static void TestFunc(void)
{
int x = GrSizeX();
int y = GrSizeY();
int ww = (x / 2) - 10;
int wh = (y / 2) - 10;
GrColor c;
GrContext *w1 = GrCreateSubContext(5, 5, ww+4, wh+4, NULL, NULL);
GrContext *w2 = GrCreateSubContext(15+ww, 5, ww+ww+14, wh+4, NULL, NULL);
GrContext *w3 = GrCreateSubContext(5, 15+wh, ww+4, wh+wh+14, NULL, NULL);
GrContext *w4 = GrCreateSubContext(15+ww, 15+wh, ww+ww+14, wh+wh+14, NULL, NULL);
GrSetContext(w1);
c = GrAllocColor(200, 100, 100);
drawing(0, 0, ww, wh, c, GrBlack());
GrBox(0, 0, ww-1, wh-1, c);
GrSetContext(w2);
c = GrAllocColor(100, 200, 200);
drawing(0, 0, ww, wh, c, GrBlack());
GrBox(0, 0, ww-1, wh-1, c);
GrSetContext(w3);
c = GrAllocColor(200, 200, 0);
drawing(0, 0, ww, wh, c, GrBlack());
GrBox(0, 0,ww-1, wh-1, c);
GrSetContext(w4);
c = GrAllocColor(0, 100, 200);
drawing(0, 0, ww, wh, c, GrBlack());
GrBox(0, 0, ww-1, wh-1, c);
GrSetContext(NULL);
}
void tachyon_video::on_process() {
char buf[8192];
flt runtime;
scenedef *scene = (scenedef *) global_scene;
updating_mode = scene->displaymode == RT_DISPLAY_ENABLED;
recycling = false;
pausing = false;
do {
updating = updating_mode;
timer start_timer = gettimer();
rt_renderscene(global_scene);
timer end_timer = gettimer();
runtime = timertime(start_timer, end_timer);
sprintf(buf, "%s: %.3f seconds", global_window_title, runtime);
rt_ui_message(MSG_0, buf);
title = buf; show_title(); // show time spent for rendering
if(!updating) {
updating = true;
drawing_memory dm = get_drawing_memory();
drawing_area drawing(0, 0, dm.sizex, dm.sizey);// invalidate whole screen
}
rt_finalize();
title = global_window_title; show_title(); // reset title to default
} while(recycling && running);
}
/* 基本动作——左转 */
void turnLeft(Person * x)
{
x->direction = x->direction + 1;
x->direction = x->direction%4;
drawing();
return ;
}
static void parallel_thread(void)
{
unsigned int mboxsize = sizeof(unsigned int)*(max_objectid() + 20);
#if RUNTIME == RUNTIME_SERIAL
for ( int y = starty; y < stopy; y++ )
#elif RUNTIME == RUNTIME_OPENMP
#pragma omp parallel for
for ( int y = starty; y < stopy; y++ )
#elif RUNTIME == RUNTIME_CILK
_Cilk_for(int y = starty; y < stopy; y++)
#elif RUNTIME == RUNTIME_TBB
tbb::parallel_for(starty, stopy, [mboxsize] (int y)
#endif
{
unsigned int serial = 1;
unsigned int local_mbox[mboxsize];
memset(local_mbox, 0, mboxsize);
drawing_area drawing(startx, totaly - y, stopx - startx, 1);
for ( int x = startx; x < stopx; x++ ) {
color_t c = render_one_pixel(x, y, local_mbox, serial, startx, stopx, starty, stopy);
drawing.put_pixel(c);
}
video->next_frame();
}
#if RUNTIME == RUNTIME_TBB
);
#endif
}
int main()
{
int x, y, ww, wh;
GrxColor c;
GrxContext *w1, *w2, *w3, *w4;
GError *error = NULL;
grx_set_driver("memory gw 400 gh 400 nc 256", NULL);
if (!grx_set_mode(GRX_GRAPHICS_MODE_GRAPHICS_DEFAULT, &error)) {
g_error("%s", error->message);
}
x = grx_get_width();
y = grx_get_height();
ww = (x / 2) - 10;
wh = (y / 2) - 10;
w1 = grx_context_new_subcontext(5,5,ww+4,wh+4,NULL,NULL);
w2 = grx_context_new_subcontext(15+ww,5,ww+ww+14,wh+4,NULL,NULL);
w3 = grx_context_new_subcontext(5,15+wh,ww+4,wh+wh+14,NULL,NULL);
w4 = grx_context_new_subcontext(15+ww,15+wh,ww+ww+14,wh+wh+14,NULL,NULL);
grx_set_current_context(w1);
c = grx_color_get(200,100,100);
drawing(0,0,ww,wh,c,GRX_COLOR_BLACK);
grx_draw_box(0,0,ww-1,wh-1,c);
grx_set_current_context(w2);
c = grx_color_get(100,200,200);
drawing(0,0,ww,wh,c,GRX_COLOR_BLACK);
grx_draw_box(0,0,ww-1,wh-1,c);
grx_set_current_context(w3);
c = grx_color_get(200,200,0);
drawing(0,0,ww,wh,c,GRX_COLOR_BLACK);
grx_draw_box(0,0,ww-1,wh-1,c);
grx_set_current_context(w4);
c = grx_color_get(0,100,200);
drawing(0,0,ww,wh,c,GRX_COLOR_BLACK);
grx_draw_box(0,0,ww-1,wh-1,c);
grx_set_current_context( NULL );
// GrSaveBmpImage( "memtest.bmp",NULL,0,0,639,479 );
grx_context_save_to_ppm( NULL,"memtest.ppm","GRX MemTest",NULL );
return 0;
}
void makeImage(char* fileName) {
drawing_3d_t drawing(fileName);
imageWidth = drawing.getWindowWidth();
imageHeight = drawing.getWindowHeight();
pipeline_t mypipeline(drawing, 0);
buffer.setFrameBuffer(imageWidth, imageHeight);
startRasterizing(drawing);
setCameraPositions(drawing);
drawing_perspective = drawing;
}
