int math_randomseed(lua_State *L){
switch (lua_gettop(L)){
case 0:{
intgen.seed(ndrng());
break;
}
case 1:{
DWORD seed_value = luaL_checkint(L, 1);
intgen.seed(seed_value);
break;
}
default: return luaL_error(L, "math_randomseed: wrong number of arguments");
}
return 0;
}
int main(int argc, char **argv) {
// Number of random expressions to test.
const int count = 1000;
// Depth of the randomly generated expression trees.
const int depth = 5;
// Number of samples to test the generated expressions for.
const int samples = 3;
// We want different fuzz tests every time, to increase coverage.
// We also report the seed to enable reproducing failures.
int fuzz_seed = argc > 1 ? atoi(argv[1]) : time(nullptr);
rng.seed(fuzz_seed);
std::cout << "Simplify fuzz test seed: " << fuzz_seed << std::endl;
int max_fuzz_vector_width = 4;
for (int i = 0; i < fuzz_type_count; i++) {
Type T = fuzz_types[i];
for (int w = 1; w < max_fuzz_vector_width; w *= 2) {
Type VT = T.with_lanes(w);
for (int n = 0; n < count; n++) {
// Generate a random expr...
Expr test = random_expr(VT, depth);
if (!test_expression(test, samples)) {
return -1;
}
}
}
}
std::cout << "Success!" << std::endl;
return 0;
}
double getDummyLoopClock(size_t n, size_t bitLen)
{
uint64_t ret = 0;
Xbyak::util::Clock clk;
#ifdef USE_C11
g_rg.seed(0);
std::uniform_int_distribution<uint64_t> dist(0, (1ULL << bitLen) - 1);
#else
XorShift128 r;
const uint64_t mask = (1ULL << bitLen) - 1;
#endif
const int lp = 5;
for (int i = 0; i < lp; i++) {
clk.begin();
for (size_t i = 0; i < n; i++) {
#ifdef USE_C11
uint64_t v = dist(g_rg);
#else
uint64_t v = r.get64();
v += r.get() >> 5;
v &= mask;
#endif
ret += v;
}
clk.end();
}
printf("(%llx)", (long long)ret);
return clk.getClock() / double(n) / lp;
}
void init(dynamo::Simulation& Sim, const double density)
{
RNG.seed(std::random_device()());
Sim.ranGenerator.seed(std::random_device()());
Sim.dynamics = dynamo::shared_ptr<dynamo::Dynamics>(new dynamo::DynGravity(&Sim, dynamo::Vector(0,-1,0)));
Sim.BCs = dynamo::shared_ptr<dynamo::BoundaryCondition>(new dynamo::BCNone(&Sim));
Sim.ptrScheduler = dynamo::shared_ptr<dynamo::SNeighbourList>(new dynamo::SNeighbourList(&Sim, new dynamo::FELCBT()));
Sim.primaryCellSize = dynamo::Vector(52,52,52);
Sim.addSpecies(dynamo::shared_ptr<dynamo::Species>(new dynamo::SpPoint(&Sim, new dynamo::IDRangeRange(0, 0), 1.0, "Bulk", 0)));
Sim.addSpecies(dynamo::shared_ptr<dynamo::Species>(new dynamo::SpFixedCollider(&Sim, new dynamo::IDRangeRange(1, 8), "FixedColliders", 1)));
Sim.interactions.push_back(dynamo::shared_ptr<dynamo::Interaction>(new dynamo::IHardSphere(&Sim, 1.0, 1, new dynamo::IDPairRangeAll(), "Bulk")));
Sim.locals.push_back(dynamo::shared_ptr<dynamo::Local>(new dynamo::LWall(&Sim, 1.0, 1.0, dynamo::Vector(0,1,0), dynamo::Vector(0,-2.67753263802375e+01,0), "GroundPlate", new dynamo::IDRangeAll(&Sim))));
Sim.particles.push_back(dynamo::Particle(dynamo::Vector(0, 4, 0), dynamo::Vector(0,0,0), Sim.particles.size()));
Sim.particles.push_back(dynamo::Particle(dynamo::Vector(0.6, 1, 0), dynamo::Vector(0,0,0), Sim.particles.size()));
Sim.particles.push_back(dynamo::Particle(dynamo::Vector(-1.51, 1, 0), dynamo::Vector(0,0,0), Sim.particles.size()));
Sim.particles.push_back(dynamo::Particle(dynamo::Vector(-2.51, 1.5, 0), dynamo::Vector(0,0,0), Sim.particles.size()));
Sim.particles.push_back(dynamo::Particle(dynamo::Vector(-3.51, 2, 0), dynamo::Vector(0,0,0), Sim.particles.size()));
Sim.particles.push_back(dynamo::Particle(dynamo::Vector(-3.51, 3.5, 0), dynamo::Vector(0,0,0), Sim.particles.size()));
Sim.particles.push_back(dynamo::Particle(dynamo::Vector(1.6, 2, 0), dynamo::Vector(0,0,0), Sim.particles.size()));
Sim.particles.push_back(dynamo::Particle(dynamo::Vector(2, 3.5, 0), dynamo::Vector(0,0,0), Sim.particles.size()));
Sim.particles.push_back(dynamo::Particle(dynamo::Vector(-0.75, 0.5, 0), dynamo::Vector(0,0,0), Sim.particles.size()));
Sim.ensemble = dynamo::Ensemble::loadEnsemble(Sim);
}
void runTest()
{
dynamo::Simulation Sim;
RNG.seed(std::random_device()());
