//Takes convex hull of input Point_2 and returns a vector<Point_2>
Points PathPlanner::getHull(Points input){
Points result;
CGAL::convex_hull_2( input.begin(), input.end(), std::back_inserter(result) );
this->BPs = result;
cout<<"Hull Result\n";
printPoints(result);
return result;
}
/*!
* \fn void play(csuStruct *ptr_csu_struct, char *file_name)
* Count the points
* \param[in,out] *ptr_csu_struct a pointer on a csu structure
* \param[in] *file_name the filename
*/
void play(csuStruct *ptr_csu_struct, char *file_name)
{
ContinueChangeDistributorOrQuit choice;
bool continuer=true;
clearScreen();
printPoints(ptr_csu_struct);
do
{
menuPlayersPoints(ptr_csu_struct);
if (!writeFileNewTurn(file_name,ptr_csu_struct))
systemPause();
clearScreen();
printPoints(ptr_csu_struct);
if (exceedMaxNumber(ptr_csu_struct))
continuer=false;
else
{
choice=menuContinueChangeDistributorOrQuit();
if (choice == Quit)
continuer = false;
if (choice == ChangeDistributor)
menuChangeDistributor(ptr_csu_struct);
}
} while (continuer==true);
printGameOver(ptr_csu_struct);
if (menuDelete())
{
deleteFile(file_name);
systemPause();
}
clearScreen();
printCsuStruct(ptr_csu_struct);
closeCsuStruct(ptr_csu_struct);
systemPause();
}
void
Shape::print()
{
cout << "-------------------" << endl;
printType();
printColor();
printPoints();
cout << "-------------------" << endl;
}
int
main(int argc, char *argv[])
{
if (printPoints(toPoint(0, 0), toPoint(1000, 1000)) != 1)
abort();
else
exit(0);
return 0;
}
vector<vector<DjiPoint>> PPETask::getMultDroneMission()
{
//mark defferent blocks, calculate edges outerRect
dataPreHandle();
printLog("dataPreHandle complete");
disperseChargingLine(chargingLine_org, pieceLength);
drawMarkedPoints();
int usedIndex = markAllEdge();
vector<vector<DjiPoint > > _areaFrags = areaDivideMethod(getOrderInterSections(), usedIndex);
BlockManager bolockManager = BlockManager(_areaFrags, homePoint, droneNum, getAllAroundEdges());
//get ground station waypoints when point sing s==1, open sprayer for spraying pesticides otherwise close sprayer
vector<vector<DjiPoint>> taskSet=bolockManager.calNearestPath();
//去掉重复的航点
vector<vector<DjiPoint>> taskSetCopy = vector<vector<DjiPoint>>(taskSet.size());
for (int i = 0; i < taskSet.size(); i++)
{
for (int j = 0; j<taskSet[i].size() ; j++)
{
if (j>0 && taskSet[i][j].s != POINT_SPRAY && taskSet[i][j].x == taskSet[i][j - 1].x &&taskSet[i][j].y == taskSet[i][j - 1].y)
{
continue;
}
taskSetCopy[i].push_back(taskSet[i][j]);
}
}
vector<SprayTask> sprayTaskSet;
for (int i = 0; i < taskSet.size(); i++)
{
sprayTaskSet.push_back(SprayTask());
}
for (int i = 0; i < taskSet.size();i++)
{
taskSet[i] = isUseCoordTransform ? tran.plane2latlong(taskSet[i]) : taskSet[i];
printPoints(taskSet[i]);
}
sprayingcost=estimateFarmSprayCosts();
return taskSet;
}
//Rapidly Exploring Random Tree Search
Points PathPlanner::RRT(){
try{
srand(time(NULL));
Points randPoints = getRandGridPoints();
printPoints(randPoints);
randPoints = this->TSP(randPoints);
setPath(randPoints);
return randPoints;
}
catch(const bad_alloc&){
cout<<"Something really bad happened!";
//return NULL;
}
}
void computeComplexBoxSolution(const int numberOfPolyhedronPoints) {
Point points[numberOfPolyhedronPoints];
int i;
generatePointsInBounduaries(points, numberOfPolyhedronPoints);
calculatePointsObjectiveFunctionValue(points, numberOfPolyhedronPoints);
i = 0;
while(!isDistanceConditionFulfilled(points, numberOfPolyhedronPoints) && i < MAX_PROGRAM_ITERATIONS) {
reflectPoint(points, numberOfPolyhedronPoints);
i++;
}
printPoints(points, numberOfPolyhedronPoints);
exit(0);
}
int
main(int argc, char** argv)
{
struct rt_wdb* outfp;
ON_Brep* brep;
ON_TextLog error_log;
const char* id_name = "B-Rep Example";
const char* geom_name = "cube.s";
ON::Begin();
if (argc > 1) {
printf("Writing a twisted cube b-rep...\n");
outfp = wdb_fopen("brep_cube1.g");
mk_id(outfp, id_name);
brep = MakeTwistedCube(error_log);
mk_brep(outfp, geom_name, brep);
//mk_comb1(outfp, "cube.r", geom_name, 1);
unsigned char rgb[] = {255,255,255};
mk_region1(outfp, "cube.r", geom_name, "plastic", "", rgb);
wdb_close(outfp);
delete brep;
}
printf("Reading a twisted cube b-rep...\n");
struct db_i* dbip = db_open("brep_cube1.g", "r");
db_dirbuild(dbip);
struct directory* dirp;
if ((dirp = db_lookup(dbip, "cube.s", 0)) != DIR_NULL) {
printf("\tfound cube.s\n");
struct rt_db_internal ip;
mat_t mat;
MAT_IDN(mat);
if (rt_db_get_internal(&ip, dirp, dbip, mat, &rt_uniresource) >= 0) {
printPoints((struct rt_brep_internal*)ip.idb_ptr);
} else {
fprintf(stderr, "problem getting internal object rep\n");
}
}
db_close(dbip);
ON::End();
return 0;
}
void
ArxDbgEdInputContextReactor::beginSSGet(const char* pPrompt,
int initGetFlags,
const char* pKeywords,
const char* pSSControls, // str in ADS
const AcArray<AcGePoint3d>& points,
const resbuf* entMask)
{
printReactorMessage(_T("Begin SSGet"));
if (printDetails()) {
CString str;
printPrompt(pPrompt);
printInitGetFlags(initGetFlags);
printKeywords(pKeywords);
printValue(_T("SS CONTROLS"), pSSControls);
printPoints(points);
printResbufs(_T("ENT MASK"), entMask);
}
}
int main(int argc, char * argv[])
{
int numPointsPerDimension;
int verbose = 0;
double omega;
double epsilon;
double * * points;
struct timeval startTime;
struct timeval endTime;
double duration;
double breakdown = 0;
int numIterations;
double maxDiff, tmpMaxDiff;
int numProcesses;
int workingProcesses;
int myRank;
MPI_Status status;
MPI_Request requestUpSend, requestUpRecv;
MPI_Request requestDownSend, requestDownRecv;
int partitions;
int remainder;
int width;
int i, k;
int buffSize;
int startRow;
double * upPointsSend, * upPointsRecv;
double * downPointsSend, * downPointsRecv;
int upperProc, lowerProc;
struct timeval startInterval;
struct timeval endInterval;
if (argc < 2)
{
fprintf(stderr, "ERROR: Too few arguments!\n");
printUsage(argv[0]);
exit(1);
}
else if (argc > 3)
{
fprintf(stderr, "ERROR: Too many arguments!\n");
printUsage(argv[0]);
exit(1);
}
else
{
int argIdx = 1;
if (argc == 3)
{
if (strncmp(argv[argIdx], OPTION_VERBOSE, strlen(OPTION_VERBOSE)) != 0)
{
fprintf(stderr, "ERROR: Unexpected option '%s'!\n", argv[argIdx]);
printUsage(argv[0]);
exit(1);
}
verbose = 1;
++argIdx;
}
numPointsPerDimension = atoi(argv[argIdx]);
if (numPointsPerDimension < 2)
{
fprintf(stderr, "ERROR: The number of points, '%s', should be "
"a numeric value greater than or equal to 2!\n", argv[argIdx]);
printUsage(argv[0]);
exit(1);
}
}
MPI_Init(&argc, &argv);
/* get info about how may processes are running
* and what is your rank number */
MPI_Comm_size(MPI_COMM_WORLD, &numProcesses);
MPI_Comm_rank(MPI_COMM_WORLD, &myRank);
/* calculate nominal size of data per each process */
partitions = numPointsPerDimension / numProcesses;
/* calculate number of processes with the additional row of data */
remainder = numPointsPerDimension % numProcesses;
/* according to myRank, set the width of the table */
width = (myRank < remainder) ? partitions + 1 : partitions;
/* decide how many processes are required to do the calculation */
workingProcesses = (numProcesses > numPointsPerDimension) ? numPointsPerDimension : numProcesses;
/* terminate processes that won't be used */
/* start of copied part of code */
MPI_Comm MY_WORLD = MPI_COMM_WORLD;
if(workingProcesses < numProcesses)
{
MPI_Group world_group;
MPI_Comm_group(MPI_COMM_WORLD, &world_group);
// Remove all unnecessary ranks
MPI_Group new_group;
int ranges[1][3] = {{workingProcesses, (numProcesses - 1), 1}};
MPI_Group_range_excl(world_group, 1, ranges, &new_group);
// Create a new communicator
MPI_Comm_create(MPI_COMM_WORLD, new_group, &MY_WORLD);
if (MY_WORLD == MPI_COMM_NULL)
{
// Bye bye cruel world
MPI_Finalize();
exit(0);
}
}
/* end of copied part of code */
/* source: http://stackoverflow.com/questions/13774968/mpi-kill-unwanted-processes */
