static void iDialDrawCircular(Ihandle* ih)
{
double delta = 2 * M_PI / ih->data->num_div, a = ih->data->angle;
int i, xc = ih->data->w / 2, yc = ih->data->h / 2, wide;
ih->data->radius = dialmin(ih->data->w, ih->data->h) / 2 - 2 * IDIAL_SPACE;
wide = (int)(2 * ih->data->radius);
cdCanvasForeground(ih->data->cd_canvas, ih->data->mid_shadow);
cdCanvasLineWidth(ih->data->cd_canvas, 2);
cdCanvasArc(ih->data->cd_canvas, xc, yc, wide-1, wide-1, -135, 45.0);
cdCanvasLineWidth(ih->data->cd_canvas, 1);
cdCanvasForeground(ih->data->cd_canvas, ih->data->bgcolor);
cdCanvasSector(ih->data->cd_canvas, xc, yc, wide-2, wide-2, 0.0, 360.0);
cdCanvasForeground(ih->data->cd_canvas, ih->data->light_shadow);
cdCanvasArc(ih->data->cd_canvas, xc, yc, wide, wide, 45, 225);
cdCanvasForeground(ih->data->cd_canvas, ih->data->dark_shadow);
cdCanvasArc(ih->data->cd_canvas, xc, yc, wide, wide, -135, 45);
for (i = 0; i < ih->data->num_div; ++i)
{
int x2 = (int)(xc + (ih->data->radius - 6) * cos(a));
int y2 = (int)(yc + (ih->data->radius - 6) * sin(a));
if (i == 0)
{
cdCanvasForeground(ih->data->cd_canvas, CD_BLACK);
cdCanvasLine(ih->data->cd_canvas, xc, yc, x2, y2);
}
iDialDrawCircularMark(ih, x2-2, y2-2);
a += delta;
}
iDialDrawCircularMark(ih, xc-2, yc-2);
}
static void iColorBrowserUpdateDisplay(Ihandle* ih)
{
if (!ih->data->cddbuffer)
return;
cdCanvasFlush(ih->data->cddbuffer); /* swap the RGB to the display canvas */
if (iupdrvIsActive(ih))
{
cdCanvasForeground(ih->data->cdcanvas, CD_GRAY);
cdCanvasArc(ih->data->cdcanvas, ih->data->h_x+1, ih->data->h_y, ICB_MARKSIZE, ICB_MARKSIZE, 0, 360);
cdCanvasArc(ih->data->cdcanvas, ih->data->si_x+1, ih->data->si_y, ICB_MARKSIZE, ICB_MARKSIZE, 0, 360);
cdCanvasForeground(ih->data->cdcanvas, CD_WHITE);
cdCanvasArc(ih->data->cdcanvas, ih->data->h_x, ih->data->h_y, ICB_MARKSIZE, ICB_MARKSIZE, 0, 360);
cdCanvasArc(ih->data->cdcanvas, ih->data->si_x, ih->data->si_y, ICB_MARKSIZE, ICB_MARKSIZE, 0, 360);
}
else
{
cdCanvasForeground(ih->data->cdcanvas, CD_DARK_GRAY);
cdCanvasSector(ih->data->cdcanvas, ih->data->h_x, ih->data->h_y, ICB_MARKSIZE+1, ICB_MARKSIZE+1, 0, 360);
cdCanvasSector(ih->data->cdcanvas, ih->data->si_x, ih->data->si_y, ICB_MARKSIZE+1, ICB_MARKSIZE+1, 0, 360);
}
}
void cdSimMark(cdCanvas* canvas, int x, int y)
{
int oldinteriorstyle = canvas->interior_style;
int oldlinestyle = canvas->line_style;
int oldlinewidth = canvas->line_width;
int size, half_size, bottom, top, left, right;
if (canvas->mark_type == CD_DIAMOND ||
canvas->mark_type == CD_HOLLOW_DIAMOND)
{
if (canvas->use_origin)
{
x += canvas->origin.x;
y += canvas->origin.y;
}
if (canvas->invert_yaxis)
y = _cdInvertYAxis(canvas, y);
}
size = canvas->mark_size;
half_size = size/2;
bottom = y-half_size;
top = y+half_size;
left = x-half_size;
right = x+half_size;
if (canvas->interior_style != CD_SOLID &&
(canvas->mark_type == CD_CIRCLE ||
canvas->mark_type == CD_BOX ||
canvas->mark_type == CD_DIAMOND))
cdCanvasInteriorStyle(canvas, CD_SOLID);
if (canvas->line_style != CD_CONTINUOUS &&
(canvas->mark_type == CD_STAR ||
canvas->mark_type == CD_PLUS ||
canvas->mark_type == CD_X ||
canvas->mark_type == CD_HOLLOW_BOX ||
canvas->mark_type == CD_HOLLOW_CIRCLE ||
canvas->mark_type == CD_HOLLOW_DIAMOND))
cdCanvasLineStyle(canvas, CD_CONTINUOUS);
if (canvas->line_width != 1 &&
(canvas->mark_type == CD_STAR ||
canvas->mark_type == CD_PLUS ||
canvas->mark_type == CD_X ||
canvas->mark_type == CD_HOLLOW_BOX ||
canvas->mark_type == CD_HOLLOW_CIRCLE ||
canvas->mark_type == CD_HOLLOW_DIAMOND))
cdCanvasLineWidth(canvas, 1);
switch (canvas->mark_type)
{
case CD_STAR:
cdCanvasLine(canvas, left, bottom, right, top);
cdCanvasLine(canvas, left, top, right, bottom);
/* continue */
case CD_PLUS:
cdCanvasLine(canvas, left, y, right, y);
cdCanvasLine(canvas, x, bottom, x, top);
break;
case CD_X:
cdCanvasLine(canvas, left, bottom, right, top);
cdCanvasLine(canvas, left, top, right, bottom);
break;
case CD_HOLLOW_CIRCLE:
cdCanvasArc(canvas, x, y, size, size, 0, 360);
break;
case CD_HOLLOW_BOX:
cdCanvasRect(canvas, left, right, bottom, top);
break;
case CD_CIRCLE:
cdCanvasSector(canvas, x, y, size, size, 0, 360);
break;
case CD_BOX:
cdCanvasBox(canvas, left, right, bottom, top);
break;
case CD_HOLLOW_DIAMOND:
case CD_DIAMOND:
{
/* Do not use Begin/End here so Mark can be used inside a regular BeginEnd loop */
cdPoint poly[5]; /* leave room for one more point */
poly[0].x = left;
poly[0].y = y;
poly[1].x = x;
poly[1].y = top;
poly[2].x = right;
poly[2].y = y;
poly[3].x = x;
poly[3].y = bottom;
if (canvas->mark_type == CD_DIAMOND)
cdPoly(canvas, CD_FILL, poly, 4);
else
cdPoly(canvas, CD_CLOSED_LINES, poly, 4);
}
break;
}
if (canvas->interior_style != oldinteriorstyle &&
(canvas->mark_type == CD_CIRCLE ||
canvas->mark_type == CD_BOX ||
canvas->mark_type == CD_DIAMOND))
cdCanvasInteriorStyle(canvas, oldinteriorstyle);
if (canvas->line_style != oldlinestyle &&
(canvas->mark_type == CD_STAR ||
canvas->mark_type == CD_PLUS ||
canvas->mark_type == CD_X ||
canvas->mark_type == CD_HOLLOW_BOX ||
canvas->mark_type == CD_HOLLOW_CIRCLE ||
canvas->mark_type == CD_HOLLOW_DIAMOND))
cdCanvasLineStyle(canvas, oldlinestyle);
if (canvas->line_width != oldlinewidth &&
(canvas->mark_type == CD_STAR ||
canvas->mark_type == CD_PLUS ||
canvas->mark_type == CD_X ||
canvas->mark_type == CD_HOLLOW_BOX ||
canvas->mark_type == CD_HOLLOW_CIRCLE ||
canvas->mark_type == CD_HOLLOW_DIAMOND))
cdCanvasLineWidth(canvas, oldlinewidth);
}
static int cdplay(cdCanvas* canvas, int xmin, int xmax, int ymin, int ymax, void *data)
{
tPrimNode *prim;
cdCanvas* pic_canvas = (cdCanvas*)data;
cdCtxCanvas* ctxcanvas = pic_canvas->ctxcanvas;
