Small logging additions + maintain_lazy = false + eventqueue
- Filtration::transpose( ..., maintain_lazy = false )
- EventQueue inserts a new event after all the ones equal to it, not before
#include <iostream>
#include <vector>
#include <algorithm>
#include "avida-population-detail.h"
#include <topology/filtration.h>
#include <topology/simplex.h>
typedef SimplexWithValue<AvidaOrganismDetail::IDType> Simplex;
typedef std::vector<Simplex> SimplexVector;
typedef Filtration<Simplex> SimplexFiltration;
int main(int argc, char** argv)
{
#ifdef LOGGING
rlog::RLogInit(argc, argv);
//stdoutLog.subscribeTo(RLOG_CHANNEL("info"));
#endif
if (argc < 2)
{
std::cout << "USAGE: avida FILENAME" << std::endl;
return 0;
}
AvidaPopulationDetail population(argv[1]);
const AvidaPopulationDetail::OrganismVector& organisms = population.get_organisms();
rInfo("Number of organisms: %d", organisms.size());
for (int i = 0; i < population.get_organisms().size(); ++i)
rInfo("%d (%s) %f %d %d", organisms[i].id(),
organisms[i].genome().c_str(),
organisms[i].fitness(),
organisms[i].length(),
organisms[i].genome().size());
// Distance function filtration
SimplexVector simplices;
// Insert edges
AvidaOrganismDetail::DistanceType avg_distance = 0;
for (AvidaOrganismDetail::CountType i = 0; i < organisms.size(); ++i)
{
simplices.push_back(0);
simplices.back().add(organisms[i].id());
for (AvidaOrganismDetail::CountType j = i+1; j < organisms.size(); ++j)
{
avg_distance += organisms[i].genome_distance(organisms[j]);
simplices.push_back(Simplex(organisms[i].genome_distance(organisms[j])));
simplices.back().add(organisms[i].id());
simplices.back().add(organisms[j].id());
}
}
std::sort(simplices.begin(), simplices.end(), DimensionValueComparison<Simplex>());
rInfo("Average distance: %f", float(avg_distance)/
((organisms.size()*organisms.size() - organisms.size())/2));
SimplexFiltration filtration;
for (SimplexVector::const_iterator cur = simplices.begin(); cur != simplices.end(); ++cur)
{
rInfo("Simplex: %s", tostring(*cur).c_str());
filtration.append(*cur);
}
filtration.fill_simplex_index_map();
filtration.pair_simplices(false); // pair simplices without storing trails
std::cout << "Outputting histogram of death values" << std::endl;
typedef std::vector<RealType> DeathVector;
DeathVector deaths;
for (SimplexFiltration::Index i = filtration.begin(); i != filtration.end(); ++i)
{
if (i->is_paired())
if (i->sign())
{
AssertMsg(i->dimension() == 0, "Expecting only 0-dimensional diagram");
AssertMsg(i->get_value() == 0, "Expecting only 0 birth values in 0-D diagram ");
deaths.push_back(i->pair()->get_value());
}
}
// Produce histogram
std::sort(deaths.begin(), deaths.end());
for (DeathVector::iterator cur = deaths.begin(); cur != deaths.end(); )
{
DeathVector::iterator nw = std::find_if(cur, deaths.end(),
std::bind2nd(std::greater<RealType>(), *cur));
std::cout << *cur << "\t" << (nw - cur) << std::endl;
cur = nw;
}
std::cout << "Total: " << deaths.size() + 1; // +1 for the unpaired
}