/* set the calculation parameters */
omega = getOmega(numPointsPerDimension);
epsilon = getEpsilon(numPointsPerDimension);
/* allocate points table for each process */
points = allocatePoints(numPointsPerDimension, width, numProcesses);
if (points == NULL)
{
freePoints(points, width, myRank);
fprintf(stderr, "ERROR: Malloc failed!\n");
exit(1);
}
/* size of the table to send per each iteration */
buffSize = numPointsPerDimension / 2 + numPointsPerDimension % 2 ;
/* initialize additional buffers for communication */
upPointsSend = initializeBuffer(buffSize);
upPointsRecv = initializeBuffer(buffSize);
downPointsSend = initializeBuffer(buffSize);
downPointsRecv = initializeBuffer(buffSize);
/* process #0 sends to others separate parts of the table
* others wait for incoming data */
if (myRank == 0)
{
startRow = numPointsPerDimension;
for(k = workingProcesses - 1; k >= 0 ; --k)
{
width = (k < remainder) ? partitions + 1 : partitions;
/* initialize points */
initializePoints(points, startRow - width, width, numPointsPerDimension);
/* send table to k-th process */
if(k != 0)
{
for(i = 0; i < width; ++i)
{
MPI_Send(points[i], numPointsPerDimension, MPI_DOUBLE, k, 123, MY_WORLD);
}
}
startRow -= width;
}
}
else
{
if(myRank < workingProcesses)
{
for(i = 0; i < width; ++i)
{
MPI_Recv(points[i], numPointsPerDimension, MPI_DOUBLE, 0, 123, MY_WORLD, &status);
}
}
}
/* remember with which processes you comunicate */
upperProc = myRank == 0 ? MPI_PROC_NULL : myRank - 1;
lowerProc = myRank == workingProcesses - 1 ? MPI_PROC_NULL : myRank + 1;
/* here each process has it's own data set for computations */
if(remainder > 0)
{
startRow = (myRank < remainder) ? myRank * (partitions + 1) : myRank * partitions + remainder;
}
else
{
startRow = myRank * partitions;
}
if(gettimeofday(&startTime, NULL))
{
freePoints(points, width, myRank);
fprintf(stderr, "ERROR: Gettimeofday failed!\n");
exit(1);
}
/* Start of computations. */
numIterations = 0;
do
{
int i, j, color;
maxDiff = 0.0;
for (color = 0; color < 2; ++color)
{
/* fill downPointsSend with the last row of points data */
setDataBuffer(downPointsSend, points, width - 1, 1 + ((startRow + width) % 2 == color ? 1 : 0), numPointsPerDimension);
if(gettimeofday(&startInterval, NULL))
{
freePoints(points, width, myRank);
fprintf(stderr, "ERROR: Gettimeofday failed!\n");
exit(1);
}
MPI_Isend(downPointsSend, buffSize, MPI_DOUBLE, lowerProc, color, MY_WORLD, &requestDownSend);
MPI_Irecv(downPointsRecv, buffSize, MPI_DOUBLE, lowerProc, color, MY_WORLD, &requestDownRecv);
if(gettimeofday(&endInterval, NULL))
{
freePoints(points, width, myRank);
fprintf(stderr, "ERROR: Gettimeofday failed!\n");
exit(1);
}
breakdown += ((double)endInterval.tv_sec + ((double)endInterval.tv_usec / 1000000.0)) -
((double)startInterval.tv_sec + ((double)startInterval.tv_usec / 1000000.0));
/* fill upPointsSend with the last row of points data */
setDataBuffer(upPointsSend, points, 0, 1 + ((startRow - 1) % 2 == color ? 1 : 0), numPointsPerDimension);
if(gettimeofday(&startInterval, NULL))
{
freePoints(points, width, myRank);
fprintf(stderr, "ERROR: Gettimeofday failed!\n");
exit(1);
}
MPI_Isend(upPointsSend, buffSize, MPI_DOUBLE, upperProc, color, MY_WORLD, &requestUpSend);
MPI_Irecv(upPointsRecv, buffSize, MPI_DOUBLE, upperProc, color, MY_WORLD, &requestUpRecv);
if(gettimeofday(&endInterval, NULL))
{
freePoints(points, width, myRank);
fprintf(stderr, "ERROR: Gettimeofday failed!\n");
exit(1);
}
breakdown += ((double)endInterval.tv_sec + ((double)endInterval.tv_usec / 1000000.0)) -
((double)startInterval.tv_sec + ((double)startInterval.tv_usec / 1000000.0));
/* computations of the first row requires data that has to be recieved from other process */
MPI_Wait(&requestUpRecv, &status);
for (i = 0; i < width; ++i)
{
/* before computing the last row of its data,
* process has to be sure that it has required
* row from process rank+1 */
if(i == width - 1)
{
MPI_Wait(&requestDownRecv, &status);
}
for (j = 1 + ((startRow+i) % 2 == color ? 1 : 0); j < numPointsPerDimension - 1; j += 2)
{
if( (myRank != 0 || i != 0 ) && (myRank != workingProcesses - 1 || i != width - 1) )
{
double tmp, diff;
double down, up;
int jIdx = (j - 1 - ((startRow + i) % 2 == color ? 1 : 0))/ 2;
/* decide if up or down value should be taken from additional buffers */
up = (i == 0) ? upPointsRecv[jIdx] : points[i-1][j];
down = (i == width - 1) ? downPointsRecv[jIdx] : points[i+1][j];
/* calculate final value */
tmp = (up + down + points[i][j - 1] + points[i][j + 1]) / 4.0;
diff = points[i][j];
points[i][j] = (1.0 - omega) * points[i][j] + omega * tmp;
diff = fabs(diff - points[i][j]);
if (diff > maxDiff)
{
maxDiff = diff;
}
}
}
}
MPI_Barrier(MY_WORLD);
}
if(gettimeofday(&startInterval, NULL))
{
freePoints(points, width, myRank);
fprintf(stderr, "ERROR: Gettimeofday failed!\n");
exit(1);
}
/* find new maxDiff among all processes */
MPI_Allreduce(&maxDiff, &tmpMaxDiff, 1, MPI_DOUBLE, MPI_MAX, MY_WORLD );
maxDiff = tmpMaxDiff;
if(gettimeofday(&endInterval, NULL))
{
freePoints(points, width, myRank);
fprintf(stderr, "ERROR: Gettimeofday failed!\n");
exit(1);
}
breakdown += ((double)endInterval.tv_sec + ((double)endInterval.tv_usec / 1000000.0)) -
((double)startInterval.tv_sec + ((double)startInterval.tv_usec / 1000000.0));
++numIterations;
}
while (maxDiff > epsilon);
/* End of computations. */
if(gettimeofday(&endTime, NULL))
{
freePoints(points, width, myRank);
fprintf(stderr, "ERROR: Gettimeofday failed!\n");
exit(1);
}
/* calculate how long did the computation lasted */
duration =
((double)endTime.tv_sec + ((double)endTime.tv_usec / 1000000.0)) -
((double)startTime.tv_sec + ((double)startTime.tv_usec / 1000000.0));
/* we choose the process whose execution lasted for the longest time */
double maxDuration;
MPI_Allreduce(&duration, &maxDuration, 1, MPI_DOUBLE, MPI_MAX, MY_WORLD);
if(myRank==0)
{
fprintf(stderr,
"Statistics: duration(s)=%.10f breakdown=%.10f #iters=%d diff=%.10f epsilon=%.10f\n",
maxDuration, breakdown, numIterations, maxDiff, epsilon);
}
if (verbose) {
MPI_Barrier(MY_WORLD);
/* process #0 is responsible for printing results of computation
* others send their data straight to it */
if(myRank != 0 && myRank < workingProcesses)
{
for(k = 0; k < width ; ++k)
{
MPI_Send(points[k], numPointsPerDimension, MPI_DOUBLE, 0, 123, MY_WORLD);
}
}
else if(myRank == 0)
{
printPoints(points, width, numPointsPerDimension);
for(i = 1; i < workingProcesses; ++i)
{
width = (i < remainder) ? partitions + 1 : partitions;
for (k = 0 ; k < width ; ++k)
{
MPI_Recv(points[k], numPointsPerDimension, MPI_DOUBLE, i, 123, MY_WORLD, &status);
}
printPoints(points, width, numPointsPerDimension);
}
}
}
/* free all the memory that was allocated */
freePoints(points, width, myRank);
free(downPointsSend);
free(upPointsSend);
free(downPointsRecv);
free(upPointsRecv);
MPI_Finalize();
return 0;
}
void performQuery(ADIOS_QUERY_TEST_INFO *queryInfo, ADIOS_FILE *f, int use_streaming, int print_points, int read_results)
{
int timestep = 0 ;
ADIOS_VARINFO * tempVar = adios_inq_var(f, queryInfo->varName);
if (use_streaming)
for (timestep = 0; timestep < queryInfo->fromStep; ++timestep)
assert(adios_advance_step(f, 0, 0) == 0);
fprintf(stderr,"times steps for variable is: [%d, %d], batch size is %" PRIu64 "\n", queryInfo->fromStep, queryInfo->fromStep + queryInfo->numSteps, queryInfo->batchSize);
for (timestep = queryInfo->fromStep; timestep < queryInfo->fromStep + queryInfo->numSteps; timestep ++) {
fprintf(stderr, "querying on timestep %d \n", timestep);
ADIOS_SELECTION* currBatch = NULL;
while (adios_query_evaluate(queryInfo->query, queryInfo->outputSelection, use_streaming ? 0 : timestep, queryInfo->batchSize, &currBatch) >= 0) {
if (currBatch == NULL) {
break;
}
assert(currBatch->type ==ADIOS_SELECTION_POINTS);
const ADIOS_SELECTION_POINTS_STRUCT * retrievedPts = &(currBatch->u.points);
