void GAStuff()
{
GARandomSeed(1);
genome = new GAListGenome<int>(Objective);
genome->initializer(::Initializer);
genome->mutator(::Mutator);
genome->comparator(::Comparator);
genome->crossover(XOVER);
dbg<<"inicijalizovao genom\n";
ga = new GASteadyStateGA(*genome);
dbg<<"napravio ga\n";
ga->minimize();
ga->pReplacement(1.0);
ga->populationSize(100);
ga->nGenerations(100);
ga->pMutation(0.1);
ga->pCrossover(1.0);
ga->pMutation(0.3);
ga->terminator(Terminator);
//ga->pConvergence(1);
ga->selectScores(GAStatistics::AllScores);
//ga->terminator(GAGeneticAlgorithm::TerminateUponPopConvergence);
//ga.parameters(argc, argv);
ga->initialize(seed);
dbg<<"inicijalozovao GA\n";
}
// To initialize this genetic algorithm, we make sure all of our spawns are
// not evolving then we tell them all to initialize themselves. Then we wait
// and copy their populations into our own. Update our stats based upon the
// harvested populations.
void
PVMDemeGA::initialize(unsigned int seed) {
GARandomSeed(seed);
if(_mid == 0) return;
#ifdef DEBUG
cerr << "sending initialize command to slaves...\n";
#endif
for(int j=0; j<_ntid; j++) {
_status = pvm_initsend(PvmDataDefault);
_status = pvm_send(_tid[j], MSG_INITIALIZE);
}
collect();
for(int i=0; i<_ntid; i++) {
pstats[i].reset(*deme[i]);
pop->individual(i).copy(deme[i]->best());
}
pop->touch();
stats.reset(*pop);
}
int
main(int argc, char **argv)
{
cout << "Example 4\n\n";
cout << "This program tries to fill a 3DBinaryStringGenome with\n";
cout << "alternating 1s and 0s using a SteadyStateGA\n\n"; cout.flush();
// See if we've been given a seed to use (for testing purposes). When you
// specify a random seed, the evolution will be exactly the same each time
// you use that seed number.
for(int ii=1; ii<argc; ii++) {
if(strcmp(argv[ii++],"seed") == 0) {
GARandomSeed((unsigned int)atoi(argv[ii]));
}
}
int depth = 3;
int width = 10;
int height = 5;
// Now create the GA and run it. First we create a genome of the type that
// we want to use in the GA. The ga doesn't use this genome in the
// optimization - it just uses it to clone a population of genomes.
GA3DBinaryStringGenome genome(width, height, depth, objective);
// Now that we have the genome, we create the genetic algorithm and set
// its parameters - number of generations, mutation probability, and crossover
// probability. By default the GA keeps track of the best of generation scores
// and also keeps one genome as the 'best of all' - the best genome
// that it encounters from all of the generations. Here we tell the GA to
// keep track of all scores, not just the best-of-generation.
GASteadyStateGA ga(genome);
ga.populationSize(100);
ga.pReplacement(0.50); // replace 50% of population each generation
// ga.nReplacement(4); // number of individuals to replace each gen
ga.nGenerations(200);
ga.pMutation(0.001);
ga.pCrossover(0.9);
ga.scoreFilename("bog.dat"); // name of file for scores
ga.scoreFrequency(10); // keep the scores of every 10th generation
ga.flushFrequency(50); // specify how often to write the score to disk
ga.selectScores(GAStatistics::AllScores);
ga.evolve();
// Now we print out the best genome.
cout << "the ga generated:\n" << ga.statistics().bestIndividual() << "\n";
cout << "best of generation data are in 'bog.dat'\n";
// That's it!
return 0;
}
// Do some basic stupidity checks then initialize the population. We must
// also initialize our temporary genomes, but we don't have to evaluate
// them. Finally, reset the statistics.