void operator() (const tbb::blocked_range2d<int> &r) const
{
// task-local storage
unsigned int serial = 1;
unsigned int mboxsize = sizeof(unsigned int)*(max_objectid() + 20);
unsigned int * local_mbox = (unsigned int *) alloca(mboxsize);
memset(local_mbox,0,mboxsize);
#ifdef MARK_RENDERING_AREA
// compute thread number while first task run
thread_id_t::reference thread_id = thread_ids.local();
if (thread_id == -1) thread_id = thread_number++;
// choose thread color
int pos = thread_id % NUM_COLORS;
if(video->running) {
drawing_area drawing(r.cols().begin(), totaly-r.rows().end(), r.cols().end() - r.cols().begin(), r.rows().end()-r.rows().begin());
for (int i = 1, y = r.rows().begin(); y != r.rows().end(); ++y, i++) {
drawing.set_pos(0, drawing.size_y-i);
for (int x = r.cols().begin(); x != r.cols().end(); x++) {
int d = (y % 3 == 0) ? 2 : 1;
drawing.put_pixel(video->get_color(colors[pos][0]/d, colors[pos][1]/d, colors[pos][2]/d));
}
}
}
#endif
if(video->next_frame()) {
drawing_area drawing(r.cols().begin(), totaly-r.rows().end(), r.cols().end() - r.cols().begin(), r.rows().end()-r.rows().begin());
for (int i = 1, y = r.rows().begin(); y != r.rows().end(); ++y, i++) {
drawing.set_pos(0, drawing.size_y-i);
for (int x = r.cols().begin(); x != r.cols().end(); x++) {
#ifdef MARK_RENDERING_AREA
float alpha = y==r.rows().begin()||y==r.rows().end()-1||x==r.cols().begin()||x==r.cols().end()-1
? border_alpha : inner_alpha;
color_t c = render_one_pixel (x, y, local_mbox, serial, startx, stopx, starty, stopy, colors[pos], alpha);
#else
color_t c = render_one_pixel (x, y, local_mbox, serial, startx, stopx, starty, stopy);
#endif
drawing.put_pixel(c);
}
}
}
}
void TImageSnapshot::setImage(QImage img)
{
if (picMode->_colorMapChanged && val16.size() != 0) {
val.clear();
picMode->convert16BitData(val16, val);
img = picMode->setImage(dimX, dimY, val);
wgt->image = img;
}
wgt->widthScrBar->setMaximum(wgt->image.width());
wgt->heightScrBar->setMaximum(wgt->image.height());
img = setPropertiesOnImg(img);
drawing(img);
}
void showCorners(void* image_buffer, pixel_t type) {
// render a small red cross for each corner on the given image.
int idx, x, y, w = cmap.w, h = cmap.h, total = cmap.w * cmap.h;
if (w <= 0 || h <= 0 || cmap.data == NULL) return;
CornerPoint **mp = (CornerPoint**)(cmap.data);
ImageDrawer<float> drawing( w, h, type, image_buffer );
for (idx = 0; idx < total; idx++) {
if (mp[idx] == NULL) continue;
x = idx % w; y = idx / w;
if (y < 3 || y >= h-3) continue;
drawing.drawCross( x, y, 2, '+', 255, 0, 0 );
}
}
void operator() (const tbb::blocked_range<int> &r) const
{
// task-local storage
unsigned int serial = 1;
unsigned int mboxsize = sizeof(unsigned int)*(max_objectid() + 20);
unsigned int * local_mbox = (unsigned int *) alloca(mboxsize);
memset(local_mbox,0,mboxsize);
for (int y = r.begin(); y != r.end(); ++y) { {
drawing_area drawing(startx, totaly-y, stopx-startx, 1);
for (int x = startx; x < stopx; x++) {
color_t c = render_one_pixel (x, y, local_mbox, serial, startx, stopx, starty, stopy);
drawing.put_pixel(c);
} }
if(!video->next_frame()) return;
}
}
//todo: comment out following routine in TBB implementation
///*
static void draw_task (void)
{
// thread-local storage
unsigned int serial = 1;
unsigned int mboxsize = sizeof(unsigned int)*(max_objectid() + 20);
unsigned int * local_mbox = (unsigned int *) alloca(mboxsize);
memset(local_mbox,0,mboxsize);
for (int y = starty; y < stopy; y++) { {
drawing_area drawing(startx, totaly-y, stopx-startx, 1);
for (int x = startx; x < stopx; x++) {
color_t c = render_one_pixel (x, y, local_mbox, serial, startx, stopx, starty, stopy);
drawing.put_pixel(c);
} }
if(!video->next_frame()) return;
}
}
/* 基本动作——指定方向移动一步 */
void step(Person * x)
{
int i = x->positionx;
int j = x->positiony;
switch(x->direction)
{
case DIR_RIGHT:
if(i+1<POSWIDTH)
{
map[j][i] = 0;
x->positionx = i+1;
}
break;
case DIR_UP:
if(j-1>=0)
{
map[j][i] = 0;
x->positiony=j-1;
}
break;
case DIR_LEFT:
if(i-1>=0)
{
map[j][i] = 0;
x->positionx = i-1;
}
break;
case DIR_DOWN:
if(j+1<POSHEIGHT)
{
map[j][i] = 0;
x->positiony=j+1;
}
break;
default:
break;
}
drawing();
drawPerson(&xiaoming);
drawPerson(&xiaohong);
return ;
}
int main(int argc, char** argv) {
Fl_Window window(5*75,400);
