IplImage *generateStitching(IplImage *img_src1, IplImage *img_src2,
CvMat *tmatrix, uchar with_borders, double blend_weight) {
if (tmatrix == NULL)
return NULL;
if (blend_weight <= 0)
blend_weight = 1;
uchar mustFree1 = 0, mustFree2 = 0;
IplImage *img1 = NULL, *img2 = NULL;
if (img_src1->nChannels < 4) {
img1 = convertTo4Channels(img_src1);
mustFree1 = 1;
} else {
img1 = img_src1;
}
if (img_src2->nChannels < 4) {
img2 = convertTo4Channels(img_src2);
mustFree2 = 1;
} else {
img2 = img_src2;
}
if (with_borders) {
drawBorders(img1, 2);
drawBorders(img2, 2);
}
CvRect mbr = getProjectionMBR(img1, tmatrix);
int64_t width = MAX(img2->width,mbr.x + mbr.width) - MIN(0, mbr.x);
int64_t height = MAX(img2->height,mbr.y + mbr.height) - MIN(0, mbr.y);
int64_t orig_x = MAX(0, -mbr.x);
int64_t orig_y = MAX(0, -mbr.y);
IplImage *prjTmp = cvCreateImage(cvSize(width, height), img1->depth,
img1->nChannels);
projectImg(img1, orig_x, orig_y, prjTmp, tmatrix);
IplImage *final = cvCreateImage(cvSize(width, height), img1->depth,
img1->nChannels);
//cvSetZero(final);
cvRectangle(final, cvPoint(0, 0), cvPoint(width, height), cvScalarAll(255),
-1, 8, 0);
my_image_copyPixels(img2, final, orig_x, orig_y);
my_image_copyWeightedPixels(prjTmp, final, 0, 0, blend_weight);
cvReleaseImage(&prjTmp);
if (mustFree1)
cvReleaseImage(&img1);
if (mustFree2)
cvReleaseImage(&img2);
IplImage *cropped = remove_borders(final);
if (cropped == NULL) {
return final;
} else {
Snake::Snake():AnimUT()
{
#ifdef debug
qDebug("Snake launched");
#endif
controls->addAnimationControl(animate, 200);
cellSize = 15;
nbCells = 20;
// controls
snakeItem = new SnakeItem(cellSize, nbCells);
controls->addLabel("Movements");
QPushButton *upBtn = controls->addButton("Up");
connect(upBtn, SIGNAL(released()), snakeItem, SLOT(setUp()));
QPushButton *downBtn = controls->addButton("Down");
connect(downBtn, SIGNAL(released()), snakeItem, SLOT(setDown()));
QPushButton *leftBtn = controls->addButton("Left");
connect(leftBtn, SIGNAL(released()), snakeItem, SLOT(setLeft()));
QPushButton *rightBtn = controls->addButton("Right");
connect(rightBtn, SIGNAL(released()), snakeItem, SLOT(setRight()));
controls->addDivider();
score = controls->addLabel("Score : 0");
connect(snakeItem, SIGNAL(updateScore(int)), this, SLOT(updateScore(int)));
// viewer
drawBorders();
viewer->addItem(snakeItem);
}
void Level::draw() {
m_spriteBatch.renderBatch();
for (unsigned int i = 0; i < m_borders.size(); ++i)
{
GamaGameEngine::RigidBody *b = m_borders[i];
b->shape->draw();
}
drawBorders();
}
void Panel::draw()
{
if (active)
{
drawBackground();
drawBorders();
drawChildren();
}
}
void Button::draw()
{
if (active)
{
drawBackground();
drawBorders();
drawChildren();
}
}
/*
main gl expose ,any time sreen needs to be redrawn, this function is called by gltemplate
,all drawings are initialized in this function
params:ViewInfo , global view variable defined in viewport.c
return value:0 if something goes wrong with GL 1 , otherwise
*/
int glexpose_main(ViewInfo * view)
{
static int doonce = 0;
if (!glupdatecamera(view))
return 0;
// glEnable(GL_DEPTH_TEST);
// draw_cube();
// draw_cube_tex();
if (view->activeGraph >= 0) {
if (!doonce) {
doonce = 1;
btnToolZoomFit_clicked(NULL, NULL);
btnToolZoomFit_clicked(NULL, NULL);
}
}
else
return 0;
glexpose_grid(view);
#if UNUSED
draw_fisheye_magnifier(view);
draw_magnifier(view);
#endif
drawBorders(view);
glexpose_drawgraph(view);
drawRotatingAxis();
draw_selpoly(&view->Topview->sel.selPoly);
glCompSetDraw(view->widgets);
// draw_stuff();
// test_color_pallete();
// drawtestpoly();
/*DEBUG*/
/* if (view->mouse.mouse_mode == MM_PAN)
{
glBegin(GL_LINE_STRIP);
glColor4f((GLfloat) 1, (GLfloat) 0.0, (GLfloat) 0.0,
(GLfloat) 1);
glVertex3f((GLfloat) view->GLx, (GLfloat) view->GLy,
(GLfloat) 0.001);
glVertex3f((GLfloat) view->GLx2, (GLfloat) view->GLy2,
(GLfloat) 0.001);
glEnd();
}*/
/*DEBUG*/ return 1;
}
void ThumbSlider::paintEvent(QPaintEvent *event)
{
QPainter painter;
painter.begin(this);
painter.setClipRect(event->rect());
painter.setPen(Qt::NoPen);
drawBackground(&painter);
drawLines(&painter);
drawBorders(&painter);
drawEdges(&painter);
}
void ButtonRessource::draw() {
float wid = GraIngame::getMenuWidth();
GraphicInterface::drawObjectMenu(id, x1 * Options::ResolutionX/wid, y1 * Options::ResolutionY, (x2-x1)* Options::ResolutionX/wid, (y2-y1) * Options::ResolutionY);
char buf[6];
_itoa_s(handler->getWishedWorker(changeID), buf, 6, 10);
GraphicInterface::drastring2d(x1+relativeX, y1+relativeY, GLUT_BITMAP_TIMES_ROMAN_24, buf);
char bufCurrent[6];
_itoa_s(handler->getCurrentValue(changeID), bufCurrent, 6, 10);
GraphicInterface::drastring2d(x1+relativeX, y1+relativeY-0.03, GLUT_BITMAP_TIMES_ROMAN_24, bufCurrent);
drawBorders();
}
void render(){
display.Clear();
drawGhost();
drawBlock(CODE);
drawMap();
drawBorders();
drawNextBlock();
sprintf(TEXT,"Score: %i",score);
display.DrawString(TEXT, ((WIDTH))*BLOCKPIXSIZE, (0)*BLOCKPIXSIZE,0,0x00FF00);
sprintf(TEXT,"Highscore: %i",hscore);
