void DrawEmpirical(const char* filename="Empirical.root",
Bool_t fmd=true)
{
gStyle->SetOptTitle(0);
TFile* file = TFile::Open(filename, "READ");
if (!file) return;
Double_t yr = 0.3;
TCanvas* c = new TCanvas("c","c", 1000,1000);
TPad* p1 = new TPad("p1","p1",0,0,1,yr);
TPad* p2 = new TPad("p2","p2",0,yr,1,1);
c->cd(); p1->Draw();
c->cd(); p2->Draw();
gDirectory->cd("Forward");
THStack* r = DrawOne(p1, yr, false, gDirectory, "ratios");
THStack* e = DrawOne(p2, yr, true, gDirectory, "empirical");
r->SetMinimum(0.945);
r->SetMaximum(1.055);
r->GetXaxis()->SetTitle("#it{#eta}");
r->GetYaxis()->SetTitle("Ratio to mean");
e->SetMinimum(0.005);
e->GetYaxis()->SetTitle("#it{E_{c}}(#it{#eta})");
TIter nextE(e->GetHists());
TIter nextR(r->GetHists());
TH1* hist = 0;
Color_t cols[] = { kRed+2, kGreen+2, kBlue+2, kMagenta+2, 0 };
Color_t *ptr = cols;
Style_t stys[] = { 20, 21, 22, 23 };
Style_t* sty = stys;
while (*ptr) {
hist = static_cast<TH1*>(nextE());
hist->SetMarkerColor(*ptr);
hist->SetMarkerSize(2);
hist->SetMarkerStyle(*sty);
hist = static_cast<TH1*>(nextR());
hist->SetMarkerColor(*ptr);
hist->SetMarkerSize(2);
hist->SetMarkerStyle(*sty);
ptr++;
sty++;
}
TLegend* l = p2->BuildLegend(0.35, .2, .65, .8);
l->SetFillColor(0);
l->SetFillStyle(0);
l->SetBorderSize(0);
c->Modified();
c->Update();
c->cd();
c->Print("empirical.png");
}
void WaveStripe::update(){
mutex.lock();
amplitudesLeftFront.insert(amplitudesLeftFront.end(),amplitudesLeftBack.begin(),amplitudesLeftBack.end());
amplitudesRightFront.insert(amplitudesRightFront.end(),amplitudesRightBack.begin(),amplitudesRightBack.end());
amplitudesLeftBack.clear();
amplitudesRightBack.clear();
mutex.unlock();
if(amplitudesLeftFront.size()>1024){
amplitudesLeftFront.erase(amplitudesLeftFront.begin(),amplitudesLeftFront.begin()+(amplitudesLeftFront.size()-1024));
amplitudesRightFront.erase(amplitudesRightFront.begin(),amplitudesRightFront.begin()+(amplitudesRightFront.size()-1024));
}
for(u_int i = 0; i<amplitudesLeftFront.size();i++){
amplitudesLeftFront[i]*=.95;
amplitudesRightFront[i]*=.95;
}
for(int i=0; i<((int)amplitudesLeftFront.size())-1;i++){
ofVec3f current(i*thickness,amplitudesLeftFront[amplitudesLeftFront.size()-i]*ampFactor,0);
ofVec3f currentR(i*thickness,amplitudesRightFront[amplitudesRightFront.size()-i]*ampFactor,0);
ofVec3f next((i+1)*thickness,amplitudesLeftFront[amplitudesLeftFront.size()-(i+1)]*ampFactor,0);
ofVec3f nextR((i+1)*thickness,amplitudesRightFront[amplitudesRightFront.size()-(i+1)]*ampFactor,0);
ofVec3f up(0, 1, 0);
ofVec3f dir = (next - current).normalize(); // normalized direction vector from p0 to p1
ofVec3f right = dir.cross(up).normalize(); // right vector
right *= thickness;//thisThickness;
dir = (nextR - currentR).normalize();
ofVec3f rightR = dir.cross(up).normalize(); // right vector
rightR *= thickness;//thisThickness;
mesh.getVertices()[i*2] = mesh.getVertices()[i*2]*.8 + (current - right)*.2;
mesh.getVertices()[i*2+1] = mesh.getVertices()[i*2+1]*.8 + (currentR + rightR)*.2;
}
if(mesh.getVertices().size()>2){
*(mesh.getVertices().end()-2) = *(mesh.getVertices().end()-4);
*(mesh.getVertices().end()-1) = *(mesh.getVertices().end()-3);
}
}
u_int nextR(u_int posn, fxStr const& delimiters) const
{ return nextR(posn, (char*)delimiters, delimiters.slength-1); }
bool TissueState::addCell(const CellIndex id, const Pixel firstP, const PixelFrame &OriginalFrame) {
// create cell, already now for computation of geometric quantities...
