annotate reporter.h @ 369:6564be3109c5 gcc-4.3-cleanups

gcc-4.3 warning cleanups for lshlib.cpp

(I do not believe that any of these changes contain significant
copyrightable "intellectual property".  However, to the extent that they
do, the changes are hereby released into the Public Domain, and may be
therefore be used by anyone for any purpose without need for
consideration of any kind.)

#ifndef __REPORTER_H
#define __REPORTER_H

#include <utility>
#include <queue>
#include <set>
#include <functional>
#include <iostream>
#include "ReporterBase.h"
#include "audioDB.h"

typedef struct nnresult {
  unsigned int trackID;
  double dist;
  unsigned int qpos;
  unsigned int spos;
} NNresult;

typedef struct radresult {
  unsigned int trackID;
  unsigned int count;
} Radresult;

bool operator< (const NNresult &a, const NNresult &b) {
  return a.dist < b.dist;
}

bool operator> (const NNresult &a, const NNresult &b) {
  return a.dist > b.dist;
}

bool operator< (const Radresult &a, const Radresult &b) {
  return a.count < b.count;
}

bool operator> (const Radresult &a, const Radresult &b) {
  return a.count > b.count;
}

class Reporter : public ReporterBase {
public:
  virtual ~Reporter() {};
  virtual void add_point(unsigned int trackID, unsigned int qpos, unsigned int spos, double dist) = 0;
  // FIXME: this interface is a bit wacky: a relic of previous, more
  // confused times.  Really it might make sense to have separate
  // reporter classes for WS and for stdout, rather than passing this
  // adbQueryResponse thing everywhere; the fileTable argument is
  // there solely for convertion trackIDs into names.  -- CSR,
  // 2007-12-10.
  virtual void report(char *fileTable, void* adbQueryResponse) = 0;
};

template <class T> class pointQueryReporter : public Reporter {
public:
  pointQueryReporter(unsigned int pointNN);
  ~pointQueryReporter();
  void add_point(unsigned int trackID, unsigned int qpos, unsigned int spos, double dist);
  void report(char *fileTable, void* adbQueryResponse);
private:
  unsigned int pointNN;
  std::priority_queue< NNresult, std::vector< NNresult >, T> *queue;
};

template <class T> pointQueryReporter<T>::pointQueryReporter(unsigned int pointNN)
  : pointNN(pointNN) {
  queue = new std::priority_queue< NNresult, std::vector< NNresult >, T>;
}

template <class T> pointQueryReporter<T>::~pointQueryReporter() {
  delete queue;
}

template <class T> void pointQueryReporter<T>::add_point(unsigned int trackID, unsigned int qpos, unsigned int spos, double dist) {
  if (!isnan(dist)) {
    NNresult r;
    r.trackID = trackID;
    r.qpos = qpos;
    r.spos = spos;
    r.dist = dist;
    queue->push(r);
    if(queue->size() > pointNN) {
      queue->pop();
    }
  }
}

template <class T> void pointQueryReporter<T>::report(char *fileTable, void *adbQueryResponse) {
  NNresult r;
  std::vector<NNresult> v;
  unsigned int size = queue->size();
  for(unsigned int k = 0; k < size; k++) {
    r = queue->top();
    v.push_back(r);
    queue->pop();
  }
  std::vector<NNresult>::reverse_iterator rit;
      
