void MainWindow::addRectangle() {
BouncingRectangle* newRectangle = new BouncingRectangle(rand()%250, rand()%250, 20.0, 20.0, rand()%6, rand()%6);
QBrush redBrush(Qt::red);
QBrush blueBrush(Qt::blue);
QBrush greenBrush(Qt::green);
QBrush yellowBrush(Qt::yellow);
int color = rand()%5;
switch(color) {
case 0:
newRectangle->setBrush( redBrush );
break;
case 1:
newRectangle->setBrush( blueBrush );
break;
case 2:
newRectangle->setBrush( greenBrush );
break;
case 3:
newRectangle->setBrush( yellowBrush );
break;
}
rectangles.push_back(newRectangle);
scene->addItem( newRectangle );
}
void
MFCInstanceView::Draw(Graphics &dc, CRect &clipBox)
{
// !!!??? need to clip properly for short instances with long names
Pen blackPen(AlphaColor(250, rgb_black), 1);
Pen redPen(AlphaColor(250, rgb_red), 1);
SolidBrush blueBrush(AlphaColor(100, rgb_blue));
SolidBrush blackBrush(AlphaColor(100, rgb_black));
CRect clipBounds = bounds;
if (clipBox.left > bounds.left) clipBounds.left = clipBox.left-1;
if (clipBox.right < bounds.right) clipBounds.right = clipBox.right+1;
cerr << "ondraw instance view " << clipBox.left << ", " << clipBox.right << endl;
dc.FillRectangle(&blueBrush,
bounds.left, bounds.top, bounds.right-bounds.left, bounds.bottom-bounds.top);
dc.DrawRectangle(selected?&redPen:&blackPen,
bounds.left, bounds.top, clipBounds.right-bounds.left, bounds.bottom-bounds.top);
Font labelFont(L"Arial", 8.0, FontStyleRegular, UnitPoint, NULL);
wstring nm;
const char *cp = instance->sym->uniqueName();
while (*cp) { nm.push_back(*cp++); }
float lbx = bounds.left+2;
#define LBLSEP 200
if (clipBox.left > lbx) {
int nld = clipBox.left - lbx;
nld = nld/LBLSEP;
// if (nld > 2) lbx += (nld-2)*LBLSEP;
}
PointF p(lbx, clipBounds.top);
do {
dc.DrawString(nm.c_str(), -1, &labelFont, p, &blackBrush);
p.X += LBLSEP;
} while (p.X < clipBounds.right);
}
GraphicNetNode::GraphicNetNode(NetNode* node, QGraphicsItem* parent) :
QGraphicsObject(parent)
{
this->node = node;
//addressText = node->getAddress().toString().c_str();
//hostnameText = node->getName();
addressText = new QGraphicsSimpleTextItem(node->getAddress().toString().c_str(), this);
hostnameText = new QGraphicsSimpleTextItem(node->getName(), this);
secondAddrsText = new QGraphicsSimpleTextItem(" ", this);
QBrush blueBrush(Qt::blue);
secondAddrsText->setBrush(blueBrush);
QBrush brush(Qt::black);
addressText->setBrush(brush);
hostnameText->setBrush(brush);
QPixmap pic(":/media/serverIcon");
icon = new QGraphicsPixmapItem(pic, this);
//icon->scale(0.75, 0.75);
addressText->setVisible(true);
hostnameText->setVisible(true);
icon->setVisible(true);
QFont textFont;
textFont.setPixelSize(20);
addressText->setFont(textFont);
hostnameText->setFont(textFont);
secondAddrsText->setFont(textFont);
updateAddress();
}
dialogSmithChart::dialogSmithChart(QWidget *parent) :
QDialog(parent),
ui(new Ui::dialogSmithChart)
{
ui->setupUi(this);
resize(430,400);
scene = new QGraphicsScene(this);
ui->graphicsView->setScene(scene);
QBrush redBrush(Qt::red);
QBrush blueBrush(Qt::blue);
QPen blackPen(Qt::black);
//ell = scene->addEllipse(10,10,100,100,blackPen,redBrush);
QPainterPath* path = new QPainterPath();
path->arcMoveTo(0,0,50,50,20);
path->arcTo(0,0,50,50,20, 90);
scene->addPath(*path);
//ui->graphicsView->sc
//h = 430; w = 400
// centerX = 195;
// CenterY = 191;
}
void TupColorPalette::setBaseColorsPanel()
{
#ifndef Q_OS_ANDROID
QSize cellSize(50, 30);
#else
QSize cellSize(70, 50);
#endif
k->currentBaseColor = 0;
QColor redColor(255, 0, 0);
QBrush redBrush(redColor, k->brush.style());
TupColorWidget *red = new TupColorWidget(0, redBrush, cellSize, false);
red->selected();
connect(red, SIGNAL(clicked(int)), this, SLOT(updateMatrix(int)));
k->baseColors << red;
QColor greenColor(0, 255, 0);
QBrush greenBrush(greenColor, k->brush.style());
TupColorWidget *green = new TupColorWidget(1, greenBrush, cellSize, false);
connect(green, SIGNAL(clicked(int)), this, SLOT(updateMatrix(int)));
k->baseColors << green;
QColor blueColor(0, 0, 255);
QBrush blueBrush(blueColor, k->brush.style());
TupColorWidget *blue = new TupColorWidget(2, blueBrush, cellSize, false);
connect(blue, SIGNAL(clicked(int)), this, SLOT(updateMatrix(int)));
k->baseColors << blue;
QColor whiteColor(255, 255, 255);
QBrush whiteBrush(whiteColor, k->brush.style());