int p, i, n, scale = 0,
pic_xmin = ctxcanvas->xmin,
pic_ymin = ctxcanvas->ymin;
double factorX = 1, factorY = 1;
if ((ctxcanvas->xmax-ctxcanvas->xmin+1)>1 &&
(ctxcanvas->ymax-ctxcanvas->ymin+1)>1 &&
(xmax-xmin+1)>1 &&
(ymax-ymin+1)>1)
{
scale = 1;
factorX = ((double)(xmax-xmin+1)) / ((double)(ctxcanvas->xmax-ctxcanvas->xmin+1));
factorY = ((double)(ymax-ymin+1)) / ((double)(ctxcanvas->ymax-ctxcanvas->ymin+1));
}
if (cdsizecb)
{
int err;
err = cdsizecb(canvas, pic_canvas->w, pic_canvas->h, pic_canvas->w_mm, pic_canvas->h_mm);
if (err)
return CD_ERROR;
}
prim = ctxcanvas->prim_first;
for (i = 0; i < ctxcanvas->prim_n; i++)
{
switch (prim->type)
{
case CDPIC_LINE:
primUpdateAttrib_Line(prim, canvas);
cdCanvasLine(canvas, sScaleX(prim->param.lineboxrect.x1), sScaleY(prim->param.lineboxrect.y1), sScaleX(prim->param.lineboxrect.x2), sScaleY(prim->param.lineboxrect.y2));
break;
case CDPIC_FLINE:
primUpdateAttrib_Line(prim, canvas);
cdfCanvasLine(canvas, sfScaleX(prim->param.lineboxrectf.x1), sfScaleY(prim->param.lineboxrectf.y1), sfScaleX(prim->param.lineboxrectf.x2), sfScaleY(prim->param.lineboxrectf.y2));
break;
case CDPIC_RECT:
primUpdateAttrib_Line(prim, canvas);
cdCanvasRect(canvas, sScaleX(prim->param.lineboxrect.x1), sScaleX(prim->param.lineboxrect.x2), sScaleY(prim->param.lineboxrect.y1), sScaleY(prim->param.lineboxrect.y2));
break;
case CDPIC_FRECT:
primUpdateAttrib_Line(prim, canvas);
cdfCanvasRect(canvas, sfScaleX(prim->param.lineboxrectf.x1), sfScaleX(prim->param.lineboxrectf.x2), sfScaleY(prim->param.lineboxrectf.y1), sfScaleY(prim->param.lineboxrectf.y2));
break;
case CDPIC_BOX:
primUpdateAttrib_Fill(prim, canvas);
cdCanvasBox(canvas, sScaleX(prim->param.lineboxrect.x1), sScaleX(prim->param.lineboxrect.x2), sScaleY(prim->param.lineboxrect.y1), sScaleY(prim->param.lineboxrect.y2));
break;
case CDPIC_FBOX:
primUpdateAttrib_Fill(prim, canvas);
cdfCanvasBox(canvas, sfScaleX(prim->param.lineboxrectf.x1), sfScaleX(prim->param.lineboxrectf.x2), sfScaleY(prim->param.lineboxrectf.y1), sfScaleY(prim->param.lineboxrectf.y2));
break;
case CDPIC_ARC:
primUpdateAttrib_Line(prim, canvas);
cdCanvasArc(canvas, sScaleX(prim->param.arcsectorchord.xc), sScaleY(prim->param.arcsectorchord.yc), sScaleW(prim->param.arcsectorchord.w), sScaleH(prim->param.arcsectorchord.h), prim->param.arcsectorchord.angle1, prim->param.arcsectorchord.angle2);
break;
case CDPIC_FARC:
primUpdateAttrib_Line(prim, canvas);
cdfCanvasArc(canvas, sfScaleX(prim->param.arcsectorchordf.xc), sfScaleY(prim->param.arcsectorchordf.yc), sfScaleW(prim->param.arcsectorchordf.w), sfScaleH(prim->param.arcsectorchordf.h), prim->param.arcsectorchord.angle1, prim->param.arcsectorchord.angle2);
break;
case CDPIC_SECTOR:
primUpdateAttrib_Fill(prim, canvas);
cdCanvasSector(canvas, sScaleX(prim->param.arcsectorchord.xc), sScaleY(prim->param.arcsectorchord.yc), sScaleW(prim->param.arcsectorchord.w), sScaleH(prim->param.arcsectorchord.h), prim->param.arcsectorchord.angle1, prim->param.arcsectorchord.angle2);
break;
case CDPIC_FSECTOR:
primUpdateAttrib_Fill(prim, canvas);
cdfCanvasSector(canvas, sfScaleX(prim->param.arcsectorchordf.xc), sfScaleY(prim->param.arcsectorchordf.yc), sfScaleW(prim->param.arcsectorchordf.w), sfScaleH(prim->param.arcsectorchordf.h), prim->param.arcsectorchord.angle1, prim->param.arcsectorchord.angle2);
break;
case CDPIC_CHORD:
primUpdateAttrib_Fill(prim, canvas);
cdCanvasChord(canvas, sScaleX(prim->param.arcsectorchord.xc), sScaleY(prim->param.arcsectorchord.yc), sScaleW(prim->param.arcsectorchord.w), sScaleH(prim->param.arcsectorchord.h), prim->param.arcsectorchord.angle1, prim->param.arcsectorchord.angle2);
break;
case CDPIC_FCHORD:
primUpdateAttrib_Fill(prim, canvas);
cdfCanvasChord(canvas, sfScaleX(prim->param.arcsectorchordf.xc), sfScaleY(prim->param.arcsectorchordf.yc), sfScaleW(prim->param.arcsectorchordf.w), sfScaleH(prim->param.arcsectorchordf.h), prim->param.arcsectorchord.angle1, prim->param.arcsectorchord.angle2);
break;
case CDPIC_TEXT:
primUpdateAttrib_Text(prim, canvas);
cdCanvasText(canvas, sScaleX(prim->param.text.x), sScaleY(prim->param.text.y), prim->param.text.s);
break;
case CDPIC_FTEXT:
primUpdateAttrib_Text(prim, canvas);
cdfCanvasText(canvas, sfScaleX(prim->param.textf.x), sfScaleY(prim->param.textf.y), prim->param.text.s);
break;
case CDPIC_POLY:
if (prim->param.poly.mode == CD_FILL)
primUpdateAttrib_Fill(prim, canvas);
else
primUpdateAttrib_Line(prim, canvas);
cdCanvasBegin(canvas, prim->param.poly.mode);
for (p = 0; p < prim->param.poly.n; p++)
cdCanvasVertex(canvas, sScaleX(prim->param.poly.points[p].x), sScaleY(prim->param.poly.points[p].y));
cdCanvasEnd(canvas);
break;
case CDPIC_FPOLY:
if (prim->param.poly.mode == CD_FILL)
primUpdateAttrib_Fill(prim, canvas);
else
primUpdateAttrib_Line(prim, canvas);
cdCanvasBegin(canvas, prim->param.polyf.mode);
for (p = 0; p < prim->param.polyf.n; p++)
cdfCanvasVertex(canvas, sfScaleX(prim->param.polyf.points[p].x), sfScaleY(prim->param.polyf.points[p].y));
cdCanvasEnd(canvas);
break;
case CDPIC_PATH:
if (prim->param.path.fill)
primUpdateAttrib_Fill(prim, canvas);
else
primUpdateAttrib_Line(prim, canvas);
cdCanvasBegin(canvas, CD_PATH);
n = 0;
for (p=0; p<prim->param.path.path_n; p++)
{
cdCanvasPathSet(canvas, prim->param.path.path[p]);
switch(prim->param.path.path[p])
{
case CD_PATH_MOVETO:
case CD_PATH_LINETO:
cdCanvasVertex(canvas, sScaleX(prim->param.path.points[n].x), sScaleY(prim->param.path.points[n].y));
n++;
break;
case CD_PATH_CURVETO:
case CD_PATH_ARC:
{
cdCanvasVertex(canvas, sScaleX(prim->param.path.points[n].x), sScaleY(prim->param.path.points[n].y));
cdCanvasVertex(canvas, sScaleX(prim->param.path.points[n+1].x), sScaleY(prim->param.path.points[n+1].y));