void
GAIncrementalGA::initialize(unsigned int seed)
{
GARandomSeed(seed);
pop->initialize();
pop->evaluate(gaTrue);
stats.reset(*pop);
if(!scross) GAErr(GA_LOC, className(), "initialize", gaErrNoSexualMating);
}
// Initialize the population, set the random seed as needed, do a few stupidity
// checks, reset the stats. We must initialize the old pop because there is no
// guarantee that each individual will get initialized during the course of our
// operator++ operations. We do not evaluate the old pop because that will
// happen as-needed later on.
void
GASimpleGA::initialize(unsigned int seed)
{
GARandomSeed(seed);
pop->initialize();
pop->evaluate(gaTrue); // the old pop will get it when the pops switch
// oldPop->initialize();
stats.reset(*pop);
if(!scross)
GAErr(GA_LOC, className(), "initialize", gaErrNoSexualMating);
}
int
main(int argc, char **argv)
{
// a seed to use (for testing purposes). When you
// specify a random seed, the evolution will be exactly the same each time
// you use that seed number.
for(int ii=1; ii<argc; ii++) {
if(strcmp(argv[ii++],"seed") == 0) {
GARandomSeed((unsigned int)atoi(argv[ii]));
}
}
// Declare variables for the GA parameters and set them to some default values.
//int width = 50;
//int height = 41;
int length=730;
int popsize = 100;
int ngen = 4000;
float pmut = 0.001;
float pcross = 0.9;
// Now create the GA and run it. Fist we create a genome of the type that
// we want to use in the GA. The ga doesn't operate on this genome in the
// optimization - it just uses it to clone a population of genomes.
GA1DBinaryStringGenome genome(length, Objective);
// Now that we have the genome, we create the genetic algorithm and set
// its parameters - number of generations, mutation probability, and crossover
// probability. And finally we tell it to evolve itself.
GASteadyStateGA ga(genome);
ga.populationSize(popsize);
ga.nGenerations(ngen);
ga.pMutation(pmut);
ga.pCrossover(pcross);
ga.nBestGenomes(90);
ga.evolve();
// Now we print out the best genome that the GA found.
cout << "The GA found:\n" << ga.statistics().bestPopulation() << "\n";
// That's it!
fclose(fp);
return 0;
}
float Objective(GAGenome &); // This is the declaration of our obj function.
// The definition comes later in the file.
int main(int argc, char **argv) {
cout << "Example 1\n\n";
cout << "This program tries to fill a 2DBinaryStringGenome with\n";
cout << "alternating 1s and 0s using a SimpleGA\n\n";
cout.flush();
// See if we've been given a seed to use (for testing purposes). When you
// specify a random seed, the evolution will be exactly the same each time
// you use that seed number.
for (int ii = 1; ii < argc; ii++) {
if (strcmp(argv[ii++], "seed") == 0) {
GARandomSeed((unsigned int) atoi(argv[ii]));
}
}
// Declare variables for the GA parameters and set them to some default values.
int width = 10;
int height = 5;
int popsize = 30;
int ngen = 400;
float pmut = 0.001;
float pcross = 0.9;
// Now create the GA and run it. First we create a genome of the type that
// we want to use in the GA. The ga doesn't operate on this genome in the
// optimization - it just uses it to clone a population of genomes.
GA2DBinaryStringGenome genome(width, height, Objective);
// Now that we have the genome, we create the genetic algorithm and set
// its parameters - number of generations, mutation probability, and crossover
// probability. And finally we tell it to evolve itself.
GASimpleGA ga(genome);
ga.populationSize(popsize);
ga.nGenerations(ngen);
ga.pMutation(pmut);
ga.pCrossover(pcross);
ga.evolve();
// Now we print out the best genome that the GA found.
cout << "The GA found:\n" << ga.statistics().bestIndividual() << "\n";
// We only use the sexual mating, so only check for that one. Initialize each
// of the popultions and set stats appropriately.