TupColorWidget *white = new TupColorWidget(3, whiteBrush, cellSize, false);
connect(white, SIGNAL(clicked(int)), this, SLOT(updateMatrix(int)));
k->baseColors << white;
QBoxLayout *bottomLayout = new QHBoxLayout;
bottomLayout->setAlignment(Qt::AlignHCenter);
bottomLayout->setContentsMargins(3, 3, 3, 3);
#ifndef Q_OS_ANDROID
bottomLayout->setSpacing(10);
#else
bottomLayout->setSpacing(25);
#endif
bottomLayout->addWidget(red);
bottomLayout->addWidget(green);
bottomLayout->addWidget(blue);
bottomLayout->addWidget(white);
k->paletteGlobalLayout->addWidget(new TupSeparator(Qt::Horizontal));
k->paletteGlobalLayout->addLayout(bottomLayout);
}
void
MFCEditorItemView::Draw(Graphics &dc, CRect &clipBox)
{
// !!!??? need to clip properly for short instances with long names
Pen blackPen(Color(250, 0,0,0), 1);
Pen redPen(Color(250, 160, 10, 10), 1);
SolidBrush blueBrush(Color(100, 10, 10, 160));
SolidBrush blackBrush(Color(100, 0,0,0));
// fprintf(stderr, "drawing instance view %d\n", bounds.right-bounds.left);
dc.FillRectangle(&blueBrush, bounds.left, bounds.top, bounds.right-bounds.left, bounds.bottom-bounds.top);
dc.DrawRectangle(selected?&redPen:&blackPen, bounds.left, bounds.top, bounds.right-bounds.left, bounds.bottom-bounds.top);
}
/** Default Constructor*/
GraphicsWindow::GraphicsWindow() {
//We need a scene and a view to do graphics in QT
scene = new QGraphicsScene();
setScene(scene);
setWindowTitle( "Programming Assignment #4: Math Puzzles");
//view = new QGraphicsView( scene );
//To fill a rectangle use a QBrush. To draw the border of a shape, use a QPen
QBrush redBrush(Qt::red);
QPen blackPen(Qt::black);
QBrush blueBrush(Qt::blue);
QBrush yellowBrush(Qt::yellow);
QBrush greenBrush(Qt::green);
}
speckles::speckles(QWidget *parent) :
QDialog(parent),
ui(new Ui::speckles)
{
ui->setupUi(this);
scene=new QGraphicsScene(this);
ui->graphicsView->setScene(scene);
QBrush redBrush(Qt::red);
QBrush blueBrush(Qt::blue);
QPen blackPen(Qt::black);
blackPen.setWidth(6);
ellipse=scene->addEllipse(10, 10, 100, 500, blackPen, redBrush);
rectangle=scene->addRect(-10, -10, 100, 50, blackPen, blueBrush);
qDebug()<<"The width of the scene is: "<<scene->width();
qDebug()<<"The height of the scene is: "<<scene->height();
}
wxBitmap BacklashGraph::CreateGraph(int bmpWidth, int bmpHeight)
{
wxMemoryDC dc;
wxBitmap bmp(bmpWidth, bmpHeight, -1);
wxPen axisPen("BLACK", 3, wxCROSS_HATCH);
wxPen redPen("RED", 3, wxSOLID);
wxPen bluePen("BLUE", 3, wxSOLID);
wxBrush redBrush("RED", wxSOLID);
wxBrush blueBrush("BLUE", wxSOLID);
//double fakeNorthPoints[] =
//{152.04, 164.77, 176.34, 188.5, 200.25, 212.36, 224.21, 236.89, 248.62, 260.25, 271.34, 283.54, 294.79, 307.56, 319.22, 330.87, 343.37, 355.75, 367.52, 379.7, 391.22, 403.89, 415.34, 427.09, 439.41, 450.36, 462.6};
//double fakeSouthPoints[] =
//{474.84, 474.9, 464.01, 451.83, 438.08, 426, 414.68, 401.15, 390.39, 377.22, 366.17, 353.45, 340.75, 328.31, 316.93, 304.55, 292.42, 280.45, 269.03, 255.02, 243.76, 231.53, 219.43, 207.35, 195.22, 183.06, 169.47};
//std::vector <double> northSteps(fakeNorthPoints, fakeNorthPoints + 27);
//std::vector <double> southSteps(fakeSouthPoints, fakeSouthPoints + 27);
std::vector <double> northSteps = m_BLT->GetNorthSteps();
std::vector <double> southSteps = m_BLT->GetSouthSteps();
double xScaleFactor;
double yScaleFactor;
int xOrigin;
int yOrigin;
int ptRadius;
int graphWindowWidth;
int graphWindowHeight;
int numNorth;
double northInc;
int numSouth;
// Find the max excursion from the origin in order to scale the points to fit the bitmap
double maxDec = -9999.0;
double minDec = 9999.0;
for (std::vector<double>::const_iterator it = northSteps.begin(); it != northSteps.end(); ++it)
{
maxDec = wxMax(maxDec, *it);
minDec = wxMin(minDec, *it);
}
for (std::vector<double>::const_iterator it = southSteps.begin(); it != southSteps.end(); ++it)
{
maxDec = wxMax(maxDec, *it);
minDec = wxMin(minDec, *it);
}
graphWindowWidth = bmpWidth;
graphWindowHeight = 0.7 * bmpHeight;
yScaleFactor = (graphWindowHeight) / (maxDec - minDec + 1);
xScaleFactor = (graphWindowWidth) / (northSteps.size() + southSteps.size());
// Since we get mount coordinates, north steps will always be in ascending order
numNorth = northSteps.size();
northInc = (northSteps.at(numNorth - 1) - northSteps.at(0)) / numNorth;