cdCanvasVertex(canvas, sScaleX(prim->param.path.points[n+2].x), sScaleY(prim->param.path.points[n+2].y));
n += 3;
}
break;
}
}
cdCanvasEnd(canvas);
break;
case CDPIC_FPATH:
if (prim->param.path.fill)
primUpdateAttrib_Fill(prim, canvas);
else
primUpdateAttrib_Line(prim, canvas);
cdCanvasBegin(canvas, CD_PATH);
n = 0;
for (p=0; p<prim->param.pathf.path_n; p++)
{
cdCanvasPathSet(canvas, prim->param.pathf.path[p]);
switch(prim->param.pathf.path[p])
{
case CD_PATH_MOVETO:
case CD_PATH_LINETO:
cdfCanvasVertex(canvas, sfScaleX(prim->param.pathf.points[n].x), sfScaleY(prim->param.pathf.points[n].y));
n++;
break;
case CD_PATH_CURVETO:
case CD_PATH_ARC:
{
cdfCanvasVertex(canvas, sfScaleX(prim->param.pathf.points[n].x), sfScaleY(prim->param.pathf.points[n].y));
cdfCanvasVertex(canvas, sfScaleX(prim->param.pathf.points[n+1].x), sfScaleY(prim->param.pathf.points[n+1].y));
cdfCanvasVertex(canvas, sfScaleX(prim->param.pathf.points[n+2].x), sfScaleY(prim->param.pathf.points[n+2].y));
n += 3;
}
break;
}
}
cdCanvasEnd(canvas);
break;
case CDPIC_IMAGERGB:
cdCanvasPutImageRectRGB(canvas, prim->param.imagergba.iw, prim->param.imagergba.ih, prim->param.imagergba.r, prim->param.imagergba.g, prim->param.imagergba.b, sScaleX(prim->param.imagergba.x), sScaleY(prim->param.imagergba.y), sScaleW(prim->param.imagergba.w), sScaleH(prim->param.imagergba.h), 0, 0, 0, 0);
break;
case CDPIC_IMAGERGBA:
cdCanvasPutImageRectRGBA(canvas, prim->param.imagergba.iw, prim->param.imagergba.ih, prim->param.imagergba.r, prim->param.imagergba.g, prim->param.imagergba.b, prim->param.imagergba.a, sScaleX(prim->param.imagergba.x), sScaleY(prim->param.imagergba.y), sScaleW(prim->param.imagergba.w), sScaleH(prim->param.imagergba.h), 0, 0, 0, 0);
break;
case CDPIC_IMAGEMAP:
cdCanvasPutImageRectMap(canvas, prim->param.imagemap.iw, prim->param.imagemap.ih, prim->param.imagemap.index, prim->param.imagemap.colors, sScaleX(prim->param.imagemap.x), sScaleY(prim->param.imagemap.y), sScaleW(prim->param.imagemap.w), sScaleH(prim->param.imagemap.h), 0, 0, 0, 0);
break;
case CDPIC_PIXEL:
cdCanvasPixel(canvas, sScaleX(prim->param.pixel.x), sScaleY(prim->param.pixel.y), prim->param.pixel.color);
break;
}
prim = prim->next;
}
return CD_OK;
}
void SimpleDrawAll(cdCanvas* canvas)
{
int w, h;
cdCanvasGetSize(canvas, &w, &h, NULL, NULL);
/* Clear the background to be white */
cdCanvasBackground(canvas, CD_WHITE);
// cdBackground(CD_GREEN);
cdCanvasClear(canvas);
/* Draw a reactangle and a polyline at the bottom-left area,
using a thick line with transparency.
Observe that transparency is only supported in a few drivers,
and line join is not supported in the IMAGERGB driver. */
cdCanvasLineWidth(canvas, 3);
cdCanvasLineStyle(canvas, CD_CONTINUOUS);
cdCanvasForeground(canvas, cdEncodeAlpha(CD_DARK_MAGENTA, 128));
cdCanvasRect(canvas, 100, 200, 100, 200);
cdCanvasBegin(canvas, CD_OPEN_LINES);
cdCanvasVertex(canvas, 300, 250);
cdCanvasVertex(canvas, 320, 270);
cdCanvasVertex(canvas, 350, 260);
cdCanvasVertex(canvas, 340, 200);
cdCanvasVertex(canvas, 310, 210);
cdCanvasEnd(canvas);
/* Draw the red diagonal line with a custom line style.
Observe that line styles are not supported in the IMAGERGB driver. */
cdCanvasForeground(canvas, CD_RED);
cdCanvasLineWidth(canvas, 3);
{
int dashes[] = {20, 15, 5, 5};
cdCanvasLineStyleDashes(canvas, dashes, 4);
}
cdCanvasLineStyle(canvas, CD_CUSTOM);
cdCanvasLine(canvas, 0, 0, w-1, h-1);
/* Draw the blue diagonal line with a pre-defined line style.
Observe that the pre-defined line style is dependent on the driver. */
cdCanvasForeground(canvas, CD_BLUE);
cdCanvasLineWidth(canvas, 10);
cdCanvasLineStyle(canvas, CD_DOTTED);
cdCanvasLine(canvas, 0, h-1, w-1, 0);
switch(clipping)
{
case CD_CLIPOFF:
cdCanvasClip(canvas, CD_CLIPOFF);
break;
case CD_CLIPAREA:
/* Defines the clipping area equals the canvas area minus a 100 pixels margin. */
cdCanvasClipArea(canvas, 100, w - 100, 100, h - 100);
cdCanvasClip(canvas, CD_CLIPAREA);
break;
case CD_CLIPPOLYGON:
cdCanvasBegin(canvas, CD_CLIP);
cdCanvasVertex(canvas, 100, 100);
cdCanvasVertex(canvas, w - 100, 100);
cdCanvasVertex(canvas, w / 2, h - 100);
cdCanvasEnd(canvas);
cdCanvasClip(canvas, CD_CLIPPOLYGON);
break;
case CD_CLIPREGION:
cdCanvasTextAlignment(canvas, CD_CENTER);
cdCanvasFont(canvas, "Times", CD_BOLD, 50);
cdCanvasBegin(canvas, CD_REGION);
cdCanvasRegionCombineMode(canvas, CD_UNION);
cdCanvasBox(canvas, 100, 200, 100, 200);
cdCanvasSector(canvas, w/2-50, h/2+50, 150, 150, 0, 360);
cdCanvasSector(canvas, w/2-50, h/2-50, 150, 150, 0, 360);
cdCanvasSector(canvas, w/2+50, h/2+50, 150, 150, 0, 360);
cdCanvasSector(canvas, w/2+50, h/2-50, 150, 150, 0, 360);
cdCanvasRegionCombineMode(canvas, CD_DIFFERENCE);
cdCanvasText(canvas, w/2, h/2, "TEXT");
cdCanvasEnd(canvas);
// cdCanvasOffsetRegion(canvas, -50, 50);
cdCanvasClip(canvas, CD_CLIPREGION);
cdCanvasForeground(canvas, CD_DARK_RED);
cdCanvasBox(canvas, 0,w,0,h);
break;
}
switch(write_mode)
{
case CD_REPLACE:
cdCanvasWriteMode(canvas, CD_REPLACE);
break;
case CD_XOR:
cdCanvasWriteMode(canvas, CD_XOR);
break;
case CD_NOT_XOR:
cdCanvasWriteMode(canvas, CD_NOT_XOR);
break;
}
if (use_transform)
{
cdCanvasTransform(canvas, NULL);
cdCanvasTransformTranslate(canvas, w/2, h/2);
cdCanvasTransformRotate(canvas, 30);
cdCanvasTransformScale(canvas, 0.5, 0.5);
cdCanvasTransformTranslate(canvas, -w/2, -h/2);
}
// cdSetfAttribute("ROTATE", "15 %d %d", w/2, h/2);
/* Reset line style and width */
cdCanvasLineStyle(canvas, CD_CONTINUOUS);
cdCanvasLineWidth(canvas, 1);
// cdBackOpacity(CD_TRANSPARENT);
/* Draw an arc at bottom-left, and a sector at bottom-right.