void
GADemeGA::initialize(unsigned int seed) {
GARandomSeed(seed);
for(unsigned int i=0; i<npop; i++) {
deme[i]->initialize();
deme[i]->evaluate(gaTrue);
pstats[i].reset(*deme[i]);
pop->individual(i).copy(deme[i]->best());
}
pop->touch();
stats.reset(*pop);
if(!scross) GAErr(GA_LOC, className(), "initialize", gaErrNoSexualMating);
}
int
main(int argc, char *argv[])
{
cout << "Example 11\n\n";
cout << "This program illustrates the use of order-based lists. The\n";
cout << "list in this problem contains 25 numbers, 0 to 24. It tries\n";
cout << "to put them in descending order from 24 to 0.\n\n";
cout.flush();
// See if we've been given a seed to use (for testing purposes). When you
// specify a random seed, the evolution will be exactly the same each time
// you use that seed number.
for(int ii=1; ii<argc; ii++) {
if(strcmp(argv[ii++],"seed") == 0) {
GARandomSeed((unsigned int)atoi(argv[ii]));
}
}
// Set the default values of the parameters.
GAParameterList params;
GASteadyStateGA::registerDefaultParameters(params);
params.set(gaNpopulationSize, 30); // population size
params.set(gaNpCrossover, 0.6); // probability of crossover
params.set(gaNpMutation, 0.01); // probability of mutation
params.set(gaNnGenerations, 1000); // number of generations
params.set(gaNpReplacement, 0.5); // how much of pop to replace each gen
params.set(gaNscoreFrequency, 10); // how often to record scores
params.set(gaNnReplacement, 4); // how much of pop to replace each gen
params.set(gaNflushFrequency, 10); // how often to dump scores to file
params.set(gaNscoreFilename, "bog.dat");
// params.read("settings.txt"); // grab values from file first
params.parse(argc, argv, gaFalse); // parse command line for GAlib args
// Now create the GA and run it. We first create a genome with the
// operators we want. Since we're using a template genome, we must assign
// all three operators. We use the order-based crossover site when we assign
// the crossover operator.
GAListGenome<int> genome(objective);
genome.initializer(ListInitializer);
genome.mutator(GAListGenome<int>::SwapMutator);
// Now that we have our genome, we create the GA (it clones the genome to
// make all of the individuals for its populations). Set the parameters on
// the GA then let it evolve.
GASteadyStateGA ga(genome);
ga.crossover(GAListGenome<int>::PartialMatchCrossover);
ga.parameters(params);
ga.evolve();
// Assign the best that the GA found to our genome then print out the results.
genome = ga.statistics().bestIndividual();
cout << "the ga generated the following list (objective score is ";
cout << genome.score() << "):\n" << genome << "\n";
cout << "best of generation data are in '" << ga.scoreFilename() << "'\n";
cout << ga.parameters() << "\n";
// char *fn;
// ga.get(gaNscoreFilename, &fn);
// cout << "filename is '" << fn << "'\n";
return 0;
}
int main(int argc, char **argv)
{
srand(time(NULL));
GARandomSeed();
bool gameIsRunning = false;
// SDL
SDL_Window* window = nullptr;
SDL_Event sdlEvent;
SDL_Renderer* renderer = nullptr;
TextureManager* textureManager = nullptr;
MyB2DebugDraw* debugDraw = nullptr;
MyB2ContactListener* contactListener = nullptr;
// Fonts
TTF_Font* font = nullptr;
if (SDL_Init(SDL_INIT_VIDEO) < 0)
{
return -1;
}