numSouth = southSteps.size(); // Should be same as numNorth but be careful
dc.SelectObject(bmp);
dc.SetBackground(*wxLIGHT_GREY_BRUSH);
dc.SetFont(wxFont(12, wxFONTFAMILY_DEFAULT, wxFONTSTYLE_NORMAL, wxFONTWEIGHT_NORMAL));
dc.Clear();
// Bottom and top labels
dc.SetTextForeground("BLUE");
dc.DrawText(_("Ideal"), 0.7 * graphWindowWidth, bmpHeight - 25);
dc.SetTextForeground("RED");
dc.DrawText(_("Measured"), 0.2 * graphWindowWidth, bmpHeight - 25);
dc.DrawText(_("North"), 0.1 * graphWindowWidth, 10);
dc.DrawText(_("South"), 0.8 * graphWindowWidth, 10);
// Draw the axes
dc.SetPen(axisPen);
xOrigin = graphWindowWidth / 2;
yOrigin = graphWindowHeight + 40; // Leave room at the top for labels and such
dc.DrawLine(0, yOrigin, graphWindowWidth, yOrigin); // x
dc.DrawLine(xOrigin, yOrigin, xOrigin, 0); // y
// Draw the north steps
dc.SetPen(redPen);
dc.SetBrush(redBrush);
ptRadius = 2;
for (int i = 0; i < numNorth; i++)
{
wxPoint where = wxPoint(i * xScaleFactor, round(yOrigin - (northSteps.at(i) - minDec) * yScaleFactor));
dc.DrawCircle(wxPoint(i * xScaleFactor, round(yOrigin - (northSteps.at(i) - minDec) * yScaleFactor)), ptRadius);
}
// Draw the south steps
for (int i = 0; i < numSouth; i++)
{
dc.DrawCircle(wxPoint((i + numNorth) * xScaleFactor, round(yOrigin - (southSteps.at(i) - minDec) * yScaleFactor)), ptRadius);
}
// Now show an ideal south recovery line
dc.SetPen(bluePen);
dc.SetBrush(blueBrush);
double peakSouth = southSteps.at(0);
for (int i = 1; i <= numNorth; i++)
{
wxPoint where = wxPoint((i + numNorth)* xScaleFactor, round(yOrigin - (peakSouth - i * northInc - minDec) * yScaleFactor));
dc.DrawCircle(where, ptRadius);
}
dc.SelectObject(wxNullBitmap);
return bmp;
}
void BifurcationPlot::drawPlot() {
/**
* Main drawing function for the plot classes.
*
* The bifurcation plot is stored in a wxBitmap object so that we don't
* have to recalculate and draw every point every time we refresh the
* screen. Since all of the ChaosPlots are buffered, this means that
* the Bifurcation drawing functions actually go through two buffers.
* This is not the most efficient way to do this, but it does allow us
* to use the functionality of the ChaosPlot subclass.
*
* Steps for drawing:
*
* Calculate X & Y axis values and size.
*
* Store our current size.
*
* Calls startDraw() to initalize the drawing DC. (Updates size)
*
* Compare old size with current size to determine if it needs to redraw everything.
*
* If so, draw axis on BufferedDC and copy them over to the MemoryDC,
* then redraw all points.
*
* If not, collect points for up to 2 MDAC values and only draw
* the new points on the MemoryDC.
*
* Draw the MDAC reference line on the graph.
*
* Finally, copy the MemoryDC over to the BufferedDC and draw it to the DC.
*
*/
float x_min, x_max;
float y_min, y_max;
wxString xaxis_title;
wxMemoryDC bifMemDC;
// Get information for the X axis
if(ChaosSettings::BifXAxis == ChaosSettings::MDAC_VALUES) {
xaxis_title = wxString(wxT("Mdac values"));
} else {
xaxis_title = wxString(wxT("Resistance (Ohms)"));
}
// Get scaling/label information for the Y axis
if(ChaosSettings::YAxisLabels == ChaosSettings::Y_AXIS_VGND) {
graph_subtitle = wxString::Format(wxT("Peaks (V) vs. %s"), xaxis_title.c_str());
y_min = smallest_y_value*3.3/1024;
y_max = largest_y_value*3.3/1024;
x_min = smallest_x_value*3.3/1024;
x_max = largest_x_value*3.3/1024;
} else if(ChaosSettings::YAxisLabels == ChaosSettings::Y_AXIS_VBIAS) {
graph_subtitle = wxString::Format(wxT("Peaks (V) vs. %s"), xaxis_title.c_str());
y_min = smallest_y_value*3.3/1024 - 1.2;
y_max = largest_y_value*3.3/1024 - 1.2;
x_min = smallest_x_value*3.3/1024 - 1.2;
x_max = largest_x_value*3.3/1024 - 1.2;
} else {
graph_subtitle = wxString::Format(wxT("Peaks (ADC) vs. %s"), xaxis_title.c_str());
y_min = smallest_y_value;
y_max = largest_y_value;
x_min = smallest_x_value;
x_max = largest_x_value;
}
// Store old size information for future comparison
int old_width = width;
int old_height = height;
// Update size and draw background & titles
startDraw();
// Check and see if the size of the graph has changed
// If it has, we need to redraw our cached image
if(old_width != width || old_height != height) {
ChaosSettings::BifRedraw = true;
}
// Do we need to redraw everything that we have cached?