Notice that counter-clockwise orientation of both. */
cdCanvasInteriorStyle(canvas, CD_SOLID);
cdCanvasForeground(canvas, CD_MAGENTA);
cdCanvasSector(canvas, w-100, 100, 100, 100, 50, 180);
cdCanvasForeground(canvas, CD_RED);
cdCanvasArc(canvas, 100, 100, 100, 100, 50, 180);
/* Draw a solid filled rectangle at center. */
cdCanvasForeground(canvas, CD_YELLOW);
cdCanvasBox(canvas, w/2 - 100, w/2 + 100, h/2 - 100, h/2 + 100);
/* Prepare font for text. */
cdCanvasTextAlignment(canvas, CD_CENTER);
cdCanvasTextOrientation(canvas, 70);
cdCanvasFont(canvas, "Times", CD_BOLD, 24);
/* Draw text at center, with orientation,
and draw its bounding box.
Notice that in some drivers the bounding box is not precise. */
{
int rect[8];
cdCanvasGetTextBounds(canvas, w/2, h/2, "Simple Draw (pçãí)", rect);
cdCanvasForeground(canvas, CD_RED);
cdCanvasBegin(canvas, CD_CLOSED_LINES);
cdCanvasVertex(canvas, rect[0], rect[1]);
cdCanvasVertex(canvas, rect[2], rect[3]);
cdCanvasVertex(canvas, rect[4], rect[5]);
cdCanvasVertex(canvas, rect[6], rect[7]);
cdCanvasEnd(canvas);
}
cdCanvasForeground(canvas, CD_BLUE);
cdCanvasText(canvas, w/2, h/2, "Simple Draw (pçãí)");
cdCanvasTextOrientation(canvas, 0);
/* Prepare World Coordinates */
wdCanvasViewport(canvas, 0,w-1,0,h-1);
if (w>h)
wdCanvasWindow(canvas, 0,(double)w/(double)h,0,1);
else
wdCanvasWindow(canvas, 0,1,0,(double)h/(double)w);
/* Draw a filled blue rectangle in WC */
wdCanvasBox(canvas, 0.20, 0.30, 0.40, 0.50);
cdCanvasForeground(canvas, CD_RED);
/* Draw the diagonal of that rectangle in WC */
wdCanvasLine(canvas, 0.20, 0.40, 0.30, 0.50);
// wdVectorTextDirection(0, 0, 1, 1);
/* Prepare Vector Text in WC. */
wdCanvasVectorCharSize(canvas, 0.07);
// wdVectorText(0.1, 0.4, "ñç áéíóú àèìòù âêîôû äëïöü");
// wdVectorText(0.1, 0.2, "ÑÇ ÁÉÍÓÚ ÀÈÌÒÙ ÂÊÎÔÛ ÄËÏÖÜ");
//{
// int i;
// char t[2];
// char s[10];
// int x = 20;
// int y = 0;
// t[1] = 0;
// for (i = 0; i < 256; i++)
// {
// int dx = 90;
// t[0] = (char)i;
// sprintf(s, "%d", i);
// cdText(x, y, s);
// cdText(x+dx, y, t);
// cdVectorText(x+2*dx, y, t);
//
// x += 3*dx + 2*dx/3;
// if ((i+1) % 7 == 0)
// {
// x = 20;
// y += 90;
// }
// }
//}
/* Draw vector text, and draw its bounding box.
We also use this text to show when we are using a contextplus driver. */
{
double rect[8];
cdCanvasForeground(canvas, CD_RED);
if (contextplus)
wdCanvasGetVectorTextBounds(canvas, "WDj-Plus", 0.25, 0.35, rect);
else
wdCanvasGetVectorTextBounds(canvas, "WDj", 0.25, 0.35, rect);
cdCanvasBegin(canvas, CD_CLOSED_LINES);
wdCanvasVertex(canvas, rect[0], rect[1]);
wdCanvasVertex(canvas, rect[2], rect[3]);
wdCanvasVertex(canvas, rect[4], rect[5]);
wdCanvasVertex(canvas, rect[6], rect[7]);
cdCanvasEnd(canvas);
cdCanvasLineWidth(canvas, 2);
cdCanvasLineStyle(canvas, CD_CONTINUOUS);
if (contextplus)
wdCanvasVectorText(canvas, 0.25, 0.35, "WDj-Plus");
else
wdCanvasVectorText(canvas, 0.25, 0.35, "WDj");
cdCanvasLineWidth(canvas, 1);
}
/* Draw a filled path at center-right (looks like a weird fish).
Notice that in PDF the arc is necessarily a circle arc, and not an ellipse. */
cdCanvasForeground(canvas, CD_GREEN);
cdCanvasBegin(canvas, CD_PATH);
cdCanvasPathSet(canvas, CD_PATH_MOVETO);
cdCanvasVertex(canvas, w/2 + 200, h/2);
cdCanvasPathSet(canvas, CD_PATH_LINETO);
cdCanvasVertex(canvas, w/2 + 230, h/2 + 50);
cdCanvasPathSet(canvas, CD_PATH_LINETO);
cdCanvasVertex(canvas, w/2 + 250, h/2 + 50);
cdCanvasPathSet(canvas, CD_PATH_CURVETO);
cdCanvasVertex(canvas, w/2+150+150, h/2+200-50); /* control point for start */
cdCanvasVertex(canvas, w/2+150+180, h/2+250-50); /* control point for end */
cdCanvasVertex(canvas, w/2+150+180, h/2+200-50); /* end point */
cdCanvasPathSet(canvas, CD_PATH_CURVETO);
cdCanvasVertex(canvas, w/2+150+180, h/2+150-50);
cdCanvasVertex(canvas, w/2+150+150, h/2+100-50);
cdCanvasVertex(canvas, w/2+150+300, h/2+100-50);
cdCanvasPathSet(canvas, CD_PATH_LINETO);
cdCanvasVertex(canvas, w/2+150+300, h/2-50);
cdCanvasPathSet(canvas, CD_PATH_ARC);
cdCanvasVertex(canvas, w/2+300, h/2); /* center */
cdCanvasVertex(canvas, 200, 100); /* width, height */
cdCanvasVertex(canvas, -30*1000, -170*1000); /* start angle, end angle (degrees / 1000) */
// cdCanvasPathSet(canvas, CD_PATH_CLOSE);
// cdCanvasPathSet(canvas, CD_PATH_STROKE);
cdCanvasPathSet(canvas, CD_PATH_FILL);
// cdCanvasPathSet(canvas, CD_PATH_FILLSTROKE);
cdCanvasEnd(canvas);
/* Draw 3 pixels at center left. */
cdCanvasPixel(canvas, 10, h/2+0, CD_RED);
cdCanvasPixel(canvas, 11, h/2+1, CD_GREEN);
cdCanvasPixel(canvas, 12, h/2+2, CD_BLUE);
/* Draw 4 mark types, distributed near each corner. */
cdCanvasForeground(canvas, CD_RED);
cdCanvasMarkSize(canvas, 30);
cdCanvasMarkType(canvas, CD_PLUS);
cdCanvasMark(canvas, 200, 200);
cdCanvasMarkType(canvas, CD_CIRCLE);
cdCanvasMark(canvas, w - 200, 200);
cdCanvasMarkType(canvas, CD_HOLLOW_CIRCLE);
cdCanvasMark(canvas, 200, h - 200);
cdCanvasMarkType(canvas, CD_DIAMOND);
cdCanvasMark(canvas, w - 200, h - 200);
/* Draw all the line style possibilities at bottom.
Notice that they have some small differences between drivers. */
cdCanvasLineWidth(canvas, 1);
cdCanvasLineStyle(canvas, CD_CONTINUOUS);
cdCanvasLine(canvas, 0, 10, w, 10);
cdCanvasLineStyle(canvas, CD_DASHED);
cdCanvasLine(canvas, 0, 20, w, 20);
cdCanvasLineStyle(canvas, CD_DOTTED);
cdCanvasLine(canvas, 0, 30, w, 30);
cdCanvasLineStyle(canvas, CD_DASH_DOT);
cdCanvasLine(canvas, 0, 40, w, 40);
cdCanvasLineStyle(canvas, CD_DASH_DOT_DOT);
cdCanvasLine(canvas, 0, 50, w, 50);
/* Draw all the hatch style possibilities in the top-left corner.
