void Tile::paintScoreNumber(int aNumber, float aX, float aY)
{
//Check to see if its a walkable tile
if(isWalkableTile() == true)
{
//Convert the number to a stringstream
std::stringstream numberStream;
numberStream << aNumber;
//Next convert the stringstream into a string
std::string numberString(numberStream.str());
//Cycle through each number in the string and draw it
for(int i = 0; i < (int)(numberString.length()); i++)
{
//Convert the letter in the string back to an int
int index = atoi(numberString.substr(i,1).c_str());
//Draw the texture that is equivalent to the number
OpenGLRenderer::getInstance()->drawTexture(m_TileScoreNumbers[index], aX, aY);
//Increment the X value
aX += m_TileScoreNumbers[index]->getSourceWidth();
}
}
}
float Tile::getScoreNumberScale(int number, float padding)
{
//Convert the number to a stringstream
std::stringstream numberStream;
numberStream << number;
//Next convert the stringstream into a string
std::string numberString(numberStream.str());
//Cycle through each number in the string and calculate the total width of the string
float stringWidth = 0.0f;
float stringHeight = 0.0f;
for(int i = 0; i < numberString.length(); i++)
{
//Convert the letter in the string back to an int
int index = atoi(numberString.substr(i,1).c_str());
//Increment the X value
stringWidth += m_TileScoreNumbers[index]->getSourceWidth();
stringHeight = stringHeight < m_TileScoreNumbers[index]->getSourceHeight() ? m_TileScoreNumbers[index]->getSourceHeight() : stringHeight;
}
float scale = fminf(((m_Width - padding * 2.0f) / 2.0f) / stringWidth, 1.0f);
return scale;
}
string Cancellator::int2string(unsigned number) {
stringstream numberStringStream;
numberStringStream << number;
string numberString(numberStringStream.str());
for (unsigned index(0); index < numberString.length(); index++) {
numberString[index] -= '0';
numberString[index] += 'A';
}
return numberString;
}
void IntervalProgressDisplay::EllipticalPaintStrategy::drawCurrentBeatValue(QPainter &p, const QRectF &rect, const PaintContext &context, const PaintColors &colors)
{
// draw current beat text in center
p.setPen(QPen(colors.textColor, 1.0f));
font.setPointSizeF(context.fontSize);
p.setFont(font);
QString numberString(QString::number(context.currentBeat + 1) + " / " + QString::number(context.beatsPerInterval));
int strWidth = p.fontMetrics().width(numberString);
p.drawText(rect.center().x() - strWidth / 2, rect.center().y() + p.fontMetrics().height()/2, numberString);
}
virtual void SetUp() {
io::ResourceManager::getInstance().clear();
// convert parameters for test
std::string numberString(GetParam());
// load input tables
executeJsonAndWait(loadFromFile("test/tpcc/load_tpcc_tables.json"));
// load expected output table
hyrise::io::StorageManager* sm = hyrise::io::StorageManager::getInstance();
sm->loadTableFile("refTable", "tpcch/query" + numberString + "_result.tbl");
// load query from file
query = loadFromFile("test/tpcch/query" + numberString + ".json");
}
void Tile::paintIndex(int aIndex)
{
//Convert the index to a stringstream
std::stringstream numberStream;
numberStream << aIndex;
//Next convert the stringstream into a string
std::string numberString(numberStream.str());
//Cycle through each number in the string and calculate the total width of the string
float stringWidth = 0.0f;
float stringHeight = 0.0f;
for(int i = 0; i < (int)(numberString.length()); i++)
{
//Convert the letter in the string back to an int
int index = atoi(numberString.substr(i,1).c_str());