if(ChaosSettings::BifRedraw == true) {
// Draw the Y axis on the buffered DC
drawYAxis(y_min, y_max, (y_max-y_min)/4.0);
// Draw the X axis on the buffered DC
if(ChaosSettings::BifXAxis == ChaosSettings::MDAC_VALUES) {
drawXAxis(float(largest_x_value),
float(smallest_x_value),
-1*((largest_x_value-smallest_x_value)/4));
} else {
float min = libchaos_mdacToResistance(largest_x_value);
float max = libchaos_mdacToResistance(smallest_x_value);
drawXAxis(min, max, ((max-min)/4));
}
// If we aren't connected, then we're done
if(device_connected == false) {
endDraw();
return;
}
// if we already have a cached image, delete it
if(bifBmp)
delete bifBmp;
// Create a bitmap to cache our bifurcation drawing to
bifBmp = new wxBitmap(width, height);
// Select the bitmap to a memory DC so we can draw on it and initialize it with a background
bifMemDC.SelectObject(*bifBmp);
bifMemDC.SetBrush(dc->GetBackground());
bifMemDC.SetPen(*wxTRANSPARENT_PEN);
bifMemDC.DrawRectangle(0,0,width,height);
// Copy what we have on the buffer so far (title, axis, labels) to the cache
bifMemDC.Blit(0, 0, width, height, buffer, 0, 0);
} else {
// No need to redraw everything, just select the cache so we can draw more onto it
bifMemDC.SelectObject(*bifBmp);
}
//Use blue pen
wxPen bluePen(*wxBLUE, 1); // blue pen of width 1
wxBrush blueBrush(*wxBLUE_BRUSH);
bifMemDC.SetPen(bluePen);
bifMemDC.SetBrush(blueBrush);
int* peaks;
int new_points;
int step = (int)(float(graph_width) / float(ChaosSettings::BifStepsPerWindow));
if(step == 0) step = 1;
// If we are paused, don't collect new data points
if(paused || ChaosSettings::Paused) {
new_points = 0;
} else {
new_points = 2;
libchaos_disableFFT();
}
// Draw points, collecting new data if necessary.
int miss_mdac = -1;
for(int i = 1; i < graph_width; i+=step) {
int mdac_value = xToMdac(i);
/* Since the user can technically zoom into areas slightly beyond
our mdac limits, we have to ensure we have a correct value. */
if (mdac_value > 4095) {
mdac_value = 4095;
} else if (mdac_value < 0) {
mdac_value = 0;
}
bool cacheHit = libchaos_peaksCacheHit(mdac_value);
if(!cacheHit) new_points--;
if((ChaosSettings::BifRedraw && cacheHit) || (!cacheHit && new_points > 0)) {
peaks = libchaos_getPeaks(mdac_value);
if(cacheHit == false) {
miss_mdac = mdac_value;
}
bifMemDC.SetPen(bluePen);
for(int j = 0; j < ChaosSettings::PeaksPerMdac; j++) {
int y = valueToY(peaks[j]);
if(y < graph_height + top_gutter_size && y > top_gutter_size) {
drawPoint(&bifMemDC, valueToX(mdac_value), y);
}
}
}
}
if( new_points > 0 ) libchaos_enableFFT();
if(miss_mdac != -1) {
device_mdac_value = miss_mdac;
}
// We're finished redrawing everything, so don't do it again unless we need to
if(ChaosSettings::BifRedraw == true) {
ChaosSettings::BifRedraw = false;
}
// Copy our cache onto the buffered DC
// (It is redundant to use a MemoryDC and a BufferedDC, it may be more efficient
// to not use the BufferedDC for the bifurcation)
buffer->Blit(0,0, width, height, &bifMemDC, 0, 0);
// Draw the line for the MDAC
drawMdacLine(buffer);
// Flush the buffer and output to the screen.
endDraw();
}
twoChessBoard::twoChessBoard(QWidget *parent) :
QDialog(parent),
ui(new Ui::twoChessBoard)
{
// There are issues with this right now. Hardcoded integers are only used for testing on simulator, not actual phone.
this->parent = parent;
ui->setupUi(this);
ui->widget->setGeometry(QRect(10,130,480,480));
graphicsView = new QGraphicsView(ui->widget);
scene = new QGraphicsScene(QRect(-240,-180,480,480));
graphicsView->setGeometry(QRect(0,0,490,490));
graphicsView->setScene(scene);
select = 0;//used to check whether a piece is selected or not
turn = 1;//used to check which players turn it is
//the following are to check how many different kind of pieces are left in the board
blackPawnsLeft = 8;
whitePawnsLeft = 8;
blackRooksLeft = 2;
whiteRooksLeft = 2;
blackKnightsLeft = 2;
whiteKnightsLeft = 2;
blackBishopsLeft = 2;
whiteBishopsLeft = 2;
blackQueenLeft = 1;
whiteQueenLeft = 1;
blackKingLeft = 1;
whiteKingLeft = 1;
// colors for pieces
QBrush blackBrush(Qt::black);
QBrush whiteBrush(Qt::white);
QBrush greenBrush(Qt::green);
QBrush redBrush(Qt::red);
QBrush yellowBrush(Qt::yellow);
QBrush blueBrush(Qt::blue);
QBrush magentaBrush(Qt::magenta);
QBrush grayBrush(Qt::gray);
QBrush darkGreenBrush(Qt::darkGreen);
QBrush darkRedBrush(Qt::darkRed);
QBrush darkYellowBrush(Qt::darkYellow);
QBrush darkBlueBrush(Qt::darkBlue);
QBrush darkMagentaBrush(Qt::darkMagenta);
QBrush darkGrayBrush(Qt::darkGray);
QPen pen(Qt::transparent);
pen.setWidth(0);
// This loop generates the chessboard. Code was written by TA.