display.DrawString(TEXT, ((WIDTH))*BLOCKPIXSIZE, (1)*BLOCKPIXSIZE,0,0x00FF00);
sprintf(TEXT,"Next:");
display.DrawString(TEXT, ((WIDTH))*BLOCKPIXSIZE, (4)*BLOCKPIXSIZE,0,0x00FF00);
display.Render();
}
void resetGame(){
//==========================START MSG Prints Highscore
while(!keyboard.s){
display.Clear();
drawMap();
drawBorders();
sprintf(TEXT,"Press 's' to start");
display.DrawString(TEXT, 0, (HEIGHT/2)*BLOCKPIXSIZE,0,0x00FF00);
display.Render();
keyboard.Poll();
SDL_Delay(50);
}
for(int i=0;i < WIDTH;i++){
for(int ii=0;ii < HEIGHT;ii++){
map[i][ii] = 0;
}
}
score = 0;
newBlock();
}
void ScrollablePanel::draw(sf::RenderTarget& target, sf::RenderStates states) const
{
states.transform.translate(getPosition());
const auto oldStates = states;
// Draw the borders
if (m_bordersCached != Borders{0})
{
drawBorders(target, states, m_bordersCached, getSize(), m_borderColorCached);
states.transform.translate({m_bordersCached.getLeft(), m_bordersCached.getTop()});
}
// Draw the background
const sf::Vector2f innerSize = {getSize().x - m_bordersCached.getLeft() - m_bordersCached.getRight(),
getSize().y - m_bordersCached.getTop() - m_bordersCached.getBottom()};
drawRectangleShape(target, states, innerSize, m_backgroundColorCached);
states.transform.translate(m_paddingCached.getLeft(), m_paddingCached.getTop());
sf::Vector2f contentSize = {innerSize.x - m_paddingCached.getLeft() - m_paddingCached.getRight(),
innerSize.y - m_paddingCached.getTop() - m_paddingCached.getBottom()};
if (m_verticalScrollbar.getMaximum() > m_verticalScrollbar.getLowValue())
contentSize.x -= m_verticalScrollbar.getSize().x;
if (m_horizontalScrollbar.getMaximum() > m_horizontalScrollbar.getLowValue())
contentSize.y -= m_horizontalScrollbar.getSize().y;
// Draw the child widgets
{
const Clipping clipping{target, states, {}, contentSize};
states.transform.translate(-static_cast<float>(m_horizontalScrollbar.getValue()),
-static_cast<float>(m_verticalScrollbar.getValue()));
drawWidgetContainer(&target, states);
}
m_verticalScrollbar.draw(target, oldStates);
m_horizontalScrollbar.draw(target, oldStates);
}
void Logbuffermessage::draw()
{
if ( m_active && !m_logBuffer->getMessages().empty() )
{
// m_active = true;
unsigned int height = 5;
m_dimensions.set(m_logBuffer->getLongestLength() + ( hpadding*2 ), (15 * (m_logBuffer->getMessages().size()-1)) + height + ( vpadding*2 ));
// draw background box and border
drawBackground();
drawBorders();
// render text
// glColor3f(1.0f, 1.0f, 1.0f);
for ( unsigned int i = 0; i < m_logBuffer->getMessages().size(); i++ )
Textprinter::Instance()->print(Vector2i(m_absposition.m_x + hpadding, m_absposition.m_y + height + (i*15) + vpadding), m_logBuffer->getMessages()[i].getMsg().c_str());
}
/* else
m_active = false;*/
}
void Textmessage::draw()
{
Logbuffer::Instance()->deleteExpiredMsg();
if ( !Logbuffer::Instance()->messages.empty() )
{
active = true;
unsigned int height = 5;
v_width = Logbuffer::Instance()->longestLength + ( hpadding*2 );
v_height = (15 * (Logbuffer::Instance()->messages.size()-1)) + height + ( vpadding*2 );
// draw background box and border
drawBackground();
drawBorders();
// render text
glColor3f(1.0f, 1.0f, 1.0f);
for ( unsigned int i = 0; i < Logbuffer::Instance()->messages.size(); i++ )
Textprinter::Instance()->print(position.x + hpadding, position.y + height + (i*15.0f) + vpadding, Logbuffer::Instance()->messages[i]->str);
}
else
active = false;
}
void Speciesview::draw()
{
if (active)
{
unsigned int highestCount = 0;
unsigned int highestAD = 0;
unsigned int highestNeurons = 0;
unsigned int highestSynapses = 0;
unsigned int highestBodyparts = 0;
// initialize sort indices
// at the same time find the highest Counts for all columns
vector<int> indices ( genotypes->list.size(), 0 );
for ( unsigned int i = 0; i < genotypes->list.size(); i++ )
{
indices[i] = i;
if ( genotypes->list[i]->count > highestCount )
highestCount = genotypes->list[i]->count;
if ( genotypes->list[i]->adamdist > highestAD )
highestAD = genotypes->list[i]->adamdist;
if ( genotypes->list[i]->brainzArch->ArchNeurons.size() > highestNeurons )
highestNeurons = genotypes->list[i]->brainzArch->ArchNeurons.size();
// calc total syns
unsigned int totalSyns = 0;
for ( unsigned int j = 0; j < genotypes->list[i]->brainzArch->ArchNeurons.size(); j++ )
totalSyns += genotypes->list[i]->brainzArch->ArchNeurons[j].ArchSynapses.size();
if ( totalSyns > highestSynapses )
highestSynapses = totalSyns;
if ( genotypes->list[i]->bodyArch->archBodyparts.size() > highestNeurons )
highestNeurons = genotypes->list[i]->bodyArch->archBodyparts.size();
}
// sort results
for ( int i = genotypes->list.size(); i>0; i-- )
for ( int j = 0; j < i-1; j++ )
if ( genotypes->list[indices[j]]->count < genotypes->list[indices[j+1]]->count )
{
unsigned keepI = indices[j];
indices[j] = indices[j+1];
indices[j+1] = keepI;
}
int titleNumWH = textprinter->getWidth( highestCount );
int titleColorWH = qwidth;
int titlePosWH = textprinter->getWidth( genotypes->list.size() );