window = SDL_CreateWindow("GA Test", SDL_WINDOWPOS_UNDEFINED, SDL_WINDOWPOS_UNDEFINED, WINDOW_WIDTH, WINDOW_HEIGHT, SDL_WINDOW_SHOWN);
if (!window)
{
return -1;
}
renderer = SDL_CreateRenderer(window, -1, SDL_RENDERER_ACCELERATED | SDL_RENDERER_PRESENTVSYNC);
if (!renderer)
{
return -1;
}
SDL_SetRenderDrawColor(renderer, 0xFF, 0xFF, 0xFF, 0xFF);
// Initialize SDL PNG loading
int imgFlags = IMG_INIT_PNG;
if (!(IMG_Init(imgFlags) & imgFlags))
{
printf("SDL_image could not initialize! SDL_image Error: %s\n", IMG_GetError());
return -1;
}
// Initialize SDL ttf
if (TTF_Init() == -1)
{
printf("SDL_ttf could not initialize! SDL_ttf Error: %s\n", TTF_GetError());
return -1;
}
// Open ttf font
font = TTF_OpenFont((dir_fonts + "OpenSans-Regular.ttf").c_str(), 12);
textureManager = TextureManager::GetInstance();
textureManager->Init(renderer, dir_assets);
// Game variables
//float dt = 1.0f / 10.0f;
double dt_fixed = 1.0 / 60.0;
float t = 0.0f;
auto currentTime = std::chrono::system_clock::now();
debugDraw = new MyB2DebugDraw(renderer);
debugDraw->SetFlags(b2Draw::e_shapeBit
//| b2Draw::e_aabbBit
| b2Draw::e_jointBit
| b2Draw::e_centerOfMassBit);
contactListener = new MyB2ContactListener();
// Box2D
b2Vec2 gravity(0.0f, 0.0f);
b2World* box2Dworld = new b2World(gravity);
//box2Dworld->SetDebugDraw(debugDraw);
box2Dworld->SetContactListener(contactListener);
Game* game = new Game(window, renderer, WINDOW_WIDTH, WINDOW_HEIGHT, box2Dworld, textureManager, font);
game->Init(dir_assets, dir_fonts, dir_textures, dt_fixed);
gameIsRunning = true;
vec2 curMouseClickPos;
while (gameIsRunning)
{
while (SDL_PollEvent(&sdlEvent) != 0)
{
if (SDL_GetMouseState(NULL, NULL) & SDL_BUTTON(SDL_BUTTON_LEFT))
{
SDL_GetMouseState(&curMouseClickPos.x, &curMouseClickPos.y);
}
if (sdlEvent.type == SDL_QUIT)
{
gameIsRunning = false;
}
else if (sdlEvent.type == SDL_KEYDOWN)
{
switch (sdlEvent.key.keysym.sym)
{
case SDLK_w:
game->GetPlayerShip()->ActivateEventTrigger(Ship::THRUST_FORWARD, true);
break;
case SDLK_s:
game->GetPlayerShip()->ActivateEventTrigger(Ship::THRUST_BACKWARD, true);
break;
case SDLK_a:
game->GetPlayerShip()->ActivateEventTrigger(Ship::TORQUE_LEFT, true);
break;
case SDLK_d:
game->GetPlayerShip()->ActivateEventTrigger(Ship::TORQUE_RIGHT, true);
break;
case SDLK_r:
if (game->GetPlayerShip())
game->GetPlayerShip()->Reset();
break;
case SDLK_e:
game->GetPlayerShip()->ActivateEventTrigger(Ship::STRAFE_RIGHT, true);
break;
case SDLK_q:
game->GetPlayerShip()->ActivateEventTrigger(Ship::STRAFE_LEFT, true);
break;
case SDLK_SPACE:
game->GetPlayerShip()->ActivateEventTrigger(Ship::SHOOT, true);
break;
case SDLK_LSHIFT:
game->GetPlayerShip()->ActivateEventTrigger(Ship::STABILIZE, true);
break;
case SDLK_ESCAPE:
gameIsRunning = false;
break;
}
}
else if (sdlEvent.type == SDL_KEYUP)
{
switch (sdlEvent.key.keysym.sym)
{
case SDLK_w:
game->GetPlayerShip()->ActivateEventTrigger(Ship::THRUST_FORWARD, false);
break;
case SDLK_s:
game->GetPlayerShip()->ActivateEventTrigger(Ship::THRUST_BACKWARD, false);
break;
case SDLK_a:
game->GetPlayerShip()->ActivateEventTrigger(Ship::TORQUE_LEFT, false);
break;
case SDLK_d:
game->GetPlayerShip()->ActivateEventTrigger(Ship::TORQUE_RIGHT, false);
break;
case SDLK_e:
game->GetPlayerShip()->ActivateEventTrigger(Ship::STRAFE_RIGHT, false);
break;
case SDLK_q:
game->GetPlayerShip()->ActivateEventTrigger(Ship::STRAFE_LEFT, false);
break;
case SDLK_SPACE:
game->GetPlayerShip()->ActivateEventTrigger(Ship::SHOOT, false);
break;
case SDLK_LSHIFT:
game->GetPlayerShip()->ActivateEventTrigger(Ship::STABILIZE, false);
break;
}
}
}
// Update game
//game->Update(dt);
// Draw game
//game->Draw();
// Present final canvas
//SDL_RenderPresent(renderer);
}
if (game)
{
delete game;
game = nullptr;
}
if (debugDraw)
{
delete debugDraw;
debugDraw = nullptr;
}
if (contactListener)
{
delete contactListener;
contactListener = nullptr;
}
TextureManager::Destroy();
textureManager = nullptr;
TTF_CloseFont(font);
font = nullptr;
SDL_DestroyWindow(window);
window = nullptr;
SDL_DestroyRenderer(renderer);
renderer = nullptr;
TTF_Quit();
IMG_Quit();
SDL_Quit();
_CrtDumpMemoryLeaks();
return 0;
}
int
main(int argc, char *argv[])
{
cout << "Example 8\n\n";
cout << "This program runs a steady-state GA whose objective function\n";
cout << "tries to maximize the size of the list and tries to make lists\n";
cout << "that contain the number 101 in the nodes. The lists contain\n";
cout << "ints in the nodes.\n\n";
cout.flush();
// See if we've been given a seed to use (for testing purposes). When you
// specify a random seed, the evolution will be exactly the same each time
// you use that seed number.
for(int i=1; i<argc; i++) {
if(strcmp(argv[i++],"seed") == 0)
GARandomSeed((unsigned int)atoi(argv[i]));
}
// Create the initial genome for the genetic algorithm to use. Set the
// initializer and mutation before we make the genetic algorithm.
GAListGenome<int> genome(objective);
genome.initializer(ListInitializer);
// genome.mutator(GAListGenome<int>::SwapMutator);
genome.mutator(GAListGenome<int>::DestructiveMutator);
// Now that we have a genome, we use it to create our GA. After creating the
// GA we set the parameters and tell the GA to use sigma truncation scaling
// rather than the default (linear scaling). Set the crossover to single
// point crossover. The genetic algorithm handles crossover since genomes
// don't know about other genomes. We could set the crossover on the genome
// if we wanted - either way will work.
GASteadyStateGA ga(genome);
GASigmaTruncationScaling scale;
ga.scaling(scale);
ga.crossover(GAListGenome<int>::OnePointCrossover);
// Set the default parameters we want to use, then check the command line for
// other arguments that might modify these.
ga.set(gaNpopulationSize, 40); // population size
ga.set(gaNpCrossover, 0.6); // probability of crossover
ga.set(gaNpMutation, 0.05); // probability of mutation
ga.set(gaNnGenerations, 50); // number of generations
ga.set(gaNscoreFrequency, 1); // how often to record scores
ga.set(gaNflushFrequency, 10); // how often to dump scores to file
ga.set(gaNselectScores, // which scores should we track?
GAStatistics::Maximum|GAStatistics::Minimum|GAStatistics::Mean);
ga.set(gaNscoreFilename, "bog.dat");
ga.parameters(argc, argv);
// Evolve the genetic algorithm then dump out the results of the run.
ga.evolve();
genome = ga.statistics().bestIndividual();
// cout << "the ga generated the list:\n" << genome << "\n";
cout << "the list contains " << genome.size() << " nodes\n";
cout << "the ga used the parameters:\n" << ga.parameters() << "\n";
return 0;
}