for(int i=0;i<CHESSBOARD_SIZE;i++){
chessboard[i].resize(CHESSBOARD_SIZE);
for(int j = 0 ; j<CHESSBOARD_SIZE;j++){
chessboard[i][j] = new QGraphicsRectItem(CHESSBOARD_GRID_SIZE*(j-CHESSBOARD_SIZE/2) , CHESSBOARD_GRID_SIZE*( -i+CHESSBOARD_SIZE/2) ,
CHESSBOARD_GRID_SIZE ,CHESSBOARD_GRID_SIZE);
scene->addItem(chessboard[i][j]);
chessboard[i][j]->setPen(pen);
chessboard[i][j]->setBrush(((i+j)%2==0)?blackBrush:whiteBrush);
}
}
graphicsView->show();
qDebug("Initialized chessboard...");
for(int i =0; i<8;i++)
{
for(int j=0;j<8;j++)
{
boardvalues[i][j] = 0;
}
}
//initialising the board values
for(int i = 0;i<8;i++)
{
//pawns
boardvalues[1][i] = 1;
boardvalues[6][i] = 7;
}
//rooks
boardvalues[0][0] = 2;
boardvalues[0][7] = 2;
boardvalues[7][0] = 8;
boardvalues[7][7] = 8;
//knights
boardvalues[0][1] = 3;
boardvalues[0][6] = 3;
boardvalues[7][1] =9;
boardvalues[7][6] =9;
//bishops
boardvalues[0][2] = 4;
boardvalues[0][5] = 4;
boardvalues[7][2] =10;
boardvalues[7][5] =10;
//queen
boardvalues[0][3] = 6;
boardvalues[7][3] =12;
//king
boardvalues[0][4] = 5;
boardvalues[7][4] =11;
// white pawns
for (int i = 0; i < 8; i++)
{
whitePawns.resize(8);
whitePawns[i] = new QGraphicsRectItem(-225+60*i, -105, 30, 30 );
whitePawns[i]->setBrush(greenBrush);
scene->addItem(whitePawns[i]);
}
//black pawns
for (int i = 0; i < 8; i++)
{
blackPawns.resize(8);
blackPawns[i] = new QGraphicsRectItem(-225+60*i, 195, 30, 30 );
blackPawns[i]->setBrush(darkGreenBrush);
scene->addItem(blackPawns[i]);
}
// white and black pieces
for (int i = 0; i < 2; i++)
{
whiteRooks.resize(2);
whiteRooks[i] = new QGraphicsRectItem(-225+420*i,-165,30,30);
whiteRooks[i]->setBrush(redBrush);
scene->addItem(whiteRooks[i]);
blackRooks.resize(2);
blackRooks[i] = new QGraphicsRectItem(-225+420*i,255,30,30);
blackRooks[i]->setBrush(darkRedBrush);
scene->addItem(blackRooks[i]);
whiteKnights.resize(2);
whiteKnights[i] = new QGraphicsRectItem(-165+300*i,-165,30,30);
whiteKnights[i]->setBrush(yellowBrush);
scene->addItem(whiteKnights[i]);
blackKnights.resize(2);
blackKnights[i] = new QGraphicsRectItem(-165+300*i,255,30,30);
blackKnights[i]->setBrush(darkYellowBrush);
scene->addItem(blackKnights[i]);
whiteBishops.resize(2);
whiteBishops[i] = new QGraphicsRectItem(-105+180*i,-165,30,30);
whiteBishops[i]->setBrush(blueBrush);
scene->addItem(whiteBishops[i]);
blackBishops.resize(2);
blackBishops[i] = new QGraphicsRectItem(-105+180*i,255,30,30);
blackBishops[i]->setBrush(darkBlueBrush);
scene->addItem(blackBishops[i]);
}
whiteQueen = new QGraphicsRectItem(-45,-165,30,30);
whiteQueen->setBrush(magentaBrush);
scene->addItem(whiteQueen);
blackQueen = new QGraphicsRectItem(-45,255,30,30);
blackQueen->setBrush(darkMagentaBrush);
scene->addItem(blackQueen);
whiteKing = new QGraphicsRectItem(15,-165,30,30);
whiteKing->setBrush(grayBrush);
scene->addItem(whiteKing);
blackKing = new QGraphicsRectItem(15,255,30,30);
blackKing->setBrush(darkGrayBrush);
scene->addItem(blackKing);
}
treeVisualiserFrame::treeVisualiserFrame(const observationTree& tree, float pointSize)
:pointSize(pointSize), highlightItem(NULL)
{
graphicsScene = new QGraphicsScene();
graphicsScene->installEventFilter(this);
graphicsScene->setItemIndexMethod(QGraphicsScene::NoIndex);
graphicsView = new ZoomGraphicsView(graphicsScene);
graphicsView->setHorizontalScrollBarPolicy(Qt::ScrollBarAlwaysOff);
graphicsView->setVerticalScrollBarPolicy(Qt::ScrollBarAlwaysOff);
graphicsView->installEventFilter(this);
const observationTree::treeGraphType treeGraph = tree.getTreeGraph();
observationTree::treeGraphType::vertex_iterator currentVertex, endVertex;
boost::tie(currentVertex, endVertex) = boost::vertices(treeGraph);
QPen blackPen(QColor("black"));
blackPen.setStyle(Qt::NoPen);
QBrush blueBrush(QColor("blue"));
QBrush redBrush(QColor("red"));
for(; currentVertex != endVertex; currentVertex++)
{
float x = treeGraph[*currentVertex].x;