/* fprintf(stderr,"retrieved points %" PRIu64 " \n", retrievedPts->npoints); */
if (print_points) {
printPoints(retrievedPts, timestep);
}
if (read_results) {
int elmSize = adios_type_size(tempVar->type, NULL);
void *data = malloc(retrievedPts->npoints * elmSize);
// read returned temp data
adios_schedule_read (f, currBatch, queryInfo->varName, use_streaming ? 0 : timestep, 1, data);
adios_perform_reads(f, 1);
free(data);
}
fprintf(stderr,"Total data retrieved:%"PRIu64"\n", retrievedPts->npoints);
/* if (tempVar->type == adios_double) { */
/* for (i = 0; i < retrievedPts->npoints; i++) { */
/* fprintf(stderr,"%.6f\t", ((double*)data)[i]); */
/* } */
/* fprintf(stderr,"\n"); */
/* } */
/* else if (tempVar->type == adios_real) { */
/* for (i = 0; i < retrievedPts->npoints; i++) { */
/* fprintf(stderr,"%.6f\t", ((float*)data)[i]); */
/* } */
/* fprintf(stderr,"\n"); */
/* } */
adios_selection_delete(currBatch);
currBatch = NULL;
}
if (use_streaming) {
const int err = adios_advance_step(f, 0, 0);
if (timestep < queryInfo->fromStep + queryInfo->numSteps - 1) {
assert(err == 0);
} else {
assert(err == err_end_of_stream || err == err_step_notready);
}
}
}
adios_query_free(queryInfo->query);
}
int main(int argc, char **argv) {
//void main() {
FILE *output; //keypoint output (text)
Image *sourceImage, *sourceImage2;
Image *doubledImage;
Image *currentImage;
Octave *octavesList;
Octave *temp, *current;
KeyPoint *peaks;
KeyPoint *counter, *prevPoint;
KeyPoint *keypoints, *keyCounter;
int candidates = 0;
double scale;
double ***mags, ***directions;
int octaveCount;
int tempHeight, tempWidth, tempDepth;
int totalKeypoints = 0;
double imageSigma;
char fileName[32] = {'\0'};
FILE *candidateOutput;
FILE *trashOutput;
FILE *filteredOutput;
/*
if(argc < 2) {
printf("Usage: sift dat_file\n");
return 0;
}
*/
/* read input */
//sourceImage = readPGMFile(argv[1]);
sourceImage = readDATFile("./image.dat");
if(sourceImage == NULL) {
printf("file was not read\n");
return 1;
}
scale = START_SCALE;
/* print constants used */
printf("Constants:\n");
printf("START_SIGMA=%f\n", START_SIGMA);
printf("OCTAVE_LIMIT=%d\n", OCTAVE_LIMIT);
printf("IMAGES_PER_OCTAVE=%d\n", IMAGES_PER_OCTAVE);
printf("SKIP_OCTAVES=%d\n", SKIP_OCTAVES);
printf("MIN_SIZE=%d\n", MIN_SIZE);
printf("MAX_ADJ_STEPS=%d\n", MAX_ADJ_STEPS);
printf("EDGE_RATIO=%f\n", EDGE_RATIO);
printf("CONTRAST_THRESH=%f\n", CONTRAST_THRESH);
printf("CAP=%f\n", CAP);
/* double image to save data */
doubledImage = doubleImage(sourceImage);
if(doubledImage == NULL) {
return 1;
}
scale /= 2.0;
printf("\nImage doubled\n");
/* preprocessing smoothing*/
printf("Preprocessing smoothing\n");
doubledImage = gaussianConvolution2DFast(doubledImage, 1.0);
// doubledImage = gaussianConvolution2DFast(sourceImage, 1.0);
/* build octaves of scalespace */
printf("Octave pyramid construction\n");
currentImage = doubledImage;
octavesList = NULL;
octaveCount = 0;
while(octaveCount < OCTAVE_LIMIT && currentImage->width >= MIN_SIZE && currentImage->height >= MIN_SIZE) {
if(currentImage == NULL) {
printf(" ***Current image null. Exiting.\n");
return 1;
}
/* create octave pointer wrapper */
printf(" Octave for pic %d %d (%d)\n", currentImage->width, currentImage->height, octaveCount);
temp = (Octave *) malloc(sizeof(Octave));
if(temp == NULL) {
printf(" ***Out of memory. Exiting.\n");
return 1;
}
/* build scale space L(x,y,sigma) */
printf(" Gaussian Scale Space\n");
if(octaveCount == 0)
imageSigma = 1.0; //blur of the first image is 1.0
else
imageSigma = START_SIGMA;
temp->gaussianSpace = buildScaleSpaceOctave(currentImage, scale, imageSigma);
/* build diff space D(x,y,sigma) */
printf(" Diff Gaussian Space\n");
temp->diffGaussianSpace = buildDifferences(temp->gaussianSpace);
/* store and go on */
octavesList = link(octavesList, temp);
currentImage = halveImage(getLastImage(temp->gaussianSpace));
scale *= 2.0;
++octaveCount;
printf(" Image halved\n");
}
--octaveCount; /* one extra */
/* generate keypoints from each octave of scalespace */
printf("Keypoint generation\n");
candidateOutput = fopen("output_candidates.txt", "w"); //helpful output file
trashOutput = fopen("output_trash.txt", "w"); //helpful output file
filteredOutput = fopen("output_filtered.txt", "w"); //helpful output file
histOutput = fopen("output_histogram.txt", "w"); //outputs histograms
histOutput2 = fopen("output_histogram2.txt", "w"); //turn on/off in scalespace.c
keypoints = NULL;
sourceImage2 = cloneImage(sourceImage);
for(current = octavesList; current != NULL && octaveCount >= SKIP_OCTAVES; current = current->next, --octaveCount) {
printf(" Octave %d\n", octaveCount);
fprintf(histOutput, "Octave %d\n", octaveCount);
fprintf(histOutput, "---------\n");
fprintf(histOutput2, "Octave %d\n", octaveCount);
fprintf(histOutput2, "---------\n");
/* find keypoint candidates */
printf(" Looking for peaks\n");
peaks = getPeaks(current);
/* temporary output */
scale = current->diffGaussianSpace->imageScale;
printPoints(candidateOutput, peaks, scale, octaveCount);
markImageSPoint(peaks, sourceImage2, scale); //output candidates
if(peaks != NULL)
printf(" found %d candidates\n", peaks->count);
else
printf(" found 0 candidates\n");
/* filter peaks for contrast and edge-iness and localize them */
printf(" Filtering and localizing\n");
trash = NULL;
peaks = filterAndLocalizePeaks(current->diffGaussianSpace, current->gaussianSpace, peaks);
/* temporary output */
printPoints(filteredOutput, peaks, scale, octaveCount);
printTrashed(trashOutput, trash, scale, octaveCount);
if(peaks != NULL)
printf(" have %d candidates remaining\n", peaks->count);
else
printf(" have 0 candidates remaining\n");
/* precompute magnitudes and orientations */
printf(" Generating magnitudes and orientations\n");
tempHeight = current->gaussianSpace->imgHeight;
tempWidth = current->gaussianSpace->imgWidth;
tempDepth = current->gaussianSpace->imageCount - 2;
current->gaussianSpace->magnitudes = allocate3D(tempHeight, tempWidth, tempDepth);
current->gaussianSpace->directions = allocate3D(tempHeight, tempWidth, tempDepth);
getMagnitudesAndOrientations(current->gaussianSpace);
/* assign orientation(s) */
printf(" Assigning orientation(s)\n");
generateKeypoints(current->gaussianSpace, peaks);
/* generate descriptors*/
printf(" Calculating descriptors\n");
createDescriptors(current->gaussianSpace, peaks);
/* multiply by imgScale to get real values */
for(counter = peaks; counter != NULL; counter = counter->next) {
counter->finalX *= counter->imgScale;
counter->finalY *= counter->imgScale;
//also multiply x,y?
counter->scale *= counter->imgScale;
}
/* merge lists */
if(peaks != NULL) {
if(keypoints != NULL) {
keypoints->listRear->next = peaks;
keypoints->listRear = peaks->listRear;
}
else
keypoints = peaks;
}
/* deallocate memory */
deallocate3D(current->gaussianSpace->magnitudes, tempHeight, tempWidth);
deallocate3D(current->gaussianSpace->directions, tempHeight, tempWidth);
/* deallocate trashed points */
counter = trash;
prevPoint = NULL;
while(counter != NULL) {
prevPoint = counter;
counter = counter->next;
free(prevPoint);
}
}
fclose(histOutput);
fclose(histOutput2);
/* write footer to each file */
printFooter(candidateOutput);
fclose(candidateOutput);
printFooter(trashOutput);
fclose(trashOutput);
printFooter(filteredOutput);
fclose(filteredOutput);
/* output keypoint descriptors */
printf("Output\n");
output = fopen("output.txt", "w");
for(keyCounter = keypoints; keyCounter != NULL; keyCounter=keyCounter->next) {
++totalKeypoints;
}
fprintf(output, "%d %d\n", totalKeypoints, 128);
for(keyCounter = keypoints; keyCounter != NULL; keyCounter=keyCounter->next) {
printKeyPoint(keyCounter, output);
}
fclose(output);
/* output keypoints on image*/
markImage(keypoints, sourceImage);
writeDATFile(sourceImage, "./output/keypoints.dat");