int titleAdWH = textprinter->getWidth( highestAD );
int titleNeuronsWH = textprinter->getWidth( highestNeurons );
int titleSynapsesWH = textprinter->getWidth( highestSynapses );
int titleBodypartsWH = textprinter->getWidth( highestBodyparts );
int colw1 = titlePosW;
if ( colw1 < titlePosWH ) colw1 = titlePosWH;
int colw2 = titleColorW;
if ( colw2 < titleColorWH ) colw2 = titleColorWH;
int colw3 = titleNumW;
if ( colw3 < titleNumWH ) colw3 = titleNumWH;
int colw4 = titleAdW;
if ( colw4 < titleAdWH ) colw4 = titleAdWH;
int colw5 = titleNeuronsW;
if ( colw5 < titleNeuronsWH ) colw5 = titleNeuronsWH;
int colw6 = titleSynapsesW;
if ( colw6 < titleSynapsesWH ) colw6 = titleSynapsesWH;
int colw7 = titleBodypartsW;
if ( colw7 < titleBodypartsWH ) colw7 = titleBodypartsWH;
int colspacer = 15;
int col1 = colspacer;
int col2 = col1+colspacer + colw1;
int col3 = col2+colspacer + colw2;
int col4 = col3+colspacer + colw3;
int col5 = col4+colspacer + colw4;
int col6 = col5+colspacer + colw5;
int col7 = col6+colspacer + colw6;
int col8 = col7+colspacer + colw7;
v_space = -10 + titlebar;
v_height = (genotypes->list.size() * (qheight+rowspacer)) + rowspacer + titlebar;
v_width = col8;
drawBackground();
drawBorders();
drawChildren();
glColor4f(1.0f, 1.0f, 1.0f, 1.0f);
textprinter->print( absPosition.x+col1, absPosition.y+19, titlePos );
textprinter->print( absPosition.x+col2, absPosition.y+19, titleColor );
textprinter->print( absPosition.x+col3, absPosition.y+19, titleNum );
textprinter->print( absPosition.x+col4, absPosition.y+19, titleAd );
textprinter->print( absPosition.x+col5, absPosition.y+19, titleNeurons );
textprinter->print( absPosition.x+col6, absPosition.y+19, titleSynapses );
textprinter->print( absPosition.x+col7, absPosition.y+19, titleBodyparts );
for ( unsigned int i=0; i < genotypes->list.size(); i++ )
{
v_space += qheight + rowspacer;
glColor4f(1.0f, 1.0f, 1.0f, 1.0f);
textprinter->print( absPosition.x+col1, absPosition.y+v_space+9, i+1 );
textprinter->print( absPosition.x+col3, absPosition.y+v_space+9, genotypes->list[indices[i]]->count );
textprinter->print( absPosition.x+col4, absPosition.y+v_space+9, genotypes->list[indices[i]]->adamdist );
textprinter->print( absPosition.x+col5, absPosition.y+v_space+9, genotypes->list[i]->brainzArch->ArchNeurons.size() );
// total syns
unsigned int totalSyns = 0;
for ( unsigned int j = 0; j < genotypes->list[i]->brainzArch->ArchNeurons.size(); j++ )
totalSyns += genotypes->list[i]->brainzArch->ArchNeurons[j].ArchSynapses.size();
textprinter->print( absPosition.x+col6, absPosition.y+v_space+9, totalSyns );
textprinter->print( absPosition.x+col7, absPosition.y+v_space+9, genotypes->list[i]->bodyArch->archBodyparts.size() );
if ( *colormode )
glColor4f(genotypes->list[indices[i]]->speciescolor.r, genotypes->list[indices[i]]->speciescolor.g, genotypes->list[indices[i]]->speciescolor.b, genotypes->list[indices[i]]->speciescolor.a);
else
glColor4f(genotypes->list[indices[i]]->bodyArch->color.r, genotypes->list[indices[i]]->bodyArch->color.g, genotypes->list[indices[i]]->bodyArch->color.b, genotypes->list[indices[i]]->bodyArch->color.a);
glBegin(GL_QUADS);
glVertex2f(absPosition.x+col2, absPosition.y+v_space+qheight);
glVertex2f(absPosition.x+col2, absPosition.y+v_space);
glVertex2f(absPosition.x+col2+qwidth, absPosition.y+v_space);
glVertex2f(absPosition.x+col2+qwidth, absPosition.y+v_space+qheight);
glEnd();
glColor4f(1.0f, 1.0f, 1.0f, 0.0f);
glBegin(GL_LINES);
glVertex2f(absPosition.x+col2, absPosition.y+v_space+qheight);
glVertex2f(absPosition.x+col2, absPosition.y+v_space);
glVertex2f(absPosition.x+col2, absPosition.y+v_space);
glVertex2f(absPosition.x+col2+qwidth, absPosition.y+v_space);
glVertex2f(absPosition.x+col2+qwidth, absPosition.y+v_space);
glVertex2f(absPosition.x+col2+qwidth, absPosition.y+v_space+qheight);
glVertex2f(absPosition.x+col2+qwidth, absPosition.y+v_space+qheight);
glVertex2f(absPosition.x+col2, absPosition.y+v_space+qheight);
glEnd();
}
}
}
void Spectrum::update(const Sint16* stream, const int length, const float delta) {
if (!_initialized || length == 0)
return;
int w = _image.getWidth();
int h = _image.getHeight();
int step = length / w;
if (_timer.hasEnded()) {
/* FFT */
for (int i = 0; i < w; ++i) {
float norm_amp = stream[i * step] * (1.f/32767.f);
_rawValues[i] = Complex(norm_amp, 0);
}
std::valarray<Complex> fftArray(_rawValues, w);
audio::FFT::fft(fftArray);
for (int i = 0; i < w/2; ++i) {
_fftValues[i] = std::log10(std::abs(fftArray[i])) * 20;
}
float octaves = calculateOctave(_minFreq, _maxFreq, _barCount);
unsigned int currentFreq = _minFreq;
for (unsigned int i = 0; i < _barCount; ++i) {
int low = lowerLimitSample(currentFreq, octaves, w/2);
int hi = upperLimitSample(currentFreq, octaves, w/2);
if (currentFreq > Core::Audio()->getFrequencyRate() || hi > w/2)
break;
// Log.Info("C: %d [L: %d / H: %d]", currentFreq, low, hi);
_barFrequencies[i] = currentFreq;
_barValues[i] = averageFreq(_fftValues, low, hi);
