//--------------------------------------------------------------
void defense::draw(){
ofSetHexColor(0xffffff);
if (CurrentSlide.compare("CaptureSlideJul26")==0) {
Capture3styles();
}
if (CurrentSlide.compare("TitleSlide")==0){
TitleSlide();
}
if (CurrentSlide.compare("TableContentSlide")==0){
TableContentSlide();
}
if (CurrentSlide.compare("IntroductionTitle")==0){
ChapterTitle("INTRODUCTION");
}
if (CurrentSlide.compare("DefinitionsSlide")==0){
DefinitionsSlide();
}
if (CurrentSlide.compare("JustAnalysis")==0){
MaxMode =3;
if(InterMode>MaxMode-1){InterMode=0;}
JustAnalysis(InterMode);
}
if (CurrentSlide.compare("BlockDiagram")==0){
MaxMode =5;
if(InterMode>MaxMode-1){InterMode=0;}
BlockDiagram(InterMode);
}
if (CurrentSlide.compare("ScopeAndLimitationsSlide")==0){
ScopeAndLimitationsSlide();
}
if (CurrentSlide.compare("ContributionsSlide")==0){
ContributionsSlide();
}
if (CurrentSlide.compare("ReviewTitle")==0){
ChapterTitle("REVIEW OF A/S IN MEDIA ARTS");
}
if (CurrentSlide.compare("Autotune")==0){
AutotuneSlide();
}
if (CurrentSlide.compare("Vocoder")==0){
VocoderSlide();
}
if (CurrentSlide.compare("ImageReview")==0){
MaxMode =7;
if(InterMode>MaxMode-1){InterMode=0;}
ImageReviewSlides(InterMode);
}
if (CurrentSlide.compare("VideoNPR")==0){
MaxMode =3;
if(InterMode>MaxMode-1){InterMode=0;}
VideoNPR(InterMode);
}
if (CurrentSlide.compare("VideoReview")==0){
MaxMode =8;
if(InterMode>MaxMode-1){InterMode=0;}
VideoReviewSlide(InterMode);
}
if (CurrentSlide.compare("MediaArtReview")==0){
MaxMode =4;
if(InterMode>MaxMode-1){InterMode=0;}
MediaArtReviewSlide(InterMode);
}
if (CurrentSlide.compare("CreativeCodingEra")==0) {
MaxMode =2;
if(InterMode>MaxMode-1){InterMode=0;}
CreativeCodingEraSlide(InterMode);
}
if (CurrentSlide.compare("RedrawingTitle")==0) {
ChapterTitle("REDRAWING IMAGES");
}
if (CurrentSlide.compare("RedrawingRegions")==0) {
MaxMode =5;
if(InterMode>MaxMode-1){InterMode=0;}
RedrawingRegions(InterMode);
}
if (CurrentSlide.compare("EdgesAndLines")==0){
MaxMode =2;
if(InterMode>MaxMode-1){InterMode=0;}
EdgesAndLines(InterMode);
}
if (CurrentSlide.compare("OrientationSlide")==0) {
Orientation();
}
if (CurrentSlide.compare("SizeSlide")==0) {
SizeSlide();
}
if (CurrentSlide.compare("ShapeSlide")==0) {
ShapeSlide();
}
if (CurrentSlide.compare("DensitySlide")==0) {
DensitySlide();
}
if (CurrentSlide.compare("Connectedness")==0) {
MaxMode =3;
if(InterMode>MaxMode-1){InterMode=0;}
ConnectednessSlide(InterMode);
}
if (CurrentSlide.compare("Transcoding")==0) {
WaveSlide();
}
if (CurrentSlide.compare("TemporalCoherencyTitle")==0) {
ChapterTitle("TEMPORAL COHERENCY");
}
if (CurrentSlide.compare("TemCoherenceContent")==0) {
TemCoherenceContent();
}
if (CurrentSlide.compare("MatchingTitle")==0) {
AllSubSectionTitles("Matching and Interpolation in the Parameters Domain");
}
if (CurrentSlide.compare("TheMatchingProblem")==0) {
TheMatchingProblem();
}