/* output initial candidates on image */
writeDATFile(sourceImage2, "./output/keypoints_all.dat");
printf("Done. %d keypoints found.\n", totalKeypoints);
free(sourceImage);
free(sourceImage2);
free(doubledImage);
//free octaves - should put it here
return 0;
}
int main( void )
{
osg::osgInit( 0, NULL );
osg::Pnt3f pnt[8] = { Pnt3f(-1,-1, 1),
Pnt3f( 1,-1, 1),
Pnt3f( 1, 1, 1),
Pnt3f(-1, 1, 1),
Pnt3f(-1,-1,-1),
Pnt3f( 1,-1,-1),
Pnt3f( 1, 1,-1),
Pnt3f(-1, 1,-1)
};
unsigned int face[6][col::Dop::NumOri] = { {0,1,2,3},
{1,5,6,2},
{2,6,7,3},
{0,3,7,4},
{0,4,5,1},
{4,7,6,5}
};
unsigned int face_nv[6] = { 4, 4, 4, 4, 4, 4 };
col::Topology topo1( face, 6, face_nv );
puts("\nCube from array:\n");
puts("points:");
for ( int i = 0; i < 8; i ++ )
col::printPnt( pnt[i] );
puts("topology:");
topo1.print();
osg::GeometryPtr geom;
geom = createGeom( OBJ_PLANE, 3 );
col::Topology topo2( geom );
puts("\nPlane:\n");
puts("points:");
printPoints( geom );
puts("topology:");
topo2.print();
geom = createGeom( OBJ_SPHERE, 1 );
col::Topology topo3( geom );
puts("\nSphere:\n");
puts("points:");
printPoints( geom );
puts("topology:");
topo3.print();
geom = createGeom( OBJ_TORUS, 3 );
col::Topology topo4( geom, true, 1E-4 );
puts("\nTorus with vertex unification:\n");
puts("points:");
printPoints( geom );
puts("topology:");
topo4.print();
geom = createGeom( OBJ_TORUS, 3 );
topo4.createFromGeom( geom, false, 0 );
puts("\nTorus without vertex unification:\n");
puts("points:");
printPoints( geom );
puts("topology:");
topo4.print();
geom = createGeom( OBJ_BOX, 0 );
col::Topology topo5( geom ); // does not do unification by default
puts("\nBox:\n");
puts("points:");
printPoints( geom );
puts("topology:");
topo5.print();
return 0;
}
void performQuery(ADIOS_QUERY_TEST_INFO *queryInfo, ADIOS_FILE *f, int use_streaming, int print_points, int read_results)
{
int timestep = 0 ;
ADIOS_VARINFO * tempVar = adios_inq_var(f, queryInfo->varName);
adios_inq_var_blockinfo(f, tempVar);
if (use_streaming)
for (timestep = 0; timestep < queryInfo->fromStep; ++timestep)
assert(adios_advance_step(f, 0, 0) == 0);
fprintf(stderr,"times steps for variable is: [%d, %d], batch size is %" PRIu64 "\n", queryInfo->fromStep, queryInfo->fromStep + queryInfo->numSteps, queryInfo->batchSize);
for (timestep = queryInfo->fromStep; timestep < queryInfo->fromStep + queryInfo->numSteps; timestep ++) {
fprintf(stderr, "querying on timestep %d \n", timestep);
while (1)
{
ADIOS_QUERY_RESULT *currBatch = NULL;
currBatch = adios_query_evaluate(
queryInfo->query,
queryInfo->outputSelection,
use_streaming ? 0 : timestep,
queryInfo->batchSize
);
if (currBatch == NULL) {
fprintf(stderr, "Unexpected error status in querying evaluation, returned NULL as result. "
"ADIOS error message: %s \n", adios_errmsg());
break;
}
if (currBatch->status == ADIOS_QUERY_RESULT_ERROR) {
fprintf(stderr, "ERROR in querying evaluation: %s \n", adios_errmsg());
break;
}
if (currBatch->nselections == 0) {
/* this is normal, we processed everything in previous loop or there is 0 total result */
break;
}
int n;
if (currBatch->selections->type == ADIOS_SELECTION_POINTS)
{
for (n = 0; n < currBatch->nselections; n++)
{
const ADIOS_SELECTION_POINTS_STRUCT * retrievedPts = &(currBatch->selections[n].u.points);
/* fprintf(stderr,"retrieved points %" PRIu64 " \n", retrievedPts->npoints); */
uint64_t * wboffs = calloc (retrievedPts->ndim, sizeof(uint64_t));
if (retrievedPts->container_selection &&
retrievedPts->container_selection->type == ADIOS_SELECTION_WRITEBLOCK)
{
int i;
int blockidx = retrievedPts->container_selection->u.block.index;
if (use_streaming) {
adios_inq_var_blockinfo(f, tempVar);
} else {
for (i = 0; i < timestep-1; i++)
blockidx += tempVar->nblocks[i];
}
for (i = 0; i < retrievedPts->ndim; ++i) {
wboffs[i] = tempVar->blockinfo[blockidx].start[i];
}
}
if (print_points) {
printPoints(retrievedPts, timestep, wboffs);
}
free (wboffs);
if (read_results) {
int elmSize = adios_type_size(tempVar->type, NULL);
void *data = malloc(retrievedPts->npoints * elmSize);
// read returned temp data
adios_schedule_read (f, &currBatch->selections[n], queryInfo->varName, use_streaming ? 0 : timestep, 1, data);
adios_perform_reads(f, 1);
free(data);
}
fprintf(stderr,"Total points retrieved %"PRIu64" in %d blocks\n",
currBatch->npoints, currBatch->nselections);
/* if (tempVar->type == adios_double) { */
/* for (i = 0; i < retrievedPts->npoints; i++) { */
/* fprintf(stderr,"%.6f\t", ((double*)data)[i]); */
/* } */
/* fprintf(stderr,"\n"); */
/* } */
/* else if (tempVar->type == adios_real) { */
/* for (i = 0; i < retrievedPts->npoints; i++) { */
/* fprintf(stderr,"%.6f\t", ((float*)data)[i]); */
/* } */
/* fprintf(stderr,"\n"); */
/* } */
}
}
else if (currBatch->selections->type == ADIOS_SELECTION_WRITEBLOCK)
{
fprintf(stderr,"Number of blocks retrieved: %d\n", currBatch->nselections);
if (print_points) {
for (n = 0; n < currBatch->nselections; n++)
{
fprintf(stdout,"%d %d\n", timestep, currBatch->selections[n].u.block.index);
}
}
}
free(currBatch->selections);
if (currBatch->status == ADIOS_QUERY_NO_MORE_RESULTS) {
free (currBatch);
break;
}
free(currBatch);
}
if (use_streaming) {
const int err = adios_advance_step(f, 0, 0);
if (timestep < queryInfo->fromStep + queryInfo->numSteps - 1) {
assert(err == 0);
} else {
assert(err == err_end_of_stream || err == err_step_notready);
}
}
}
adios_query_free(queryInfo->query);
}
void WaveState::debugPrint() {
if(!DEBUG_PRINT){
return;
}
printf("\n--------------------------------------------\n");
printf(" :: player :: waveNum: %d, pos(%d,%d), lives %d, score: %d\n",
wave, player.pos.x, player.pos.y, player.lives, player.score);
printPoints("humans", humans);
printPoints("electrodes", electrodes);
printPoints("grunts", grunts);
printPoints("hulks", hulks);
printPoints("brains", brains);
printPoints("spheroids", spheroids);
printPoints("enforcers", enforcers);
printPoints("sparks", sparks);
printPoints("progs", progs);
printPoints("cruiseMissiles", cruiseMissiles);
printPoints("quarks", quarks);
printPoints("tanks", tanks);
printPoints("shells", shells);
}
void getSpectrumPP05(const char *pid)
{
gStyle->SetOptStat(0);
gStyle->SetOptFit(0);
gStyle->SetErrorX(0);
bool subtractNEUTRONS=kTRUE;
//neutron data:
//hadron data for Levy function, nucl-ex/0601033:
//--> d^2N/(2*pi*pT*N*dpT*dy) = B/((1+((mT - m0)/nT))^n)
// {p-dAu; pbar-dAu; p-pp; pbar-pp} and m0 = m_neutron = 1.0 GeV.
double B[]={0.3,0.23,0.072,0.061};//->[0]
//double eB[]={0.01,0.01,0.005,0.005};
double T[]={0.205,0.215,0.179,0.173};//->[1]
//double eT[]={0.004,0.005,0.006,0.006};
double n[]={11.00,12.55,10.87,10.49};//->[2]
//double en[]={0.29,0.41,0.43,0.40};
double BR=35.8/63.9;//->p + pi- (63.9%) : ->n + pi0 (35.8%)
double c_feeddown=0.8+0.2*BR;
double CPVloss=0.98;//for minbias
TF1 *f_nbar=new TF1("f_nbar","[3]*[4]*[0]/pow((1.+(sqrt(x*x+1.) - 1.)/([1]*[2])),[2])",0.,15.);
f_nbar->SetParameters(B[3],T[3],n[3],c_feeddown,CPVloss);
//get direct gammas pQCD:
ifstream pQCDphotons("./datapoints/pQCD_Werner/rhic_cteq6_gamma_inv_sc1.dat");
float ppx[100];
float ppy[100];
Int_t iii=0;
cout<<"pqcd photons:"<<endl;
while(iii<28){
if(!pQCDphotons.good()) break;
float dummy=0.;
pQCDphotons>>ppx[iii]>>dummy>>dummy>>ppy[iii];
ppy[iii]*=1.e-09;//convert to mb
iii++;
}
TGraph *g_dirgamma=new TGraph(iii,ppx,ppy);
//get direct gammas pQCD: scale 0.5*pT
ifstream pQCDphotons05("./datapoints/pQCD_Werner/rhic_cteq6_gamma_inv_sc05.dat");
float ppx05[100];
float ppy05[100];
Int_t iii05=0;
while(iii05<28){
if(!pQCDphotons05.good()) break;
float dummy=0.;
pQCDphotons05>>ppx05[iii05]>>dummy>>dummy>>ppy05[iii05];
ppy05[iii05]*=1.e-09;//convert to mb
iii05++;
}
TGraph *g_dirgamma05=new TGraph(iii05,ppx05,ppy05);
//get direct gammas pQCD: scale 2*pT
ifstream pQCDphotons2("./datapoints/pQCD_Werner/rhic_cteq6_gamma_inv_sc2.dat");
float ppx2[100];