currentFreq = nextCenterFreq(currentFreq, octaves);
}
/* END FFT */
_image.setRect(0, 0, w, h, Color::Black);
drawBorders();
int bar_size = w / (float)_barCount;
for (unsigned int i = 0; i < _barCount; ++i) {
float scale_val = std::max(0.f, _barValues[i]);
float norm_val = scale_val / 30.f;
_normalizedBarValues[i] = norm_val;
Color color = math::interpolate(Color(255, 64, 0), Color::Red, norm_val, math::Interpolation::Linear);
// Values
// Log.Info("Bar %d: %f", i, val);
int y = h - norm_val * h;
_image.setRect(i*bar_size, y + 1, bar_size, h - y - 2, color);
}
_image.updateTextureZone(0, 0, w, h);
_timer.reset();
}
_timer.update(delta);
}
bool Game::cursesMain()
{
initscr();
noecho();
curs_set(FALSE);
nodelay(stdscr, TRUE);
keypad(stdscr,TRUE);
srand(time(NULL));
// Coloring the screen
start_color();
init_pair(1, COLOR_WHITE, COLOR_RED); // border
init_pair(2, COLOR_GREEN, COLOR_GREEN); // barrier
init_pair(3, COLOR_GREEN, COLOR_BLACK); // player
init_pair(4, COLOR_RED, COLOR_BLACK); // boss
// set up initial windows
getmaxyx(stdscr, parent_y, parent_x);
//set default space
player.lives = 3;
player.score = 0;
player.x = 14;
player.y = parent_y - (score_size + 3);
WINDOW *field = newwin(parent_y - score_size, parent_x, 0, 0);
WINDOW *score = newwin(score_size, parent_x, parent_y - score_size, 0);
drawBorders(score);
buildGame(board);
int alienCount = 0;
for(int i = 0; i < BOARDROWSIZE;i++)
{
for(int j = 0; j < BOARDCOLUMNSIZE;j++)
{
char temp = board[i][j];
wmove(field, i, j);
waddch(field, temp);
if(temp == ALIEN1 || temp == ALIEN2 || temp == ALIEN3)
alienCount++;
// mvwprintw(field, i, j, "%c", board[i][j]);
}
}
numberOfAliens = alienCount;
rawtime = time(NULL);
alienGroup.waitTime = rawtime+8;
// uncomment for cout
// /*
while(1)
{
getmaxyx(stdscr, new_y, new_x);
if (new_y != parent_y || new_x != parent_x)
{
parent_x = new_x;
parent_y = new_y;
wresize(field, new_y - score_size, new_x);
wresize(score, score_size, new_x);
mvwin(score, new_y - score_size, 0);
wclear(stdscr);
wclear(field);
wclear(score);
drawBorders(score);
}
// board[20][18] = 'O';
// draw to our windows
for(int i = 0; i < BOARDROWSIZE;i++)
{
for(int j = 0; j < BOARDCOLUMNSIZE;j++)
{
char piece = board[i][j];
// writeToFile("%c", piece);
wmove(field, i, j);
// check if our bullet should be seen
if(board[i][j] == BULLET && player.bullet.enabled == true)
waddch(field, board[i][j]);
// if it shouldnt be seen then we remove it
else if(board[i][j] == BULLET && player.bullet.enabled == false)
{
waddch(field, ' ');
board[i][j] = ' ';
wmove(field, i-1, j);
waddch(field, ' ');
board[i-1][j] = ' ';
wmove(field, i, j);
}
// print everything else
else
{
// color certain pieces
switch(piece)
{
//border
case '+':
case '-':
case '|':
waddch(field, piece | COLOR_PAIR(1));
break;
// barriers
case '/':
case '\\':
case '#':
waddch(field, piece | COLOR_PAIR(2));
break;
//player
case 'A':
waddch(field, piece | COLOR_PAIR(3));
default:
waddch(field, piece);
}
}
}
// writeToFile("\n");
}
// Draw score board
mvwprintw(score, 1, 2, "Score: ");
mvwprintw(score, 1, 9, itoa(player.score, buffer, 10));
mvwprintw(score, 1, 70, "Lives: ");
mvwprintw(score, 1, 77, itoa(player.lives, buffer, 10));
if(DEBUG == true)
{
string screensizex = itoa(new_x, buffer, 10);
string screensizey = itoa(parent_y, buffer, 10);
mvwprintw(score, 1, 30, "X: ");
mvwprintw(score, 1, 34, screensizex.c_str());
mvwprintw(score, 1, 40, "Y: ");
mvwprintw(score, 1, 44, screensizey.c_str());
}
bool aliensMovement = true;
aliensMovement = moveAliens(rawtime);
alienShoot();
if(player.bullet.enabled == true)
{
if(player.bullet.direction == 'U') // safety check
{
timerCheck = clock()-timer;
if(timerCheck > 15)
{
if(DEBUG == true)
writeToFile("Current: %i,%i | New: %i,%i\n", player.bullet.x, player.bullet.y, player.bullet.x-1, player.bullet.y);
char temp = board[player.bullet.x-1][player.bullet.y];
char temp2 = board[player.bullet.x-1][player.bullet.y+1];
switch(temp)
{
// all these will trigger the last case
case 'S':
case '@':
case '%':
case '&':
case '#':
case '/':
case '\\':
case '+': // most likely never reach here
case '|':
if(DEBUG == true)
writeToFile("Collision with [%c]\n", temp);
if(temp == ALIEN1)
{
player.score += 10;
numberOfAliens--;
}
else if(temp == ALIEN2)
{
player.score += 20;
numberOfAliens--;
}
else if(temp == ALIEN3)
{
player.score += 40;
numberOfAliens--;
}
else if(temp == BOSS)
{
player.score += 150;
}
temp = ' ';
temp2 = ' ';
player.bullet.enabled = false;
break;
case '-':
if(DEBUG == true)
writeToFile("Bullet hits wall\n");
player.bullet.enabled = false;
board[player.bullet.x][player.bullet.y] = ' ';
break;
default: // spaces and whatnot
if(DEBUG == true)
writeToFile("%i,%i = %c\n%i,%i\n",player.bullet.x,player.bullet.y-1,board[player.bullet.x][player.bullet.y],player.bullet.x,player.bullet.y);
board[player.bullet.x-1][player.bullet.y] = BULLET;
board[player.bullet.x][player.bullet.y] = ' ';
player.bullet.x = player.bullet.x-1;
break;
}
timer = clock();
}
}
}
for(int x = 1;x<5;x++)