Sim.ranGenerator.seed(std::random_device()());
Sim.dynamics = dynamo::shared_ptr<dynamo::Dynamics>(new dynamo::DynNewtonian(&Sim));
Sim.BCs = dynamo::shared_ptr<dynamo::BoundaryCondition>(new dynamo::BCPeriodic(&Sim));
Sim.ptrScheduler = dynamo::shared_ptr<dynamo::Scheduler>(new Scheduler(&Sim, new Sorter()));
Sim.primaryCellSize = dynamo::Vector(11,11,11);
Sim.interactions.push_back(dynamo::shared_ptr<dynamo::Interaction>(new dynamo::IHardSphere(&Sim, 1.0, 1.0, new dynamo::IDPairRangeAll(), "Bulk")));
Sim.addSpecies(dynamo::shared_ptr<dynamo::Species>(new dynamo::SpPoint(&Sim, new dynamo::IDRangeAll(&Sim), 1.0, "Bulk", 0)));
Sim.particles.push_back(dynamo::Particle(dynamo::Vector{0.1,0,0}, dynamo::Vector{0,0,0}, Sim.particles.size()));
Sim.particles.push_back(dynamo::Particle(dynamo::Vector{1.1,0,0}, dynamo::Vector{1,0,0}, Sim.particles.size()));
Sim.particles.push_back(dynamo::Particle(dynamo::Vector{3.1,0,0}, dynamo::Vector{0,0,0}, Sim.particles.size()));
Sim.particles.push_back(dynamo::Particle(dynamo::Vector{5.1,0,0}, dynamo::Vector{0,0,0}, Sim.particles.size()));
Sim.particles.push_back(dynamo::Particle(dynamo::Vector{7.1,0,0}, dynamo::Vector{0,0,0}, Sim.particles.size()));
Sim.particles.push_back(dynamo::Particle(dynamo::Vector{9.1,0,0}, dynamo::Vector{0,0,0}, Sim.particles.size()));
Sim.ensemble = dynamo::Ensemble::loadEnsemble(Sim);
Sim.endEventCount = 1000;
Sim.addOutputPlugin("Misc");
Sim.initialise();
while (Sim.runSimulationStep()) {}
//Grab the output plugins
dynamo::OPMisc& opMisc = *Sim.getOutputPlugin<dynamo::OPMisc>();
//Check the mean free time is roughly what is expected
double MFT = opMisc.getMFT();
BOOST_CHECK_CLOSE(MFT, 3, 0.000001);
BOOST_CHECK_MESSAGE(Sim.checkSystem() <= 1, "There are more than one invalid states in the final configuration");
}
int main(int argc, char *argv[]) {
const int test_size = 4096 * 2;
std::normal_distribution<float> dist(0.5f, 0.5f);
rng.seed(0);
float *r_values = nullptr;
float *ret = nullptr;
float *ret2 = nullptr;
double sum = 0.0f;
std::function<float()> rnd = std::bind(dist, rng);
r_values = static_cast<float*>(_mm_malloc(sizeof(float) * test_size, 32));
ret = static_cast<float*>(_mm_malloc(sizeof(float) * test_size, 32));
ret2 = static_cast<float*>(_mm_malloc(sizeof(float) * test_size, 32));
if (!(r_values && ret && ret2))
goto exit;
std::generate_n(r_values, test_size, rnd);
for (int i = 0; i < 100000; ++i) {
polynomial(ret, r_values, test_size);
// polynomial(ret2, ret, test_size);
sum = std::accumulate(ret, ret + test_size, sum);
}
std::cout << sum << std::endl;
exit:
_mm_free(r_values);
_mm_free(ret);
_mm_free(ret2);
}
/**
* Create and seed the RNG
*/
RandomGenerator() {
std::random_device rd;
std::mt19937::result_type random_data[std::mt19937::state_size];
std::generate(std::begin(random_data), std::end(random_data), std::ref(rd));
std::seed_seq seeds(std::begin(random_data), std::end(random_data));
_mt.seed(seeds);
}
INLINE void SeedRNG()
{
if (!s_rngSeeded)
{
s_randomNumberGenerator.seed((unsigned long)getMSTime());
s_rngSeeded = true;
}
}
void init(v8::Local<v8::Object> target)
{
gen.seed(static_cast<unsigned long>(
std::chrono::high_resolution_clock::now().time_since_epoch().count()));
target->Set(Nan::New("rand").ToLocalChecked(),
Nan::New<v8::FunctionTemplate>(rand)->GetFunction());
target->Set(Nan::New("srand").ToLocalChecked(),
Nan::New<v8::FunctionTemplate>(srand)->GetFunction());
}
float randfloat()
{
if (!init_rand)
{
device.seed(time(0));
init_rand = true;
}
return (float)distribution(device);
}
void
initialize(
uint32_t seed
)
{
TRACE_MESSAGE(TRACE_LEVEL_VERBOSE, "+sola::component::random::initialize");
SERIALIZE_CALL(std::recursive_mutex, __random_lock);
std::srand((uint32_t) std::time(NULL));
if(seed == GENERATE_RANDOM_SEED) {
__random_generator.seed(rand());
} else {
__random_generator.seed(seed);
}
__random_initialized = true;
TRACE_MESSAGE(TRACE_LEVEL_VERBOSE, "-sola::component::random::initialize");
}
/**
* Set the random seed used by the random functions (Random() and RandInt()).