float y = treeGraph[*currentVertex].y;
treeVisualiserVertex* vertexItem = new treeVisualiserVertex(x - pointSize/2, y - pointSize/2, pointSize, pointSize);
vertexItem->setVertexID((int)*currentVertex);
if(treeGraph[*currentVertex].potentiallyDisconnected)
{
vertexItem->setPen(blackPen);
vertexItem->setBrush(blueBrush);
}
else
{
vertexItem->setPen(blackPen);
vertexItem->setBrush(redBrush);
}
vertexItem->setFlag(QGraphicsItem::ItemIsSelectable, true);
graphicsScene->addItem(vertexItem);
}
blackPen.setStyle(Qt::SolidLine);
blackPen.setWidthF(pointSize/8);
observationTree::treeGraphType::edge_iterator currentEdge, endEdge;
boost::tie(currentEdge, endEdge) = boost::edges(treeGraph);
for(; currentEdge != endEdge; currentEdge++)
{
int sourceVertex = (int)boost::source(*currentEdge, treeGraph);
int targetVertex = (int)boost::target(*currentEdge, treeGraph);
float sourceX = treeGraph[sourceVertex].x;
float sourceY = treeGraph[sourceVertex].y;
float targetX = treeGraph[targetVertex].x;
float targetY = treeGraph[targetVertex].y;
QGraphicsLineItem* lineItem = graphicsScene->addLine(sourceX, sourceY, targetX, targetY, blackPen);
lineItem->setFlag(QGraphicsItem::ItemIsSelectable, false);
}
layout = new QHBoxLayout;
layout->addWidget(graphicsView, 1);
layout->setContentsMargins(0,0,0,0);
setLayout(layout);
graphicsView->fitInView(graphicsView->sceneRect(), Qt::KeepAspectRatioByExpanding);
}
void
MFCClipItemView::Draw(Graphics &dc, CRect &clipBox)
{
// !!!??? need to clip properly for short instances with long names
cerr << "clip item draw " << item->sym->name << endl;
Pen blackPen(Color(250, 0, 0, 0), 1);
Pen redPen(Color(250, 238, 100, 100), 1);
Pen orangePen(Color(200, 250, 150, 10), 1);
SolidBrush blueBrush(Color(100, 100, 100, 238));
SolidBrush blackBrush(Color(200, 0, 0, 0));
SolidBrush orangeBrush(Color(190, 250, 150, 10));
dc.DrawLine( &orangePen, bounds.left, 0, bounds.left, bounds.bottom);
bool isMarker = false;
if (item != NULL && item->duration.ticks <= 0) {
isMarker = true;
}
if (!isMarker) {
dc.DrawLine( &orangePen, bounds.right, 0, bounds.right, bounds.bottom);
}
PointF tri[3];
Font labelFont(L"Arial", 8.0, FontStyleRegular, UnitPoint, NULL);
wstring nm;
const char *cp = item->sym->uniqueName();
while (*cp) {
nm.push_back(*cp++);
}
PointF p;
UINT py = 0;
do {
if (!isMarker) {
// a triangle bit
tri[0].X = bounds.left; tri[0].Y = py;
tri[1].X = bounds.left+6; tri[1].Y = py+3;
tri[2].X = bounds.left; tri[2].Y = py+6;
dc.FillPolygon(&orangeBrush, tri, 3);
}
p.X = bounds.left-1;
p.Y = py+5;
RectF box;
StringFormat sff = StringFormatFlagsDirectionVertical;
dc.MeasureString(nm.c_str(), -1, &labelFont, p, &sff, &box);
dc.DrawString(nm.c_str(), -1, &labelFont, box, &sff, &blackBrush);
if (!isMarker) {
// a nother triangle bit
tri[0].X = bounds.right;
tri[1].X = bounds.right-6;
tri[2].X = bounds.right;
dc.FillPolygon(&orangeBrush, tri, 3);
p.X = bounds.right-10;
p.Y = py+5;
dc.MeasureString(nm.c_str(), -1, &labelFont, p, &sff, &box);
dc.DrawString(nm.c_str(), -1, &labelFont, box, &sff, &blackBrush);
}
py += editor->bounds.bottom;
} while (py < bounds.bottom);
}
// Build the calibration "step" graph which will appear on the lefthand side of the panels
wxBitmap CalReviewDialog::CreateGraph(bool AO)
{
wxMemoryDC memDC;
wxBitmap bmp(CALREVIEW_BITMAP_SIZE, CALREVIEW_BITMAP_SIZE, -1);
wxPen axisPen("BLACK", 3, wxCROSS_HATCH);
wxPen redPen("RED", 3, wxSOLID);
wxPen bluePen("BLUE", 3, wxSOLID);
wxBrush redBrush("RED", wxSOLID);
wxBrush blueBrush("BLUE", wxSOLID);
CalibrationDetails calDetails;
double scaleFactor;
int ptRadius;
if (!pSecondaryMount)
{
pMount->GetCalibrationDetails(&calDetails); // Normal case, no AO
}
else
{
if (AO)
{
pMount->GetCalibrationDetails(&calDetails); // AO tab, use AO details
}
else
{
pSecondaryMount->GetCalibrationDetails(&calDetails); // Mount tab, use mount details
}
}