//Increment the X value
stringWidth += m_TileIndexNumbers[index]->getSourceWidth();
stringHeight = stringHeight < m_TileIndexNumbers[index]->getSourceHeight() ? m_TileIndexNumbers[index]->getSourceHeight() : stringHeight;
}
float padding = 4.0f;
float scale = fminf((m_Width - padding) / stringWidth, 1.0f);
float scaledWidth = stringWidth * scale;
float scaledHeight = stringHeight * scale;
//Calculate the x and y position based on the string width and height
float x = getX() + (getWidth() - scaledWidth) / 2.0f;
float y = getY() + (getHeight() - scaledHeight) / 2.0f;
for(int i = 0; i < (int)(numberString.length()); i++)
{
//Convert the letter in the string back to an int
int index = atoi(numberString.substr(i,1).c_str());
//Calculate the scaled width and height
float width = m_TileIndexNumbers[index]->getSourceWidth() * scale;
float height = m_TileIndexNumbers[index]->getSourceHeight() * scale;
//Draw the texture that is equivalent to the number
OpenGLRenderer::getInstance()->drawTexture(m_TileIndexNumbers[index], x, y, width, height);
//Increment the X value
x += width;
}
}
void Node::print(int iterationNumber, bool lastIteration) {
string fileName(name);
if(lastIteration)
fileName.append("_final");
char numberChar[10];
sprintf(numberChar, "%d", iterationNumber);
string numberString(numberChar);
fileName.append(".");
fileName.append(numberString);
ofstream out(fileName.c_str()); // Open file
if(!out) {
cout << "Can't open output file: " << fileName << endl;
exit(1);
}
clustering.print(out);
out.close();
}
void IntervalProgressDisplay::paintElliptical(QPainter &p, QColor textColor, int hRadius, int vRadius){
if (beats <= 32) {
drawBeatCircles(p, hRadius, vRadius, beats, 0);//draw a ellipse
} else {
int elementsInOuterEllipse= beats / 2;
int elementsInNestedEllipse = beats - elementsInOuterEllipse;
drawBeatCircles(p, hRadius, vRadius, elementsInOuterEllipse, 0);
drawBeatCircles(p, (int) (hRadius * 0.75), (int) (vRadius * 0.75), elementsInNestedEllipse, elementsInOuterEllipse);
}
//drawCircles(&p, radius, beats, 0);
//draw current beat text in center
p.setPen(textColor);//use text color form pallete, allowing style sheet
QString numberString( QString::number(currentBeat + 1) + " / " + QString::number(beats));
// if(currentBeat + 1 < 10){
// numberString.insert(0, ' ');
// }
int strWidth = fontMetrics().width(numberString);
p.drawText(centerX - strWidth / 2, centerY + fontMetrics().height()/2 , numberString);
//p.drawText(5, fontMetrics().height(), numberString);
}
QString CCard::description()
{
QString s,s2;
s=type->name+" ";
switch (suit) {
case SUIT_FANGKUAI:
s2="♦";
break;
case SUIT_HEITAO:
s2="♠";
break;
case SUIT_HONGTAO:
s2="♥";
break;
case SUIT_MEIHUA:
s2="♣";
break;
default:
break;
}
s+=s2+numberString();
return s;
}
ConstantToken* PreprocessorLexer::scanNumber(const std::string& input, size_t& end) const
{
std::string numberString("");
ConstantToken::Base base = ConstantToken::BASE_10;
ConstantToken::ConstantType type = ConstantToken::TYPE_INT;
bool hasExponent = false;
bool (*pred)(const char ref) = &isDigit;
size_t pos = 0;
for (bool atEnd = false; ((! atEnd) && (pos < input.length())); ++pos) {
const char top = input[pos];
const char next = ((pos < (input.length() - 1)) ? input[pos + 1] : '\0');
if ((pred != 0) && ((*pred)(top) == true)) {
numberString += top;
if ((pos == 0) && (top == '0')) {
if ((next == 'x') || (next == 'X')) {
numberString += next;
++pos;
pred = &isHexDigit;
base = ConstantToken::BASE_16;
} else if (next == '.')