* The seed is casted to a 32-bit integer before being given to the random
* number generator, but a size_t is taken as a parameter for API consistency.
*
* @param seed Seed for the random number generator.
*/
inline void RandomSeed(const size_t seed)
{
randGen.seed((uint32_t) seed);
srand((unsigned int) seed);
#if ARMA_VERSION_MAJOR > 3 || \
(ARMA_VERSION_MAJOR == 3 && ARMA_VERSION_MINOR >= 930)
// Armadillo >= 3.930 has its own random number generator internally that we
// need to set the seed for also.
arma::arma_rng::set_seed(seed);
#endif
}
int GameMain()
{
s_rng.seed(1729);
TestConstructors();
TestMembers();
TestNonMembers();
TestOperators();
Sleep(1000);
return 0;
}
int randint(int min, int max)
{
if (!init_rand)
{
device.seed(time(0));
init_rand = true;
}
if (min>max) return 0;
std::uniform_int_distribution<int> uni(min, max);
return uni(device);
}
int main(){
const int seed=3,n=100;
const double tol=std::numeric_limits<float>::min();
std::mt19937 mt;
mt.seed(seed);
float x[n];
for (int i=0; i<n; i++) x[i]=moare_random(9)*1.0f;
int j=0;
for(int i=0;i<n;i++) j+=abs(x[i])<tol;
std::cout<< j << std::endl;
return 0;
}
void init(dynamo::Simulation& Sim, const double density)
{
RNG.seed(std::random_device()());
Sim.ranGenerator.seed(std::random_device()());
const double elasticity = 1.0;
const size_t cells = 7;
const double wallkT = 1.0;
std::unique_ptr<dynamo::UCell> packptr(new dynamo::CUFCC(std::array<long, 3>{{cells, cells, cells}}, dynamo::Vector(1,1,1), new dynamo::UParticle()));
packptr->initialise();
std::vector<dynamo::Vector> latticeSites(packptr->placeObjects(dynamo::Vector(0,0,0)));
const size_t N = latticeSites.size();
const double boxL = std::cbrt(N / density);
Sim.primaryCellSize = dynamo::Vector(boxL, boxL, boxL);
dynamo::shared_ptr<dynamo::ParticleProperty> D(new dynamo::ParticleProperty(N, dynamo::Property::Units::Length(), "D", 1.0));
dynamo::shared_ptr<dynamo::ParticleProperty> M(new dynamo::ParticleProperty(N, dynamo::Property::Units::Mass(), "M", 1.0));
Sim._properties.push(D);
Sim._properties.push(M);
Sim.dynamics = dynamo::shared_ptr<dynamo::Dynamics>(new dynamo::DynGravity(&Sim, dynamo::Vector(0, -1, 0)));
Sim.BCs = dynamo::shared_ptr<dynamo::BoundaryCondition>(new dynamo::BCNone(&Sim));
Sim.ptrScheduler = dynamo::shared_ptr<dynamo::SNeighbourList>(new dynamo::SNeighbourList(&Sim, new dynamo::FELBoundedPQ<dynamo::PELMinMax<3> >()));
Sim.interactions.push_back(dynamo::shared_ptr<dynamo::Interaction>(new dynamo::IHardSphere(&Sim, "D", elasticity, new dynamo::IDPairRangeAll(), "Bulk")));
Sim.addSpecies(dynamo::shared_ptr<dynamo::Species>(new dynamo::SpPoint(&Sim, new dynamo::IDRangeAll(&Sim), "M", "Bulk", 0)));
Sim.locals.push_back(dynamo::shared_ptr<dynamo::Local>(new dynamo::LWall(&Sim, elasticity, "D", dynamo::Vector(1, 0, 0), dynamo::Vector(-0.5 * Sim.primaryCellSize[0] - 1, 0, 0), "XwallLow", new dynamo::IDRangeAll(&Sim))));
Sim.locals.push_back(dynamo::shared_ptr<dynamo::Local>(new dynamo::LWall(&Sim, elasticity, "D", dynamo::Vector(-1, 0, 0), dynamo::Vector(0.5 * Sim.primaryCellSize[0] + 1, 0, 0), "XwallHigh", new dynamo::IDRangeAll(&Sim))));
Sim.locals.push_back(dynamo::shared_ptr<dynamo::Local>(new dynamo::LWall(&Sim, elasticity, "D", dynamo::Vector(0, 0, 1), dynamo::Vector(0, 0, -0.5 * Sim.primaryCellSize[2] - 1), "ZwallLow", new dynamo::IDRangeAll(&Sim))));