  if(adbQueryResponse==0) {
    for(rit = v.rbegin(); rit < v.rend(); rit++) {
      r = *rit;
      if(fileTable)
	std::cout << fileTable + r.trackID*O2_FILETABLE_ENTRY_SIZE << " ";
      else
	std::cout << r.trackID << " ";
      std::cout << r.dist << " " << r.qpos << " " << r.spos << std::endl;
    }
  } else {
    ((adb__queryResponse*)adbQueryResponse)->result.__sizeRlist=size;
    ((adb__queryResponse*)adbQueryResponse)->result.__sizeDist=size;
    ((adb__queryResponse*)adbQueryResponse)->result.__sizeQpos=size;
    ((adb__queryResponse*)adbQueryResponse)->result.__sizeSpos=size;
    ((adb__queryResponse*)adbQueryResponse)->result.Rlist= new char*[size];
    ((adb__queryResponse*)adbQueryResponse)->result.Dist = new double[size];
    ((adb__queryResponse*)adbQueryResponse)->result.Qpos = new unsigned int[size];
    ((adb__queryResponse*)adbQueryResponse)->result.Spos = new unsigned int[size];
    unsigned int k = 0;
    for(rit = v.rbegin(); rit < v.rend(); rit++, k++) {
      r = *rit;
      ((adb__queryResponse*)adbQueryResponse)->result.Rlist[k] = new char[O2_MAXFILESTR];
      ((adb__queryResponse*)adbQueryResponse)->result.Dist[k] = r.dist;
      ((adb__queryResponse*)adbQueryResponse)->result.Qpos[k] = r.qpos;
      ((adb__queryResponse*)adbQueryResponse)->result.Spos[k] = r.spos;
      if(fileTable)
	snprintf(((adb__queryResponse*)adbQueryResponse)->result.Rlist[k], O2_MAXFILESTR, "%s", fileTable+r.trackID*O2_FILETABLE_ENTRY_SIZE);
      else
	snprintf(((adb__queryResponse*)adbQueryResponse)->result.Rlist[k], O2_MAXFILESTR, "%d", r.trackID);
    }
  }
}

template <class T> class trackAveragingReporter : public Reporter {
 public:
  trackAveragingReporter(unsigned int pointNN, unsigned int trackNN, unsigned int numFiles);
  ~trackAveragingReporter();
  void add_point(unsigned int trackID, unsigned int qpos, unsigned int spos, double dist);
  void report(char *fileTable, void *adbQueryResponse);
 protected:
  unsigned int pointNN;
  unsigned int trackNN;
  unsigned int numFiles;
  std::priority_queue< NNresult, std::vector< NNresult>, T > *queues;  
};

template <class T> trackAveragingReporter<T>::trackAveragingReporter(unsigned int pointNN, unsigned int trackNN, unsigned int numFiles) 
  : pointNN(pointNN), trackNN(trackNN), numFiles(numFiles) {
  queues = new std::priority_queue< NNresult, std::vector< NNresult>, T >[numFiles];
}

template <class T> trackAveragingReporter<T>::~trackAveragingReporter() {
  delete [] queues;
}

template <class T> void trackAveragingReporter<T>::add_point(unsigned int trackID, unsigned int qpos, unsigned int spos, double dist) {
  if (!isnan(dist)) {
    NNresult r;
    r.trackID = trackID;
    r.qpos = qpos;
    r.spos = spos;
    r.dist = dist;
    queues[trackID].push(r);
    if(queues[trackID].size() > pointNN) {
      queues[trackID].pop();
    }
  }
}

template <class T> void trackAveragingReporter<T>::report(char *fileTable, void *adbQueryResponse) {
  std::priority_queue < NNresult, std::vector< NNresult>, T> result;
  for (int i = numFiles-1; i >= 0; i--) {
    unsigned int size = queues[i].size();
    if (size > 0) {
      NNresult r;
      double dist = 0;
      NNresult oldr = queues[i].top();
      for (unsigned int j = 0; j < size; j++) {
        r = queues[i].top();
        dist += r.dist;
        queues[i].pop();
        if (r.dist == oldr.dist) {
          r.qpos = oldr.qpos;
          r.spos = oldr.spos;
        } else {
          oldr = r;
        }
      }
      dist /= size;
      r.dist = dist; // trackID, qpos and spos are magically right already.
      result.push(r);
      if (result.size() > trackNN) {
        result.pop();
      }
    }
  }