{
timerCheck = clock()-timer;
if(timerCheck > 50)
{
char temp = ' ';
switch(x)
{
case 1:
temp = board[alienGroup.alienBullet1.x+1][alienGroup.alienBullet1.y];
if(alienGroup.alienBullet1.enabled == true)
{
switch(temp)
{
case '/':
case '\\':
case '#':
temp = ' ';
alienGroup.alienBullet1.enabled = false;
board[alienGroup.alienBullet1.x][alienGroup.alienBullet1.y] = ' ';
alienGroup.missles--;
break;
case 'A':
player.lives--;
board[player.x][player.y]= ' ';
player.x = 14;
player.y = parent_y - (score_size + 3);
board[player.x][player.y] = PLAYER;
alienGroup.missles--;
break;
case '-':
if(DEBUG == true)
writeToFile("Bullet hits wall\n");
alienGroup.alienBullet1.enabled = false;
board[alienGroup.alienBullet1.x][alienGroup.alienBullet1.y] = ' ';
alienGroup.missles--;
break;
default:
if(DEBUG == true)
writeToFile("%i,%i = %c\n%i,%i\n",player.bullet.x,player.bullet.y-1,board[player.bullet.x][player.bullet.y],player.bullet.x,player.bullet.y);
board[alienGroup.alienBullet1.x+1][alienGroup.alienBullet1.y] = ALIENBULLET;
board[alienGroup.alienBullet1.x][alienGroup.alienBullet1.y] = ' ';
alienGroup.alienBullet1.x = alienGroup.alienBullet1.x+1;
break;
}
/*
if(temp == PLAYER)
{
player.lives--;
player.x = 14;
player.y = parent_y - (score_size + 3);
board[player.x][player.y] = PLAYER;
alienGroup.alienBullet1.enabled = false;
alienGroup.missles--;
}
else if(temp == BARRIERCORNER1 || temp == BARRIERCORNER2 || temp == BARRIERMAIN)
{
temp = ' ';
alienGroup.alienBullet1.enabled = false;
alienGroup.missles--;
}
else if(temp == '-')
{
alienGroup.alienBullet1.enabled = false;
alienGroup.missles--;
}
else
{
temp = BULLET;
board[alienGroup.alienBullet1.x][alienGroup.alienBullet1.y] = ' ';
alienGroup.alienBullet1.y += 1;
}*/
}
// case 2:
// case 3:
// case 4:
default:
break;
}
}
}
if(keyHit())
{
key = getch();
keyChecker = keyCheck(key);
if(keyChecker == true)
break;
// have code in CP
}
// refresh each window
wrefresh(field);
wrefresh(score);
if(numberOfAliens == 0)
break;
}
endwin();
// */
return true;
}
void Brainview::draw()
{
column = 0;
row = 0;
if ( critterselection->selectedCritter == 0 )
{
active = false;
currentCritter = 0;
}
if (active)
{
if ( critterselection->selectedCritter != currentCritter )
{
currentCritter = critterselection->selectedCritter;
sensors.clear();
int sverticalpos = 0;
int constraintcount = 0;
for ( unsigned int i=0; i < currentCritter->brain.numberOfInputs; i++ )
{
if ( currentCritter->brain.Inputs[i].id == 10000 )
{
sensor s; s.sPointer = ¤tCritter->brain.Inputs[i];
s.position = Vector2f(brainview->position.x, 10);
sensors.push_back(s);
}
else if ( currentCritter->brain.Inputs[i].id == 10001 )
{
sverticalpos = 2;
sensor s; s.sPointer = ¤tCritter->brain.Inputs[i];
s.position = Vector2f(brainview->position.x, 10+(spacing+v_diam)*sverticalpos);
sensors.push_back(s);
}
else if ( currentCritter->brain.Inputs[i].id == 20000 )
{
sverticalpos = 4;
sensor s; s.sPointer = ¤tCritter->brain.Inputs[i];
s.position = Vector2f(brainview->position.x, 10+(spacing+v_diam)*sverticalpos);
sensors.push_back(s);
}
else if ( currentCritter->brain.Inputs[i].id >= 30000 && currentCritter->brain.Inputs[i].id < 40000 )
{
sverticalpos = 6;
sensor s; s.sPointer = ¤tCritter->brain.Inputs[i];
s.position = Vector2f(brainview->position.x, 10+(spacing+v_diam)*sverticalpos +((spacing+v_diam)*(currentCritter->brain.Inputs[i].id-30000)));
sensors.push_back(s);
}
else if ( currentCritter->brain.Inputs[i].id >= 40000 && currentCritter->brain.Inputs[i].id < 50000 )
{
sverticalpos = 17;
sensor s; s.sPointer = ¤tCritter->brain.Inputs[i];
s.position = Vector2f(brainview->position.x, 10+(spacing+v_diam)*sverticalpos +((spacing+v_diam)*(currentCritter->brain.Inputs[i].id-40000)));
sensors.push_back(s);
}
else if ( currentCritter->brain.Inputs[i].id < 10000 )
{
sverticalpos = 28;
sensor s; s.sPointer = ¤tCritter->brain.Inputs[i];
s.position = Vector2f(brainview->position.x, 10+(spacing+v_diam)*sverticalpos +((spacing+v_diam)*(constraintcount)));
sensors.push_back(s);
constraintcount++;
}
else if ( currentCritter->brain.Inputs[i].id >= 50000 && currentCritter->brain.Inputs[i].id < 60000 )
{
int vinput = currentCritter->brain.Inputs[i].id-50000;
int vcolmax = currentCritter->genotype->bodyArch->retinasize * 4;
int row = vinput / vcolmax;
int col = vinput - (row * vcolmax);
row = currentCritter->genotype->bodyArch->retinasize - row - 1;
sensor s; s.sPointer = ¤tCritter->brain.Inputs[i];
s.position = Vector2f(brainview->position.x+((spacing+v_diam)*col)+10, 10+((spacing+v_diam)*row));
sensors.push_back(s);
}
else
{
cerr << "critterview: inputs don't add up" << endl;
exit(0);
}
}
// for ( unsigned int i=0; i < currentCritter->brain.numberOfInputs; i++ )
// {
// sensor s;
// s.sPointer = ¤tCritter->brain.Inputs[i];
// int woffset, hoffset;
// if ( s.sPointer->id == 10000 )
// woffset = 100; hoffset = 50;
// else
// {
// // woffset = v_radius+((spacing+v_diam)*column);
// // hoffset = v_radius+((spacing+v_diam)*row);
// woffset = 20; hoffset = 20;