Sim.locals.push_back(dynamo::shared_ptr<dynamo::Local>(new dynamo::LWall(&Sim, elasticity, "D", dynamo::Vector(0, 0, -1), dynamo::Vector(0, 0, 0.5 * Sim.primaryCellSize[2] + 1), "ZwallHigh", new dynamo::IDRangeAll(&Sim))));
Sim.locals.push_back(dynamo::shared_ptr<dynamo::Local>(new dynamo::LWall(&Sim, elasticity, "D", dynamo::Vector(0, 1, 0), dynamo::Vector(0, - 0.5 * Sim.primaryCellSize[1] - 1, 0), "GroundPlate", new dynamo::IDRangeAll(&Sim), wallkT)));
for (size_t i(0); i < latticeSites.size(); ++i)
{
Sim.particles.push_back(dynamo::Particle(boxL * latticeSites[i], getRandVelVec(), Sim.particles.size()));
D->getProperty(i) = (i < 100) ? 1 : 0.5;
M->getProperty(i) = (i < 100) ? 1 : 0.5 * 0.5 * 0.5;
}
Sim.ensemble = dynamo::Ensemble::loadEnsemble(Sim);
dynamo::InputPlugin(&Sim, "Rescaler").zeroMomentum();
dynamo::InputPlugin(&Sim, "Rescaler").rescaleVels(1.0);
BOOST_CHECK_EQUAL(Sim.N(), 1372);
BOOST_CHECK_CLOSE(Sim.getNumberDensity() * Sim.units.unitVolume(), density, 0.000000001);
}
void init(dynamo::Simulation& Sim, const double density)
{
RNG.seed(std::random_device()());
Sim.ranGenerator.seed(std::random_device()());
Sim.dynamics = dynamo::shared_ptr<dynamo::Dynamics>(new dynamo::DynNewtonian(&Sim));
Sim.BCs = dynamo::shared_ptr<dynamo::BoundaryCondition>(new dynamo::BCPeriodic(&Sim));
Sim.ptrScheduler = dynamo::shared_ptr<dynamo::SNeighbourList>(new dynamo::SNeighbourList(&Sim, new DefaultSorter()));
std::unique_ptr<dynamo::UCell> packptr(new dynamo::CUSC(std::array<long, 3>{{128, 128, 1}}, dynamo::Vector{1,1,1}, new dynamo::UParticle()));
packptr->initialise();
std::vector<dynamo::Vector> latticeSites(packptr->placeObjects(dynamo::Vector{0,0,0}));
//As we're in 2D we need to take the square root
double particleDiam = std::sqrt(density / latticeSites.size());
Sim.units.setUnitLength(particleDiam);
Sim.units.setUnitTime(particleDiam);
Sim.primaryCellSize = dynamo::Vector{1, 1, 4 * particleDiam};
typedef std::pair<double,double> Step;
std::vector<Step> steps;
steps.push_back(Step{1.0,0.1});
steps.push_back(Step{0.9,0.2});
steps.push_back(Step{0.8,0.3});
steps.push_back(Step{0.7,0.4});
steps.push_back(Step{0.6,0.5});
steps.push_back(Step{0.5,0.6});
steps.push_back(Step{0.4,0.7});
steps.push_back(Step{0.3,0.8});
steps.push_back(Step{0.2,0.9});
steps.push_back(Step{0.1,1.0});
Sim.interactions.push_back(dynamo::shared_ptr<dynamo::Interaction>(new dynamo::IStepped(&Sim, dynamo::shared_ptr<dynamo::Potential>(new dynamo::PotentialStepped(steps, false)), new dynamo::IDPairRangeAll(), "Bulk", particleDiam, 1.0)));
Sim.addSpecies(dynamo::shared_ptr<dynamo::Species>(new dynamo::SpPoint(&Sim, new dynamo::IDRangeAll(&Sim), 1.0, "Bulk", 0)));
unsigned long nParticles = 0;
Sim.particles.reserve(latticeSites.size());
for (const dynamo::Vector & position : latticeSites)
Sim.particles.push_back(dynamo::Particle(position, getRandVelVec() * Sim.units.unitVelocity(), nParticles++));
for (auto& particle : Sim.particles)
particle.getVelocity()[2] = 0;
dynamo::InputPlugin(&Sim, "Rescaler").zeroMomentum();
dynamo::InputPlugin(&Sim, "Rescaler").rescaleVels(2.0 / 3.0);
Sim.ensemble = dynamo::Ensemble::loadEnsemble(Sim);
BOOST_CHECK_EQUAL(Sim.N(), 128 * 128);
}
void init(dynamo::Simulation& Sim, const double density)
{
RNG.seed(std::random_device()());
Sim.ranGenerator.seed(std::random_device()());
double massFrac = 0.001, sizeRatio = 0.5;
size_t Na=100;
Sim.dynamics = dynamo::shared_ptr<dynamo::Dynamics>(new dynamo::DynNewtonian(&Sim));
