of_HMetrics));
+ "version",
+ FIXED_MAJOR(t->Version),
+ FIXED_MINOR(t->Version),
+ "ascent", t->Ascender,
+ "descent", t->Descender,
+ "lineGap", t->Line_Gap,
+ "advanceWidthMax",(unsigned)t->advance_Width_Max,
+ "minLeftBearing", t->min_Left_Side_Bearing,
+ "minRightBearing", t->min_Right_Side_Bearing,
+ "xMaxExtent", t->xMax_Extent,
+ "caretSlopeRise", t->caret_Slope_Rise,
+ "caretSlopeRun", t->caret_Slope_Run,
+ "caretOffset", t->caret_Offset,
+ "metricDataFormat", t->metric_Data_Format,
+ "numOfLongHorMetrics",
+ (unsigned)t->number_Of_HMetrics));
}
case 4:
{
char vhea_dict[] = "{s:(h,h), s:h, s:h, s:h, s:i, s:h, s:h, s:h,"
- "s:h, s:h, s:h, s:h, s:i}";
+ "s:h, s:h, s:h, s:h, s:i}";
TT_VertHeader *t = (TT_VertHeader *)table;
return Py::asObject(Py_BuildValue(vhea_dict,
- "version",
- FIXED_MAJOR(t->Version),
- FIXED_MINOR(t->Version),
-...
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