if (CurrentSlide.compare("MinMaxEquation")==0) {
MinMaxEquation();
}
if (CurrentSlide.compare("NCcir")==0)
{
NCCirDraw("Example 1: Non-coherent circles");
}
if(CurrentSlide.compare("MinMaxcir")==0){
NCCirDraw("Minimizing the sum of distances");
}
if(CurrentSlide.compare("NCcirMatched")==0){
NCCirDraw("Random matching");
}
if(CurrentSlide.compare("BottleNeckEquation")==0){
BottleNeckEquation();
}
if(CurrentSlide.compare("BottleNeckCir")==0){
NCCirDraw("Minimizing the maximum distance");
}
if (CurrentSlide.compare("DirectionFiltCir")==0){
NCCirDraw("Penalizing particular directions");
}
if (CurrentSlide.compare("GradientTitle")==0) {
AllSubSectionTitles("Gradient Based Approach");
}
if (CurrentSlide.compare("GradientBlocks")==0) {
GradientBlocks();
}
if (CurrentSlide.compare("MeshFlow")==0) {
MeshFlowDraw();
}
if (CurrentSlide.compare("ArrowsDraw")==0) {
ArrowsDraw();
}
if(CurrentSlide.compare("MobileMirrors")==0){
ChapterTitle("MOBILE MIRRORS");
}
if(CurrentSlide.compare("AngleShift")==0){
AngleShift();
}
if(CurrentSlide.compare("MeshMobile")==0){
MeshMobile();
}
if(CurrentSlide.compare("FutureWorkNonCoherent")==0){
ChapterTitle("FUTURE WORK:\nDENSITY MIRRORS");
}
if(CurrentSlide.compare("FutureWorkMobile")==0){
ChapterTitle("FUTURE WORK IN\nTEMPORAL COHERENCY");
}
// keyString.push_back("");
// keyString.push_back("");
// keyString.push_back("MeshMobile");
// keyString.push_back("FutureWorkMobile");
if (CurrentSlide.compare("DisTrans")==0) {
MaxMode =3;
if(InterMode>MaxMode-1){InterMode=0;}
DisTrans(InterMode);
}
if(CurrentSlide.compare("GradientCircs")==0){
CirclesGradientDraw();
}
if (CurrentSlide.compare("TargetsTitle")==0) {
AllSubSectionTitles("Attractors Based Algorithm");
}
if (CurrentSlide.compare("TargetsAlgorithm")==0) {
TargetAlgorithmDraw();
}
if (CurrentSlide.compare("EllipwithTarget")==0) {
EllipWithTarget();
}
if (CurrentSlide.compare("TargetEllipseExample")==0){
TargetEllipseExample();
}
if (CurrentSlide.compare("GoodFeaturesExample")==0) {
GoodFeaturesDraw();
}
if (CurrentSlide.compare("ComparisionTitle")==0) {
AllSubSectionTitles("Comparison");
}
if (CurrentSlide.compare("HistoJumps")==0) {
Comparisions(0);
}
if (CurrentSlide.compare("JerKBar")==0) {
Comparisions(1);
}
if (CurrentSlide.compare("SmoothVsQual")==0) {
Comparisions(2);
}
if (CurrentSlide.compare("Dispersion")==0) {
Comparisions(3);
}
if (CurrentSlide.compare("CrossSynthesisTitle")==0) {
ChapterTitle("FUTURE WORK \nAMBIGUOUS IMAGES");
}
if (CurrentSlide.compare("CrossContent")==0) {
CrossContent();
}
if (CurrentSlide.compare("AmbiguousSlide")==0) {
AmbiguousSlide();
}
if (CurrentSlide.compare("SubstitutionTitle")==0) {
AllSubSectionTitles("Substitution");
}
if (CurrentSlide.compare("Mixing")==0) {
MaxMode =3;
if(InterMode>MaxMode-1){InterMode=0;}
MixingImages(InterMode);
}
if ((CurrentSlide.compare("Bagette")==0)){
BaggeteExample();
}
if (CurrentSlide.compare("Hormigas")==0) {
MaxMode =3;