Sim.BCs = dynamo::shared_ptr<dynamo::BoundaryCondition>(new dynamo::BCPeriodic(&Sim));
Sim.ptrScheduler = dynamo::shared_ptr<dynamo::SNeighbourList>(new dynamo::SNeighbourList(&Sim, new DefaultSorter()));
std::unique_ptr<dynamo::UCell> packptr(new dynamo::CUFCC(std::array<long, 3>{{10, 10, 10}}, dynamo::Vector(1, 1, 1), new dynamo::UParticle()));
packptr->initialise();
std::vector<dynamo::Vector> latticeSites(packptr->placeObjects(dynamo::Vector(0,0,0)));
Sim.primaryCellSize = dynamo::Vector(1,1,1);
double simVol = 1.0;
for (size_t iDim = 0; iDim < NDIM; ++iDim)
simVol *= Sim.primaryCellSize[iDim];
double particleDiam = std::cbrt(simVol * density / latticeSites.size());
Sim.interactions.push_back(dynamo::shared_ptr<dynamo::Interaction>(new dynamo::IHardSphere(&Sim, particleDiam, new dynamo::IDPairRangeSingle(new dynamo::IDRangeRange(0, Na - 1)), "AAInt")));
Sim.interactions.push_back(dynamo::shared_ptr<dynamo::Interaction>(new dynamo::IHardSphere(&Sim, ((1.0 + sizeRatio) / 2.0) * particleDiam, new dynamo::IDPairRangePair(new dynamo::IDRangeRange(0, Na - 1), new dynamo::IDRangeRange(Na, latticeSites.size() - 1)), "ABInt")));
Sim.interactions.push_back(dynamo::shared_ptr<dynamo::Interaction>(new dynamo::IHardSphere(&Sim, sizeRatio * particleDiam, new dynamo::IDPairRangeAll(), "BBInt")));
Sim.addSpecies(dynamo::shared_ptr<dynamo::Species>(new dynamo::SpPoint(&Sim, new dynamo::IDRangeRange(0, Na - 1), 1.0, "A", 0)));
Sim.addSpecies(dynamo::shared_ptr<dynamo::Species>(new dynamo::SpPoint(&Sim, new dynamo::IDRangeRange(Na, latticeSites.size() - 1), massFrac, "B", 0)));
Sim.units.setUnitLength(particleDiam);
unsigned long nParticles = 0;
Sim.particles.reserve(latticeSites.size());
for (const dynamo::Vector & position : latticeSites)
Sim.particles.push_back(dynamo::Particle(position, getRandVelVec() * Sim.units.unitVelocity(), nParticles++));
Sim.ensemble = dynamo::Ensemble::loadEnsemble(Sim);
dynamo::InputPlugin(&Sim, "Rescaler").zeroMomentum();
dynamo::InputPlugin(&Sim, "Rescaler").rescaleVels(1.0);
BOOST_CHECK_EQUAL(Sim.N(), 4000);
//BOOST_CHECK_CLOSE(Sim.getNumberDensity() * Sim.units.unitVolume(), density, 0.000000001);
//BOOST_CHECK_CLOSE(Sim.getPackingFraction(), Sim.getNumberDensity() * Sim.units.unitVolume() * M_PI / 6.0, 0.000000001);
}
int main(int argc, char** argv) {
rng.seed();
CALL(TEST_HashFunctions);
CALL(overview::TEST_Construction);
CALL(overview::TEST_Retreival);
CALL(overview::TEST_Resizing);
CALL(separate_chaining::TEST_Construction);
CALL(separate_chaining::TEST_Retreival);
CALL(open_addressing::TEST_Construction);
CALL(open_addressing::TEST_Retreival);
CALL(cuckoo::TEST_CuckooHashing);
CALL(TEST_MostCommon);
CALL(TEST_Cache);
return 0;
}
// -------------------------------------------------------------------------
int hpx_main(boost::program_options::variables_map& vm)
{
std::size_t device = vm["device"].as<std::size_t>();
std::size_t sizeMult = vm["sizemult"].as<std::size_t>();
std::size_t iterations = vm["iterations"].as<std::size_t>();
//
unsigned int seed = std::random_device{}();
if (vm.count("seed"))
seed = vm["seed"].as<unsigned int>();
gen.seed(seed);
std::cout << "using seed: " << seed << std::endl;
//
sizeMult = (std::min)(sizeMult, std::size_t(100));
sizeMult = (std::max)(sizeMult, std::size_t(1));
//
// use a larger block size for Fermi and above, query default cuda target properties