type = ConstantToken::TYPE_FLOAT;
else {
pred = &isOctalDigit;
base = ConstantToken::BASE_8;
}
}
switch (next) {
case 'u':
case 'U':
atEnd = true;
if (type == ConstantToken::TYPE_INT) {
numberString += next;
++pos;
type = ConstantToken::TYPE_UINT;
}
break;
case 'f':
case 'F':
atEnd = true;
if (type == ConstantToken::TYPE_FLOAT) {
numberString += next;
++pos;
}
break;
case '.':
if (base == ConstantToken::BASE_10) {
type = ConstantToken::TYPE_FLOAT;
numberString += next;
++pos;
}
break;
case 'e':
case 'E':
if (type == ConstantToken::TYPE_FLOAT) {
hasExponent = true;
numberString += next;
++pos;
}
break;
default:
break;
}
} else if ((top == 'f') && (type == ConstantToken::TYPE_FLOAT)) {
numberString += top;
} else if ((top == '.') && (base == ConstantToken::BASE_10)) {
// Accept the dot '.' only, if it is not the first character or
// if a digit is following to avoid invalid ".f" strings.
//
if ((pos > 0) || (isDigit(next) == true)) {
type = ConstantToken::TYPE_FLOAT;
numberString += top;
}
} else if (((top == '+') || (top == '-')) && (hasExponent == true)) {
numberString += top;
} else
break;
} // for (pos
end = (pos > 0) ? --pos : 0;
if (numberString.empty() == true)
return 0;
return new ConstantToken(PreprocessorTerminals::ID_CONSTANT, numberString, type, base);
}
ConstantToken* Lexer::scanNumber(const int tokenID) throw (std::runtime_error)
{
std::string numberString("");
ConstantToken::Base base = ConstantToken::BASE_10;
ConstantToken::ConstantType type = ConstantToken::TYPE_INT;
bool hasExponent = false;
bool (*pred)(const char ref) = &isDigit;
size_t pos = 0;
for (bool atEnd = false; (! atEnd); ++pos) {
if ((pred != 0) && ((*pred)(peek_) == true)) {
numberString += peek_;
if ((pos == 0) && (peek_ == '0')) {
if ((nextChar() == 'x') || (nextChar() == 'X')) {
numberString += readChar();
++pos;
pred = &isHexDigit;
base = ConstantToken::BASE_16;
} else if (nextChar() == '.')
type = ConstantToken::TYPE_FLOAT;
else {
pred = &isOctalDigit;
base = ConstantToken::BASE_8;
}
}
switch (nextChar()) {
case 'u':
case 'U':
atEnd = true;
if (type == ConstantToken::TYPE_INT) {
numberString += readChar();
++pos;
type = ConstantToken::TYPE_UINT;
}
break;
case 'f':
case 'F':
atEnd = true;
if (type == ConstantToken::TYPE_FLOAT) {
numberString += readChar();
++pos;
}
break;
case '.':
if (base == ConstantToken::BASE_10) {
type = ConstantToken::TYPE_FLOAT;
numberString += readChar();
++pos;
}
break;
case 'e':
case 'E':
if (type == ConstantToken::TYPE_FLOAT) {
hasExponent = true;
numberString += readChar();
++pos;
}
break;
default:
if (! (*pred)(nextChar()))
atEnd = true;
break;
} // switch
}
else if ((peek_ == 'f') && (type == ConstantToken::TYPE_FLOAT))
numberString += peek_;
else if ((peek_ == '.') && (base == ConstantToken::BASE_10))
{
// Accept the dot '.' only, if it is not the first character or
// if a digit is following to avoid invalid ".f" strings.