// }
// s.position = Vector2f(woffset, hoffset);
// sensors.push_back(s);
//
// if ( ++column == rowlength ) { column = 0; row++; }
// }
row = (currentCritter->brain.numberOfInputs/rowlength) + 1;
neurons.clear();
for ( unsigned int i=0; i < currentCritter->brain.totalNeurons; i++ )
{
neuron n;
n.nPointer = ¤tCritter->brain.Neurons[i];
int woffset = v_radius+((spacing+v_diam)*column);
int hoffset = 30+v_radius+((spacing+v_diam)*row*3);
n.position = Vector2f(woffset, hoffset);
neurons.push_back(n);
if ( ++column == rowlength ) { column = 0; row++; }
}
}
drawBackground();
drawBorders();
// draw the rest
drawChildren();
// drift
// neuron vs neuron
unsigned int i, j, k, nrlinks;
float xD, yD, dist, oneoverdistance, oneoverdistancesquared;
ArchSynapse* as;
// reset newpositions
for ( i=0; i < neurons.size(); i++ )
{
neurons[i].newposition.x = 0;
neurons[i].newposition.y = 0;
}
// #pragma omp parallel for private(i, j, k, nrlinks, xD, yD, dist, oneoverdistancesquared, as)
for ( i=0; i < neurons.size()-1; i++ )
for ( j=i+1; j < neurons.size(); j++ )
{
// how many connections do they have underling
nrlinks = 0;
for ( k=0; k < currentCritter->genotype->brainzArch->ArchNeurons[i].ArchSynapses.size(); k++ )
{
as = ¤tCritter->genotype->brainzArch->ArchNeurons[i].ArchSynapses[k];
if ( !as->isSensorNeuron && as->neuronID == j )
nrlinks++;
}
for ( k=0; k < currentCritter->genotype->brainzArch->ArchNeurons[j].ArchSynapses.size(); k++ )
{
as = ¤tCritter->genotype->brainzArch->ArchNeurons[j].ArchSynapses[k];
if ( !as->isSensorNeuron && as->neuronID == i )
nrlinks++;
}
xD=neurons[j].position.x - neurons[i].position.x;
yD=neurons[j].position.y - neurons[i].position.y;
dist = sqrt((xD*xD)+(yD*yD));
oneoverdistance = 1.0f/dist;
oneoverdistancesquared = oneoverdistance * oneoverdistance;
// if ( oneoverdistancesquared < 0.00001f )
// oneoverdistancesquared = 0.00001f;
if ( oneoverdistancesquared > 0.001f )
oneoverdistancesquared = 0.001f;
if ( nrlinks > 0 )
{
neurons[i].newposition.x += xD * oneoverdistancesquared * *attractor1 * nrlinks / 10.0f;
neurons[i].newposition.y += yD * oneoverdistancesquared * *attractor1 * nrlinks / 10.0f;
neurons[j].newposition.x -= xD * oneoverdistancesquared * *attractor1 * nrlinks / 10.0f;
neurons[j].newposition.y -= yD * oneoverdistancesquared * *attractor1 * nrlinks / 10.0f;
}
// general antigravity
neurons[i].newposition.x -= xD * oneoverdistancesquared * oneoverdistancesquared * *attractor3 * 100;
neurons[i].newposition.y -= yD * oneoverdistancesquared * oneoverdistancesquared * *attractor3 * 100;
neurons[j].newposition.x += xD * oneoverdistancesquared * oneoverdistancesquared * *attractor3 * 100;
neurons[j].newposition.y += yD * oneoverdistancesquared * oneoverdistancesquared * *attractor3 * 100;
}
// neuron vs sensor
for ( unsigned int i=0; i < neurons.size(); i++ )
for ( unsigned int j=0; j < sensors.size(); j++ )
{
// how many connections do they have underling
unsigned int nrlinks = 0;
for ( unsigned int k=0; k < currentCritter->genotype->brainzArch->ArchNeurons[i].ArchSynapses.size(); k++ )
{
ArchSynapse* as = ¤tCritter->genotype->brainzArch->ArchNeurons[i].ArchSynapses[k];
if ( as->isSensorNeuron && as->realneuronID == j )
nrlinks++;
}
xD=sensors[j].position.x - neurons[i].position.x;
yD=sensors[j].position.y - neurons[i].position.y;
dist = sqrt((xD*xD)+(yD*yD));
oneoverdistancesquared = 1.0f/(dist*dist*dist);
/* if ( oneoverdistancesquared > 1.0f )
oneoverdistancesquared = 1.0f;*/
if ( oneoverdistancesquared > 0.001f )
oneoverdistancesquared = 0.001f;
if ( nrlinks > 0 )
{
neurons[i].newposition.x += xD * oneoverdistancesquared * *attractor2 * nrlinks * 10.0f;
neurons[i].newposition.y += yD * oneoverdistancesquared * *attractor2 * nrlinks * 10.0f;
}
// general antigravity
neurons[i].newposition.x -= xD * oneoverdistancesquared * oneoverdistancesquared * *attractor4 * 100000;
neurons[i].newposition.y -= yD * oneoverdistancesquared * oneoverdistancesquared * *attractor4 * 100000;
}
// apply newpositions & check boundaries
for ( i=0; i < neurons.size(); i++ )
{
neurons[i].position.x += neurons[i].newposition.x;
neurons[i].position.y += neurons[i].newposition.y;
float miny = (v_radius*2)+((spacing+v_diam) * ((sensors.size()/rowlength)+1) );
float leftborder = 20.0f;
if ( neurons[i].position.x+v_radius > *brainview->v_widthP )
neurons[i].position.x = *brainview->v_widthP-v_radius;
if ( neurons[i].position.x < v_radius+leftborder )
neurons[i].position.x = v_radius+leftborder;
if ( neurons[i].position.y+v_radius > *brainview->v_heightP )
neurons[i].position.y = *brainview->v_heightP-v_radius;
if ( neurons[i].position.y < miny )
neurons[i].position.y = miny;
}
// draw brain
// connections
glBegin(GL_LINES);
float dimmed = 0.20f;
// glColor4f(1.0f, 1.0f, 1.0f, 1.0f);
for ( unsigned int i=0; i < neurons.size(); i++ )
{
// if ( neurons[i].nPointer->output )
// {
// if ( neurons[i].nPointer->isMotor )
// glColor4f(0.0f, 0.0f, 0.5f, 1.0f);
// else if ( neurons[i].nPointer->isInhibitory )