hpx::compute::cuda::target target(device);
std::cout
<< "GPU Device " << target.native_handle().get_device()
<< ": \"" << target.native_handle().processor_name() << "\" "
<< "with compute capability " << target.native_handle().processor_family()
<< "\n";
int block_size = (target.native_handle().processor_family() < 2) ? 16 : 32;
sMatrixSize matrix_size;
matrix_size.uiWA = 2 * block_size * sizeMult;
matrix_size.uiHA = 4 * block_size * sizeMult;
matrix_size.uiWB = 2 * block_size * sizeMult;
matrix_size.uiHB = 4 * block_size * sizeMult;
matrix_size.uiWC = 2 * block_size * sizeMult;
matrix_size.uiHC = 4 * block_size * sizeMult;
printf("MatrixA(%u,%u), MatrixB(%u,%u), MatrixC(%u,%u)\n\n",
matrix_size.uiWA, matrix_size.uiHA,
matrix_size.uiWB, matrix_size.uiHB,
matrix_size.uiWC, matrix_size.uiHC);
matrixMultiply<float>(matrix_size, device, iterations);
return hpx::finalize();
}
void init(dynamo::Simulation& Sim, double density = 0.5)
{
RNG.seed(std::random_device()());
Sim.ranGenerator.seed(std::random_device()());
const double elasticity = 1.0;
const double lambda = 1.5;
const double welldepth = 1.0;
Sim.dynamics = dynamo::shared_ptr<dynamo::Dynamics>(new dynamo::DynNewtonian(&Sim));
Sim.BCs = dynamo::shared_ptr<dynamo::BoundaryCondition>(new dynamo::BCPeriodic(&Sim));
Sim.ptrScheduler = dynamo::shared_ptr<dynamo::SNeighbourList>(new dynamo::SNeighbourList(&Sim, new DefaultSorter()));
std::unique_ptr<dynamo::UCell> packptr(new dynamo::CUFCC(std::array<long, 3>{{7,7,7}}, dynamo::Vector(1,1,1), new dynamo::UParticle()));
packptr->initialise();
std::vector<dynamo::Vector> latticeSites(packptr->placeObjects(dynamo::Vector(0,0,0)));
Sim.primaryCellSize = dynamo::Vector(1,1,1);
double simVol = 1.0;
for (size_t iDim = 0; iDim < NDIM; ++iDim)
simVol *= Sim.primaryCellSize[iDim];
double particleDiam = std::cbrt(simVol * density / latticeSites.size());
Sim.interactions.push_back(dynamo::shared_ptr<dynamo::Interaction>(new dynamo::ISquareWell(&Sim, particleDiam, lambda, welldepth, elasticity, new dynamo::IDPairRangeAll(), "Bulk")));
Sim.addSpecies(dynamo::shared_ptr<dynamo::Species>(new dynamo::SpPoint(&Sim, new dynamo::IDRangeAll(&Sim), 1.0, "Bulk", 0)));
Sim.units.setUnitLength(particleDiam);
Sim.units.setUnitTime(particleDiam);
unsigned long nParticles = 0;
Sim.particles.reserve(latticeSites.size());
for (const dynamo::Vector & position : latticeSites)
Sim.particles.push_back(dynamo::Particle(position, getRandVelVec() * Sim.units.unitVelocity(), nParticles++));
Sim.ensemble = dynamo::Ensemble::loadEnsemble(Sim);
dynamo::InputPlugin(&Sim, "Rescaler").zeroMomentum();
dynamo::InputPlugin(&Sim, "Rescaler").rescaleVels(1.0);
BOOST_CHECK_EQUAL(Sim.N(), 1372);
BOOST_CHECK_CLOSE(Sim.getNumberDensity() * Sim.units.unitVolume(), density, 0.000000001);
BOOST_CHECK_CLOSE(Sim.getPackingFraction(), Sim.getNumberDensity() * Sim.units.unitVolume() * M_PI / 6.0, 0.000000001);
}
Random::Random(UInt64 seed) {
if (seed == 0) {
if( !static_gen_seeded ) {
#if NDEBUG
unsigned int static_seed = (unsigned int)std::chrono::system_clock::now().time_since_epoch().count();
#else
unsigned int static_seed = DEBUG_RANDOM_SEED;
#endif
static_gen.seed( static_seed );
static_gen_seeded = true;
NTA_INFO << "Random seed: " << static_seed;
}
seed_ = static_gen(); //generate random value from HW RNG
} else {
seed_ = seed;
}
// if seed is zero at this point, there is a logic error.