window.box(FL_NO_BOX);
Fl_Scroll scroll(0,0,5*75,300);
Fl_Group g(0, 0, 5*75, 8*25);
int n = 0;
for (int y=0; y<16; y++) for (int x=0; x<5; x++) {
char buf[20]; sprintf(buf,"%d",n++);
if (y==8 && x==0) g.end();
Fl_Button* b = new Fl_Button(x*75,y*25+(y>=8?5*75:0),75,25,strdup(buf));
b->color(n);
b->selection_color(n);
b->label_color(FL_WHITE);
b->selection_text_color(FL_WHITE);
}
g.end();
Drawing drawing(0,8*25,5*75,5*75,0);
scroll.end();
window.resizable(scroll);
Fl_Box box(0,300,5*75,window.h()-300); // gray area below the scroll
box.box(FL_FLAT_BOX);
Fl_Toggle_Button but1(150, 310, 200, 25, "box");
but1.set();
but1.callback(box_cb);
Fl_Choice choice(150, 335, 200, 25, "type():");
choice.menu(choices);
choice.value(3);
Fl_Choice achoice(150, 360, 200, 25, "scrollbar_align():");
achoice.menu(align_choices);
achoice.value(3);
thescroll = &scroll;
//scroll.box(FL_DOWN_BOX);
//scroll.type(Fl_Scroll::VERTICAL);
window.end();
window.show(argc,argv);
return Fl::run();
}
int main(int argc, char **argv)
{
Aria::init();
ArServerBase server;
ArGlobalFunctor2<ArServerClient *, ArNetPacket *> sendEmptyCB(&sendEmpty);
if (!server.open(7272))
{
printf("Could not open server port\n");
exit(1);
}
ArServerInfoDrawings drawing(&server);
ArDrawingData arrows("polyarrow", ArColor(0, 0, 255), 5, 50);
ArDrawingData dots("polydots", ArColor(0, 255, 0), 12, 50);
drawing.addDrawing(&arrows, "arrows", &sendEmptyCB);
drawing.addDrawing(&dots, "dots", &sendEmptyCB);
server.run();
}
static void paint_screen(void)
{
GrContext *grc;
paint_board(&brd);
paint_button_group(bgact);
paint_board(&brdimg);
grc = GrCreateSubContext(brdimg.x + 4, brdimg.y + 4,
brdimg.x + brdimg.wide - 5,
brdimg.y + brdimg.high - 5, grcglob, NULL);
if (bgact == &bgp1)
GrLoadContextFromPnm(grc, "pnmtest.ppm");
else
GrLoadContextFromPnm(grc, "pnmtest2.ppm");
GrDestroyContext(grc);
the_info(500, 215);
drawing(400, 290, 200, 150, BROWN, DARKGRAY);
the_title(500, 330);
paint_foot("Hold down left mouse buttom to see a comment");
}
void tachyon_video::on_key(int key) {
key &= 0xff;
recycling = true;
if(key == esc_key) running = false;
else if(key == ' ') {
if(!updating) {
updating = true;
drawing_memory dm = get_drawing_memory();
drawing_area drawing(0, 0, dm.sizex, dm.sizey);// invalidate whole screen
}
updating = updating_mode = !updating_mode;
}
else if(key == 'p') {
pausing = !pausing;
if(pausing) {
title = "Press ESC to exit or 'p' to continue after rendering completion";
show_title();
}
}
}
void init()
{
/* 初始化位置方向速度 */
xiaoming.positionx = 1;
xiaoming.positiony = 1;
xiaoming.direction = DIR_RIGHT;
xiaoming.speed = 100;
xiaohong.positionx = 12;
xiaohong.positiony = 1;
xiaohong.direction = DIR_RIGHT;
xiaohong.speed = 50;
endx = 19;
endy = 18;
/* 墙 */
loadimage(&WallImg, "wall.bmp", IMGWIDTH, IMGHEIGHT, true);
/* 空地 */
loadimage(&BlankImg, "blank.bmp", IMGWIDTH, IMGHEIGHT, true);
/* 终点 */
loadimage(&EndImg, "end.bmp", IMGWIDTH, IMGHEIGHT, true);
/* 人物 */
loadimage(&PersonImg[DIR_RIGHT], "right.bmp", IMGWIDTH, IMGHEIGHT, true);
loadimage(&PersonImg[DIR_UP], "up.bmp", IMGWIDTH, IMGHEIGHT, true);
loadimage(&PersonImg[DIR_LEFT], "left.bmp", IMGWIDTH, IMGHEIGHT, true);
loadimage(&PersonImg[DIR_DOWN], "down.bmp", IMGWIDTH, IMGHEIGHT, true);
setfont(14, 0, _T("黑体"));
outtextxy(410, 310, _T("操作说明"));
outtextxy(410, 330, _T("s：走一步"));
outtextxy(410, 350, _T("l：左转"));
outtextxy(410, 370, _T("m：自定义移动"));
drawing();
return ;
}
void control(t_en *en)
{
en->x = 0;
while (en->x < WIDTH)
{
init_while(en);
define_step(en);
while (en->hit == 0)
is_hit(en);
color(en);
en->hit = 0;
if (en->side == 0)
en->perpwall = fabs((en->map.x - en->raypos.x + \
(1 - en->step.x) / 2) / en->ray.x);
else
en->perpwall = fabs((en->map.y - en->raypos.y + \
(1 - en->step.y) / 2) / en->ray.y);
drawing(en);
en->x++;
}
}
void operator () (const tbb::blocked_range <int> &r) const {
unsigned int serial = 1;
unsigned int mboxsize = sizeof(unsigned int)*(max_objectid() + 20);
unsigned int * local_mbox = (unsigned int *) alloca(mboxsize);
memset(local_mbox,0,mboxsize);
for (int y=r.begin(); y!=r.end(); ++y) {
drawing_area drawing(startx, totaly-y, stopx-startx, 1);
// Acquire mutex to protect pixel calculation from multithreaded access (Needed?)