float ppy2[100];
Int_t iii2=0;
while(iii2<28){
if(!pQCDphotons2.good()) break;
float dummy=0.;
pQCDphotons2>>ppx2[iii2]>>dummy>>dummy>>ppy2[iii2];
ppy2[iii2]*=1.e-09;//convert to mb
iii2++;
}
TGraph *g_dirgamma2=new TGraph(iii2,ppx2,ppy2);
//get phenix pions in pp
ifstream phenix("./datapoints/phenix_xsec_pp.dat");
float phex[100];
float phey[100];
Int_t iphe=0;
while(iphe<16){
if(!phenix.good()) break;
phenix>>phex[iphe]>>phey[iphe];
//is in mb already!!
iphe++;
}
TGraphErrors *phenix_pp=new TGraphErrors(iphe,phex,phey);
phenix_pp->SetMarkerStyle(24);
phenix_pp->SetLineWidth(6);
phenix_pp->SetName("phenix_pp");
//frank's spin2006 pions:
ifstream frank("./datapoints/frank_pp05_new.dat");
float frx[100];
float fry[100];
float frex[100];
float frey[100];
Int_t ifr=0;
while(ifr<12){
if(!frank.good()) break;
frank>>frx[ifr]>>fry[ifr]>>frey[ifr];
frex[ifr]=0.;
ifr++;
}
TGraphErrors *frank_pp=new TGraphErrors(ifr,frx,fry,frex,frey);
frank_pp->SetMarkerStyle(25);
frank_pp->SetMarkerColor(4);
frank_pp->SetName("frank_pp");
//sasha's pions:
float x_pp2005_sasha[]={1.20358,1.70592,2.21238,2.71916,3.4032,4.4224,5.43571,6.44468,7.45056,8.83794,10.8659,12.8831,15.2692 };
float xe_pp2005_sasha[]={0.,0.,0.,0.,0.,0.,0.,0.,0.,0.,0.,0.,0.};
float y_pp2005_sasha[]={0.212971,0.0337464,0.00811345,0.00248195,0.000467495,6.37683e-05,1.4487e-05,3.67539e-06,1.26723e-06,3.3676e-07,8.01941e-08,1.93813e-08,5.56059e-09};
float ye_pp2005_sasha[]={0.00463771,0.000949529,0.000323778,0.000139023,3.68181e-05,7.61527e-07,2.28359e-07,9.19064e-08,4.93116e-08,8.16844e-09,3.66273e-09,1.75057e-09,7.36722e-10};
TGraphErrors *sasha_pp05=new TGraphErrors(13,x_pp2005_sasha,y_pp2005_sasha,xe_pp2005_sasha,ye_pp2005_sasha);
sasha_pp05->SetMarkerStyle(8);
sasha_pp05->SetMarkerColor(TColor::GetColor(8,80,8));
sasha_pp05->SetName("sasha_pp05");
//get pions KKP scale pT
ifstream pQCDpions("./datapoints/pQCD_Werner/klaus_pi0inv_200_kkp_1.dat");
float pionx[100];
float piony[100];
Int_t ipion=0;
while(ipion<28){
if(!pQCDpions.good()) break;
pQCDpions>>pionx[ipion]>>piony[ipion];
piony[ipion]*=1.e-09;//convert to mb
ipion++;
}
TGraphErrors *kkp=new TGraphErrors(ipion,pionx,piony);
kkp->SetLineColor(54);
kkp->SetName("kkp");
//get pions KKP scale 0.5*pT
ifstream pQCDpions05("./datapoints/pQCD_Werner/klaus_pi0inv_200_kkp_05.dat");
float pionx05[100];
float piony05[100];
Int_t ipion05=0;
while(ipion05<28){
if(!pQCDpions05.good()) break;
pQCDpions05>>pionx05[ipion05]>>piony05[ipion05];
piony05[ipion05]*=1.e-09;//convert to mb
ipion05++;
}
TGraphErrors *kkp05=new TGraphErrors(ipion05,pionx05,piony05);
kkp05->SetLineStyle(2);
kkp05->SetLineColor(54);
kkp05->SetName("kkp05");
//get pions KKP scale 2*pT
ifstream pQCDpions2("./datapoints/pQCD_Werner/klaus_pi0inv_200_kkp_2.dat");
float pionx2[100];
float piony2[100];
Int_t ipion2=0;
while(ipion2<28){
if(!pQCDpions2.good()) break;
pQCDpions2>>pionx2[ipion2]>>piony2[ipion2];
piony2[ipion2]*=1.e-09;//convert to mb
ipion2++;
}
TGraphErrors *kkp2=new TGraphErrors(ipion2,pionx2,piony2);
kkp2->SetLineStyle(2);
kkp2->SetLineColor(54);
kkp2->SetName("kkp2");
TFile *f_decaybg=new TFile("~/MyDecay/gammaDecayPPSum.root","OPEN");
TH1F *h_decaybg=(TH1F*)f_decaybg->Get("gamma");
TH1F *h_decaypion=(TH1F*)f_decaybg->Get("gamma_pion");
TF1 *fit_decay=new TF1("fit_decay","[0]/pow(x,[1])+[2]",.3,15.);
TF1 *fit_piondecay=new TF1(*fit_decay);
fit_decay->SetParameters(1.,1.,.5);
fit_piondecay->SetParameters(1.,1.,.5);
h_decaybg->Fit(fit_decay,"R0Q");
h_decaypion->Fit(fit_piondecay,"R0Q");
//take ratio gamma_direct/pion and divide by gamma/pi and then +1:
for(Int_t i=0;i<iii;i++){
ppy[i]=ppy[i]/piony[i];
ppy[i]=ppy[i]/fit_decay->Eval(ppx[i]);
ppy[i]+=1.;
ppy05[i]=ppy05[i]/piony05[i];
ppy05[i]=ppy05[i]/fit_decay->Eval(ppx05[i]);
ppy05[i]+=1.;
ppy2[i]=ppy2[i]/piony2[i];
ppy2[i]=ppy2[i]/fit_decay->Eval(ppx2[i]);
ppy2[i]+=1.;
}
TGraphErrors *g_photonpqcd=new TGraphErrors(iii,ppx,ppy);
g_photonpqcd->SetName("g_photonpqcd");
TGraphErrors *g_photonpqcd05=new TGraphErrors(iii05,ppx05,ppy05);
g_photonpqcd05->SetName("g_photonpqcd05");
TGraphErrors *g_photonpqcd2=new TGraphErrors(iii2,ppx2,ppy2);
g_photonpqcd2->SetName("g_photonpqcd2");
//set outputfiles
TString dir("/star/u/russcher/gamma/analysis/output/pp05/");
dir.Append(pid);
dir.Append("/");
dir.Append(pid);
TString psout=dir;
TString psout_eta=dir;
TString psout2=dir;
TString psout3=dir;
TString eFile=dir;
TString eFileGamma=dir;
TString pi0File=dir;
TString nbarFile=dir;
TString nbarOut=dir;
eFile.Append("pion_eff.root");
eFileGamma.Append("gamma_eff.root");
pi0File.Append("pi0_pp05.root");
nbarFile.Append("antineutron_eff.root");
nbarOut.Append("nbar_contam.ps");
psout2.Append("correctedspec.ps");
psout_eta.Append("/dev/null");
psout.Append("invmassplots.ps");
//load *.so
gSystem->Load("$HOME/MyEvent/MyEvent");
gSystem->Load("$HOME/gamma/analysis/lib/AnaCuts");
gSystem->Load("$HOME/gamma/analysis/lib/EventMixer");
gSystem->Load("$HOME/gamma/analysis/lib/Pi0Analysis");
AnaCuts *cuts=new AnaCuts("pp05");
//get inv mass hists
TFile f(pi0File.Data(),"OPEN");
TH2F *h_mb=new TH2F(*h_minvMB);
TH2F *h_ht1=new TH2F(*h_minvHT1);
TH2F *h_ht2=new TH2F(*h_minvHT2);
TH1F *h_ev=new TH1F(*h_events);
//get anti-neutron
TFile *file_nbar=new TFile(nbarFile,"OPEN");
TH1F *h_nbarEffMB=new TH1F(*h_effMB);
h_nbarEffMB->Sumw2();
TH1F *h_nbarEffHT1=new TH1F(*h_effHT1);
h_nbarEffHT1->Sumw2();
TH1F *h_nbarEffHT2=new TH1F(*h_effHT2);
h_nbarEffHT2->Sumw2();
//get prescales
int trigger=0;
Int_t numberOfMB=0;
Int_t numberOfHT1=0;
Int_t numberOfHT2=0;
for(Int_t i=1;i<=h_ev->GetNbinsX();i++)
{
trigger=(Int_t)h_ev->GetBinCenter(i);
if(trigger&1) numberOfMB+=(Int_t)h_ev->GetBinContent(i);
if(trigger&2) numberOfHT1+=(Int_t)h_ev->GetBinContent(i);
if(trigger&4) numberOfHT2+=(Int_t)h_ev->GetBinContent(i);
}
cout<<"number of mb: "<<numberOfMB<<endl;
//numberOfMB/=0.63;
//cout<<"nmb after 62% vertex eff.: "<<numberOfMB<<endl;
float psMB=32742;
float psHT1=3.89;
float psHT2=1.;
//mb events for hightower:
float nMBwithHT=328871;
//get efficiencies+acceptance
TFile g(eFile.Data(),"OPEN");
TH1F *h_emb=new TH1F(*h_effMB);
TH1F *h_eht1=new TH1F(*h_effHT1);
TH1F *h_eht2=new TH1F(*h_effHT2);
//bin corrections
TFile binf("~/BinWidth/bincorrectionsPP.root","OPEN");
TH1F *h_binmb=new TH1F(*h4mb);
TH1F *h_binht1=new TH1F(*h4ht1);
TH1F *h_binht2=new TH1F(*h4ht2);
h_binmb->Sumw2();
h_binht1->Sumw2();
h_binht2->Sumw2();
for(Int_t i=1;i<=h_binmb->GetNbinsX();i++) h_binmb->SetBinError(i,0);
for(Int_t i=1;i<=h_binht1->GetNbinsX();i++) h_binht1->SetBinError(i,0);
for(Int_t i=1;i<=h_binht2->GetNbinsX();i++) h_binht2->SetBinError(i,0);
//corrections, all multiplicative, in case of
//pions:
TF1 *pion_cpv_corrMB=new TF1("pion_cpv_corrMB","1./(1.-0.01*(0.3+0.0*x))",0.,15.);
TF1 *pion_cpv_corrHT1=new TF1("pion_cpv_corrHT1","1./(1.-0.01*(-0.1+0.16*x))",0.,15.);
TF1 *pion_cpv_corrHT2=new TF1("pion_cpv_corrHT2","1./(1.-0.01*(-0.2+0.18*x))",0.,15.);
//photons:
TF1 *gamma_cpv_corrMB=new TF1("gamma_cpv_corrMB","1./(1.-0.01*(2.8+0.0*x))",0.,15.);
TF1 *gamma_cpv_corrHT1=new TF1("gamma_cpv_corrHT1","1./(1.-0.01*(0.2+1.1*x))",0.,15.);
TF1 *gamma_cpv_corrHT2=new TF1("gamma_cpv_corrHT2","1./(1.-0.01*(0.4+1.1*x))",0.,15.);
TF1 *gamma_cont_corrMB=new TF1("gamma_cont_corrMB","0.985",0.,15.);
TF1 *gamma_cont_corrHT1=new TF1("gamma_cont_corrHT1","0.98",0.,15.);
TF1 *gamma_cont_corrHT2=new TF1("gamma_cont_corrHT2","0.96",0.,15.);
//missing material
//pions:
TF1 *pion_conv_corrMB=new TF1("pion_conv_corrMB","1.1",0.,15.);
TF1 *pion_conv_corrHT1=new TF1("pion_conv_corrHT1","1.1",0.,15.);
TF1 *pion_conv_corrHT2=new TF1("pion_conv_corrHT2","1.1",0.,15.);
//photons:
TF1 *gamma_conv_corrMB=new TF1("gamma_conv_corrMB","1.05",0.,15.);
TF1 *gamma_conv_corrHT1=new TF1("gamma_conv_corrHT1","1.05",0.,15.);
TF1 *gamma_conv_corrHT2=new TF1("gamma_conv_corrHT2","1.05",0.,15.);