NTA_CHECK(seed_ != 0);
gen.seed((unsigned int)seed_); //seed the generator
steps_ = 0;
}
void use_graph_generator(const vle::devs::InitEventList& events)
{
model_number = events.getInt("model-number");
std::string generator_name = events.getString("graph-generator");
if (events.exist("graph-seed"))
generator.seed(events.getInt("graph-seed"));
if (generator_name == "defined")
use_defined_graph_generator(events);
else if (generator_name == "small-world")
use_smallworld_graph_generator(events);
else if (generator_name == "scale-free")
use_scalefree_graph_generator(events);
else if (generator_name == "sorted-erdos-renyi")
use_sortederdesrenyi_graph_generator(events);
else if (generator_name == "erdos_renyi")
use_erdosrenyi_graph_generator(events);
else
throw vle::utils::ModellingError("Unknown graph gererator: %s",
generator_name.c_str());
}
void init(dynamo::Simulation& Sim, const double density)
{
RNG.seed(std::random_device()());
Sim.ranGenerator.seed(std::random_device()());
const double elasticity = 1.0;
const size_t N = 1000;
Sim.dynamics = dynamo::shared_ptr<dynamo::Dynamics>(new dynamo::DynNewtonian(&Sim));
Sim.BCs = dynamo::shared_ptr<dynamo::BoundaryCondition>(new dynamo::BCPeriodic(&Sim));
Sim.ptrScheduler = dynamo::shared_ptr<dynamo::SNeighbourList>(new dynamo::SNeighbourList(&Sim, new DefaultSorter()));
dynamo::CURandom packroutine(N, dynamo::Vector{1,1,1}, new dynamo::UParticle());
packroutine.initialise();
std::vector<dynamo::Vector> latticeSites(packroutine.placeObjects(dynamo::Vector{0,0,0}));
Sim.BCs = dynamo::shared_ptr<dynamo::BoundaryCondition>(new dynamo::BCPeriodic(&Sim));
double particleDiam = std::cbrt(density / N);
Sim.interactions.push_back(dynamo::shared_ptr<dynamo::Interaction>(new dynamo::ILines(&Sim, particleDiam, elasticity, new dynamo::IDPairRangeAll(), "Bulk")));
Sim.addSpecies(dynamo::shared_ptr<dynamo::Species>(new dynamo::SpSphericalTop(&Sim, new dynamo::IDRangeAll(&Sim), 1.0, "Bulk", 0, particleDiam * particleDiam / 12.0)));
Sim.units.setUnitLength(particleDiam);
unsigned long nParticles = 0;
Sim.particles.reserve(latticeSites.size());
for (const dynamo::Vector & position : latticeSites)
Sim.particles.push_back(dynamo::Particle(position, getRandVelVec() * Sim.units.unitVelocity(), nParticles++));
Sim.dynamics->initOrientations();
Sim.ensemble = dynamo::Ensemble::loadEnsemble(Sim);
dynamo::InputPlugin(&Sim, "Rescaler").zeroMomentum();
dynamo::InputPlugin(&Sim, "Rescaler").rescaleVels(1.0);
BOOST_CHECK_EQUAL(Sim.N(), N);
BOOST_CHECK_CLOSE(Sim.getNumberDensity() * Sim.units.unitVolume(), density, 0.000000001);
BOOST_CHECK_CLOSE(Sim.getPackingFraction(), 0, 0.000000001);
}
void init() {
r.seed((unsigned)std::chrono::system_clock::now().time_since_epoch().count());
}
int main(int argc, char * argv[])
{
for(int i = 0; i <14; i++)
{
cout << " " << endl;
}
cout << "Welcome, my friend to the simplistic game of Trinity's Nightmare. Here, you have" << endl <<
"reached a dungeon where you are alone, standing with only your car keys and a trash" << endl <<
"can lid that you found. This is also where the level where the real danger begins." << endl <<
"You have conquered the attic of man eating camels -- You have trudged through" << endl <<
"the muddy swamps of Dr. Heinz'science experiment of alligator-dogs, only to" << endl <<
"come face to face with the most recent obstacle of the fire-breathing" << endl <<
"coffee-ingesting cookie-stealing SQUIRRELS!! Now, hold on to your" << endl <<
"Mountain Dew and Pizza, buckle up into your basement chair, and" << endl <<
"change your profile picture to that of a face of fear, because" << endl <<
"here you go..." << endl;
cout << "To Play: " << endl;
cout << "Unless otherwise declaried, you will show up as @" << endl;
cout << "1.) Movement:" << endl;
cout << " a - moves the player left" << endl;
cout << " s - moves the player down" << endl;
cout << " d - moves the player right" << endl;
cout << " w - moves the player up" << endl;
cout << " EXTRA: DIAGONAL:"<< endl;
cout << " e - up to the right" << endl;
cout << " x - down to the right" << endl;
cout << " z - down to the left" << endl;
cout << " ` - up to the right" << endl << endl;
cout << "2.) Picking up and Using Items:" << endl;
cout << " p - pick up, and thus using" << endl;
cout << "3.) Attack:" << endl;
cout << " - Creatures will attack you if you are within one space of them." << endl;
cout << " - Weapons and Experience increase your attacking." << endl << endl;