  NNresult r;
  std::vector<NNresult> v;
  unsigned int size = result.size();
  for(unsigned int k = 0; k < size; k++) {
    r = result.top();
    v.push_back(r);
    result.pop();
  }
  std::vector<NNresult>::reverse_iterator rit;
      
  if(adbQueryResponse==0) {
    for(rit = v.rbegin(); rit < v.rend(); rit++) {
      r = *rit;
      if(fileTable)
	std::cout << fileTable + r.trackID*O2_FILETABLE_ENTRY_SIZE << " ";
      else
	std::cout << r.trackID << " ";
      std::cout << r.dist << " " << r.qpos << " " << r.spos << std::endl;
    }
  } else {
    ((adb__queryResponse*)adbQueryResponse)->result.__sizeRlist=size;
    ((adb__queryResponse*)adbQueryResponse)->result.__sizeDist=size;
    ((adb__queryResponse*)adbQueryResponse)->result.__sizeQpos=size;
    ((adb__queryResponse*)adbQueryResponse)->result.__sizeSpos=size;
    ((adb__queryResponse*)adbQueryResponse)->result.Rlist= new char*[size];
    ((adb__queryResponse*)adbQueryResponse)->result.Dist = new double[size];
    ((adb__queryResponse*)adbQueryResponse)->result.Qpos = new unsigned int[size];
    ((adb__queryResponse*)adbQueryResponse)->result.Spos = new unsigned int[size];
    unsigned int k = 0;
    for(rit = v.rbegin(); rit < v.rend(); rit++, k++) {
      r = *rit;
      ((adb__queryResponse*)adbQueryResponse)->result.Rlist[k] = new char[O2_MAXFILESTR];
      ((adb__queryResponse*)adbQueryResponse)->result.Dist[k] = r.dist;
      ((adb__queryResponse*)adbQueryResponse)->result.Qpos[k] = r.qpos;
      ((adb__queryResponse*)adbQueryResponse)->result.Spos[k] = r.spos;
      if(fileTable)
	snprintf(((adb__queryResponse*)adbQueryResponse)->result.Rlist[k], O2_MAXFILESTR, "%s", fileTable+r.trackID*O2_FILETABLE_ENTRY_SIZE);
      else
	snprintf(((adb__queryResponse*)adbQueryResponse)->result.Rlist[k], O2_MAXFILESTR, "%d", r.trackID);
    }
  }
}

// Another type of trackAveragingReporter that reports all pointNN nearest neighbours
template <class T> class trackSequenceQueryNNReporter : public trackAveragingReporter<T> {
 protected:
  using trackAveragingReporter<T>::numFiles;
  using trackAveragingReporter<T>::queues;
  using trackAveragingReporter<T>::trackNN;
  using trackAveragingReporter<T>::pointNN;
 public:
  trackSequenceQueryNNReporter(unsigned int pointNN, unsigned int trackNN, unsigned int numFiles);
  void report(char *fileTable, void *adbQueryResponse);
};

template <class T> trackSequenceQueryNNReporter<T>::trackSequenceQueryNNReporter(unsigned int pointNN, unsigned int trackNN, unsigned int numFiles)
:trackAveragingReporter<T>(pointNN, trackNN, numFiles){}

template <class T> void trackSequenceQueryNNReporter<T>::report(char *fileTable, void *adbQueryResponse) {
  std::priority_queue < NNresult, std::vector< NNresult>, T> result;
  std::priority_queue< NNresult, std::vector< NNresult>, std::less<NNresult> > *point_queues 
    = new std::priority_queue< NNresult, std::vector< NNresult>, std::less<NNresult> >[numFiles];
  
  for (int i = numFiles-1; i >= 0; i--) {
    unsigned int size = queues[i].size();
    if (size > 0) {
      NNresult r;
      double dist = 0;
      NNresult oldr = queues[i].top();
      for (unsigned int j = 0; j < size; j++) {
        r = queues[i].top();
        dist += r.dist;
	point_queues[i].push(r);
	queues[i].pop();
        if (r.dist == oldr.dist) {
          r.qpos = oldr.qpos;
          r.spos = oldr.spos;
        } else {
          oldr = r;
        }
      }
      dist /= size;
      r.dist = dist; // trackID, qpos and spos are magically right already.
      result.push(r);
      if (result.size() > trackNN) {
        result.pop();
      }
    }
  }