// pthread_mutex_lock (&rgb_mutex);
for (int x = startx; x < stopx; x++) {
color_t c = render_one_pixel (x, y, local_mbox, serial, startx, stopx, starty, stopy);
drawing.put_pixel(c);
}
// Release the mutex after pixel calculation complete
// pthread_mutex_unlock (&rgb_mutex);
if(!video->next_frame()) tbb::task::self().cancel_group_execution();
}
}
int main(int argc, char** argv) {
Fl_Double_Window window(300,500);
Drawing drawing(10,10,280,280);
d = &drawing;
int y = 300;
for (int n = 0; n<7; n++) {
Fl_Value_Slider* s = new Fl_Value_Slider(50,y,240,25,name[n]); y += 25;
s->type(Fl_Slider::HORIZONTAL);
if (n<4) {s->minimum(0); s->maximum(300);}
else if (n==6) {s->minimum(0); s->maximum(360);}
else {s->minimum(-360); s->maximum(360);}
s->type(Fl_Slider::HORIZONTAL | Fl_Slider::TICK_ABOVE);
s->step(1);
s->value(args[n]);
s->clear_flag(FL_ALIGN_MASK);
s->set_flag(FL_ALIGN_LEFT);
s->callback(slider_cb, (void*)n);
}
window.end();
window.show(argc,argv);
return Fl::run();
}
void GLWidget::line_rel(double delta_x, double delta_y) {
drawing(x, y, x+delta_x, y+delta_y);
x += delta_x;
y += delta_y;
}
int main()
{
//устанавливаем уровень сглаживания
sf::ContextSettings settings;
settings.antialiasingLevel = 8;
//создаем окно приложения
sf::RenderWindow window(sf::VideoMode(screenWidth, screenHeight), "My Analog Clock", sf::Style::Close, settings);
float windowX = float(window.getSize().x);
float windowY = float(window.getSize().y);
//Определяем центр окна
sf::Vector2f windowCenter = sf::Vector2f(windowX / 2.0f, windowY / 2.0f);
//создаем точки
sf::CircleShape dot[60];
createDots(dot,windowCenter);
//создаем внешний контур
sf::CircleShape clockCircle(clockCircleSize);
//настраиваем внешний контур
setCircle(&clockCircle,100, clockCircleThickness, sf::Color::Black,0, windowX / 2 + clockCircleThickness, windowY / 2 + clockCircleThickness);
//создаем центральный круг
sf::CircleShape centerCircle(10);
//настраиваем центральный круг
setCircle(¢erCircle, 100, 1, sf::Color::Yellow,1, windowX / 2, windowY / 2);
//создаем стрелки
sf::RectangleShape hourHand(sf::Vector2f(5, 150));
sf::RectangleShape minuteHand(sf::Vector2f(3, 200));
sf::RectangleShape secondsHand(sf::Vector2f(2, 220));
//массив стрелок
sf::RectangleShape *strelki[3];
strelki[0] = &hourHand;
strelki[1] = &minuteHand;
strelki[2] = &secondsHand;
//настройка стрелок
setStrelki(strelki, windowCenter);
//задний фон часов
sf::Texture clockImage;
if (!clockImage.loadFromFile("C:/Workshpase/Clock/fon.jpg"))
{
return EXIT_FAILURE;
}
clockCircle.setTexture(&clockImage);
clockCircle.setTextureRect(sf::IntRect(40, 0, 500, 500));
while (window.isOpen())
{
sf::Event event;
while (window.pollEvent(event))
{
if (event.type == sf::Event::Closed)
window.close();
}
//Поворачиваем стрелки
moveStrelki(strelki);
//Отрисовываем
drawing(&window, dot, strelki, clockCircle, centerCircle);
}
return EXIT_SUCCESS;
}
void paintGL()
{
updatestatus();
drawing();
}
void MainWindow::on_pushButton_Check_clicked()
{
QString fileNumber;
fileNumber = ui->lineEdit_FindPart->text();
int partNumber = fileNumber.toInt();
int directoryMin = (partNumber /1000)* (1000) + 1;// rounding number
int directoryMax = directoryMin + 999;
if(fileNumber == "0")
{
QMessageBox::information(this, "Enter a valid number", "Enter a number other than 0");
}
else if(fileNumber == "")
{
QMessageBox::information(this, "Empty", "Enter a number");
}
else if (partNumber <= 10000)// if part number is between 1 and 10000 use the static directory AND ADD DASH (-)
{
//SHOW PART NUMBER
ui->label_LastChecked->setText("B-"+fileNumber);
//static directory
QString directoryRange = "B-0001-B10000";
QFile drawing("N:/SolidWorksDrawing/B---/" + directoryRange + "/B-" + fileNumber + ".slddrw");
QFile pdf("P:/S_Works-Dwgs/B---/B-" + fileNumber + ".pdf");
QFile dxf("P:/SW_Track/B-" + fileNumber + ".dxf");
if(drawing.exists())
{
ui->graphicsView_Drawing->setStyleSheet("background-color:#00ff00");
}
else
{
ui->graphicsView_Drawing->setStyleSheet("background-color:#ff0000");
}