// glColor4f(0.5f, 0.0f, 0.0f, 1.0f);
// else
// glColor4f(0.0f, 0.5f, 0.0f, 1.0f);
// }
// else
// {
// if ( neurons[i].nPointer->isMotor )
// glColor4f(0.0f, 0.0f, dimmed, 1.0f);
// else if ( neurons[i].nPointer->isInhibitory )
// glColor4f(dimmed, 0.0f, 0.0f, 1.0f);
// else
// glColor4f(0.0f, dimmed, 0.0f, 1.0f);
// }
for ( unsigned int j=0; j < currentCritter->genotype->brainzArch->ArchNeurons[i].ArchSynapses.size(); j++ )
{
ArchSynapse* as = ¤tCritter->genotype->brainzArch->ArchNeurons[i].ArchSynapses[j];
if ( !as->isSensorNeuron && currentCritter->brain.Neurons[as->neuronID].output || as->isSensorNeuron && currentCritter->brain.Inputs[as->realneuronID].output )
{
if ( as->isSensorNeuron )
glColor4f(0.0f, dimmed, 0.0f, 1.0f);
else if ( !neurons[as->neuronID].nPointer->isInhibitory )
glColor4f(0.0f, dimmed, 0.0f, 1.0f);
else
glColor4f(dimmed, 0.0f, 0.0f, 1.0f);
glVertex2f(neurons[i].position.x+brainview->absPosition.x, neurons[i].position.y+brainview->absPosition.y);
if ( as->isSensorNeuron )
{
glVertex2f(brainview->absPosition.x+sensors[as->realneuronID].position.x, brainview->absPosition.y+sensors[as->realneuronID].position.y);
}
else
{
glVertex2f(brainview->absPosition.x+neurons[as->neuronID].position.x, brainview->absPosition.y+neurons[as->neuronID].position.y);
}
}
}
// }
}
glEnd();
glBegin(GL_QUADS);
// inputs
for ( unsigned int i=0; i < sensors.size(); i++ )
{
if ( sensors[i].sPointer->output )
glColor4f(0.0f, 1.0f, 0.0f, 1.0f);
else
glColor4f(0.0f, dimmed, 0.0f, 1.0f);
// glScaled(sensors[i].sPointer->output, sensors[i].sPointer->output, sensors[i].sPointer->output);
// cerr << sensors[i].sPointer->output << endl;
// float nv_radius = sensors[i].sPointer->output * v_radius;
float nv_radius = v_radius;
glVertex2f(sensors[i].position.x+brainview->absPosition.x-nv_radius, sensors[i].position.y+brainview->absPosition.y+nv_radius);
glVertex2f(sensors[i].position.x+brainview->absPosition.x-nv_radius, sensors[i].position.y+brainview->absPosition.y-nv_radius);
glVertex2f(sensors[i].position.x+brainview->absPosition.x+nv_radius, sensors[i].position.y+brainview->absPosition.y-nv_radius);
glVertex2f(sensors[i].position.x+brainview->absPosition.x+nv_radius, sensors[i].position.y+brainview->absPosition.y+nv_radius);
}
// neurons
for ( unsigned int i=0; i < neurons.size(); i++ )
{
// if ( neurons[i].nPointer->output )
// {
if ( neurons[i].nPointer->isMotor )
glColor4f(0.3f, 0.3f, 1.0f, 1.0f);
else if ( neurons[i].nPointer->isInhibitory )
glColor4f(1.0f, 0.0f, 0.0f, 1.0f);
else
glColor4f(0.0f, 1.0f, 0.0f, 1.0f);
float nv_radius = abs(neurons[i].nPointer->potential * (v_diam / *brain_maxfiringthreshold));
// show minimum
if ( nv_radius < 0.5f )
nv_radius = 0.5f;
glVertex2f(neurons[i].position.x+brainview->absPosition.x-nv_radius, neurons[i].position.y+brainview->absPosition.y+nv_radius);
glVertex2f(neurons[i].position.x+brainview->absPosition.x-nv_radius, neurons[i].position.y+brainview->absPosition.y-nv_radius);
glVertex2f(neurons[i].position.x+brainview->absPosition.x+nv_radius, neurons[i].position.y+brainview->absPosition.y-nv_radius);
glVertex2f(neurons[i].position.x+brainview->absPosition.x+nv_radius, neurons[i].position.y+brainview->absPosition.y+nv_radius);
}
glEnd();
}
}
void Infostats::draw()
{
if (active)
{
// updateAbsPosition();
drawBackground();
drawBorders();
unsigned int colWidth = (position.x+v_width-position.x) / 4;
unsigned int col1 = position.x + colWidth;
unsigned int col2 = col1 + colWidth;
unsigned int col3 = col2 + colWidth;
unsigned int col4 = col3 + colWidth;
float linespacer = 0.0f;
glColor3f(0.7f, 0.7f, 0.7f);
glBegin(GL_LINES);
glVertex2f(col2, position.y + linespacer);
glVertex2f(col2, (position.y+v_height) - linespacer);
glEnd();
glColor3f(1.0f, 1.0f, 1.0f);
// glEnable(GL_TEXTURE_2D);
// row counter
unsigned int rc=1;
// statsSnapshot* ss = &statsBuffer->snapshots[statsBuffer->snapshots.size()-1];
// HEADING
// COLUMN 1
Textprinter::Instance()->print(position.x+hsp, position.y+vsp*rc, "brain");
rc++;
Textprinter::Instance()->print(position.x+hsp, position.y+vsp*rc, "avg neurons:");
if ( statsBuffer->current.critters > 0 )
Textprinter::Instance()->printR(col2-hsp, position.y+vsp*rc, "%1.2f", (float)statsBuffer->current.neurons / statsBuffer->current.critters);
else
Textprinter::Instance()->printR(col2-hsp, position.y+vsp*rc, "%1.2f", 0.0f);
rc++;
Textprinter::Instance()->print(position.x+hsp, position.y+vsp*rc, "avg synapses:");
if ( statsBuffer->current.critters > 0 )
Textprinter::Instance()->printR(col2-hsp, position.y+vsp*rc, "%1.2f", (float)statsBuffer->current.synapses / statsBuffer->current.critters);
else
Textprinter::Instance()->printR(col2-hsp, position.y+vsp*rc, "%1.2f", 0.0f);
rc++;
Textprinter::Instance()->print(position.x+hsp, position.y+vsp*rc, "avg synapses/neuron:");
if ( statsBuffer->current.neurons > 0 )
Textprinter::Instance()->printR(col2-hsp, position.y+vsp*rc, "%1.2f", (float)statsBuffer->current.synapses / statsBuffer->current.neurons);
else