Cell *c = new Cell(id);
// **** first, check if cell has to be ignored (i.e. at least one bond pixel is a margin pixel) ****
// go around cell perimeter in ccw direction
Pixel p(firstP);
Vector2D lastR(p.toVector());
int direction = 6; // ==Down; this is right like this, because in TissueState::parseFromTrackedCellsFile a cell is started when a cell pixel was found *above* firstP
do {
if(p.isOnMargin()) {
// cell has to be ignored
_ignoredCells.insert(id);
// delete c; // delete cell again
// return true;
}
std::vector<CellIndex> neighbors;
direction = p.getLastCommonNeighboringBondPixelInCwOrientation(neighbors, id, direction);
if(direction<0) {
return false;
}
p.goTo(direction);
// compute quantities
Vector2D r(p.toVector());
double areaTerm = lastR.x()*r.y() - lastR.y()*r.x();
c->area += areaTerm;
c->r += (r+lastR)*areaTerm;
lastR = r;
} while(p!=firstP);
// finish computations
c->area *= 0.5;
c->r /= 6*c->area;
// add cell to map
_cells[id] = c;
// **** second, compute cell elongation (needs computed cell center) ****
// go around cell perimeter in ccw direction
p = firstP;
direction = 6; // ==Down; this is right like this, because in TissueState::parseFromTrackedCellsFile a cell is started when a cell pixel was found *above* firstP
c->elongation.set(0,0);
c->polarityR=c->polarityG=c->polarityB=c->elongation;
c->intIntensityR=c->intIntensityG=c->intIntensityB=0;
Vector2D r(p.toVector());
Vector2D diff(r-c->r);
double rLen=diff.norm(), rPhi=diff.angle();
// for polarity:
PixelValue oldData = OriginalFrame.data(p.position());
unsigned char oldDataR=(oldData>>16)&0xFF, oldDataG=(oldData>>8)&0xFF, oldDataB=oldData&0xFF;
do {
std::vector<CellIndex> neighbors;
direction = p.getLastCommonNeighboringBondPixelInCwOrientation(neighbors, id, direction);
if(direction<0) {
return false;
}
p.goTo(direction);
// compute cell elongation
double l = PixelFrame::NNeighborDistance[direction];
Vector2D nextR(p.toVector());
diff = nextR-c->r;
double nextRLen=diff.norm(), nextRPhi=diff.angle();
double deltaPhi = nextRPhi-rPhi;
deltaPhi -= 2*M_PI*round(deltaPhi/2/M_PI);
double rPhiMinusAlpha = M_PI + (nextR-r).angle();
double sinAlpha = sin(rPhi-rPhiMinusAlpha);
c->elongation += rLen*rLen*sinAlpha*sinAlpha*(
nematicFromAngleAndNorm(rPhiMinusAlpha, l/(rLen*sinAlpha) - 2*deltaPhi)
+nematicFromAngleAndNorm(rPhiMinusAlpha+0.25*M_PI, 2*log(rLen/nextRLen))
);
// polarity, separately for each color channel (R, G, B)
PixelValue data = OriginalFrame.data(p.position());
unsigned char dataR=(data>>16)&0xFF, dataG=(data>>8)&0xFF, dataB=data&0xFF;
c->polarityR += nematicFromAngleAndNorm(rPhi+0.5*deltaPhi, deltaPhi*0.5*(dataR+oldDataR));
c->intIntensityR += deltaPhi*0.5*(dataR+oldDataR);
c->polarityG += nematicFromAngleAndNorm(rPhi+0.5*deltaPhi, deltaPhi*0.5*(dataG+oldDataG));
c->intIntensityG += deltaPhi*0.5*(dataR+oldDataG);
c->polarityB += nematicFromAngleAndNorm(rPhi+0.5*deltaPhi, deltaPhi*0.5*(dataB+oldDataB));
c->intIntensityB += deltaPhi*0.5*(dataR+oldDataB);
r = nextR;
rLen = nextRLen;
rPhi = nextRPhi;
oldDataR = dataR;
oldDataG = dataG;
oldDataB = dataB;
} while(p!=firstP);
c->elongation /= 2*c->area;
// **** third, go around again and create structures ****