// PDF
if(pdf.exists())
{
ui->graphicsView_Pdf->setStyleSheet("background-color:#00ff00");
}
else
{
ui->graphicsView_Pdf->setStyleSheet("background-color:#ff0000");
}
// DXF
if(dxf.exists())
{
ui->graphicsView_Dxf->setStyleSheet("background-color:#00ff00");
}
else
{
ui->graphicsView_Dxf->setStyleSheet("background-color:#ff0000");
}
}
else
{
//SHOW PART NUMBER
ui->label_LastChecked->setText("B"+fileNumber);
//converting ints to strings and concatinating them
QString directoryRange = "B"+ QString::number(directoryMin)+ "-" + "B" + QString::number(directoryMax);
QFile drawing("N:/SolidWorksDrawing/B---/" + directoryRange + "/B" + fileNumber + ".slddrw");
QFile pdf("P:/S_Works-Dwgs/B---/B" + fileNumber + ".pdf");
QFile dxf("P:/SW_Track/B" + fileNumber + ".dxf");
if(drawing.exists())
{
ui->graphicsView_Drawing->setStyleSheet("background-color:#00ff00");
}
else
{
ui->graphicsView_Drawing->setStyleSheet("background-color:#ff0000");
}
// PDF
if(pdf.exists())
{
ui->graphicsView_Pdf->setStyleSheet("background-color:#00ff00");
}
else
{
ui->graphicsView_Pdf->setStyleSheet("background-color:#ff0000");
}
// DXF
if(dxf.exists())
{
ui->graphicsView_Dxf->setStyleSheet("background-color:#00ff00");
}
else
{
ui->graphicsView_Dxf->setStyleSheet("background-color:#ff0000");
}
}
}//CHECK ENDS HERE
//-----------------------------------------------------------------------------
// call function: compute an UML layout for graph umlGraph
//-----------------------------------------------------------------------------
void PlanarizationLayoutUML::call(UMLGraph ¨Graph)
{
m_nCrossings = 0;
if(umlGraph.constGraph().empty())
return;
// check necessary preconditions
preProcess(umlGraph);
//---------------------------------------------------
// preprocessing: insert a merger for generalizations
umlGraph.insertGenMergers();
PlanRepUML pr(umlGraph);
const int numCC = pr.numberOfCCs();
// (width,height) of the layout of each connected component
Array<DPoint> boundingBox(numCC);
// alignment section (should not be here, because planarlayout should
// not know about the meaning of layouter options and should not cope
// with them), move later
// we have to distinguish between cc's with and without generalizations
// if the alignment option is set
int l_layoutOptions = m_planarLayouter.get().getOptions();
bool l_align = ((l_layoutOptions & umlOpAlign) > 0);
//end alignment section
//------------------------------------------
//now planarize CCs and apply drawing module
for(int i = 0; i < numCC; ++i)
{
//---------------------------------------
// 1. crossing minimization
//---------------------------------------
// alignment: check wether gens exist, special treatment is necessary
bool l_gensExist = false; // set this for all CC's, start with first gen,
//this setting can be mixed among CC's without problems
EdgeArray<Graph::EdgeType> savedType(pr);
EdgeArray<Graph::EdgeType> savedOrigType(pr.original()); //for deleted copies
EdgeArray<int> costOrig(pr.original(), 1);
//edgearray for reinserter call: which edge may never be crossed?
EdgeArray<bool> noCrossingEdge(pr.original(), false);
edge e;
forall_edges(e,pr)
{
edge eOrig = pr.original(e);
if (pr.typeOf(e) == Graph::generalization)
{
if (l_align) l_gensExist = true;
OGDF_ASSERT(!eOrig || !(noCrossingEdge[eOrig]));
// high cost to allow alignment without crossings
if (l_align && (
(eOrig && (pr.typeOf(e->target()) == Graph::generalizationMerger))
|| pr.alignUpward(e->adjSource())
))
costOrig[eOrig] = 10;
}
}
int cr;
m_crossMin.get().call(pr, i, cr, &costOrig);
m_nCrossings += cr;
//---------------------------------------
// 2. embed resulting planar graph
//---------------------------------------
// We currently compute any embedding and choose the maximal face as external face
// if we use FixedEmbeddingInserter, we have to re-use the computed
// embedding, otherwise crossing nodes can turn into "touching points"
// of edges (alternatively, we could compute a new embedding and
// finally "remove" such unnecessary crossings).