Textprinter::Instance()->printR(col2-hsp, position.y+vsp*rc, "%1.2f", 0.0f);
rc++;
Textprinter::Instance()->print(position.x+hsp, position.y+vsp*rc, "avg adam distance:");
if ( statsBuffer->current.critters > 0 )
Textprinter::Instance()->printR(col2-hsp, position.y+vsp*rc, "%1.2f", (float)statsBuffer->current.adamdistance / statsBuffer->current.critters);
else
Textprinter::Instance()->printR(col2-hsp, position.y+vsp*rc, "%1.2f", 0.0f);
// COLUMN 2
rc = 1;
Textprinter::Instance()->print(col2+hsp, position.y+vsp*rc, "body");
rc++;
Textprinter::Instance()->print(col2+hsp, position.y+vsp*rc, "avg body parts:");
if ( statsBuffer->current.critters > 0 )
Textprinter::Instance()->printR(col4-hsp, position.y+vsp*rc, "%1.2f", (float)statsBuffer->current.bodyparts / statsBuffer->current.critters);
else
Textprinter::Instance()->printR(col4-hsp, position.y+vsp*rc, "%1.2f", 0.0f);
rc++;
Textprinter::Instance()->print(col2+hsp, position.y+vsp*rc, "avg weight:");
if ( statsBuffer->current.critters > 0 )
Textprinter::Instance()->printR(col4-hsp, position.y+vsp*rc, "%1.2f", (float)statsBuffer->current.weight / statsBuffer->current.critters);
else
Textprinter::Instance()->printR(col4-hsp, position.y+vsp*rc, "%1.2f", 0.0f);
// glDisable(GL_TEXTURE_2D);
}
}
int main (int argc, char *argv[])
{
srand ( time(NULL) );
sound.LoadSound("blockHit","hit.wav");
sound.LoadSound("horizontal","horizon2.wav");
sound.LoadSound("rotate","rotate.wav");
loadHighscore(&hscore);
resetGame();
while (keyboard.Quit == false)
{
if(keyboard.r){
keyboard.Clear();
resetGame();
}
if(keyboard.p){
SDL_Delay(100);
keyboard.Poll();
keyboard.Clear();
while(!keyboard.p){
keyboard.Poll();
display.Clear();
drawBorders();
sprintf(TEXT,"Game is paused.");
display.DrawString(TEXT, 0, (HEIGHT/2)*BLOCKPIXSIZE,0,0x00FF00);
display.Render();
SDL_Delay(50);
}
}
int speed = 0;
speed = score/2400;
if(speed > 40){speed = 40;}
if(!(cycle% (60-speed)) || keyboard.Down){fallBlock(); HorizontalStrip(); if(keyboard.Down)keyboard.Clear(); }
keyboard.Poll();
if(keyboard.Left && InvasiveCheckPass(blockx-1,blocky,blockt,blockr)){ --blockx; keyboard.Clear();}
if(keyboard.Right && InvasiveCheckPass(blockx+1,blocky,blockt,blockr)){++blockx; keyboard.Clear();}
if(keyboard.Up && InvasiveCheckPass(blockx,blocky,blockt,blockr+1)){
blockr = (++blockr > 3) ? 0 : blockr; updateBlockBoundaries();
sound.PlaySound("rotate",80,0);
keyboard.Clear();
}
if(keyboard.Space){
while(InvasiveCheckPass(blockx,blocky+1,blockt,blockr)){fallBlock(); HorizontalStrip();}
gridLockBlock();
keyboard.Clear();
SDL_Delay(80);
}
blockx = (blockx< -minxcord) ? -minxcord : ((blockx > (WIDTH-1)-maxxcord) ? (WIDTH-1)-maxxcord : blockx);
render();
char TXT[128];
if(speed > 30){sprintf(TXT,"EXTREME PENTRIX: %i",hscore);}
else{sprintf(TXT,"Pentrix Highscore: %i",hscore);}
display.Caption(TXT);
SDL_Delay (4); cycle = (++cycle > 239) ? 1 : cycle;
}
return 0;
}
void Slider::draw(sf::RenderTarget& target, sf::RenderStates states) const
{
states.transform.translate(getPosition());
// Draw the borders around the track
if (m_bordersCached != Borders{0})
{
if (m_mouseHover && m_borderColorHoverCached.isSet())
drawBorders(target, states, m_bordersCached, getSize(), m_borderColorHoverCached);
else
drawBorders(target, states, m_bordersCached, getSize(), m_borderColorCached);
states.transform.translate({m_bordersCached.getLeft(), m_bordersCached.getTop()});
}
// Draw the track
if (m_spriteTrack.isSet() && m_spriteThumb.isSet())
{
if (m_mouseHover && m_spriteTrackHover.isSet())
m_spriteTrackHover.draw(target, states);
else
m_spriteTrack.draw(target, states);
}
else // There are no textures
{
if (m_mouseHover && m_trackColorHoverCached.isSet())
drawRectangleShape(target, states, getInnerSize(), m_trackColorHoverCached);
else
drawRectangleShape(target, states, getInnerSize(), m_trackColorCached);
}
states.transform.translate({-m_bordersCached.getLeft() + m_thumb.left, -m_bordersCached.getTop() + m_thumb.top});
// Draw the borders around the thumb
if (m_bordersCached != Borders{0})
{
if (m_mouseHover && m_borderColorHoverCached.isSet())
drawBorders(target, states, m_bordersCached, {m_thumb.width, m_thumb.height}, m_borderColorHoverCached);
else
drawBorders(target, states, m_bordersCached, {m_thumb.width, m_thumb.height}, m_borderColorCached);
states.transform.translate({m_bordersCached.getLeft(), m_bordersCached.getTop()});
}
// Draw the thumb
if (m_spriteTrack.isSet() && m_spriteThumb.isSet())
{
if (m_mouseHover && m_spriteThumbHover.isSet())
m_spriteThumbHover.draw(target, states);
else
m_spriteThumb.draw(target, states);
}
else // There are no textures
{
const sf::Vector2f thumbInnerSize = {m_thumb.width - m_bordersCached.getLeft() - m_bordersCached.getRight(),
m_thumb.height - m_bordersCached.getTop() - m_bordersCached.getBottom()};
if (m_mouseHover && m_thumbColorHoverCached.isSet())
drawRectangleShape(target, states, thumbInnerSize, m_thumbColorHoverCached);
else
drawRectangleShape(target, states, thumbInnerSize, m_thumbColorCached);
}
}