//get yield
Pi0Analysis *pi0=new Pi0Analysis(psout.Data(),psout_eta.Data(),"pp05");
pi0->init("/dev/null");
TH1F *pionYieldMB=new TH1F(*pi0->getYield(h_mb,"mb"));
TH1F *pionYieldHT1=new TH1F(*pi0->getYield(h_ht1,"ht1"));
TH1F *pionYieldHT2=new TH1F(*pi0->getYield(h_ht2,"ht2"));
pi0->storeCanvases((dir+"canvases.root").Data());
cout<<"***************************************"<<endl;
cout<<"got yield, dividing by rapidity bite!!!"<<endl;
float dy_gamma=cuts->rapidityMaxCUT - cuts->rapidityMinCUT;
float dy_pion=cuts->rapPionMaxCUT - cuts->rapPionMinCUT;
cout<<"***************************************"<<endl;
cout<<endl;
cout<<" pion bite is "<<dy_pion<<endl;
cout<<" gamma bite is "<<dy_gamma<<endl;
cout<<endl;
cout<<"***************************************"<<endl;
pionYieldMB->Scale(1./dy_pion);
pionYieldHT1->Scale(1./dy_pion);
pionYieldHT2->Scale(1./dy_pion);
//set yield to zero
/*
for(Int_t i=0;i<pionYieldHT2->GetNbinsX();i++)
{
if(i<1)
{
pionYieldMB->SetBinContent(i+1,0);
pionYieldMB->SetBinError(i+1,0);
}
if(i<4)
{
pionYieldHT1->SetBinContent(i+1,0);
pionYieldHT1->SetBinError(i+1,0);
}
if(i>12)
{
pionYieldHT1->SetBinContent(i+1,0);
pionYieldHT1->SetBinError(i+1,0);
}
if(i<6)
{
pionYieldHT2->SetBinContent(i+1,0);
pionYieldHT2->SetBinError(i+1,0);
}
}
*/
//set colors:
pionYieldMB->SetMarkerStyle(8);
pionYieldMB->SetMarkerSize(1.0);
pionYieldHT1->SetMarkerStyle(8);
pionYieldHT1->SetMarkerSize(1.0);
pionYieldHT1->SetMarkerColor(4);
pionYieldHT2->SetMarkerStyle(8);
pionYieldHT2->SetMarkerSize(1.0);
pionYieldHT2->SetMarkerColor(2);
TF1 *scale=new TF1("scale","x",0.,15.);
pionYieldMB->SetNameTitle("pionYieldMB","corrected yield MB");
pionYieldMB->Divide(h_emb);
pionYieldMB->Scale(psMB/(psMB*numberOfMB*2.*TMath::Pi()));
pionYieldMB->Divide(scale);
pionYieldMB->Multiply(h_binmb);
pionYieldMB->Multiply(pion_cpv_corrMB);
pionYieldMB->Multiply(pion_conv_corrMB);
pionYieldHT1->SetNameTitle("pionYieldHT1","corrected yield HT1");
pionYieldHT1->Divide(h_eht1);
pionYieldHT1->Scale(psHT1/(psMB*nMBwithHT*2.*TMath::Pi()));
pionYieldHT1->Divide(scale);
pionYieldHT1->Multiply(h_binht1);
pionYieldHT1->Multiply(pion_cpv_corrHT1);
pionYieldHT1->Multiply(pion_conv_corrHT1);
pionYieldHT2->SetNameTitle("pionYieldHT2","corrected yield HT2");
pionYieldHT2->Divide(h_eht2);
pionYieldHT2->Scale(psHT2/(psMB*nMBwithHT*2.*TMath::Pi()));
pionYieldHT2->Divide(scale);
pionYieldHT2->Multiply(h_binht2);
pionYieldHT2->Multiply(pion_cpv_corrHT2);
pionYieldHT2->Multiply(pion_conv_corrHT2);
//create pion yield for double ratio:
TH1F *pionYieldMBratio=new TH1F(*pionYieldMB);
TH1F *pionYieldHT1ratio=new TH1F(*pionYieldHT1);
TH1F *pionYieldHT2ratio=new TH1F(*pionYieldHT2);
TH1F *pionXsMB=new TH1F(*pionYieldMB);
TH1F *pionXsHT1=new TH1F(*pionYieldHT1);
TH1F *pionXsHT2=new TH1F(*pionYieldHT2);
pionXsMB->Scale((26.1/0.85));//times xs_bbc/bbc_eff
pionXsHT1->Scale((26.1/0.85));
pionXsHT2->Scale((26.1/0.85));
TH1F *pionXsMBnoErr=new TH1F(*pionXsMB);
TH1F *pionXsHT1noErr=new TH1F(*pionXsHT1);
TH1F *pionXsHT2noErr=new TH1F(*pionXsHT2);
for(int i=1;i<=pionXsMBnoErr->GetNbinsX();i++){
pionXsMBnoErr->SetBinError(i,0.);
}
for(int i=1;i<=pionXsHT1noErr->GetNbinsX();i++){
pionXsHT1noErr->SetBinError(i,0.);
}
for(int i=1;i<=pionXsHT2noErr->GetNbinsX();i++){
pionXsHT2noErr->SetBinError(i,0.);
}
TGraphErrors *g_pionXsMB=new TGraphErrors(pionXsMB);
g_pionXsMB->SetName("g_pionXsMB");
removeThesePoints(g_pionXsMB,1);
TGraphErrors *g_pionXsHT1=new TGraphErrors(pionXsHT1);
g_pionXsHT1->SetName("g_pionXsHT1");
removeThesePoints(g_pionXsHT1,2);
TGraphErrors *g_pionXsHT2=new TGraphErrors(pionXsHT2);
g_pionXsHT2->SetName("g_pionXsHT2");
removeThesePoints(g_pionXsHT2,3);
if(0){
cout<<endl<<"xsec: x y ex ey"<<endl;
cout<<"minbias"<<endl;
printPoints(g_pionXsMB);
cout<<endl<<"hightower-1"<<endl;
printPoints(g_pionXsHT1);
cout<<endl<<"hightower-2"<<endl;
printPoints(g_pionXsHT2);
cout<<endl;
}
TMultiGraph *m_pions_fit=new TMultiGraph();
m_pions_fit->SetName("m_pions_fit");
m_pions_fit->SetMinimum(5.0e-9);
m_pions_fit->SetMaximum(0.99);
m_pions_fit->Add(g_pionXsMB);
m_pions_fit->Add(g_pionXsHT1);
m_pions_fit->Add(g_pionXsHT2);
TF1 *fitQCD=new TF1("fitQCD",sumpqcd,1.,15.,6);
fitQCD->SetParameters(600.,-8.2,4.,-8.5,2.,2.);
fitQCD->FixParameter(4,2.);
m_pions_fit->Fit(fitQCD,"R");
bool inclPhenix=false;
bool inclFrank=false;
bool inclSasha=false;
bool inclPqcd=false;
TCanvas *compare=new TCanvas("compare","compare;p_{T}:xsec (mb)",600,750);
compare->cd();
TPad *padt=new TPad("padt","",0.0,0.3,1.,1.0);
padt->SetBottomMargin(0.001);
padt->SetLeftMargin(0.15);
TPad *padb=new TPad("padb","",0.0,0.0,1.,0.3);
padb->SetTopMargin(0.001);
padb->SetBottomMargin(0.25);
padb->SetLeftMargin(0.15);
padt->Draw();
padt->cd();
gPad->SetLogy();
TMultiGraph *m_pions=new TMultiGraph();
m_pions->SetName("m_pions");
if(inclPqcd){
m_pions->Add(kkp,"c");
m_pions->Add(kkp05,"c");
m_pions->Add(kkp2,"c");
}
if(inclSasha){
m_pions->Add(sasha_pp05);
}
if(inclFrank){
m_pions->Add(frank_pp);
}
if(inclPhenix){
m_pions->Add(phenix_pp);
}
//g_pionXsMB->Print();
//cout<<endl<<endl;
//g_pionXsHT1->Print();
//cout<<endl<<endl;
//g_pionXsHT2->Print();
//cout<<endl;
m_pions->Add(g_pionXsMB);
m_pions->Add(g_pionXsHT1);
m_pions->Add(g_pionXsHT2);
m_pions->SetMinimum(1.0e-9);
m_pions->SetMaximum(1.);
m_pions->Draw("ap");
//fitQCD->Draw("same");
m_pions->GetXaxis()->SetLabelSize(0.);
m_pions->GetYaxis()->SetTitle("Ed^{3}#sigma/dp^{3} (mb GeV^{-2}c^{2})");
TLegend *leg=new TLegend(.5,.5,.85,.85);
if(inclPhenix) leg->AddEntry(phenix_pp,"PHENIX p+p","p");
if(inclFrank) leg->AddEntry(frank_pp,"STAR preliminary (upd.)","p");
if(inclSasha) leg->AddEntry(sasha_pp05,"O.Grebenyuk p+p","p");
leg->AddEntry(g_pionXsMB,"p+p minimum bias","p");
leg->AddEntry(g_pionXsHT1,"hightower 1","p");
leg->AddEntry(g_pionXsHT2,"hightower 2","p");
if(inclPqcd){
leg->AddEntry(kkp,"kkp + CTEQ6m, #mu=p_{T}","l");
leg->AddEntry(kkp2,"#mu=2p_{T},p_{T}/2","l");
leg->Draw("same");
}
leg->SetFillColor(0);
leg->Draw();
compare->cd();
padb->Draw();
padb->cd();
TGraphErrors *sasha_pp05_overPqcd=new TGraphErrors(*sasha_pp05);
divideGraphWithGraph(sasha_pp05_overPqcd,kkp);
TGraphErrors *phenix_pp05_overPqcd=new TGraphErrors(*phenix_pp);
divideGraphWithGraph(phenix_pp05_overPqcd,kkp);
TGraphErrors *g_pionXsMB_overPqcd=new TGraphErrors(*g_pionXsMB);
divideGraphWithGraph(g_pionXsMB_overPqcd,kkp);
TGraphErrors *g_pionXsHT1_overPqcd=new TGraphErrors(*g_pionXsHT1);
divideGraphWithGraph(g_pionXsHT1_overPqcd,kkp);
TGraphErrors *g_pionXsHT2_overPqcd=new TGraphErrors(*g_pionXsHT2);
divideGraphWithGraph(g_pionXsHT2_overPqcd,kkp);
TGraphErrors *frank_pp05_overPqcd=new TGraphErrors(*frank_pp);
divideGraphWithGraph(frank_pp05_overPqcd,kkp);
TGraphErrors *kkp05_ratio=new TGraphErrors(*kkp05);
divideGraphWithGraph(kkp05_ratio,kkp);
TGraphErrors *kkp_ratio=new TGraphErrors(*kkp);
divideGraphWithGraph(kkp_ratio,kkp);
TGraphErrors *kkp2_ratio=new TGraphErrors(*kkp2);
divideGraphWithGraph(kkp2_ratio,kkp);
//systematic errors:
TGraphErrors *g_pionXsMB_sys=new TGraphErrors(*g_pionXsMB_overPqcd);
set_sys_pp_pion(g_pionXsMB_sys);
TGraphErrors *g_pionXsHT1_sys=new TGraphErrors(*g_pionXsHT1_overPqcd);
set_sys_pp_pion(g_pionXsHT1_sys);
TGraphErrors *g_pionXsHT2_sys=new TGraphErrors(*g_pionXsHT2_overPqcd);
set_sys_pp_pion(g_pionXsHT2_sys);
TMultiGraph *m_pions_over_pqcd=new TMultiGraph();
m_pions_over_pqcd->SetMinimum(0.0);
m_pions_over_pqcd->SetMaximum(2.5);
if(inclPqcd){
m_pions_over_pqcd->Add(kkp05_ratio,"c");
m_pions_over_pqcd->Add(kkp_ratio,"c");
m_pions_over_pqcd->Add(kkp2_ratio,"c");
}
m_pions_over_pqcd->Add(g_pionXsMB_overPqcd);
m_pions_over_pqcd->Add(g_pionXsHT1_overPqcd);
m_pions_over_pqcd->Add(g_pionXsHT2_overPqcd);
//m_pions_over_pqcd->Add(g_pionXsMB_sys,"c");
//m_pions_over_pqcd->Add(g_pionXsHT1_sys,"c");
//m_pions_over_pqcd->Add(g_pionXsHT2_sys,"c");