  NNresult r;
  std::vector<NNresult> v;
  unsigned int size = result.size();
  for(unsigned int k = 0; k < size; k++) {
    r = result.top();
    v.push_back(r);
    result.pop();
  }
  std::vector<NNresult>::reverse_iterator rit;
  std::priority_queue< NNresult, std::vector< NNresult>, std::greater<NNresult> > point_queue;      
  NNresult rk;

  if(adbQueryResponse==0) {
    for(rit = v.rbegin(); rit < v.rend(); rit++) {
      r = *rit;
      if(fileTable)
	std::cout << fileTable + r.trackID*O2_FILETABLE_ENTRY_SIZE << " ";
      else
	std::cout << r.trackID << " ";
	std::cout << r.dist << std::endl;
      unsigned int qsize = point_queues[r.trackID].size();
      // Reverse the order of the points stored in point_queues
      for(unsigned int k=0; k < qsize; k++){
	point_queue.push( point_queues[r.trackID].top() );
	point_queues[r.trackID].pop();
      }
      
      for(unsigned int k = 0; k < qsize; k++) {
	rk = point_queue.top();
	std::cout << rk.dist << " " << rk.qpos << " " << rk.spos << std::endl;
	point_queue.pop();
      }
    }
  } else {
   ((adb__queryResponse*)adbQueryResponse)->result.__sizeRlist=size*pointNN;
    ((adb__queryResponse*)adbQueryResponse)->result.__sizeDist=size*pointNN;
    ((adb__queryResponse*)adbQueryResponse)->result.__sizeQpos=size*pointNN;
    ((adb__queryResponse*)adbQueryResponse)->result.__sizeSpos=size*pointNN;
    ((adb__queryResponse*)adbQueryResponse)->result.Rlist= new char*[size*pointNN];
    ((adb__queryResponse*)adbQueryResponse)->result.Dist = new double[size*pointNN];
    ((adb__queryResponse*)adbQueryResponse)->result.Qpos = new unsigned int[size*pointNN];
    ((adb__queryResponse*)adbQueryResponse)->result.Spos = new unsigned int[size*pointNN];
    unsigned int k = 0;
    // Loop over returned tracks
    for(rit = v.rbegin(); rit < v.rend(); rit++) {
      r = *rit;
      // Reverse the order of the points stored in point_queues
      unsigned int qsize=point_queues[r.trackID].size();
      while(qsize--){
	point_queue.push(point_queues[r.trackID].top());
	point_queues[r.trackID].pop();
      }
      qsize=point_queue.size();
      unsigned int numReports = pointNN;
      while(numReports--){ // pop the rest of the points
	if(qsize)
	  rk = point_queue.top(); // Take one point from the top of the queue
	else{
	  rk.dist = 1000000000.0;
	  rk.qpos = 0xFFFFFFFF;
	  rk.spos = 0xFFFFFFFF;
	}
	  
	((adb__queryResponse*)adbQueryResponse)->result.Rlist[k] = new char[O2_MAXFILESTR];
	((adb__queryResponse*)adbQueryResponse)->result.Dist[k] = rk.dist;
	((adb__queryResponse*)adbQueryResponse)->result.Qpos[k] = rk.qpos;
	((adb__queryResponse*)adbQueryResponse)->result.Spos[k] = rk.spos;
	if(qsize){
	  if(fileTable)
	    snprintf(((adb__queryResponse*)adbQueryResponse)->result.Rlist[k], O2_MAXFILESTR, "%s", fileTable+r.trackID*O2_FILETABLE_ENTRY_SIZE);
	  else
	    snprintf(((adb__queryResponse*)adbQueryResponse)->result.Rlist[k], O2_MAXFILESTR, "%d", r.trackID);	
	  point_queue.pop();
	  qsize--;
	}
	else
	  snprintf(((adb__queryResponse*)adbQueryResponse)->result.Rlist[k], O2_MAXFILESTR, "NULL");		  
	k++;
      }
    }
  }
  // clean up
  delete[] point_queues;
}

/********************** Radius Reporters **************************/

class triple{
 public:
  unsigned int a;
  unsigned int b;
  unsigned int c;

  triple(void);
  triple(unsigned int, unsigned int, unsigned int);
  unsigned int first();
  unsigned int second();
  unsigned int third();
};

triple& make_triple(unsigned int, unsigned int, unsigned int);

triple::triple(unsigned int a, unsigned int b, unsigned int c):a(a),b(b),c(c){}

unsigned int triple::first(){return a;}
unsigned int triple::second(){return b;}
unsigned int triple::third(){return c;}

triple::triple():a(0),b(0),c(0){}

bool operator< (const triple &t1, const triple &t2) {
  return ((t1.a < t2.a) ||
	  ((t1.a == t2.a) && ((t1.b < t2.b) ||
			      ((t1.b == t2.b) && (t1.c < t2.c)))));
}
bool operator== (const triple &t1, const triple &t2) {
  return ((t1.a == t2.a) && (t1.b == t2.b) && (t1.c == t2.c));
}

triple& make_triple(unsigned int a, unsigned int b, unsigned int c){
  triple* t = new triple(a,b,c);
  return *t;
}