// Find the max excursion from the origin in order to scale the points to fit the bitmap
double biggestVal = -100.0;
for (std::vector<wxRealPoint>::const_iterator it = calDetails.raSteps.begin(); it != calDetails.raSteps.end(); ++it)
{
biggestVal = wxMax(biggestVal, fabs(it->x));
biggestVal = wxMax(biggestVal, fabs(it->y));
}
for (std::vector<wxRealPoint>::const_iterator it = calDetails.decSteps.begin(); it != calDetails.decSteps.end(); ++it)
{
biggestVal = wxMax(biggestVal, fabs(it->x));
biggestVal = wxMax(biggestVal, fabs(it->y));
}
if (biggestVal > 0.0)
scaleFactor = ((CALREVIEW_BITMAP_SIZE - 5) / 2) / biggestVal; // Leave room for circular point
else
scaleFactor = 1.0;
memDC.SelectObject(bmp);
memDC.SetBackground(*wxLIGHT_GREY_BRUSH);
memDC.Clear();
memDC.SetPen(axisPen);
// Draw the axes
memDC.SetDeviceOrigin(wxCoord(CALREVIEW_BITMAP_SIZE / 2), wxCoord(CALREVIEW_BITMAP_SIZE / 2));
memDC.DrawLine(-CALREVIEW_BITMAP_SIZE / 2, 0, CALREVIEW_BITMAP_SIZE / 2, 0); // x
memDC.DrawLine(0, -CALREVIEW_BITMAP_SIZE / 2, 0, CALREVIEW_BITMAP_SIZE / 2); // y
if (calDetails.raStepCount > 0)
{
// Draw the RA data
memDC.SetPen(redPen);
memDC.SetBrush(redBrush);
ptRadius = 2;
// Scale the points, then plot them individually
for (int i = 0; i < (int) calDetails.raSteps.size(); i++)
{
if (i == calDetails.raStepCount + 2) // Valid even for "single-step" calibration
{
memDC.SetPen(wxPen("Red", 1)); // 1-pixel-thick red outline
memDC.SetBrush(wxNullBrush); // Outline only for "return" data points
ptRadius = 3;
}
memDC.DrawCircle(IntPoint(calDetails.raSteps.at(i), scaleFactor), ptRadius);
}
// Show the line PHD2 will use for the rate
memDC.SetPen(redPen);
if ((int)calDetails.raSteps.size() > calDetails.raStepCount) // New calib, includes return values
memDC.DrawLine(IntPoint(calDetails.raSteps.at(0), scaleFactor), IntPoint(calDetails.raSteps.at(calDetails.raStepCount), scaleFactor));
else
memDC.DrawLine(IntPoint(calDetails.raSteps.at(0), scaleFactor), IntPoint(calDetails.raSteps.at(calDetails.raStepCount - 1), scaleFactor));
}
// Handle the Dec data
memDC.SetPen(bluePen);
memDC.SetBrush(blueBrush);
ptRadius = 2;
if (calDetails.decStepCount > 0)
{
for (int i = 0; i < (int) calDetails.decSteps.size(); i++)
{
if (i == calDetails.decStepCount + 2)
{
memDC.SetPen(wxPen("Blue", 1)); // 1-pixel-thick red outline
memDC.SetBrush(wxNullBrush); // Outline only for "return" data points
ptRadius = 3;
}
memDC.DrawCircle(IntPoint(calDetails.decSteps.at(i), scaleFactor), ptRadius);
}
// Show the line PHD2 will use for the rate
memDC.SetPen(bluePen);
if ((int)calDetails.decSteps.size() > calDetails.decStepCount) // New calib, includes return values
memDC.DrawLine(IntPoint(calDetails.decSteps.at(0), scaleFactor), IntPoint(calDetails.decSteps.at(calDetails.decStepCount), scaleFactor));
else
memDC.DrawLine(IntPoint(calDetails.decSteps.at(0), scaleFactor), IntPoint(calDetails.decSteps.at(calDetails.decStepCount - 1), scaleFactor));
}
memDC.SelectObject(wxNullBitmap);
return bmp;
}
void MainWindow::on_pushButton_clicked()
{
this->scene->clear();
out="自配置\n";
this->ui->textEdit->setText(out);
QBrush redBrush(Qt::red);
QBrush blueBrush(Qt::blue);
QBrush yellowBrush(Qt::yellow);
QPen blackPen(Qt::black);
blackPen.setWidth(0.5);
QPen bluePen(Qt::blue);
bluePen.setWidth(0.5);
self_window = new self_set;
qDebug()<<"hello"<<endl;
self_window->exec();
QDateTime time = QDateTime::currentDateTime();//获取系统现在的时间
QString _time = time.toString("yyyy-MM-dd hh:mm:ss ddd"); //设置显示格式
out=out+_time+"\n";
this->ui->textEdit->setText(out);
qDebug()<<this->self_window->_yes;
setAlgo = new Set_algorithm;
if(this->self_window->_yes==true){
this->ui->textEdit->setText(out);
QString ch = (self_window->choice==1)? "平均SINR最高":"能效比最高";
out=out+"\n自配置参数预制如下：\n-----------------------\n";
out=out+"RESP0:"+QString::number(self_window->RESP0)+"\n"+
"优化标准："+ch+"\n"+