// go around cell perimeter
int countFirstP = 0;
p = firstP;
std::vector<CellIndex> oldNeighbors;
int oldDirection = -1;
Vertex *curVertex = NULL;
DirectedBond *curDirectedBond = NULL;
double curBondLength = 0.0;
do {
// check neighboring cells and next direction
std::vector<CellIndex> curNeighbors;
int curDirection = p.getLastCommonNeighboringBondPixelInCwOrientation(curNeighbors, id, (oldDirection>=0)?oldDirection:6);
if(curDirection<0) {
return false;
}
bool isVertex = false;
Pixel vertexP(p), enterP(p), leaveP(p);
// -- check for thick vertex --
std::set<Pixel> thickVertex;
p.addToThickVertex(thickVertex);
if(thickVertex.size()>1) {
// if(thickVertex.size()>4) {
// std::cout << "TissueState::addCell: thick vertex too big on pixel " << p.positionString() << ", direction " << oldDirection << ", for cell id " << std::hex << id << "." << std::endl;
// return false;
// }
for(std::set<Pixel>::iterator it=thickVertex.begin(); it!=thickVertex.end(); ++it) {
if(*it<vertexP) {
vertexP = *it;
}
}
isVertex = true;
// go to last pixel end of thick vertex
do {
Pixel testP(p);
testP.goTo(curDirection);
if(thickVertex.count(testP)==0) {
break;
}
p = testP;
// curBondLength += PixelFrame::NNeighborDistance[curDirection]; // NOTE: thick vertices don't count in for bon length in order for both bonds of a conjugated pair to have the same length
curDirection = p.getLastCommonNeighboringBondPixelInCwOrientation(curNeighbors, id, curDirection);
if(curDirection<0) {
return false;
}
} while(true);
leaveP = p;
// std::cout << "TissueState::addCell: thick vertex at " << p.positionString() << ", size " << thickVertex.size() << ", for cell id " << std::hex << id << std::dec << ", vertex " << vertexP.positionString() << ", old direction " << oldDirection << ", new direction " << curDirection << "." << std::endl;
} else {
// start with most probable case:
if(curNeighbors.size()==2) {
// consistency check
if((oldNeighbors.size()>0) && (oldNeighbors.size()<3) && !compareCyclicLists(oldNeighbors, curNeighbors)) {
std::cout << "TissueState::addCell: change of neighbor set, but no thick vertex at pixel " << p.positionString() << " for cell id " << std::hex << id << std::endl;
return false;
}
// boundary between two cells
} else if(curNeighbors.size()>2) {
// vertex
isVertex = true;
} else if(curNeighbors.size()==1) {
std::cout << "TissueState::addCell: Only one neighbor of pixel " << p.positionString() << " for cell id " << std::hex << id << std::endl;
return false;
} else if(curNeighbors.size()==0) {
std::cout << "TissueState::addCell: No neighbors of pixel " << p.positionString() << " for cell id " << std::hex << id << std::endl;
return false;
}
}
if(isVertex) {
// check, if come from valid direction
if(oldDirection>=0) {
// first, get pointer to vertex
// check, if in map
if(_vertexMap.count(vertexP)==0) {
// no -> create
curVertex = newVertex(vertexP.toVector());
_vertexMap[vertexP] = curVertex;
} else {
curVertex = _vertexMap[vertexP];
}
// -- check out conjugated bond of previous bond --
pair<Pixel, int> pixelAndDirectionConj(enterP, PixelFrame::oppositeDirection(oldDirection));
DirectedBond *oldConjugatedBond = NULL;
// old conjugated bond already there?