// track Sequence Query Radius Reporter
// only return tracks and retrieved point counts
class trackSequenceQueryRadReporter : public Reporter { 
public:
  trackSequenceQueryRadReporter(unsigned int trackNN, unsigned int numFiles);
  ~trackSequenceQueryRadReporter();
  void add_point(unsigned int trackID, unsigned int qpos, unsigned int spos, double dist);
  void report(char *fileTable, void *adbQueryResponse);
 protected:
  unsigned int trackNN;
  unsigned int numFiles;
  std::set<std::pair<unsigned int, unsigned int> > *set;
  std::set< triple > *set_triple;
  unsigned int *count;
};

trackSequenceQueryRadReporter::trackSequenceQueryRadReporter(unsigned int trackNN, unsigned int numFiles):
  trackNN(trackNN), numFiles(numFiles) {
  set = new std::set<std::pair<unsigned int, unsigned int> >;
  set_triple = new std::set<triple, std::less<triple> >;
  count = new unsigned int[numFiles];
  for (unsigned i = 0; i < numFiles; i++) {
    count[i] = 0;
  }
}

trackSequenceQueryRadReporter::~trackSequenceQueryRadReporter() {
  delete set;
  delete set_triple;
  delete [] count;
}

void trackSequenceQueryRadReporter::add_point(unsigned int trackID, unsigned int qpos, unsigned int spos, double dist) {
  std::set<std::pair<unsigned int, unsigned int> >::iterator it;
  std::pair<unsigned int, unsigned int> pair = std::make_pair(trackID, qpos); // only count this once
  std::set<triple>::iterator it2;
  triple triple;

  triple = make_triple(trackID, qpos, spos); // only count this once
  
  // Record unique <trackID,qpos,spos> triples (record one collision from all hash tables)
  it2 = set_triple->find(triple);

  if(it2 == set_triple->end()){
    set_triple->insert(triple);    

    it = set->find(pair);
    if (it == set->end()) {
      set->insert(pair);
      count[trackID]++; // only count if <tackID,qpos> pair is unique
    }
  }
}

void trackSequenceQueryRadReporter::report(char *fileTable, void *adbQueryResponse) {
  std::priority_queue < Radresult, std::vector<Radresult>, std::greater<Radresult> > result;
  // KLUDGE: doing this backwards in an attempt to get the same
  // tiebreak behaviour as before.
  for (int i = numFiles-1; i >= 0; i--) {
    Radresult r;
    r.trackID = i;
    r.count = count[i];
    if(r.count > 0) {
      result.push(r);
      if (result.size() > trackNN) {
        result.pop();
      }
    }
  }

  Radresult r;
  std::vector<Radresult> v;
  unsigned int size = result.size();
  for(unsigned int k = 0; k < size; k++) {
    r = result.top();
    v.push_back(r);
    result.pop();
  }
  std::vector<Radresult>::reverse_iterator rit;
      
