/**
* Prints the results to a stream
* @param test Scores object to be printed
* @param myout stream to be printed to
*/
void SetHandler::print(Scores& test, int label, ostream& myout) {
vector<ResultHolder> outList(0);
for (std::vector<DataSet*>::iterator it = subsets_.begin();
it != subsets_.end(); ++it) {
if ((*it)->getLabel() == label) {
(*it)->print(test, outList);
}
}
sort(outList.begin(), outList.end(), std::greater<ResultHolder> ());
myout
<< "PSMId\tscore\tq-value\tposterior_error_prob\tpeptide\tproteinIds"
<< endl;
for (std::vector<ResultHolder>::iterator it = outList.begin();
it != outList.end(); ++it) {
myout << *it << endl;
}
}
//width and heigth are in 'pixels'
vector<float> getElevations(float _lat,float _lng,int width,int height,float vscale,float rot, int waterDrop, int baseHeight, int stepSize){
int tileNumber = 0;
string tileName = "";
ifstream file;
vector<float> outList(width*height);
file.open("../Terrain2STL-master/hgt_files/N44W070.hgt");
int h;
char number [2];
int t = getTileIndex(_lat,_lng);
//let's go with mercator space for now (Terrain2STL style)
for(int x = 0; x<width; x++){
for(int y = 0; y<height; y++){
float u = (float)y/1200 - (float)height/1200;
float v = (float)x/1200;
u *= stepSize;
v *= stepSize;
//get the lat and lng for each point
float lat = _lat + u*cos(rot) + v*sin(rot);
float lng = _lng + v*cos(rot) - u*sin(rot);
//interpolate - maybe skip for rot0=0?
float elevations[2][2];
for(int a = 0; a < 2; a++){ //x coord for Interpolation
for(int b = 0; b < 2; b++){ //
//interesting bit of code here.
//floor(...)/1200 as no distortion but cannot handle tile edges
//x+float() handles edges well but with distortion
//lat+(float)b/1200
float intlat = floor(lat*1200+b)/1200.0+0.000598907; //magic number??
float intlng = floor(lng*1200+a)/1200.0;
//floor(lng*1200+a)/1200;
if(getTileIndex(intlat, intlng)!=tileNumber){
tileNumber = getTileIndex(intlat, intlng);
tileName = getTile(intlat, intlng);
file.close();
file.open(tileName.c_str(),ios::in|ios::binary);
}
int p = (int) (1201*(intlng-floor(intlng))); //x or lng component
p += (int)(1201*(ceil(intlat)-intlat))* 1201; //y or lat component
file.seekg(p*2,ios::beg);
file.read(number,2);
h = number[1];
if(h<0){
h = h+255;
}
h+= number[0]*256;
if(h==0){
h-= waterDrop/vscale;
}
elevations[a][b]= (float)h;
}
}
float fracLat = lat-floor(lat*1200)/1200;
float fracLng = lng-floor(lng*1200)/1200;
fracLat *= 1200;
fracLng *= 1200;
float westLng = elevations[0][0]*(1-fracLat) + elevations[0][1]*fracLat;
float eastLng = elevations[1][0]*(1-fracLat) + elevations[1][1]*fracLat;
//not sure about this....
float intHeight = westLng*(1-fracLng) + eastLng*fracLng;
//if(t!=getTileIndex(lat,lng)){
// intHeight=0;
//}
//float intHeight = (elevations[0][0]+elevations[0][1]+elevations[1][0]+elevations[1][1])/4;
outList.at(y*width+x) = intHeight*vscale+baseHeight;
}
}
file.close();
clog << "Done getting elevations\n";
return outList;
}