Asteroid::Asteroid()
: m_StartPosition(getRandomPosition())
, m_Velocity(getRandomVelocity())
, m_RotationSpeed(getRandomRotationSpeed())
, m_Speed(getRandomSpeed())
, m_Type(getRandomType())
, m_HasBeenStruck(false)
{
setupSprite();
setupShape();
}
Asteroid::Asteroid(const glm::vec2& position, AsteroidType::Type type)
: m_StartPosition(position)
, m_Velocity(getRandomVelocity() * SUB_ASTEROID_VELOCITY_FACTOR)
, m_RotationSpeed(getRandomRotationSpeed() * SUB_ASTEROID_ROTATION_SPEED_FACTOR)
, m_Speed(getRandomSpeed() * SUB_ASTEROID_SPEED_FACTOR)
, m_Type(type)
, m_HasBeenStruck(false)
{
setupSprite();
setupShape();
}
Particle::Particle(int numberOfApsDeployed, int maxSpeed)
{
//qsrand((uint)QTime::currentTime().msec());
// asignar el valor unico del identificador del individuo
particleId = Simulation::getNewParticleId();
// se deben crear los 33 parametros
// C1,Min1,Max1,AP1,C2,Min2,Max2,AP2,...,C11,Min11,Max11,AP11
// base de datos sqlite
//QString database("/home/antonio/Copy/2014/pgcomp/ia/gridCells/gridCells/test_18.1.db");
//QString database("/home/antonio/desarrollo/iaa/git/omocac/test_18.1.db");
QString database("test_18.1.db");
// tipo de experimento para extraer las muestras: full -> full scanning
QString experiment("full");
Scan scan(database.toStdString(),experiment.toStdString());
scan.init();
//Scan::ScanResults results = scan.execute(11, 10, 30);
Scan::ScanResults results;
std::cout << results.size() << " results: " << std::endl;
int randomChannel = 0;
double minChannelTime = 0;
double maxChannelTime = 0;
for (int i=0; i<11; i++)
{
randomChannel = getRandomChannel();
parametersList.append(randomChannel);
minChannelTime = getRandomMinChannelTime();
maxChannelTime = getRandomMaxChannelTime();
parametersList.append(minChannelTime);
parametersList.append(maxChannelTime);
//parametersList.append(getAPNumberOnChannel(numberOfApsDeployed, randomChannel));
//qDebug("**channel: %d, min: %f, max: %f",randomChannel, minChannelTime, maxChannelTime);
results = scan.execute(randomChannel, minChannelTime, maxChannelTime);
//qDebug("**numero de APs encontrados en el canal %d: %d",randomChannel, results.size());
//std::cout << " numero de APs encontrados en el canal: " << randomChannel << ": " << results.size() << std::endl;
//qDebug("**scan.execute(%d, %f, %f)=%d",randomChannel, minChannelTime, maxChannelTime, results.size());
parametersList.append(results.size());
wonMatchesCounter = 0;
}
// lista de velocidades por parametro
// ...
for (int i=0; i<44; i++)
{
velocitityList.append(getRandomSpeed(maxSpeed));
}
// calcular el valor de desempeno para el individuo
calculatePerformanceValue();
// calcular el valor de desempeno para la descubierta
//setPerformanceDiscovery(getRandomMaxChannelTime());
calculateDiscoveryValue();
// calcular el valor de desempeno para la latencia
//setPerformanceLatency(getRandomMaxChannelTime());
calculateLatencyValue();
// inicializar el diccionario de canales utilizados en el vuelo en falso
for (int i=1; i<=11;i++)
{
channelsUsedForFly[i]=false;
}
}