  if(adbQueryResponse==0) {
    for(rit = v.rbegin(); rit < v.rend(); rit++) {
      r = *rit;
      if(fileTable)
	std::cout << fileTable + r.trackID*O2_FILETABLE_ENTRY_SIZE << " ";
      else
	std::cout << r.trackID << " ";
      std::cout << r.count << std::endl;
    }
  } 
 else {
    ((adb__queryResponse*)adbQueryResponse)->result.__sizeRlist=size;
    ((adb__queryResponse*)adbQueryResponse)->result.__sizeDist=size;
    ((adb__queryResponse*)adbQueryResponse)->result.__sizeQpos=size;
    ((adb__queryResponse*)adbQueryResponse)->result.__sizeSpos=size;
    ((adb__queryResponse*)adbQueryResponse)->result.Rlist= new char*[size];
    ((adb__queryResponse*)adbQueryResponse)->result.Dist = new double[size];
    ((adb__queryResponse*)adbQueryResponse)->result.Qpos = new unsigned int[size];
    ((adb__queryResponse*)adbQueryResponse)->result.Spos = new unsigned int[size];
    unsigned int k = 0;
    for(rit = v.rbegin(); rit < v.rend(); rit++, k++) {
      r = *rit;
      ((adb__queryResponse*)adbQueryResponse)->result.Rlist[k] = new char[O2_MAXFILESTR];
      ((adb__queryResponse*)adbQueryResponse)->result.Dist[k] = 0;
      ((adb__queryResponse*)adbQueryResponse)->result.Qpos[k] = 0;
      ((adb__queryResponse*)adbQueryResponse)->result.Spos[k] = r.count;
      if(fileTable)
	snprintf(((adb__queryResponse*)adbQueryResponse)->result.Rlist[k], O2_MAXFILESTR, "%s", fileTable+r.trackID*O2_FILETABLE_ENTRY_SIZE);
      else
	snprintf(((adb__queryResponse*)adbQueryResponse)->result.Rlist[k], O2_MAXFILESTR, "%d", r.trackID);
    }
  }
}

// track Sequence Query Radius NN Reporter
// retrieve tracks ordered by query-point matches (one per track per query point)
//
// as well as sorted n-NN points per retrieved track
class trackSequenceQueryRadNNReporter : public Reporter { 
public:
  trackSequenceQueryRadNNReporter(unsigned int pointNN, unsigned int trackNN, unsigned int numFiles);
  ~trackSequenceQueryRadNNReporter();
  void add_point(unsigned int trackID, unsigned int qpos, unsigned int spos, double dist);
  void report(char *fileTable, void *adbQueryResponse);
 protected:
  unsigned int pointNN;
  unsigned int trackNN;
  unsigned int numFiles;
  std::set<std::pair<unsigned int, unsigned int> > *set;
  std::set< triple > *set_triple;
  std::priority_queue< NNresult, std::vector< NNresult>, std::less<NNresult> > *point_queues;
  unsigned int *count;
};

trackSequenceQueryRadNNReporter::trackSequenceQueryRadNNReporter(unsigned int pointNN, unsigned int trackNN, unsigned int numFiles):
pointNN(pointNN), trackNN(trackNN), numFiles(numFiles) {
  // Where to count Radius track matches (one-to-one)
  set = new std::set<std::pair<unsigned int, unsigned int> >;
  set_triple = new std::set<triple, std::less<triple> >;
  // Where to insert individual point matches (one-to-many)
  point_queues = new std::priority_queue< NNresult, std::vector< NNresult>, std::less<NNresult> >[numFiles];
  
  count = new unsigned int[numFiles];
  for (unsigned i = 0; i < numFiles; i++) {
    count[i] = 0;
  }
}

trackSequenceQueryRadNNReporter::~trackSequenceQueryRadNNReporter() {
  delete set;
  delete set_triple;
  delete [] count;
}

void trackSequenceQueryRadNNReporter::add_point(unsigned int trackID, unsigned int qpos, unsigned int spos, double dist) {
  std::set<std::pair<unsigned int, unsigned int> >::iterator it;
  std::set<triple>::iterator it2;
  std::pair<unsigned int, unsigned int> pair;
  triple triple;
  NNresult r;

  pair = std::make_pair(trackID, qpos); // only count this once  
  triple = make_triple(trackID, qpos, spos); // only count this once
  // Record unique <trackID,qpos,spos> triples (record one collision from all hash tables)
  it2 = set_triple->find(triple);  
  if(it2 == set_triple->end()){    
    set_triple->insert(triple);    
    // Record all matching points (within radius)
    // Record counts of <trackID,qpos> pairs
    it = set->find(pair);
    if (it == set->end()) {
      set->insert(pair);
      count[trackID]++;
    }
    if (!isnan(dist)) {
      r.trackID = trackID;
      r.qpos = qpos;
      r.dist = dist;
      r.spos = spos;
      point_queues[trackID].push(r);
      if(point_queues[trackID].size() > pointNN)
	point_queues[trackID].pop();
    }
  }
}