if(InterMode>MaxMode-1){InterMode=0;}
HormigasDraw(InterMode);
}
if (CurrentSlide.compare("Tree")==0) {
MaxMode =4;
if(InterMode>MaxMode-1){InterMode=0;}
TreeDraw(InterMode);
}
if (CurrentSlide.compare("DirectTitle")==0) {
AllSubSectionTitles("Direct Detection");
}
if (CurrentSlide.compare("TemplateMatching")==0) {
TemplateMatching();
}
if (CurrentSlide.compare("StatesSlide")==0) {
StatesSlide();
}
if (CurrentSlide.compare("TemplateDemo")==0) {
TemplateDemoDraw();
}
if (CurrentSlide.compare("ViterbiSlide")==0) {
ViterbiSlide();
}
if (CurrentSlide.compare("GenerativeTitle")==0) {
AllSubSectionTitles("Generative Approach");
}
// if (CurrentSlide.compare("TreeDemo")==0){
// TreeDraw();
//
// }
if (CurrentSlide.compare("DiscussionSlide")==0){
ChapterTitle("DISCUSSION");
}
if (CurrentSlide.compare("ExtensionsSlide")==0){
ExtensionsSlide();
}
if (CurrentSlide.compare("FutureSlide")==0){
FutureSlide();
}
if (CurrentSlide.compare("QuestionsSlide")==0){
ChapterTitle("QUESTIONS?");
}
// checkink to save
if (booleanforCapture==true) {
// ofSaveScreen("ParaReNew" + ofToString(FrameNumber) +".png");
// FrameNumber++;
// ofSaveScreen("SuperImagen.png" + ofToString(FrameNumber) + ".png");
// booleanforCapture = false;
// FrameNumber++;
}
// draw the incoming, the grayscale, the bg and the thresholded difference
// ofSetHexColor(0xffffff);
// colorImg = TheInput;
// colorImg.draw(0,0);
// grayImage.draw(360,20);
}
void OnlineGUI::DoDraw()
{
// The main Drawing Routine.
gStyle->SetOptStat(1110);
gStyle->SetStatFontSize(0.1);
if (fConfig->IsLogy(current_page)) {
gStyle->SetOptLogy(1);
} else {
gStyle->SetOptLogy(0);
}
// gStyle->SetTitleH(0.10);
// gStyle->SetTitleW(0.40);
gStyle->SetTitleH(0.10);
gStyle->SetTitleW(0.60);
gStyle->SetStatH(0.70);
gStyle->SetStatW(0.35);
// gStyle->SetLabelSize(0.10,"X");
// gStyle->SetLabelSize(0.10,"Y");
gStyle->SetLabelSize(0.05,"X");
gStyle->SetLabelSize(0.05,"Y");
gStyle->SetPadLeftMargin(0.14);
gStyle->SetNdivisions(505,"X");
gStyle->SetNdivisions(404,"Y");
gROOT->ForceStyle();
// Determine the dimensions of the canvas..
UInt_t draw_count = fConfig->GetDrawCount(current_page);
if(draw_count>=8) {
gStyle->SetLabelSize(0.08,"X");
gStyle->SetLabelSize(0.08,"Y");
}
// Int_t dim = Int_t(round(sqrt(double(draw_count))));
pair <UInt_t,UInt_t> dim = fConfig->GetPageDim(current_page);
#ifdef DEBUG
cout << "Dimensions: " << dim.first << "X"
<< dim.second << endl;
#endif
// Create a nice clean canvas.
fCanvas->Clear();
fCanvas->Divide(dim.first,dim.second);
vector <TString> drawcommand(5);
// Draw the histograms.
for(UInt_t i=0; i<draw_count; i++) {
drawcommand = fConfig->GetDrawCommand(current_page,i);
fCanvas->cd(i+1);
if (drawcommand[0] == "macro") {
MacroDraw(drawcommand);
} else if (IsHistogram(drawcommand[0])) {
HistDraw(drawcommand);
} else {
TreeDraw(drawcommand);
}
}
fCanvas->cd();
fCanvas->Update();
if(!fPrintOnly) {
CheckPageButtons();
}
}