Notice that they have some small differences between drivers. */
cdCanvasHatch(canvas, CD_VERTICAL);
cdCanvasBox(canvas, 0, 50, h - 60, h);
cdCanvasHatch(canvas, CD_FDIAGONAL);
cdCanvasBox(canvas, 50, 100, h - 60, h);
cdCanvasHatch(canvas, CD_BDIAGONAL);
cdCanvasBox(canvas, 100, 150, h - 60, h);
cdCanvasHatch(canvas, CD_CROSS);
cdCanvasBox(canvas, 150, 200, h - 60, h);
cdCanvasHatch(canvas, CD_HORIZONTAL);
cdCanvasBox(canvas, 200, 250, h - 60, h);
cdCanvasHatch(canvas, CD_DIAGCROSS);
cdCanvasBox(canvas, 250, 300, h - 60, h);
/* Draw 4 regions, in diamond shape,
at top, bottom, left, right,
using different interior styles. */
/* At top, not filled polygon, notice that the last line style is used. */
cdCanvasBegin(canvas, CD_CLOSED_LINES);
cdCanvasVertex(canvas, w/2, h - 100);
cdCanvasVertex(canvas, w/2 + 50, h - 150);
cdCanvasVertex(canvas, w/2, h - 200);
cdCanvasVertex(canvas, w/2 - 50, h - 150);
cdCanvasEnd(canvas);
/* At left, hatch filled polygon */
cdCanvasHatch(canvas, CD_DIAGCROSS);
cdCanvasBegin(canvas, CD_FILL);
cdCanvasVertex(canvas, 100, h/2);
cdCanvasVertex(canvas, 150, h/2 + 50);
cdCanvasVertex(canvas, 200, h/2);
cdCanvasVertex(canvas, 150, h/2 - 50);
cdCanvasEnd(canvas);
/* At right, pattern filled polygon */
cdCanvasPattern(canvas, STYLE_SIZE, STYLE_SIZE, pattern);
cdCanvasBegin(canvas, CD_FILL);
cdCanvasVertex(canvas, w - 100, h/2);
cdCanvasVertex(canvas, w - 150, h/2 + 50);
cdCanvasVertex(canvas, w - 200, h/2);
cdCanvasVertex(canvas, w - 150, h/2 - 50);
cdCanvasEnd(canvas);
/* At bottom, stipple filled polygon */
cdCanvasStipple(canvas, STYLE_SIZE, STYLE_SIZE, stipple);
cdCanvasBegin(canvas, CD_FILL);
cdCanvasVertex(canvas, w/2, 100);
cdCanvasVertex(canvas, w/2 + 50, 150);
cdCanvasVertex(canvas, w/2, 200);
cdCanvasVertex(canvas, w/2 - 50, 150);
cdCanvasEnd(canvas);
/* Draw two beziers at bottom-left */
cdCanvasBegin(canvas, CD_BEZIER);
cdCanvasVertex(canvas, 100, 100);
cdCanvasVertex(canvas, 150, 200);
cdCanvasVertex(canvas, 180, 250);
cdCanvasVertex(canvas, 180, 200);
cdCanvasVertex(canvas, 180, 150);
cdCanvasVertex(canvas, 150, 100);
cdCanvasVertex(canvas, 300, 100);
cdCanvasEnd(canvas);
/* Initialize the image buffer contents */
//#define IMAGE_SIZE 16
memset(red, 0xFF, IMAGE_SIZE*IMAGE_SIZE/2);
memset(green, 0x5F, IMAGE_SIZE*IMAGE_SIZE/2);
memset(blue, 0x5F, IMAGE_SIZE*IMAGE_SIZE/2);
memset(red+IMAGE_SIZE*IMAGE_SIZE/2, 0x5F, IMAGE_SIZE*IMAGE_SIZE/2);
memset(green+IMAGE_SIZE*IMAGE_SIZE/2, 0x8F, IMAGE_SIZE*IMAGE_SIZE/2);
memset(blue+IMAGE_SIZE*IMAGE_SIZE/2, 0x5F, IMAGE_SIZE*IMAGE_SIZE/2);
memset(red+IMAGE_SIZE*(IMAGE_SIZE-1), 0, IMAGE_SIZE);
memset(green+IMAGE_SIZE*(IMAGE_SIZE-1), 0, IMAGE_SIZE);
memset(blue+IMAGE_SIZE*(IMAGE_SIZE-1), 0, IMAGE_SIZE);
memset(red, 0, IMAGE_SIZE);
memset(green, 0, IMAGE_SIZE);
memset(blue, 0, IMAGE_SIZE);
{
int i, offset;
for (i = 0; i < IMAGE_SIZE; i++)
{
offset = i*IMAGE_SIZE;
red[offset] = 0;
green[offset] = 0;
blue[offset] = 0;
red[offset+IMAGE_SIZE-1] = 0;
green[offset+IMAGE_SIZE-1] = 0;
blue[offset+IMAGE_SIZE-1] = 0;
}
}
//cdSetAttribute("ANTIALIAS", "0");
// cdGetImageRGB(red, green, blue, w/2 - 50, h/2-50, 100, 100);
// cdPutImageRectRGB(14, 13, red, green, blue, -20, -15, 649, 603, 0, 13, 0, 12);
// cdPutImageRectRGB(16, 16, red, green, blue, 10, 10, 608, 608, 5, 10, 5, 10);
// cdPutImageRectRGB(16, 16, red, green, blue, 10, 10, 64, 64, 5, 10, 5, 10);
// cdPutImageRGB(IMAGE_SIZE, IMAGE_SIZE, red, green, blue, 100, h - 200, IMAGE_SIZE, IMAGE_SIZE);
// cdPutImageRGBA(IMAGE_SIZE, IMAGE_SIZE, red, green, blue, alpha, 100, h - 200, IMAGE_SIZE, IMAGE_SIZE);
// cdPutImageRGB(IMAGE_SIZE, IMAGE_SIZE, red, green, blue, w - 400, h - 310, 3*IMAGE_SIZE, 3*IMAGE_SIZE);
/* Draw the image on the top-right corner but increasing its actual size, and uses its full area */
cdCanvasPutImageRectRGBA(canvas, IMAGE_SIZE, IMAGE_SIZE, red, green, blue, alpha, w - 400, h - 310, 3*IMAGE_SIZE, 3*IMAGE_SIZE, 0, 0, 0, 0);
cdCanvasSetAttribute(canvas, "ROTATE", NULL);
if (use_transform)
cdCanvasTransform(canvas, NULL);
cdCanvasClip(canvas, CD_CLIPOFF);
}
void SimpleDrawTest(cdCanvas* canvas)
//void SimpleDrawMainTest(cdCanvas* canvas)
{
long pattern[16]; /* 4x4 pattern */
int w, h;
int xmin, xmax, ymin, ymax;
/* notice that if we are not using world coordinates
it is harder to position all the objetcs we want. */
cdCanvasGetSize(canvas, &w, &h, 0, 0);
cdCanvasBackground(canvas, CD_WHITE);
cdCanvasClear(canvas);
/* pattern initialization */
pattern[0] = CD_RED; pattern[1] = CD_RED; /* first line */
pattern[2] = CD_YELLOW; pattern[3] = CD_YELLOW;
pattern[4] = CD_RED; pattern[5] = CD_RED; /* second line */
pattern[6] = CD_YELLOW; pattern[7] = CD_YELLOW;
pattern[8] = CD_YELLOW; pattern[9] = CD_YELLOW; /* third line */
pattern[10] = CD_YELLOW; pattern[11] = CD_YELLOW;
pattern[12] = CD_YELLOW; pattern[13] = CD_YELLOW; /* fourth line */
pattern[14] = CD_YELLOW; pattern[15] = CD_YELLOW;
/* set the line attributes */
cdCanvasLineWidth(canvas, 4);
cdCanvasLineStyle(canvas, CD_CONTINUOUS);
/* in the center draw a pattern pizza
with a slice mising */
cdCanvasPattern(canvas, 4, 4, pattern);
cdCanvasSector(canvas, w/2, h/2, w/2, h/2, 45, 0);
/* draws a dark red border */
cdCanvasForeground(canvas, CD_DARK_RED);
cdCanvasInteriorStyle(canvas, CD_HOLLOW);
cdCanvasSector(canvas, w/2, h/2, w/2, h/2, 45, 0);
/* on the left a red hash diamond */
/* notice the the default back opacity is transparent
and the pattern of the sector will still be visible
inside the hatch where the two objects intersect */
cdCanvasForeground(canvas, CD_RED);