//
if ((pos > 0) || (isDigit(nextChar()) == true)) {
type = ConstantToken::TYPE_FLOAT;
numberString += peek_;
}
}
else if (((peek_ == '+') || (peek_ == '-')) && (hasExponent == true)) {
numberString += peek_;
} else
break;
if (! atEnd)
readChar();
} // for (pos
if (numberString.empty() == true)
return 0;
return new ConstantToken(tokenID, numberString, type, base);
}
void Tile::paintScoreNumber(int number, ScoreNumberPosition position, float scale, float padding)
{
//Check to see if its a walkable tile
if(isWalkableTile() == true)
{
//Convert the number to a stringstream
std::stringstream numberStream;
numberStream << number;
//Next convert the stringstream into a string
std::string numberString(numberStream.str());
//Cycle through each number in the string and calculate the total width of the string
float stringWidth = 0.0f;
float stringHeight = 0.0f;
for(int i = 0; i < numberString.length(); i++)
{
//Convert the letter in the string back to an int
int index = atoi(numberString.substr(i,1).c_str());
//Increment the X value
stringWidth += m_TileScoreNumbers[index]->getSourceWidth();
stringHeight = stringHeight < m_TileScoreNumbers[index]->getSourceHeight() ? m_TileScoreNumbers[index]->getSourceHeight() : stringHeight;
}
float scaledWidth = stringWidth * scale;
float scaledHeight = stringHeight * scale;
float x = 0.0f;
float y = 0.0f;
//Calculate the x and y position based on the string width and height
switch (position)
{
case TopLeft:
x = getX() + padding;
y = getY() + padding;
break;
case BottomLeft:
x = getX() + padding;
y = getY() + getHeight() - scaledHeight - padding;
break;
case BottomRight:
x = getX() + getWidth() - scaledWidth - padding;
y = getY() + getHeight() - scaledHeight - padding;
break;
}
//Cycle through each number in the string and draw it
for(int i = 0; i < numberString.length(); i++)
{
//Convert the letter in the string back to an int
int index = atoi(numberString.substr(i,1).c_str());
//Calculate the scaled width and height
float width = m_TileScoreNumbers[index]->getSourceWidth() * scale;
float height = m_TileScoreNumbers[index]->getSourceHeight() * scale;
//Draw the texture that is equivalent to the number
OpenGLRenderer::getInstance()->drawTexture(m_TileScoreNumbers[index], x, y, width, height);
//Increment the X value
x += m_TileScoreNumbers[index]->getSourceWidth() * scale;
}
}
}
/**
* This function fits TH2F slices with a selected fitType function (gaussian, lorentz, ...).
*/
TGraphErrors* fit2DProj(TString name, TString path, int minEntries, int rebinX, int rebinY, int fitType,
TFile * outputFile, const TString & resonanceType, const double & xDisplace, const TString & append) {
//Read the TH2 from file
TFile *inputFile = new TFile(path);
TH2 * histo = (TH2*) inputFile->Get(name);
if( rebinX > 0 ) histo->RebinX(rebinX);
if( rebinY > 0 ) histo->RebinY(rebinY);
//Declare some variables
TH1 * histoY;
TString nameY;
std::vector<double> Ftop;
std::vector<double> Fwidth;
std::vector<double> Fmass;
std::vector<double> Etop;
std::vector<double> Ewidth;
std::vector<double> Emass;
std::vector<double> Fchi2;
std::vector<double> Xcenter;
std::vector<double> Ex;
TString fileOutName("fitCompare2"+name);
fileOutName += append;
fileOutName += ".root";
TFile *fileOut=new TFile(fileOutName,"RECREATE");
for (int i=1; i<=(histo->GetXaxis()->GetNbins());i++) {
//Project on Y (set name and title)
std::stringstream number;
number << i;
TString numberString(number.str());
nameY = name + "_" + numberString;
// std::cout << "nameY " << nameY << std::endl;
histoY = histo->ProjectionY(nameY, i, i);
double xBin = histo->GetXaxis()->GetBinCenter(i);
std::stringstream xBinString;
xBinString << xBin;
TString title("Projection of x = ");
title += xBinString.str();
histoY->SetName(title);
if (histoY->GetEntries() > minEntries) {
//Make the dirty work!