"路损模型参数：\n"+"a="+QString::number(self_window->a)+" b="+QString::number(self_window->b)+"\n"
+"覆盖率:"+QString::number(self_window->coverRate)+"%\n"+
"额定功率："+QString::number(self_window->power)+"\n"
+"临界信噪比："+QString::number(self_window->SINR)+"\n"+
"-----------------------\n自配置开始......\n";
this->ui->textEdit->setText(out);
setAlgo->RESP0=self_window->RESP0;
setAlgo->choice=self_window->choice;
setAlgo->coverRate=self_window->coverRate;
setAlgo->power=self_window->power;
setAlgo->SINR = self_window->SINR;
setAlgo->a=self_window->a;
setAlgo->b=self_window->b;
qDebug()<<out;
QString resultPower=QString::number(setAlgo->getResultPower())+"\n";
out=out+resultPower;
this->ui->textEdit->setText(out);
for(int i=0;i<setAlgo->apList.size();i++){
AP *temp = setAlgo->apList.at(i);
qDebug()<<"x,y:"<<temp->x()<<" "<<temp->y()<<endl;
if(temp->frequency==1)
this->scene->addEllipse(temp->x(),temp->y(),(setAlgo->ratio)*EXR,(setAlgo->ratio)*EXR,blackPen,blueBrush);
else if(temp->frequency==6)
this->scene->addEllipse(temp->x(),temp->y(),(setAlgo->ratio)*EXR,(setAlgo->ratio)*EXR,blackPen,redBrush);
else if(temp->frequency==11)
this->scene->addEllipse(temp->x(),temp->y(),(setAlgo->ratio)*EXR,(setAlgo->ratio)*EXR,blackPen,yellowBrush);
}
}
_addLineGraph();
}
void MainWindow::setupMainGraph(int M,int N)
{
this->_cleanTheList();
QBrush redBrush(Qt::red);
QBrush blueBrush(Qt::blue);
QBrush yellowBrush(Qt::yellow);
QPen blackPen(Qt::black);
blackPen.setWidth(0.5);
QPen bluePen(Qt::blue);
bluePen.setWidth(0.5);
srand((int)time(NULL));
/*
for(int i=0;i<5;i++){
elipse[i] = scene->addEllipse(-200+i*100+rand()%30,-110+rand()%30,-100,100,blackPen,redBrush);
elipse[i]->setFlag(QGraphicsItem::ItemIsMovable);
}
for(int i=6;i<11;i++){
elipse[i] = scene->addEllipse(-200+(i-5)*100+rand()%30,100+rand()%30,-100,100,blackPen,yelloBrush);
elipse[i]->setFlag(QGraphicsItem::ItemIsMovable);
}
for(int i=12;i<19;i++){
elipse[i] = scene->addEllipse(-200+(i-12)*100+rand()%30,300+rand()%30,-100,100,blackPen,blueBrush);
elipse[i]->setFlag(QGraphicsItem::ItemIsMovable);
}
*/
srand((int)time(NULL));
for(int j=-N;j<=N;j++){
for(int i=-M;i<=M;i++){
blue = new QGraphicsEllipseItem;
blue = scene->addEllipse(2*sqrt(3)*R*i+RD,6*R*j+RD,2*R+EXTRA,2*R+EXTRA,blackPen,blueBrush);
blue->setX(2*sqrt(3)*R*i+RD);
blue ->setY(6*R*j+RD);
blueElipse.append(blue);
}
}
for(int j=-N;j<=N;j++){
for(int i=-M;i<=M;i++){
blue = new QGraphicsEllipseItem;
blue = scene->addEllipse(-sqrt(3)*R+2*sqrt(3)*R*i+RD,-3*R+6*R*j+RD,2*R+EXTRA,2*R+EXTRA,blackPen,blueBrush);
blue->setX(-sqrt(3)*R+2*sqrt(3)*R*i+RD);
blue->setY(-3*R+6*R*j+RD);
blueElipse.append(blue);
}
}
for(int j=-N;j<=N;j++){
for(int i=-M;i<=M;i++){
red = new QGraphicsEllipseItem;
red = scene->addEllipse(2*sqrt(3)*R*i+RD,2*R+6*R*j+RD,2*R+EXTRA,2*R+EXTRA,blackPen,redBrush);
red->setX(2*sqrt(3)*R*i+RD);
red->setY(2*R+6*R*j+RD);
redElipse.append(red);
}
}
for(int j=-N;j<=N;j++){
for(int i=-M;i<=M;i++){
red = new QGraphicsEllipseItem;
red = scene->addEllipse(-sqrt(3)*R+2*sqrt(3)*R*i+RD,-R+6*R*j+RD,2*R+EXTRA,2*R+EXTRA,blackPen,redBrush);
red->setX(-sqrt(3)*R+2*sqrt(3)*R*i+RD);
red->setY(-R+6*R*j+RD);
redElipse.append(red);
}
}
for(int j=-N;j<=N;j++){
for(int i=-M;i<=M;i++){
yellow = new QGraphicsEllipseItem;
yellow = scene->addEllipse(-sqrt(3)*R+2*sqrt(3)*R*i+RD,R+6*R*j+RD,2*R+EXTRA,2*R+EXTRA,blackPen,yellowBrush);
yellow->setX(-sqrt(3)*R+2*sqrt(3)*R*i+RD);
yellow->setY(R+6*R*j+RD);
yellowElipse.append(yellow);
}
}
for(int j=-N;j<=N;j++){
for(int i=-M;i<=M;i++){
yellow = new QGraphicsEllipseItem;
yellow = scene->addEllipse(2*sqrt(3)*R*i+RD,-2*R+6*R*j+RD,2*R+EXTRA,2*R+EXTRA,blackPen,yellowBrush);
yellow ->setX(2*sqrt(3)*R*i+RD);
yellow ->setY(-2*R+6*R*j+RD);
yellowElipse.append(yellow);
}
}
qDebug()<<redElipse.size();
foreach(QGraphicsEllipseItem *red,redElipse){
red->setFlag(QGraphicsItem::ItemIsMovable);
qDebug()<<red->x()<<" "<<red->y()<<endl;
}