if(inclPhenix) m_pions_over_pqcd->Add(phenix_pp05_overPqcd);
if(inclFrank) m_pions_over_pqcd->Add(frank_pp05_overPqcd);
if(inclSasha) m_pions_over_pqcd->Add(sasha_pp05_overPqcd);
//m_pions_over_pqcd->Draw("ap");
//m_pions_over_pqcd->GetXaxis()->SetTitle("p_{T} (GeV/c)");
compare->SaveAs((dir+"pionxsec_pp.eps").Data());
compare->SaveAs((dir+"pionxsec_pp.root").Data());
TMultiGraph *m_pions_over_fit=new TMultiGraph();
m_pions_over_fit->SetMinimum(0.01);
m_pions_over_fit->SetMaximum(1.99);
TGraphErrors *g_pionXsMB_overFit=new TGraphErrors(*g_pionXsMB);
divideGraphWithFunction(g_pionXsMB_overFit,fitQCD);
TGraphErrors *g_pionXsHT1_overFit=new TGraphErrors(*g_pionXsHT1);
divideGraphWithFunction(g_pionXsHT1_overFit,fitQCD);
TGraphErrors *g_pionXsHT2_overFit=new TGraphErrors(*g_pionXsHT2);
divideGraphWithFunction(g_pionXsHT2_overFit,fitQCD);
m_pions_over_fit->Add(g_pionXsMB_overFit);
m_pions_over_fit->Add(g_pionXsHT1_overFit);
m_pions_over_fit->Add(g_pionXsHT2_overFit);
m_pions_over_fit->Draw("ap");
compare->SaveAs((dir+"pionxsec_pp_overfit.eps").Data());
compare->SaveAs((dir+"pionxsec_pp_overfit.root").Data());
TCanvas *compare2=new TCanvas("compare2","compare2;p_{T};yield divided by fit",600,300);
compare2->cd();
//divide by fit:
TGraphErrors *frank_pp2=new TGraphErrors(*frank_pp);
divideGraphWithFunction(frank_pp2,fitQCD);
TGraphErrors *sasha_pp2=new TGraphErrors(*sasha_pp05);
divideGraphWithFunction(sasha_pp2,fitQCD);
TGraphErrors *phenix_pp2=new TGraphErrors(*phenix_pp);
divideGraphWithFunction(phenix_pp2,fitQCD);
TGraphErrors *g_pionXsMBcopy=new TGraphErrors(*g_pionXsMB);
divideGraphWithFunction(g_pionXsMBcopy,fitQCD);
TGraphErrors *g_pionXsHT1copy=new TGraphErrors(*g_pionXsHT1);
divideGraphWithFunction(g_pionXsHT1copy,fitQCD);
TGraphErrors *g_pionXsHT2copy=new TGraphErrors(*g_pionXsHT2);
divideGraphWithFunction(g_pionXsHT2copy,fitQCD);
inclPhenix=true;
inclFrank=false;
inclSasha=false;
inclPqcd=false;
TMultiGraph *m_pions2=new TMultiGraph();
m_pions2->SetName("m_pions2");
if(inclSasha) m_pions2->Add(sasha_pp2);
if(inclFrank) m_pions2->Add(frank_pp2);
if(inclPhenix) m_pions2->Add(phenix_pp2);
m_pions2->Add(g_pionXsMBcopy);
m_pions2->Add(g_pionXsHT1copy);
m_pions2->Add(g_pionXsHT2copy);
m_pions2->SetMinimum(0.000001);
m_pions2->SetMaximum(3.);
m_pions2->Draw("ap");
TLegend *legg=new TLegend(.25,.55,.65,.85);
legg->AddEntry(g_pionXsMBcopy,"minimum bias","p");
legg->AddEntry(g_pionXsHT1copy,"hightower 1","p");
legg->AddEntry(g_pionXsHT2copy,"hightower 2","p");
if(inclFrank) legg->AddEntry(frank_pp2,"Frank's p+p (upd.)","p");
if(inclSasha) legg->AddEntry(sasha_pp2,"Sasha's p+p","p");
if(inclPhenix) legg->AddEntry(phenix_pp,"PHENIX p+p","p");
legg->Draw("same");
legg->SetFillColor(0);
compare2->cd(0);
compare2->SaveAs((dir+"pionxsec_pp_ratio.eps").Data());
compare2->SaveAs((dir+"pionxsec_pp_ratio.root").Data());
//********************************************
// Get double ratio:
//********************************************
//pion decay photon eff:
TFile gg(eFile.Data(),"OPEN");
TH1F *effGammaMB=new TH1F(*h_effDaughtersMB);
TH1F *effGammaHT1=new TH1F(*h_effDaughtersHT1);
TH1F *effGammaHT2=new TH1F(*h_effDaughtersHT2);
//single photon eff:
TFile gg_single(eFileGamma.Data(),"OPEN");
TH1F *effGammaSingleMB=new TH1F(*h_effMB);
TH1F *effGammaSingleHT1=new TH1F(*h_effHT1);
TH1F *effGammaSingleHT2=new TH1F(*h_effHT2);
//raw neutral clusters:
TFile ff(pi0File.Data(),"OPEN");
TH1F *gammaYieldMB=new TH1F(*h_gammaMB);
TH1F *gammaYieldHT1=new TH1F(*h_gammaHT1);
TH1F *gammaYieldHT2=new TH1F(*h_gammaHT2);
//divide rap. bite:
gammaYieldMB->Scale(1./dy_gamma);
gammaYieldHT1->Scale(1./dy_gamma);
gammaYieldHT2->Scale(1./dy_gamma);
for(Int_t i=1;i<=gammaYieldMB->GetNbinsX();i++){
gammaYieldMB->SetBinContent(i,gammaYieldMB->GetBinContent(i)/gammaYieldMB->GetXaxis()->GetBinWidth(i));
gammaYieldMB->SetBinError(i,gammaYieldMB->GetBinError(i)/gammaYieldMB->GetXaxis()->GetBinWidth(i));
}
gammaYieldMB->Scale(psMB/(psMB*numberOfMB*2.*TMath::Pi()));
gammaYieldMB->Divide(scale);// ../pT
gammaYieldMB->Multiply(h_binmb);
gammaYieldMB->Divide(effGammaMB);
gammaYieldMB->Multiply(gamma_cpv_corrMB);
gammaYieldMB->Multiply(gamma_cont_corrMB);
gammaYieldMB->Multiply(gamma_conv_corrMB);
gammaYieldMB->SetMarkerStyle(8);
gammaYieldMB->SetMarkerSize(1.);
TGraphErrors *g_inclPhotonsMB=new TGraphErrors(gammaYieldMB);
for(Int_t i=1;i<=gammaYieldHT1->GetNbinsX();i++){
gammaYieldHT1->SetBinContent(i,gammaYieldHT1->GetBinContent(i)/gammaYieldHT1->GetXaxis()->GetBinWidth(i));
gammaYieldHT1->SetBinError(i,gammaYieldHT1->GetBinError(i)/gammaYieldHT1->GetXaxis()->GetBinWidth(i));
}
gammaYieldHT1->Scale(psHT1/(psMB*nMBwithHT*2.*TMath::Pi()));
gammaYieldHT1->Divide(scale);// ../pT
gammaYieldHT1->Multiply(h_binht1);
gammaYieldHT1->Divide(effGammaHT1);
gammaYieldHT1->Multiply(gamma_cpv_corrHT1);
gammaYieldHT1->Multiply(gamma_cont_corrHT1);
gammaYieldHT1->Multiply(gamma_conv_corrHT1);
gammaYieldHT1->SetMarkerStyle(8);
gammaYieldHT1->SetMarkerSize(1.);
gammaYieldHT1->SetMarkerColor(4);
TGraphErrors *g_inclPhotonsHT1=new TGraphErrors(gammaYieldHT1);
for(Int_t i=1;i<=gammaYieldHT2->GetNbinsX();i++){
gammaYieldHT2->SetBinContent(i,gammaYieldHT2->GetBinContent(i)/gammaYieldHT2->GetXaxis()->GetBinWidth(i));
gammaYieldHT2->SetBinError(i,gammaYieldHT2->GetBinError(i)/gammaYieldHT2->GetXaxis()->GetBinWidth(i));
}
gammaYieldHT2->Scale(psHT2/(psMB*nMBwithHT*2.*TMath::Pi()));
gammaYieldHT2->Divide(scale);// ../pT
gammaYieldHT2->Multiply(h_binht2);
gammaYieldHT2->Divide(effGammaHT2);
gammaYieldHT2->Multiply(gamma_cpv_corrHT2);
gammaYieldHT2->Multiply(gamma_cont_corrHT2);
gammaYieldHT2->Multiply(gamma_conv_corrHT2);
gammaYieldHT2->SetMarkerStyle(8);
gammaYieldHT2->SetMarkerSize(1.);
gammaYieldHT2->SetMarkerColor(2);
TGraphErrors *g_inclPhotonsHT2=new TGraphErrors(gammaYieldHT2);
removeThesePoints(g_inclPhotonsMB,1);
removeThesePoints(g_inclPhotonsHT1,2);
removeThesePoints(g_inclPhotonsHT2,2);
TMultiGraph *m_incl=new TMultiGraph();
m_incl->SetName("m_incl");
m_incl->SetTitle("inclusive photon invariant yield 0<y<1;p_{T} (GeV/c);#frac{1}{2#piNp_{T}} #frac{d^{2}N}{dydp_{T}}");
m_incl->Add(g_inclPhotonsMB);
m_incl->Add(g_inclPhotonsHT1);
m_incl->Add(g_inclPhotonsHT2);
m_incl->Fit(fitQCD,"R0");
m_incl->SetMinimum(1.e-11);
m_incl->SetMaximum(10.);
TCanvas *c_incl=new TCanvas("c_incl","c_incl",600,400);
gPad->SetLogy();
m_incl->Draw("ap");
c_incl->SaveAs((dir+"inclPhotonYield.eps").Data());
c_incl->SaveAs((dir+"inclPhotonYield.root").Data());
//get ratio:
TH1F *gammaYieldMBratio=new TH1F(*gammaYieldMB);
gammaYieldMBratio->SetName("gammaYieldMBratio");
TH1F *gammaYieldHT1ratio=new TH1F(*gammaYieldHT1);
gammaYieldHT1ratio->SetName("gammaYieldHT1ratio");
TH1F *gammaYieldHT2ratio=new TH1F(*gammaYieldHT2);
gammaYieldHT2ratio->SetName("gammaYieldHT2ratio");
gammaYieldMBratio->Divide(pionYieldMBratio);
gammaYieldHT1ratio->Divide(pionYieldHT1ratio);
gammaYieldHT2ratio->Divide(pionYieldHT2ratio);
//correct gamma over pion ratio, using two efficiencies:
getRatio(gammaYieldMBratio,effGammaMB,effGammaSingleMB,fit_piondecay);
getRatio(gammaYieldHT1ratio,effGammaHT1,effGammaSingleHT1,fit_piondecay);
getRatio(gammaYieldHT2ratio,effGammaHT2,effGammaSingleHT2,fit_piondecay);
TH1F *gammaYieldMBratio_incl=new TH1F(*gammaYieldMBratio);
TH1F *gammaYieldHT1ratio_incl=new TH1F(*gammaYieldHT1ratio);
TH1F *gammaYieldHT2ratio_incl=new TH1F(*gammaYieldHT2ratio);
TH1F *gammaYieldMBratioNoErr=new TH1F(*gammaYieldMBratio);
TH1F *gammaYieldHT1ratioNoErr=new TH1F(*gammaYieldHT1ratio);
TH1F *gammaYieldHT2ratioNoErr=new TH1F(*gammaYieldHT2ratio);
for(int i=1;i<=gammaYieldMBratioNoErr->GetNbinsX();i++){
gammaYieldMBratioNoErr->SetBinError(i,0.);
}
for(int i=1;i<=gammaYieldHT1ratioNoErr->GetNbinsX();i++){
gammaYieldHT1ratioNoErr->SetBinError(i,0.);
}
for(int i=1;i<=gammaYieldHT2ratioNoErr->GetNbinsX();i++){
