int run(int round, bool tracking, bool skipUntracked) {
runge_kutta_dopri5<Phase> stepper;
auto ctrdStepper = make_controlled(absoluteStepperError, relativeStepperError, stepper);
Simulator<decltype(ctrdStepper)> simulator(ctrdStepper, &bbsystem);
uniform_real_distribution<double> distributionNullB2Max(0, b2max);
double b = sqrt(distributionNullB2Max(randomEngine));
hydrogen->randomize(randomEngine);
hydrogen->setPosition(vector3D(0, 0, 0));
hydrogen->setVelocity(vector3D(0, 0, 0));
bbsystem.setBodyPosition(projectile, vector3D(0, b, -50.0));
bbsystem.setBodyVelocity(projectile, vector3D(0, 0, projectileVelocity));
if (skipUntracked && !tracking) {
return 0;
}
stream << bbsystem.phase;
stream.flush();
if (tracking) {
printer = new Printer(to_string(round) + ".csv");
printer->addField(&printField);
simulator.setObserver(*printer);
}
if (condition->evaluate(bbsystem.phase, 0)) {
stream << "\t" << "Initial condition error" << endl;
return -3;
}
double energy = bbsystem.getSystemEnergy();
double time = simulator.simulate(0.0, 1.0, 0.0001, *condition, 100);
bool eBoundToTarget;
bool eBoundToProjec;
while (true) {
if (time < 0.0) {
stream << "\t" << "Distance not reached error" << endl;
return -1;
}
if (abs((energy - bbsystem.getSystemEnergy()) / energy) > relativeEnergyError) {
stream << "\t" << "Energy error: " << energy << " vs. " << bbsystem.getSystemEnergy() << endl;
return -2;
}
eBoundToTarget = Utils::isBound(bbsystem, hydrogen->getElectron("1s1"), hydrogen->getNucleus());
eBoundToProjec = Utils::isBound(bbsystem, hydrogen->getElectron("1s1"), projectile);
if (!eBoundToTarget || !eBoundToProjec) {
break;
}
stream << " " << round << " Extend Run";
simulator.simulate(time, time + 1.0, 0.0001);
time += 1.0;
extended++;
}
if (eBoundToTarget && !eBoundToProjec) {
stream << endl;
}
if (!eBoundToTarget && eBoundToProjec) {
stream << "\t" << round << " --> Electron Capture" << endl;
ecapture++;
}
if (!eBoundToTarget && !eBoundToProjec) {
stream << "\t" << round << " --> Ionization" << endl;
ionization++;
}
if (printer != nullptr)
delete printer;
stream.flush();
return 0;
}
int run(int round, bool tracking, bool skipUntracked) {
runge_kutta_dopri5<Phase> stepper;
auto ctrdStepper = make_controlled(absoluteStepperError, relativeStepperError, stepper);
Simulator<decltype(ctrdStepper)> simulator(ctrdStepper, &bbsystem);
uniform_real_distribution<double> distributionNullB2Max(0, b2max);
double b = sqrt(distributionNullB2Max(randomEngine));
helium->randomize(randomEngine);
helium->setPosition(vector3D(0, 0, 0));
helium->setVelocity(vector3D(0, 0, 0));
bbsystem.setBodyPosition(projectile, vector3D(0, b, -initialDistance));
bbsystem.setBodyVelocity(projectile, vector3D(0, 0, projectileVelocity));
DistanceCondition condition(projectile, helium->getNucleus(), initialDistance + 1.0);
if (skipUntracked && !tracking) {
return 0;
}
stream << bbsystem.phase;
stream.flush();
if (tracking) {
printer = new Printer(to_string(round) + ".csv");
printer->addField(&printField);
simulator.setObserver(*printer);
}
if (condition.evaluate(bbsystem.phase, 0)) {
stream << "\t" << "Initial condition error" << endl;
return -3;
}
int maxRounds = (int) (1.2 * (2.0 * initialDistance + 1.0) / projectileVelocity + 1.0);
double energy = bbsystem.getSystemEnergy();
double time = simulator.simulate(0.0, 1.0, 0.0001, condition, maxRounds);
bool e1s1BoundToTarget, e1s2BoundToTarget;
bool e1s1BoundToProjec, e1s2BoundToProjec;
while (true) {
if (time < 0.0) {
stream << "\t" << "Distance not reached error" << endl;
return -1;
}
if (abs((energy - bbsystem.getSystemEnergy()) / energy) > relativeEnergyError) {
stream << "\t" << "Energy error: " << energy << " vs. " << bbsystem.getSystemEnergy() << endl;
return -2;
}
e1s1BoundToTarget = Utils::isBound(bbsystem, helium->getElectron("1s1"), helium->getNucleus());
e1s2BoundToTarget = Utils::isBound(bbsystem, helium->getElectron("1s2"), helium->getNucleus());
e1s1BoundToProjec = Utils::isBound(bbsystem, helium->getElectron("1s1"), projectile);
e1s2BoundToProjec = Utils::isBound(bbsystem, helium->getElectron("1s2"), projectile);
if ((!e1s1BoundToTarget || !e1s1BoundToProjec) && (!e1s2BoundToTarget || !e1s2BoundToProjec)) {
break;
}
stream << " " << round << " Extend Run";
simulator.simulate(time, time + 1.0, 0.0001);
time += 1.0;
extended++;
}
string bindings;
for (bool bound : { e1s1BoundToTarget, e1s2BoundToTarget, e1s1BoundToProjec, e1s2BoundToProjec }) {
if (bound)
bindings.append("-");
else
bindings.append("+");
}
switch (Utils::hash(bindings.c_str())) {
case Utils::hash("--++"):
stream << endl;
break;
case Utils::hash("+-++"):
case Utils::hash("-+++"):
stream << "\t" << round << " --> Single Ionization" << endl;
ionization1++;
break;
case Utils::hash("++++"):
stream << "\t" << round << " --> Dual Ionization" << endl;
ionization2++;
break;
case Utils::hash("+--+"):
case Utils::hash("-++-"):
stream << "\t" << round << " --> Single electron Capture" << endl;
ecapture1++;
break;
case Utils::hash("++--"):
stream << "\t" << round << " --> Dual electron Capture" << endl;
ecapture2++;
break;
case Utils::hash("++-+"):
case Utils::hash("+++-"):
stream << "\t" << round << " --> Ionization And Capture" << endl;
ionizationAndCapture++;
break;
default:
throw std::logic_error("Unhandled energy configuration.");
}
if (printer != nullptr)
delete printer;
stream.flush();
return 0;
}