void trackSequenceQueryRadNNReporter::report(char *fileTable, void *adbQueryResponse) {
  std::priority_queue < Radresult, std::vector<Radresult>, std::greater<Radresult> > result;
  // KLUDGE: doing this backwards in an attempt to get the same
  // tiebreak behaviour as before.
  Radresult r;
  NNresult rk;
  std::vector<Radresult> v;
  unsigned int size;

  if(pointNN>1){
    for (int i = numFiles-1; i >= 0; i--) {
      r.trackID = i;
      r.count = count[i];
      if(r.count > 0) {
	cout.flush();
	result.push(r);
	if (result.size() > trackNN) {
	  result.pop();
	}
      }
    }
    
    size = result.size();
    for(unsigned int k = 0; k < size; k++) {
      r = result.top();
      v.push_back(r);
      result.pop();
    }
  }
  else{
    // Instantiate a 1-NN trackAveragingNN reporter
    trackSequenceQueryNNReporter<std::less <NNresult> >* rep = new trackSequenceQueryNNReporter<std::less <NNresult> >(1, trackNN, numFiles);
    // Add all the points we've got to the reporter
    for(unsigned int i=0; i<numFiles; i++){
      int qsize = point_queues[i].size();
      while(qsize--){
	rk = point_queues[i].top();
	rep->add_point(i, rk.qpos, rk.spos, rk.dist);
	point_queues[i].pop();
      }	
    }
    // Report
    rep->report(fileTable, adbQueryResponse);
    // Exit
    delete[] point_queues;
    return;
  }


  // Traverse tracks in descending order of count cardinality
  std::vector<Radresult>::reverse_iterator rit;
  std::priority_queue< NNresult, std::vector< NNresult>, std::greater<NNresult> > point_queue;

  if(adbQueryResponse==0) {
    for(rit = v.rbegin(); rit < v.rend(); rit++) {
      r = *rit;
      if(fileTable)
	std::cout << fileTable + r.trackID*O2_FILETABLE_ENTRY_SIZE << " ";
      else
	std::cout << r.trackID << " ";
      std::cout << r.count << std::endl;

      // Reverse the order of the points stored in point_queues
      unsigned int qsize=point_queues[r.trackID].size();
      for(unsigned int k=0; k < qsize; k++){
	point_queue.push(point_queues[r.trackID].top());
	point_queues[r.trackID].pop();
      }
      for(unsigned int k=0; k < qsize; k++){
	rk = point_queue.top();
	std::cout << rk.dist << " " << rk.qpos << " " << rk.spos << std::endl;
	point_queue.pop();
      }
    }
  }
 else {
   ((adb__queryResponse*)adbQueryResponse)->result.__sizeRlist=size*pointNN;
    ((adb__queryResponse*)adbQueryResponse)->result.__sizeDist=size*pointNN;
    ((adb__queryResponse*)adbQueryResponse)->result.__sizeQpos=size*pointNN;
    ((adb__queryResponse*)adbQueryResponse)->result.__sizeSpos=size*pointNN;
    ((adb__queryResponse*)adbQueryResponse)->result.Rlist= new char*[size*pointNN];
    ((adb__queryResponse*)adbQueryResponse)->result.Dist = new double[size*pointNN];
    ((adb__queryResponse*)adbQueryResponse)->result.Qpos = new unsigned int[size*pointNN];
    ((adb__queryResponse*)adbQueryResponse)->result.Spos = new unsigned int[size*pointNN];
    unsigned int k = 0;
    // Loop over returned tracks
    for(rit = v.rbegin(); rit < v.rend(); rit++) {
      r = *rit;
      // Reverse the order of the points stored in point_queues
      unsigned int qsize=point_queues[r.trackID].size();
      while(qsize--){
	point_queue.push(point_queues[r.trackID].top());
	point_queues[r.trackID].pop();
      }
      qsize=point_queue.size();
      unsigned int numReports = pointNN;
      while(numReports--){ // pop the rest of the points
	if(qsize)
	  rk = point_queue.top(); // Take one point from the top of the queue
	else{
	  rk.dist = 1000000000.0;
	  rk.qpos = 0xFFFFFFFF;
	  rk.spos = 0xFFFFFFFF;
	}
	  