TF1 *fit;
std::cout << "fitType = " << fitType << std::endl;
if(fitType == 1) fit = gaussianFit(histoY, resonanceType);
else if(fitType == 2) fit = lorentzianFit(histoY, resonanceType);
else if(fitType == 3) fit = linLorentzianFit(histoY);
else {
std::cout<<"Wrong fit type: 1=gaussian, 2=lorentzian, 3=lorentzian+linear."<<std::endl;
abort();
}
double *par = fit->GetParameters();
double *err = fit->GetParErrors();
// Check the histogram alone
TCanvas *canvas = new TCanvas(nameY+"alone", nameY+" alone");
histoY->Draw();
canvas->Write();
// Only for check
TCanvas *c = new TCanvas(nameY, nameY);
histoY->Draw();
fit->Draw("same");
fileOut->cd();
c->Write();
if( par[0] == par[0] ) {
//Store the fit results
Ftop.push_back(par[0]);
Fwidth.push_back(fabs(par[1]));//sometimes the gaussian has negative width (checked with Rene Brun)
Fmass.push_back(par[2]);
Etop.push_back(err[0]);
Ewidth.push_back(err[1]);
Emass.push_back(err[2]);
Fchi2.push_back(fit->GetChisquare()/fit->GetNDF());
double xx= histo->GetXaxis()->GetBinCenter(i);
Xcenter.push_back(xx);
double ex = 0;
Ex.push_back(ex);
}
else {
// Skip nan
std::cout << "Skipping nan" << std::endl;
Ftop.push_back(0);
Fwidth.push_back(0);
Fmass.push_back(0);
Etop.push_back(1);
Ewidth.push_back(1);
Emass.push_back(1);
Fchi2.push_back(100000);
Xcenter.push_back(0);
Ex.push_back(1);
}
}
}
fileOut->Close();
//Plots the fit results in TGraphs
const int nn= Ftop.size();
double x[nn],ym[nn],e[nn],eym[nn];
double yw[nn],eyw[nn],yc[nn];
// std::cout << "number of bins = " << nn << std::endl;
// std::cout << "Values:" << std::endl;
for (int j=0;j<nn;j++){
// std::cout << "xCenter["<<j<<"] = " << Xcenter[j] << std::endl;
x[j]=Xcenter[j]+xDisplace;
// std::cout << "Fmass["<<j<<"] = " << Fmass[j] << std::endl;
ym[j]=Fmass[j];
// std::cout << "Emass["<<j<<"] = " << Emass[j] << std::endl;
eym[j]=Emass[j];
// std::cout << "Fwidth["<<j<<"] = " << Fwidth[j] << std::endl;
yw[j]=Fwidth[j];
// std::cout << "Ewidth["<<j<<"] = " << Ewidth[j] << std::endl;
eyw[j]=Ewidth[j];
// std::cout << "Fchi2["<<j<<"] = " << Fchi2[j] << std::endl;
yc[j]=Fchi2[j];
e[j]=0;
}
TGraphErrors *grM = new TGraphErrors(nn,x,ym,e,eym);
grM->SetTitle(name+"_M");
grM->SetName(name+"_M");
TGraphErrors *grW = new TGraphErrors(nn,x,yw,e,eyw);
grW->SetTitle(name+"_W");
grW->SetName(name+"_W");
TGraphErrors *grC = new TGraphErrors(nn,x,yc,e,e);
grC->SetTitle(name+"_chi2");
grC->SetName(name+"_chi2");
grM->SetMarkerColor(4);
grM->SetMarkerStyle(20);
grW->SetMarkerColor(4);
grW->SetMarkerStyle(20);
grC->SetMarkerColor(4);
grC->SetMarkerStyle(20);
//Draw and save the graphs
outputFile->cd();
TCanvas * c1 = new TCanvas(name+"_W",name+"_W");
c1->cd();
grW->Draw("AP");
c1->Write();
TCanvas * c2 = new TCanvas(name+"_M",name+"_M");
c2->cd();
grM->Draw("AP");
c2->Write();
TCanvas * c3 = new TCanvas(name+"_C",name+"_C");
c3->cd();
grC->Draw("AP");
c3->Write();
return grM;
}