cdCanvasHatch(canvas, CD_DIAGCROSS);
cdCanvasBegin(canvas, CD_FILL);
cdCanvasVertex(canvas, w/4, h/4);
cdCanvasVertex(canvas, w/2-w/8, h/2);
cdCanvasVertex(canvas, w/4, 3*h/4);
cdCanvasVertex(canvas, w/8, h/2);
cdCanvasEnd(canvas);
/* draws a blue roof.*/
cdCanvasForeground(canvas, CD_BLUE);
cdCanvasLine(canvas, w/8, h/2, w/4, 3*h/4);
cdCanvasLine(canvas, w/4, 3*h/4, w/2-w/8, h/2);
/* draws a dashed ribbon on the right
with a custom color */
cdCanvasForeground(canvas, cdEncodeColor(100, 25, 200));
cdCanvasLineStyle(canvas, CD_DASH_DOT);
cdCanvasBegin(canvas, CD_BEZIER);
cdCanvasVertex(canvas, 3*w/4-20, h/2-50);
cdCanvasVertex(canvas, 3*w/4+150, 3*h/4-50);
cdCanvasVertex(canvas, 3*w/4-150, 3*h/4-50);
cdCanvasVertex(canvas, 3*w/4+20, h/2-50);
cdCanvasEnd(canvas);
cdCanvasFont(canvas, "Helvetica", CD_BOLD, 40);
cdCanvasTextAlignment(canvas, CD_CENTER);
cdCanvasText(canvas, w/2, h/4-50, "Canvas Draw");
cdCanvasGetTextBox(canvas, w/2, h/4-50, "Canvas Draw", &xmin, &xmax, &ymin, &ymax);
cdCanvasRect(canvas, xmin, xmax, ymin, ymax);
}
static int cdplay(cdCanvas* canvas, int xmin, int xmax, int ymin, int ymax, void *data)
{
char* filename = (char*)data;
FILE* file;
char TextBuffer[512];
int iparam1, iparam2, iparam3, iparam4, iparam5, iparam6, iparam7, iparam8, iparam9, iparam10;
int c, t, n, w, h, func;
double dparam1, dparam2, dparam3, dparam4, dparam5, dparam6;
unsigned char* stipple, * _stipple, *red, *green, *blue, *_red, *_green, *_blue, *index, *_index, *_alpha, *alpha;
long int *pattern, *palette, *_pattern, *_palette, *colors, *_colors;
int* dashes;
double matrix[6];
const char * font_family[] =
{
"System", /* CD_SYSTEM */
"Courier", /* CD_COURIER */
"Times", /* CD_TIMES_ROMAN */
"Helvetica" /* CD_HELVETICA */
};
file = fopen(filename, "r");
if (!file)
return CD_ERROR;
func = -1;
w = 0;
h = 0;
factorX = 1;
factorY = 1;
offsetX = 0;
offsetY = 0;
factorS = 1;
fscanf(file, "%s %d %d", TextBuffer, &w, &h);
if (strcmp(TextBuffer, "CDMF") != 0)
{
fclose(file);
return CD_ERROR;
}
if (w>1 && h>1 && xmax!=0 && ymax!=0)
{
offsetX = xmin;
offsetY = ymin;
factorX = ((double)(xmax-xmin)) / (w-1);
factorY = ((double)(ymax-ymin)) / (h-1);
if (factorX < factorY)
factorS = factorX;
else
factorS = factorY;
}
if (cdsizecb)
{
int err;
err = cdsizecb(canvas, w, h, w, h);
if (err)
return CD_ERROR;
}
while (!feof(file))
{
fscanf(file, "%d", &func);
if (feof(file))
break;
switch (func)
{
case CDMF_FLUSH:
cdCanvasFlush(canvas);
break;
case CDMF_CLEAR:
cdCanvasClear(canvas);
break;
case CDMF_CLIP:
fscanf(file, "%d", &iparam1);
cdCanvasClip(canvas, iparam1);
break;
case CDMF_CLIPAREA:
fscanf(file, "%d %d %d %d", &iparam1, &iparam2, &iparam3, &iparam4);
cdCanvasClipArea(canvas, sScaleX(iparam1), sScaleX(iparam2), sScaleY(iparam3), sScaleY(iparam4));
break;
case CDMF_FCLIPAREA:
fscanf(file, "%lg %lg %lg %lg", &dparam1, &dparam2, &dparam3, &dparam4);
cdfCanvasClipArea(canvas, sfScaleX(dparam1), sfScaleX(dparam2), sfScaleY(dparam3), sfScaleY(dparam4));
break;
case CDMF_MATRIX:
fscanf(file, "%lg %lg %lg %lg %lg %lg", &matrix[0], &matrix[1], &matrix[2], &matrix[3], &matrix[4], &matrix[5]);
cdCanvasTransform(canvas, matrix);
break;
case CDMF_RESETMATRIX:
cdCanvasTransform(canvas, NULL);
break;
case CDMF_WCLIPAREA:
fscanf(file, "%lg %lg %lg %lg", &dparam1, &dparam2, &dparam3, &dparam4);
wdCanvasClipArea(canvas, dparam1, dparam2, dparam3, dparam4);
break;
case CDMF_LINE:
fscanf(file, "%d %d %d %d", &iparam1, &iparam2, &iparam3, &iparam4);
cdCanvasLine(canvas, sScaleX(iparam1), sScaleY(iparam2), sScaleX(iparam3), sScaleY(iparam4));
break;
case CDMF_FLINE:
fscanf(file, "%lg %lg %lg %lg", &dparam1, &dparam2, &dparam3, &dparam4);
cdfCanvasLine(canvas, sfScaleX(dparam1), sfScaleY(dparam2), sfScaleX(dparam3), sfScaleY(dparam4));
break;
case CDMF_WLINE:
fscanf(file, "%lg %lg %lg %lg", &dparam1, &dparam2, &dparam3, &dparam4);
wdCanvasLine(canvas, dparam1, dparam2, dparam3, dparam4);
break;
case CDMF_RECT:
fscanf(file, "%d %d %d %d", &iparam1, &iparam2, &iparam3, &iparam4);
cdCanvasRect(canvas, sScaleX(iparam1), sScaleX(iparam2), sScaleY(iparam3), sScaleY(iparam4));
break;
case CDMF_FRECT:
fscanf(file, "%lg %lg %lg %lg", &dparam1, &dparam2, &dparam3, &dparam4);
cdfCanvasRect(canvas, sfScaleX(dparam1), sfScaleX(dparam2), sfScaleY(dparam3), sfScaleY(dparam4));
break;
case CDMF_WRECT:
fscanf(file, "%lg %lg %lg %lg", &dparam1, &dparam2, &dparam3, &dparam4);
wdCanvasRect(canvas, dparam1, dparam2, dparam3, dparam4);
break;
case CDMF_BOX:
fscanf(file, "%d %d %d %d", &iparam1, &iparam2, &iparam3, &iparam4);
cdCanvasBox(canvas, sScaleX(iparam1), sScaleX(iparam2), sScaleY(iparam3), sScaleY(iparam4));
break;
case CDMF_WBOX:
fscanf(file, "%lg %lg %lg %lg", &dparam1, &dparam2, &dparam3, &dparam4);
wdCanvasBox(canvas, dparam1, dparam2, dparam3, dparam4);
break;
case CDMF_FBOX:
fscanf(file, "%lg %lg %lg %lg", &dparam1, &dparam2, &dparam3, &dparam4);
cdfCanvasBox(canvas, sfScaleX(dparam1), sfScaleX(dparam2), sfScaleY(dparam3), sfScaleY(dparam4));
break;
case CDMF_ARC:
fscanf(file, "%d %d %d %d %lg %lg", &iparam1, &iparam2, &iparam3, &iparam4, &dparam1, &dparam2);
cdCanvasArc(canvas, sScaleX(iparam1), sScaleY(iparam2), sScaleW(iparam3), sScaleH(iparam4), dparam1, dparam2);
break;
case CDMF_FARC:
fscanf(file, "%lg %lg %lg %lg %lg %lg", &dparam1, &dparam2, &dparam3, &dparam4, &dparam5, &dparam6);
cdfCanvasArc(canvas, sfScaleX(dparam1), sfScaleY(dparam2), sfScaleW(dparam3), sfScaleH(dparam4), dparam5, dparam6);
break;
case CDMF_WARC:
fscanf(file, "%lg %lg %lg %lg %lg %lg", &dparam1, &dparam2, &dparam3, &dparam4, &dparam5, &dparam6);