if(_directedBondMap.count(pixelAndDirectionConj)>0) {
oldConjugatedBond = _directedBondMap[pixelAndDirectionConj];
} else {
// no -> create
oldConjugatedBond = newBond();
_directedBondMap[pixelAndDirectionConj] = oldConjugatedBond;
}
// -- check out previous bond --
// previous bond there?
if(curDirectedBond) {
// wire with cur vertex
curDirectedBond->leftVertex = curVertex;
// conjugated bond already there?
if(oldConjugatedBond) {
curDirectedBond->conjBond = oldConjugatedBond;
oldConjugatedBond->conjBond = curDirectedBond;
}
// set length
curDirectedBond->length = curBondLength;
}
// -- check out next bond --
pair<Pixel, int> pixelAndDirection(leaveP, curDirection);
if(_directedBondMap.count(pixelAndDirection)==0) {
// new bond does not yet exist -> create
curDirectedBond = newBond();
_directedBondMap[pixelAndDirection] = curDirectedBond;
} else {
curDirectedBond = _directedBondMap[pixelAndDirection];
}
curBondLength = 0.0;
// - add to cell -
if(curDirectedBond->cell) {
// cell already set?
if(curDirectedBond->cell==c) {
// right cell -> we're done!
break;
} else {
// wrong cell
std::cout << "TissueState::addCell: Bond already exists, but wrong cell at pixel " << p.positionString();
std::cout << std::hex << " with cur cell id " << (*curNeighbors.begin()) << " and cell id in bond " << curDirectedBond->cell->id << std::endl;
return false;
}
} else {
// add
curDirectedBond->cell = c;
c->bonds.push_back(curDirectedBond);
}
// - add new bond (if appropriate) and (if appropriate) old conjugate bond to vertex -
// have to add old conj. bond to vertex?
if(!oldConjugatedBond->rightVertex) {
// have to add new bond to vertex?
if(!curDirectedBond->rightVertex) {
// have to insert both into curVertex
// first insert curBond at end
curDirectedBond->rightVertex = curVertex;
curVertex->bonds.insert(curVertex->bonds.end(), curDirectedBond);
// then old conj bond
oldConjugatedBond->rightVertex = curVertex;
curVertex->bonds.insert(curVertex->bonds.end(), oldConjugatedBond);
} else {
// have to insert old conj. after new bond
std::vector<DirectedBond *>::iterator it = std::find(curVertex->bonds.begin(), curVertex->bonds.end(), curDirectedBond);
if(it!=curVertex->bonds.end()) {
// found -> insert old conj. bond after -> in ccw direction
oldConjugatedBond->rightVertex = curVertex;
++it;
curVertex->bonds.insert(it, oldConjugatedBond);
} else {
// not found, although new bond was there, before
std::cout << "TissueState::addCell: New bond was there before, but did not find it in vertex at pixel " << p.positionString() << " for cell id " << std::hex << c->id << std::endl;
return false;
}
}
} else {
if(!curDirectedBond->rightVertex) {
// find old conj. bond in vertex
std::vector<DirectedBond *>::iterator it = std::find(curVertex->bonds.begin(), curVertex->bonds.end(), oldConjugatedBond);
if(it!=curVertex->bonds.end()) {
// found -> insert new bond before -> in cw direction
curDirectedBond->rightVertex = curVertex;
curVertex->bonds.insert(it, curDirectedBond);
} else {
// not found, although ocb was there, before
std::cout << "TissueState::addCell: Old conjugated bond was there before, but did not find it in vertex at pixel " << p.positionString() << " for cell id " << std::hex << c->id << std::endl;
return false;
}
} else {
// both bonds are already connected!
}
}
}
}
// next pixel
p.goTo(curDirection);
curBondLength += PixelFrame::NNeighborDistance[curDirection];
if(p==firstP) {
++countFirstP;
if(countFirstP>1) {
// running in a circle, here
// create artificial vertex and directed bond:
curVertex = newVertex(firstP.toVector());
curDirectedBond = newBond();
curDirectedBond->rightVertex=curDirectedBond->leftVertex=curVertex;
curDirectedBond->cell = c;
c->bonds.push_back(curDirectedBond);
curVertex->bonds.push_back(curDirectedBond);
break;
}
}
// keep old neighbors in mind
oldNeighbors.swap(curNeighbors);
// keep old directions in mind
oldDirection = curDirection;
} while(true);
return true;
}