if(!pr.representsCombEmbedding())
planarEmbed(pr);
adjEntry adjExternal = 0;
if(pr.numberOfEdges() > 0) {
CombinatorialEmbedding E(pr);
face fExternal = findBestExternalFace(pr,E);
adjExternal = fExternal->firstAdj();
}
//---------------------------------------------------------
// 3. compute layout of planarized representation
//---------------------------------------------------------
Layout drawing(pr);
// distinguish between CC's with/without generalizations
// this changes the input layout modules options!
if (l_gensExist)
m_planarLayouter.get().setOptions(l_layoutOptions);
else
m_planarLayouter.get().setOptions((l_layoutOptions & ~umlOpAlign));
// call the Layouter for the CC's UMLGraph
m_planarLayouter.get().call(pr, adjExternal, drawing);
// copy layout into umlGraph
// Later, we move nodes and edges in each connected component, such
// that no two overlap.
for(int j = pr.startNode(); j < pr.stopNode(); ++j) {
node vG = pr.v(j);
umlGraph.x(vG) = drawing.x(pr.copy(vG));
umlGraph.y(vG) = drawing.y(pr.copy(vG));
adjEntry adj;
forall_adj(adj,vG) {
if ((adj->index() & 1) == 0) continue;
edge eG = adj->theEdge();
drawing.computePolylineClear(pr,eG,umlGraph.bends(eG));
}
}
// the width/height of the layout has been computed by the planar
// layout algorithm; required as input to packing algorithm
boundingBox[i] = m_planarLayouter.get().getBoundingBox();
}//for cc's
void PlanarizationLayoutUML::doSimpleCall(GraphAttributes &GA)
{
m_nCrossings = 0;
if(GA.constGraph().empty())
return;
PlanRepUML pr = PlanRepUML(GA);
const int numCC = pr.numberOfCCs();
// (width,height) of the layout of each connected component
Array<DPoint> boundingBox(numCC);
//------------------------------------------
//now planarize CCs and apply drawing module
for(int i = 0; i < numCC; ++i)
{
//---------------------------------------
// 1. crossing minimization
//---------------------------------------
int cr;
m_crossMin.get().call(pr, i, cr);
m_nCrossings += cr;
//---------------------------------------
// 2. embed resulting planar graph
//---------------------------------------
adjEntry adjExternal = 0;
m_embedder.get().call(pr, adjExternal);
//---------------------------------------------------------
// 3. compute layout of planarized representation
//---------------------------------------------------------
Layout drawing(pr);
//call the Layouter for the CC's UMLGraph
m_planarLayouter.get().call(pr,adjExternal,drawing);
// copy layout into umlGraph
// Later, we move nodes and edges in each connected component, such
// that no two overlap.
for(int j = pr.startNode(); j < pr.stopNode(); ++j) {
node vG = pr.v(j);
GA.x(vG) = drawing.x(pr.copy(vG));
GA.y(vG) = drawing.y(pr.copy(vG));
adjEntry adj;
forall_adj(adj,vG) {
if ((adj->index() & 1) == 0)
continue;
edge eG = adj->theEdge();
drawing.computePolylineClear(pr, eG, GA.bends(eG));
}
}
// the width/height of the layout has been computed by the planar
// layout algorithm; required as input to packing algorithm
boundingBox[i] = m_planarLayouter.get().getBoundingBox();
}
//----------------------------------------
// 4. arrange layouts of connected components
//----------------------------------------
arrangeCCs(pr, GA, boundingBox);
}
int main(void)
{
static int firstgr = 1;
GrEvent ev;
GrSetDriver(NULL);
if(GrCurrentVideoDriver() == NULL) {
printf("No graphics driver found\n");
exit(1);
}
for( ; ; ) {
int i,w,h,px,py;
char m1[41];
nmodes = (int)(collectmodes(GrCurrentVideoDriver(),grmodes) - grmodes);
if(nmodes == 0) {
printf("No graphics modes found\n");
exit(1);
}
qsort(grmodes,nmodes,sizeof(grmodes[0]),vmcmp);
printf(
"Graphics driver: \"%s\"\n"
" graphics defaults: %dx%d %ld colors\n"
" text defaults: %dx%d %ld colors\n\n",
GrCurrentVideoDriver()->name,
GrDriverInfo->defgw,
GrDriverInfo->defgh,
(long)GrDriverInfo->defgc,
GrDriverInfo->deftw,
GrDriverInfo->defth,
(long)GrDriverInfo->deftc
);
PrintModes();
printf("\nEnter choice #, or anything else to quit> ");
fflush(stdout);
if(!fgets(m1,40,stdin) ||
(sscanf(m1,"%d",&i) != 1) || (i < 1) || (i > nmodes)) {
exit(0);
}
if(firstgr) {
printf(
"When in graphics mode, press any key to return to menu.\n"
"Now press <CR> to continue..."