wdCanvasArc(canvas, dparam1, dparam2, dparam3, dparam4, dparam5, dparam6);
break;
case CDMF_SECTOR:
fscanf(file, "%d %d %d %d %lg %lg", &iparam1, &iparam2, &iparam3, &iparam4, &dparam1, &dparam2);
cdCanvasSector(canvas, sScaleX(iparam1), sScaleY(iparam2), sScaleW(iparam3), sScaleH(iparam4), dparam1, dparam2);
break;
case CDMF_FSECTOR:
fscanf(file, "%lg %lg %lg %lg %lg %lg", &dparam1, &dparam2, &dparam3, &dparam4, &dparam5, &dparam6);
cdfCanvasSector(canvas, sfScaleX(dparam1), sfScaleY(dparam2), sfScaleW(dparam3), sfScaleH(dparam4), dparam5, dparam6);
break;
case CDMF_WSECTOR:
fscanf(file, "%lg %lg %lg %lg %lg %lg", &dparam1, &dparam2, &dparam3, &dparam4, &dparam5, &dparam6);
wdCanvasSector(canvas, dparam1, dparam2, dparam3, dparam4, dparam5, dparam6);
break;
case CDMF_CHORD:
fscanf(file, "%d %d %d %d %lg %lg", &iparam1, &iparam2, &iparam3, &iparam4, &dparam1, &dparam2);
cdCanvasChord(canvas, sScaleX(iparam1), sScaleY(iparam2), sScaleW(iparam3), sScaleH(iparam4), dparam1, dparam2);
break;
case CDMF_FCHORD:
fscanf(file, "%lg %lg %lg %lg %lg %lg", &dparam1, &dparam2, &dparam3, &dparam4, &dparam5, &dparam6);
cdfCanvasChord(canvas, sfScaleX(dparam1), sfScaleY(dparam2), sfScaleW(dparam3), sfScaleH(dparam4), dparam5, dparam6);
break;
case CDMF_WCHORD:
fscanf(file, "%lg %lg %lg %lg %lg %lg", &dparam1, &dparam2, &dparam3, &dparam4, &dparam5, &dparam6);
wdCanvasChord(canvas, dparam1, dparam2, dparam3, dparam4, dparam5, dparam6);
break;
case CDMF_TEXT:
fscanf(file, "%d %d %[^\n\r]", &iparam1, &iparam2, TextBuffer);
cdCanvasText(canvas, sScaleX(iparam1), sScaleY(iparam2), TextBuffer);
break;
case CDMF_FTEXT:
fscanf(file, "%lg %lg %[^\n\r]", &dparam1, &dparam2, TextBuffer);
cdfCanvasText(canvas, sfScaleX(dparam1), sfScaleY(dparam2), TextBuffer);
break;
case CDMF_WTEXT:
fscanf(file, "%lg %lg %[^\n\r]", &dparam1, &dparam2, TextBuffer);
wdCanvasText(canvas, dparam1, dparam2, TextBuffer);
break;
case CDMF_BEGIN:
fscanf(file, "%d", &iparam1);
cdCanvasBegin(canvas, iparam1);
break;
case CDMF_VERTEX:
fscanf(file, "%d %d", &iparam1, &iparam2);
cdCanvasVertex(canvas, sScaleX(iparam1), sScaleY(iparam2));
break;
case CDMF_FVERTEX:
fscanf(file, "%lg %lg", &dparam1, &dparam2);
cdfCanvasVertex(canvas, sfScaleX(dparam1), sfScaleY(dparam2));
break;
case CDMF_WVERTEX:
fscanf(file, "%lg %lg", &dparam1, &dparam2);
wdCanvasVertex(canvas, dparam1, dparam2);
break;
case CDMF_END:
cdCanvasEnd(canvas);
break;
case CDMF_MARK:
fscanf(file, "%d %d", &iparam1, &iparam2);
cdCanvasMark(canvas, sScaleX(iparam1), sScaleY(iparam2));
break;
case CDMF_WMARK:
fscanf(file, "%lg %lg", &dparam1, &dparam2);
wdCanvasMark(canvas, dparam1, dparam2);
break;
case CDMF_BACKOPACITY:
fscanf(file, "%d", &iparam1);
cdCanvasBackOpacity(canvas, iparam1);
break;
case CDMF_WRITEMODE:
fscanf(file, "%d", &iparam1);
cdCanvasWriteMode(canvas, iparam1);
break;
case CDMF_LINESTYLE:
fscanf(file, "%d", &iparam1);
cdCanvasLineStyle(canvas, iparam1);
break;
case CDMF_LINEWIDTH:
fscanf(file, "%d", &iparam1);
cdCanvasLineWidth(canvas, sScaleS(iparam1));
break;
case CDMF_LINECAP:
fscanf(file, "%d", &iparam1);
cdCanvasLineCap(canvas, iparam1);
break;
case CDMF_LINEJOIN:
fscanf(file, "%d", &iparam1);
cdCanvasLineJoin(canvas, iparam1);
break;
case CDMF_LINESTYLEDASHES:
fscanf(file, "%d", &iparam1);
dashes = (int*)malloc(iparam1*sizeof(int));
for (c = 0; c < iparam1; c++)
fscanf(file, "%d", &dashes[c]);
cdCanvasLineStyleDashes(canvas, dashes, iparam1);
free(dashes);
break;
case CDMF_FILLMODE:
fscanf(file, "%d", &iparam1);
cdCanvasFillMode(canvas, iparam1);
break;
case CDMF_INTERIORSTYLE:
fscanf(file, "%d", &iparam1);
cdCanvasInteriorStyle(canvas, iparam1);
break;
case CDMF_HATCH:
fscanf(file, "%d", &iparam1);
cdCanvasHatch(canvas, iparam1);
break;
case CDMF_STIPPLE:
fscanf(file, "%d %d", &iparam1, &iparam2);
t = iparam1 * iparam2;
stipple = (unsigned char*)malloc(t);
_stipple = stipple;
for (c = 0; c < t; c++)
{
fscanf(file, "%d", &iparam3);
*_stipple++ = (unsigned char)iparam3;
}
cdCanvasStipple(canvas, iparam1, iparam2, stipple);
free(stipple);
break;
case CDMF_PATTERN:
fscanf(file, "%d %d", &iparam1, &iparam2);
t = iparam1 * iparam2;
pattern = (long int*)malloc(t * sizeof(long));
_pattern = pattern;
for (c = 0; c < t; c++)
{
fscanf(file, "%d %d %d", &iparam3, &iparam4, &iparam5);
*_pattern++ = cdEncodeColor((unsigned char)iparam3, (unsigned char)iparam4, (unsigned char)iparam5);
}
cdCanvasPattern(canvas, iparam1, iparam2, pattern);
free(pattern);
break;
case CDMF_OLDFONT:
fscanf(file, "%d %d %d", &iparam1, &iparam2, &iparam3);
if (iparam1 < 0 || iparam1 > 3) break;
if (iparam3 < 0)
{
iparam3 = -sScaleH(abs(iparam3));
if (iparam3 > -5) iparam3 = -5;
}
else
{
iparam3 = sScaleH(abs(iparam3));
if (iparam3 < 5) iparam3 = 5;
}
cdCanvasFont(canvas, font_family[iparam1], iparam2, iparam3);
break;
case CDMF_FONT:
fscanf(file, "%d %d %[^\n\r]", &iparam2, &iparam3, TextBuffer);
if (iparam3 < 0)
{
iparam3 = -sScaleH(abs(iparam3));
if (iparam3 > -5) iparam3 = -5;
}
else
{
iparam3 = sScaleH(abs(iparam3));
if (iparam3 < 5) iparam3 = 5;
}
cdCanvasFont(canvas, TextBuffer, iparam2, iparam3);
break;
case CDMF_NATIVEFONT:
fscanf(file, "%[^\n\r]", TextBuffer);
cdCanvasNativeFont(canvas, TextBuffer);
break;
case CDMF_TEXTALIGNMENT:
fscanf(file, "%d", &iparam1);
cdCanvasTextAlignment(canvas, iparam1);
break;
case CDMF_TEXTORIENTATION:
fscanf(file, "%lg", &dparam1);
cdCanvasTextOrientation(canvas, dparam1);
break;
case CDMF_MARKTYPE:
fscanf(file, "%d", &iparam1);
cdCanvasMarkType(canvas, iparam1);
break;
case CDMF_MARKSIZE:
fscanf(file, "%d", &iparam1);