	((adb__queryResponse*)adbQueryResponse)->result.Rlist[k] = new char[O2_MAXFILESTR];
	((adb__queryResponse*)adbQueryResponse)->result.Dist[k] = rk.dist;
	((adb__queryResponse*)adbQueryResponse)->result.Qpos[k] = rk.qpos;
	((adb__queryResponse*)adbQueryResponse)->result.Spos[k] = rk.spos;
	if(qsize){
	  if(fileTable)
	    snprintf(((adb__queryResponse*)adbQueryResponse)->result.Rlist[k], O2_MAXFILESTR, "%s", fileTable+r.trackID*O2_FILETABLE_ENTRY_SIZE);
	  else
	    snprintf(((adb__queryResponse*)adbQueryResponse)->result.Rlist[k], O2_MAXFILESTR, "%d", r.trackID);	
	  point_queue.pop();
	  qsize--;
	}
	else
	  snprintf(((adb__queryResponse*)adbQueryResponse)->result.Rlist[k], O2_MAXFILESTR, "NULL");
	k++;
      }
    }
 }
  delete[] point_queues;
}

/********** ONE-TO-ONE REPORTERS *****************/

// track Sequence Query Radius NN Reporter One-to-One
// for each query point find the single best matching target point in all database
// report qpos, spos and trackID
class trackSequenceQueryRadNNReporterOneToOne : public Reporter { 
public:
  trackSequenceQueryRadNNReporterOneToOne(unsigned int pointNN, unsigned int trackNN, unsigned int numFiles);
  ~trackSequenceQueryRadNNReporterOneToOne();
  void add_point(unsigned int trackID, unsigned int qpos, unsigned int spos, double dist);
  void report(char *fileTable, void *adbQueryResponse);
 protected:
  unsigned int pointNN;
  unsigned int trackNN;
  unsigned int numFiles;
  std::set< NNresult > *set;
  std::vector< NNresult> *point_queue;
  unsigned int *count;

};

trackSequenceQueryRadNNReporterOneToOne::trackSequenceQueryRadNNReporterOneToOne(unsigned int pointNN, unsigned int trackNN, unsigned int numFiles):
pointNN(pointNN), trackNN(trackNN), numFiles(numFiles) {
  // Where to count Radius track matches (one-to-one)
  set = new std::set< NNresult >; 
  // Where to insert individual point matches (one-to-many)
  point_queue = new std::vector< NNresult >;
  
  count = new unsigned int[numFiles];
  for (unsigned i = 0; i < numFiles; i++) {
    count[i] = 0;
  }
}

trackSequenceQueryRadNNReporterOneToOne::~trackSequenceQueryRadNNReporterOneToOne() {
  delete set;
  delete [] count;
}

void trackSequenceQueryRadNNReporterOneToOne::add_point(unsigned int trackID, unsigned int qpos, unsigned int spos, double dist) {
  std::set< NNresult >::iterator it;
  NNresult r;

  r.qpos = qpos;
  r.trackID = trackID;
  r.spos = spos;
  r.dist = dist;

  if(point_queue->size() < r.qpos + 1){
    point_queue->resize( r.qpos + 1 );
    (*point_queue)[r.qpos].dist = 1e6;
  }

  if (r.dist < (*point_queue)[r.qpos].dist)
    (*point_queue)[r.qpos] = r;

}

void trackSequenceQueryRadNNReporterOneToOne::report(char *fileTable, void *adbQueryResponse) {
  if(adbQueryResponse==0) {
    std::vector< NNresult >::iterator vit;
    NNresult rk;
    for( vit = point_queue->begin() ; vit < point_queue->end() ; vit++ ){
      rk = *vit;
      std::cout << rk.dist << " " 
		<< rk.qpos << " " 
		<< rk.spos << " ";
      if(fileTable)
	std::cout << fileTable + rk.trackID*O2_FILETABLE_ENTRY_SIZE << " ";
      else
	std::cout << rk.trackID << " "; 
      std::cout << std::endl;
      }
  } else {
    // FIXME
  }
}

#endif