);
fflush(stdout);
fgets(m1,40,stdin);
firstgr = 0;
}
i--;
GrSetMode(
GR_width_height_bpp_graphics,
grmodes[i].w,
grmodes[i].h,
grmodes[i].bpp
);
if(grmodes[i].bpp<15) {
w = GrScreenX() >> 1;
h = GrScreenY() >> 1;
px = w + 5;
py = h + 5;
w -= 10;
h -= 10;
drawing(
5,5,w,h,
GrBlack(),
GrWhite()
);
drawing(
px,5,w,h,
GrAllocColor(255,0,0),
GrAllocColor(0,255,0)
);
drawing(
5,py,w,h,
GrAllocColor(0,0,255),
GrAllocColor(255,255,0)
);
drawing(
px,py,w,h,
GrAllocColor(255,0,255),
GrAllocColor(0,255,255)
);
} else {
//the call function that lets ClusterPlanarizationLayout compute a layout
//for the input using \a weight for the computation of the cluster planar subgraph
void ClusterPlanarizationLayout::call(
Graph& G,
ClusterGraphAttributes& acGraph,
ClusterGraph& cGraph,
EdgeArray<double>& edgeWeight,
bool simpleCConnect) //default true
{
m_nCrossings = 0;
bool subGraph = false; // c-planar subgraph computed?
//check some simple cases
if (G.numberOfNodes() == 0) return;
//-------------------------------------------------------------
//we set pointers and arrays to the working graph, which can be
//the original or, in the case of non-c-planar input, a copy
Graph* workGraph = &G;
ClusterGraph* workCG = &cGraph;
ClusterGraphAttributes* workACG = &acGraph;
//potential copy of original if non c-planar
Graph GW;
//list of non c-planarity causing edges
List<edge> leftEdges;
//list of nodepairs to be connected (deleted edges)
List<NodePair> leftWNodes;
//store some information
//original to copy
NodeArray<node> resultNode(G);
EdgeArray<edge> resultEdge(G);
ClusterArray<cluster> resultCluster(cGraph);
//copy to original
NodeArray<node> orNode(G);
EdgeArray<edge> orEdge(G);
ClusterArray<cluster> orCluster(cGraph);
for(node workv : G.nodes) {
resultNode[workv] = workv; //will be set to copy if non-c-planar
orNode[workv] = workv;
}
for(edge worke : G.edges) {
resultEdge[worke] = worke; //will be set to copy if non-c-planar
orEdge[worke] = worke;
}
for (cluster workc : cGraph.clusters) {
resultCluster[workc] = workc; //will be set to copy if non-c-planar
orCluster[workc] = workc;
}
//-----------------------------------------------
//check if instance is clusterplanar and embed it
CconnectClusterPlanarEmbed CCPE; //cccp
bool cplanar = CCPE.embed(cGraph, G);
List<edge> connectEdges;
//if the graph is not c-planar, we have to check the reason and to
//correct the problem by planarising or inserting connection edges
if (!cplanar)
{
bool connect = false;
if ( (CCPE.errCode() == CconnectClusterPlanarEmbed::nonConnected) ||
(CCPE.errCode() == CconnectClusterPlanarEmbed::nonCConnected) )
{
//we insert edges to make the input c-connected
makeCConnected(cGraph, G, connectEdges, simpleCConnect);
//save edgearray info for inserted edges
for(edge e : connectEdges)
{
resultEdge[e] = e;
orEdge[e] = e;
}
connect = true;
CCPE.embed(cGraph, G);
if ( (CCPE.errCode() == CconnectClusterPlanarEmbed::nonConnected) ||
(CCPE.errCode() == CconnectClusterPlanarEmbed::nonCConnected) )
{
cerr << "no correct connection made\n"<<flush;
OGDF_THROW(AlgorithmFailureException);
}
}//if not cconnected
if ((CCPE.errCode() == CconnectClusterPlanarEmbed::nonPlanar) ||
(CCPE.errCode() == CconnectClusterPlanarEmbed::nonCPlanar))
{
subGraph = true;
EdgeArray<bool> inSubGraph(G, false);
CPlanarSubClusteredGraph cps;
if (edgeWeight.valid())
cps.call(cGraph, inSubGraph, leftEdges, edgeWeight);
else
cps.call(cGraph, inSubGraph, leftEdges);
#ifdef OGDF_DEBUG
// for(edge worke : G.edges) {
// if (inSubGraph[worke])
// acGraph.strokeColor(worke) = "#FF0000";
// }
#endif
//---------------------------------------------------------------
//now we delete the copies of all edges not in subgraph and embed
//the subgraph (use a new copy)
//construct copy
workGraph = &GW;
workCG = new ClusterGraph(cGraph, GW, resultCluster, resultNode, resultEdge);
//----------------------
//reinit original arrays
orNode.init(GW, nullptr);
orEdge.init(GW, nullptr);
orCluster.init(*workCG, nullptr);
//set array entries to the appropriate values
for (node workv : G.nodes)
orNode[resultNode[workv]] = workv;
for (edge worke : G.edges)
orEdge[resultEdge[worke]] = worke;
for (cluster workc : cGraph.clusters)
orCluster[resultCluster[workc]] = workc;
//----------------------------------------------------
//create new ACG and copy values (width, height, type)
workACG = new ClusterGraphAttributes(*workCG, workACG->attributes());
for (node workv : GW.nodes)
{
//should set same attributes in construction!!!
if (acGraph.attributes() & GraphAttributes::nodeType)
workACG->type(workv) = acGraph.type(orNode[workv]);
workACG->height(workv) = acGraph.height(orNode[workv]);
workACG->width(workv) = acGraph.width(orNode[workv]);
}
if (acGraph.attributes() & GraphAttributes::edgeType) {
for (edge worke : GW.edges) {
workACG->type(worke) = acGraph.type(orEdge[worke]);
//all other attributes are not needed or will be set
}
}
for(edge ei : leftEdges)
{
edge e = resultEdge[ei];
NodePair np;
np.m_src = e->source();
np.m_tgt = e->target();
leftWNodes.pushBack(np);
GW.delEdge(e);
}
CconnectClusterPlanarEmbed CCP;
#ifdef OGDF_DEBUG
bool subPlanar =
#endif
CCP.embed(*workCG, GW);
OGDF_ASSERT(subPlanar);
}//if not planar
else
{
if (!connect)
OGDF_THROW_PARAM(PreconditionViolatedException, pvcClusterPlanar);
}
}//if
//if multiple CCs are handled, the connectedges (their copies resp.)