cdCanvasMarkSize(canvas, sScaleS(iparam1));
break;
case CDMF_PALETTE:
fscanf(file, "%d %d", &iparam1, &iparam2);
_palette = palette = (long int*)malloc(iparam1);
for (c = 0; c < iparam1; c++)
{
fscanf(file, "%d %d %d", &iparam3, &iparam4, &iparam5);
*_palette++ = cdEncodeColor((unsigned char)iparam3, (unsigned char)iparam4, (unsigned char)iparam5);
}
cdCanvasPalette(canvas, iparam1, palette, iparam2);
free(palette);
break;
case CDMF_BACKGROUND:
fscanf(file, "%d %d %d", &iparam1, &iparam2, &iparam3);
cdCanvasSetBackground(canvas, cdEncodeColor((unsigned char)iparam1, (unsigned char)iparam2, (unsigned char)iparam3));
break;
case CDMF_FOREGROUND:
fscanf(file, "%d %d %d", &iparam1, &iparam2, &iparam3);
cdCanvasSetForeground(canvas, cdEncodeColor((unsigned char)iparam1, (unsigned char)iparam2, (unsigned char)iparam3));
break;
case CDMF_PUTIMAGERGB:
fscanf(file, "%d %d %d %d %d %d", &iparam1, &iparam2, &iparam3, &iparam4, &iparam5, &iparam6);
t = iparam1 * iparam2;
_red = red = (unsigned char*) malloc(t);
_green = green = (unsigned char*) malloc(t);
_blue = blue = (unsigned char*) malloc(t);
for (c = 0; c < t; c++)
{
fscanf(file, "%d %d %d", &iparam7, &iparam8, &iparam9);
*_red++ = (unsigned char)iparam7;
*_green++ = (unsigned char)iparam8;
*_blue++ = (unsigned char)iparam9;
}
cdCanvasPutImageRectRGB(canvas, iparam1, iparam2, red, green, blue, sScaleX(iparam3), sScaleY(iparam4), sScaleW(iparam5), sScaleH(iparam6), 0, 0, 0, 0);
free(red);
free(green);
free(blue);
break;
case CDMF_PUTIMAGERGBA:
fscanf(file, "%d %d %d %d %d %d", &iparam1, &iparam2, &iparam3, &iparam4, &iparam5, &iparam6);
t = iparam1 * iparam2;
_red = red = (unsigned char*) malloc(t);
_green = green = (unsigned char*) malloc(t);
_blue = blue = (unsigned char*) malloc(t);
_alpha = alpha = (unsigned char*) malloc(t);
for (c = 0; c < t; c++)
{
fscanf(file, "%d %d %d %d", &iparam7, &iparam8, &iparam9, &iparam10);
*_red++ = (unsigned char)iparam7;
*_green++ = (unsigned char)iparam8;
*_blue++ = (unsigned char)iparam9;
*_alpha++ = (unsigned char)iparam10;
}
cdCanvasPutImageRectRGBA(canvas, iparam1, iparam2, red, green, blue, alpha, sScaleX(iparam3), sScaleY(iparam4), sScaleW(iparam5), sScaleH(iparam6), 0, 0, 0, 0);
free(red);
free(green);
free(blue);
free(alpha);
break;
case CDMF_PUTIMAGEMAP:
fscanf(file, "%d %d %d %d %d %d", &iparam1, &iparam2, &iparam3, &iparam4, &iparam5, &iparam6);
t = iparam1 * iparam2;
n = 0;
_index = index = (unsigned char*) malloc(t);
for (c = 0; c < t; c++)
{
fscanf(file, "%d", &iparam7);
*_index++ = (unsigned char)iparam7;
if (iparam7 > n)
n = iparam7;
}
_colors = colors = (long int*)malloc(n);
for (c = 0; c < n; c++)
{
fscanf(file, "%d %d %d", &iparam7, &iparam8, &iparam9);
*_colors++ = cdEncodeColor((unsigned char)iparam7, (unsigned char)iparam8, (unsigned char)iparam9);
}
cdCanvasPutImageRectMap(canvas, iparam1, iparam2, index, colors, sScaleX(iparam3), sScaleY(iparam4), sScaleW(iparam5), sScaleH(iparam6), 0, 0, 0, 0);
free(index);
free(colors);
break;
case CDMF_PIXEL:
fscanf(file, "%d %d %d %d %d", &iparam1, &iparam2, &iparam3, &iparam4, &iparam5);
cdCanvasPixel(canvas, sScaleX(iparam1), sScaleY(iparam2), cdEncodeColor((unsigned char)iparam3, (unsigned char)iparam4, (unsigned char)iparam5));
break;
case CDMF_SCROLLAREA:
fscanf(file, "%d %d %d %d %d %d", &iparam1, &iparam2, &iparam3, &iparam4, &iparam5, &iparam6);
cdCanvasScrollArea(canvas, sScaleX(iparam1), sScaleX(iparam2), sScaleY(iparam3), sScaleY(iparam4), sScaleX(iparam5), sScaleY(iparam6));
break;
case CDMF_WVECTORTEXT:
fscanf(file, "%lg %lg %[^\n\r]", &dparam1, &dparam2, TextBuffer);
wdCanvasVectorText(canvas, dparam1, dparam2, TextBuffer);
break;
case CDMF_WMULTILINEVECTORTEXT:
fscanf(file, "%lg %lg %[^\n\r]", &dparam1, &dparam2, TextBuffer);
wdCanvasVectorText(canvas, dparam1, dparam2, TextBuffer);
break;
case CDMF_VECTORTEXT:
fscanf(file, "%d %d %[^\n\r]", &iparam1, &iparam2, TextBuffer);
cdCanvasVectorText(canvas, iparam1, iparam2, TextBuffer);
break;
case CDMF_MULTILINEVECTORTEXT:
fscanf(file, "%d %d %[^\n\r]", &iparam1, &iparam2, TextBuffer);
cdCanvasVectorText(canvas, iparam1, iparam2, TextBuffer);
break;
case CDMF_WVECTORCHARSIZE:
fscanf(file, "%lg", &dparam1);
wdCanvasVectorCharSize(canvas, dparam1);
break;
case CDMF_WVECTORTEXTSIZE:
fscanf(file, "%lg %lg %[^\n\r]", &dparam1, &dparam2, TextBuffer);
wdCanvasVectorTextSize(canvas, dparam1, dparam2, TextBuffer);
break;
case CDMF_WVECTORTEXTDIRECTION:
fscanf(file, "%lg %lg %lg %lg", &dparam1, &dparam2, &dparam3, &dparam4);
wdCanvasVectorTextDirection(canvas, dparam1, dparam2, dparam3, dparam4);
break;
case CDMF_VECTORCHARSIZE:
fscanf(file, "%d", &iparam1);
cdCanvasVectorCharSize(canvas, iparam1);
break;
case CDMF_VECTORTEXTSIZE:
fscanf(file, "%d %d %[^\n\r]", &iparam1, &iparam2, TextBuffer);
cdCanvasVectorTextSize(canvas, iparam1, iparam2, TextBuffer);
break;
case CDMF_VECTORTEXTDIRECTION:
fscanf(file, "%d %d %d %d", &iparam1, &iparam2, &iparam3, &iparam4);
cdCanvasVectorTextDirection(canvas, iparam1, iparam2, iparam3, iparam4);
break;
case CDMF_VECTORFONT:
fscanf(file, "%[^\n\r]", TextBuffer);
cdCanvasVectorFont(canvas, TextBuffer);
break;
case CDMF_VECTORTEXTTRANSFORM:
fscanf(file, "%lg %lg %lg %lg %lg %lg", &matrix[0], &matrix[1], &matrix[2], &matrix[3], &matrix[4], &matrix[5]);
cdCanvasVectorTextTransform(canvas, matrix);
break;
case CDMF_WINDOW:
fscanf(file, "%lg %lg %lg %lg", &dparam1, &dparam2, &dparam3, &dparam4);
wdCanvasWindow(canvas, dparam1, dparam2, dparam3, dparam4);
break;
default:
fclose(file);
return CD_ERROR;
}
}
fclose(file);
return CD_OK;
}