gammaYieldHT2ratioNoErr->SetBinError(i,0.);
}
TGraphErrors *g_ratioMB=new TGraphErrors(gammaYieldMBratio);
g_ratioMB->SetName("g_ratioMB");
TGraphErrors *g_ratioHT1=new TGraphErrors(gammaYieldHT1ratio);
g_ratioHT1->SetName("g_ratioHT1");
TGraphErrors *g_ratioHT2=new TGraphErrors(gammaYieldHT2ratio);
g_ratioHT2->SetName("g_ratioHT2");
removeThesePoints(g_ratioMB,1);
removeThesePoints(g_ratioHT1,2);
removeThesePoints(g_ratioHT2,3);
TCanvas *c_ratio=new TCanvas("c_ratio","c_ratio",400,200);
TMultiGraph *m_ratio=new TMultiGraph("m_ratio","p+p 2005;p_{T};#gamma/#pi^{0}");
m_ratio->Add(g_ratioMB);
m_ratio->Add(g_ratioHT1);
m_ratio->Add(g_ratioHT2);
m_ratio->Draw("ap");
m_ratio->SetMinimum(.001);
m_ratio->SetMaximum(1.5);
TLegend *leg3=new TLegend(.35,.65,.65,.85);
leg3->AddEntry(g_ratioMB,"minimum bias","p");
leg3->AddEntry(g_ratioHT1,"hightower 1","p");
leg3->AddEntry(g_ratioHT2,"hightower 2","p");
leg3->AddEntry(fit_decay,"decay background (total)","l");
leg3->AddEntry(fit_piondecay,"decay background (#pi^{0})","l");
leg3->SetFillColor(0);
leg3->Draw("same");
fit_decay->SetLineColor(13);
fit_decay->SetLineWidth(1);
fit_decay->SetLineColor(1);
fit_decay->Draw("same");
fit_piondecay->SetLineColor(13);
fit_piondecay->SetLineWidth(1);
fit_piondecay->SetLineStyle(2);
fit_piondecay->SetLineColor(1);
fit_piondecay->Draw("same");
c_ratio->SaveAs((dir+"gammaOverPion.eps").Data());
c_ratio->SaveAs((dir+"gammaOverPion.root").Data());
//create fully corrected incl. photons:
gammaYieldMBratio_incl->Multiply(pionYieldMBratio);
gammaYieldHT1ratio_incl->Multiply(pionYieldHT1ratio);
gammaYieldHT2ratio_incl->Multiply(pionYieldHT2ratio);
//gammaYieldMBratio_incl->Scale(7.5);
//gammaYieldHT1ratio_incl->Scale(7.5);
//gammaYieldHT2ratio_incl->Scale(7.5);
TGraphErrors *g_incl_corrMB=new TGraphErrors(gammaYieldMBratio_incl);
TGraphErrors *g_incl_corrHT1=new TGraphErrors(gammaYieldHT1ratio_incl);
TGraphErrors *g_incl_corrHT2=new TGraphErrors(gammaYieldHT2ratio_incl);
TCanvas *c_incl_corr=new TCanvas("c_incl_corr","c_incl_corr",400,300);
gPad->SetLogy();
TMultiGraph *m_incl_corr=new TMultiGraph();
m_incl_corr->Add(g_incl_corrMB);
m_incl_corr->Add(g_incl_corrHT1);
m_incl_corr->Add(g_incl_corrHT2);
m_incl_corr->SetMinimum(1.e-11);
m_incl_corr->SetMaximum(1.);
m_incl_corr->Draw("apX");
c_incl_corr->SaveAs((dir+"inclPhotonYieldCorr.eps").Data());
c_incl_corr->SaveAs((dir+"inclPhotonYieldCorr.root").Data());
TCanvas *c_doubleratio=new TCanvas("c_doubleratio","c_doubleratio",400,300);
gStyle->SetOptStat(0);
c_doubleratio->cd(1);
TH1F *gammaYieldMBdoubleratio=new TH1F(*gammaYieldMBratio);
TH1F *gammaYieldHT1doubleratio=new TH1F(*gammaYieldHT1ratio);
TH1F *gammaYieldHT2doubleratio=new TH1F(*gammaYieldHT2ratio);
gammaYieldMBdoubleratio->Divide(fit_decay);
gammaYieldHT1doubleratio->Divide(fit_decay);
gammaYieldHT2doubleratio->Divide(fit_decay);
TGraphErrors *g_doubleRatioMB=new TGraphErrors(gammaYieldMBdoubleratio);
g_doubleRatioMB->SetName("g_doubleRatioMB");
g_doubleRatioMB->SetMarkerStyle(8);
TGraphErrors *g_doubleRatioHT1=new TGraphErrors(gammaYieldHT1doubleratio);
g_doubleRatioHT1->SetName("g_doubleRatioHT1");
g_doubleRatioHT1->SetMarkerStyle(8);
TGraphErrors *g_doubleRatioHT2=new TGraphErrors(gammaYieldHT2doubleratio);
g_doubleRatioHT2->SetName("g_doubleRatioHT2");
g_doubleRatioHT2->SetMarkerStyle(8);
removeThesePoints(g_doubleRatioMB,1);
removeThesePoints(g_doubleRatioHT1,2);
removeThesePoints(g_doubleRatioHT2,3);
TMultiGraph *m_doubleratio=new TMultiGraph();
m_doubleratio->SetName("m_doubleratio");
m_doubleratio->SetMinimum(.5);
m_doubleratio->SetMaximum(2.75);
cout<<endl;
g_doubleRatioHT1->Print();
cout<<endl<<endl;
g_doubleRatioHT2->Print();
cout<<endl;
//m_doubleratio->Add(g_doubleRatioMB,"p");
m_doubleratio->Add(g_doubleRatioHT1,"p");
m_doubleratio->Add(g_doubleRatioHT2,"p");
g_photonpqcd->SetLineWidth(2);
g_photonpqcd->SetLineColor(2);
g_photonpqcd05->SetLineWidth(2);
g_photonpqcd05->SetLineColor(2);
g_photonpqcd05->SetLineStyle(2);
g_photonpqcd2->SetLineWidth(2);
g_photonpqcd2->SetLineColor(2);
g_photonpqcd2->SetLineStyle(2);
m_doubleratio->Add(g_photonpqcd,"c");
m_doubleratio->Add(g_photonpqcd05,"c");
m_doubleratio->Add(g_photonpqcd2,"c");
//appropriate fit to photon pqcd result
TF1 *fitGamma2=new TF1("fitGamma2","1.+[0]*pow(x,[1])",2.,15.);
g_photonpqcd->Fit(fitGamma2,"R0");
m_doubleratio->Draw("a");
m_doubleratio->GetXaxis()->SetTitle("p_{T} (GeV/c)");
m_doubleratio->GetYaxis()->SetTitle("1 + #gamma_{dir}/#gamma_{incl}");
m_doubleratio->GetXaxis()->SetRangeUser(2.,16.);
TLegend *leg5=new TLegend(.15,.6,.6,.8);
leg5->AddEntry(g_doubleRatioHT1,"hightower-1","p");
leg5->AddEntry(g_doubleRatioHT2,"hightower-2","p");
leg5->AddEntry(g_photonpqcd,"NLO (CTEQ6+KKP) #mu=p_{T}","l");
leg5->AddEntry(g_photonpqcd05,"#mu=2p_{T}, #mu=p_{T}/2","l");
leg5->SetFillColor(0);
leg5->Draw("same");
c_doubleratio->cd(0);
c_doubleratio->SaveAs((dir+"gammaDoubleRatio.eps").Data());
c_doubleratio->SaveAs((dir+"gammaDoubleRatio.root").Data());
TCanvas *c_dirphoton=new TCanvas("c_dirphoton","c_dirphoton",400,300);
gStyle->SetOptStat(0);
c_dirphoton->cd(1);
TH1F *dirphotonYieldMB=new TH1F(*gammaYieldMBdoubleratio);
TH1F *dirphotonYieldHT1=new TH1F(*gammaYieldHT1doubleratio);
TH1F *dirphotonYieldHT2=new TH1F(*gammaYieldHT2doubleratio);
TH1F *dirphotonYieldMBnoErr=new TH1F(*dirphotonYieldMB);
for(int i=1;i<=dirphotonYieldMBnoErr->GetNbinsX();i++){
dirphotonYieldMBnoErr->SetBinError(i,0.);
}
TH1F *dirphotonYieldHT1noErr=new TH1F(*dirphotonYieldHT1);
for(int i=1;i<=dirphotonYieldHT1noErr->GetNbinsX();i++){
dirphotonYieldHT1noErr->SetBinError(i,0.);
}
TH1F *dirphotonYieldHT2noErr=new TH1F(*dirphotonYieldHT2);
for(int i=1;i<=dirphotonYieldHT1noErr->GetNbinsX();i++){
dirphotonYieldHT2noErr->SetBinError(i,0.);
}
TF1 *f_unity=new TF1("f_unity","1.",0.,15.);
dirphotonYieldMB->Add(f_unity,-1.);
dirphotonYieldHT1->Add(f_unity,-1.);
dirphotonYieldHT2->Add(f_unity,-1.);
dirphotonYieldMB->Divide(dirphotonYieldMBnoErr);
dirphotonYieldHT1->Divide(dirphotonYieldHT1noErr);
dirphotonYieldHT2->Divide(dirphotonYieldHT2noErr);
dirphotonYieldMB->Multiply(gammaYieldMBratioNoErr);
dirphotonYieldHT1->Multiply(gammaYieldHT1ratioNoErr);
dirphotonYieldHT2->Multiply(gammaYieldHT2ratioNoErr);
dirphotonYieldMB->Multiply(pionXsMBnoErr);
dirphotonYieldHT1->Multiply(pionXsHT1noErr);
dirphotonYieldHT2->Multiply(pionXsHT2noErr);
TGraphErrors *g_dirphotonMB=new TGraphErrors(dirphotonYieldMB);
g_dirphotonMB->SetName("g_dirphotonMB");
g_dirphotonMB->SetMarkerStyle(8);
TGraphErrors *g_dirphotonHT1=new TGraphErrors(dirphotonYieldHT1);
g_dirphotonHT1->SetName("g_dirphotonHT1");
g_dirphotonHT1->SetMarkerStyle(8);
TGraphErrors *g_dirphotonHT2=new TGraphErrors(dirphotonYieldHT2);
g_dirphotonHT2->SetName("g_dirphotonHT2");
g_dirphotonHT2->SetMarkerStyle(8);
removeThesePoints(g_dirphotonMB,1);
removeThesePoints(g_dirphotonHT1,2);
removeThesePoints(g_dirphotonHT2,3);
gPad->SetLogy();
TMultiGraph *m_dirphoton=new TMultiGraph();
m_dirphoton->SetName("m_dirphoton");
m_dirphoton->SetMinimum(1.0e-11);
m_dirphoton->SetMaximum(0.1);
m_dirphoton->Add(g_dirgamma,"c");
m_dirphoton->Add(g_dirgamma05,"c");
m_dirphoton->Add(g_dirgamma2,"c");
cout<<"direct photons:"<<endl;
g_dirphotonHT1->Print();
cout<<endl;
g_dirphotonHT2->Print();
cout<<endl;
m_dirphoton->Add(g_dirphotonHT1,"p");
m_dirphoton->Add(g_dirphotonHT2,"p");
m_dirphoton->Draw("a");
m_dirphoton->GetXaxis()->SetTitle("p_{T} (GeV/c)");
m_dirphoton->GetYaxis()->SetTitle("1 - R^{-1}");
m_dirphoton->GetXaxis()->SetRangeUser(2.,16.);
TLegend *leg5=new TLegend(.15,.6,.6,.8);
leg5->AddEntry(g_dirphotonHT1,"hightower-1","p");
leg5->AddEntry(g_dirphotonHT2,"hightower-2","p");
leg5->SetFillColor(0);
leg5->Draw("same");
c_dirphoton->cd(0);
c_dirphoton->SaveAs((dir+"gammaDirPhoton.eps").Data());
c_dirphoton->SaveAs((dir+"gammaDirPhoton.root").Data());
return;
}