//can be deleted here
//now CCPE should give us the external face
ClusterPlanRep CP(*workACG, *workCG);
OGDF_ASSERT(CP.representsCombEmbedding());
const int numCC = CP.numberOfCCs(); //equal to one
//preliminary
OGDF_ASSERT(numCC == 1);
// (width,height) of the layout of each connected component
Array<DPoint> boundingBox(numCC);
for (int ikl = 0; ikl < numCC; ikl++)
{
CP.initCC(ikl);
CP.setOriginalEmbedding();
OGDF_ASSERT(CP.representsCombEmbedding())
Layout drawing(CP);
//m_planarLayouter.get().setOptions(4);//progressive
adjEntry ae = nullptr;
//internally compute adjEntry for outer face
//edges that are reinserted in workGraph (in the same
//order as leftWNodes)
List<edge> newEdges;
m_planarLayouter.get().call(CP, ae, drawing, leftWNodes, newEdges, *workGraph);
OGDF_ASSERT(leftWNodes.size()==newEdges.size())
OGDF_ASSERT(leftEdges.size()==newEdges.size())
ListConstIterator<edge> itE = newEdges.begin();
ListConstIterator<edge> itEor = leftEdges.begin();
while (itE.valid())
{
orEdge[*itE] = *itEor;
++itE;
++itEor;
}
//hash index over cluster ids
HashArray<int, ClusterPosition> CA;
computeClusterPositions(CP, drawing, CA);
// copy layout into acGraph
// Later, we move nodes and edges in each connected component, such
// that no two overlap.
for(int i = CP.startNode(); i < CP.stopNode(); ++i) {
node vG = CP.v(i);
acGraph.x(orNode[vG]) = drawing.x(CP.copy(vG));
acGraph.y(orNode[vG]) = drawing.y(CP.copy(vG));
for(adjEntry adj : vG->adjEdges)
{
if ((adj->index() & 1) == 0) continue;
edge eG = adj->theEdge();
edge orE = orEdge[eG];
if (orE)
drawing.computePolylineClear(CP,eG,acGraph.bends(orE));
}
}//for
//even assignment for all nodes is not enough, we need all clusters
for(cluster c : workCG->clusters)
{
int clNumber = c->index();
//int orNumber = originalClId[c];
cluster orCl = orCluster[c];
if (c != workCG->rootCluster())
{
OGDF_ASSERT(CA.isDefined(clNumber));
acGraph.height(orCl) = CA[clNumber].m_height;
acGraph.width(orCl) = CA[clNumber].m_width;
acGraph.y(orCl) = CA[clNumber].m_miny;
acGraph.x(orCl) = CA[clNumber].m_minx;
}//if real cluster
}
// the width/height of the layout has been computed by the planar
// layout algorithm; required as input to packing algorithm
boundingBox[ikl] = m_planarLayouter.get().getBoundingBox();
}//for connected components
//postProcess(acGraph);
//
// arrange layouts of connected components
//
Array<DPoint> offset(numCC);
m_packer.get().call(boundingBox,offset,m_pageRatio);
// The arrangement is given by offset to the origin of the coordinate
// system. We still have to shift each node, edge and cluster by the offset
// of its connected component.
const Graph::CCsInfo &ccInfo = CP.ccInfo();
for(int i = 0; i < numCC; ++i)
{
const double dx = offset[i].m_x;
const double dy = offset[i].m_y;
HashArray<int, bool> shifted(false);
// iterate over all nodes in ith CC
for(int j = ccInfo.startNode(i); j < ccInfo.stopNode(i); ++j)
{
node v = ccInfo.v(j);
acGraph.x(orNode[v]) += dx;
acGraph.y(orNode[v]) += dy;
// update cluster positions accordingly
//int clNumber = cGraph.clusterOf(orNode[v])->index();
cluster cl = cGraph.clusterOf(orNode[v]);
if ((cl->index() > 0) && !shifted[cl->index()])
{
acGraph.y(cl) += dy;
acGraph.x(cl) += dx;
shifted[cl->index()] = true;
}//if real cluster
for(adjEntry adj : v->adjEdges) {
if ((adj->index() & 1) == 0) continue;
edge e = adj->theEdge();
//edge eOr = orEdge[e];
if (orEdge[e])
{
DPolyline &dpl = acGraph.bends(orEdge[e]);
for(DPoint &p : dpl) {
p.m_x += dx;
p.m_y += dy;
}
}
}
}//for nodes
}//for numcc
while (!connectEdges.empty()) {
G.delEdge(connectEdges.popFrontRet());
}
if (subGraph)
{
//originalClId.init();
orCluster.init();
orNode.init();
orEdge.init();
delete workCG;
delete workACG;
}//if subgraph created
acGraph.removeUnnecessaryBendsHV();
}//call