cout << "q will allow you to Quit -- if you are a Quitter..." << endl << endl << endl;
mt.seed(time(NULL));
cout << "This is command line" << endl;
cout << "Arguments Given : " << argc << endl;
//load file into variable
string inFileName;
string outFileName;
ifstream input;
int inputValue = 0;
if (argc >= 3)
{
inFileName = argv[1];
outFileName = argv[2];
}
else
{
cout << "Enter a file name with .xml exstension: ";
cin >> inFileName;
cout << endl;
cout << "What do you want to name the output file? " ;
cin >> outFileName;
cout << endl;
}
if (argc >= 4)
{
inputValue = atoi(argv[3]);
}
else
{
cout << "How many random Dungeons do you you want generated? " ;
cin >> inputValue;
cout << endl;
}
if(!input.good())
{
cout << "No file by that name. Try Again. " << endl;
return 1;
}
input.open(inFileName.c_str());
//make vector using XMLSerializable pointer
vector<XMLSerializable*> vWorld;
//send variables to parseXML
parseXML(input, vWorld);
//dumpOntoConsole(vWorld);
//make output file
ofstream output;
bool creatureOccupied;
bool wallOccupied;
int tempX = 0;
int tempY = 0;
int thingTempX = 0;
int thingTempY = 0;
int playerX = 0;
int playerY = 0;
Player * pPlayer = new Player();
Weapon * punch = new Weapon();
Weapon * keys = new Weapon();
Armor * TrashCanLid = new Armor();
keys->setDamage(5);
keys->setAccuracy(2);
keys->setWeaponType("keychain");
keys->setName("Car Keys");
keys->setDisplayChar('x');
pPlayer->setWeapon(punch);
punch->setDamage(5);
punch->setAccuracy(5);
punch->setWeaponType("flesh");
TrashCanLid->setArmorValue(3);
TrashCanLid->setArmorType("trashlid");
TrashCanLid->setName("Trash Can Lid");
TrashCanLid->setDisplayChar('t');
pPlayer->setInventory(TrashCanLid);
pPlayer->setInventory(keys);
pPlayer->setExperience(0);
string sMove;
int dNum = 0;
int iNum = 0;
vector<DungeonLevel*> vDL;
vector<vector<Creature*>> vvCreatures;
vector<vector<vector<Item*>>> vvvItems;
bool nextFloor = true;
bool sameFloor = false;
bool prevFloor = false;
bool creatureTurn;
int monsterHP = 0;
int HP = 0;
int attack = 0;
int moveCount = 0;
bool bWeapon = true;
initscr();
noecho();
while(true)
{
clear();
if( nextFloor == true )
{
nextFloor = false;
if( sameFloor == false )
{
vDL.push_back(new DungeonLevel(79,20));
}
playerX = vDL[dNum]->upstairXCoord();
playerY = vDL[dNum]->upstairYCoord();
vvvItems.resize(dNum+1);
vvvItems[dNum].resize(5);
vvCreatures.resize(dNum+1);
if( sameFloor == false )
{
for(int i = 0 ; i<5; i++)
{
//Creature * pCreature = CreatureFactory::instance().generateCreature(4);
vvCreatures[dNum].push_back(CreatureFactory::instance().generateCreature((vDL.size())*2));
while(true)
{
thingTempX = mt() % 79;
thingTempY = mt() % 20;
wallOccupied = vDL[dNum]->checkMove(thingTempX, thingTempY);
if( wallOccupied == true )
{
vDL[dNum]->setCreature(vvCreatures[dNum][i], thingTempX, thingTempY);
vvCreatures[dNum][i]->setCoords(thingTempX, thingTempY);
break;
}
}
iNum =( (mt() % 5) + 1 );
for( size_t j = 0 ; j < iNum ; j++ )
{
vvvItems[dNum][i].push_back(ItemFactory::instance().generateItem(vDL.size()*20));
}
while(true)
{
thingTempX = mt() % 79;
thingTempY = mt() % 20;
wallOccupied = vDL[dNum]->checkMove( thingTempX, thingTempY );
if( wallOccupied == true )
{
for( size_t j = 0 ; j < iNum ; j++ )
{
vDL[dNum]->setItems(vvvItems[dNum][i][j], thingTempX,thingTempY);
vvvItems[dNum][i][j]->setCoords(thingTempX, thingTempY);
}
break;
}
}
/*if( pCreature )
{
pCreature->dumpObject();
delete pCreature;
}*/
}
}
}
else if( prevFloor == true )
{
if( dNum < 0 )
{
break;
//cout << "You Escaped... because you ran away like a pansy. Good Job." << endl;
clear();
mvprintw(0,0,"You Escaped... because you ran away like a pansy. Good Job. ");
refresh();
}
prevFloor = false;
playerX = vDL[dNum]->downstairXCoord();
playerY = vDL[dNum]->downstairYCoord();
}
//dl.display();
//continue;
//cout << endl << "Final State: " << endl << endl;
tempX = playerX;
tempY = playerY;
vDL[dNum]->setCreature(pPlayer, playerX, playerY);
while(true)
{
if( moveCount % 10 == 0 )
{
if(pPlayer->getName() =="God")
{
pPlayer->setHP(1000000000);
}
else
{
if( pPlayer->getHP() < 97 )
{
pPlayer->setHP( pPlayer->getHP() + 3 );
}
}
}
if( moveCount == 20 )
{
vvCreatures[dNum].push_back(CreatureFactory::instance().generateCreature((vDL.size())*2));
while(true)
{
thingTempX = mt() % 79;
thingTempY = mt() % 20;
wallOccupied = vDL[dNum]->checkMove(thingTempX, thingTempY);
if( wallOccupied == true )
{
vDL[dNum]->setCreature(vvCreatures[dNum][vvCreatures.size()-1], thingTempX, thingTempY);
vvCreatures[dNum][vvCreatures.size()-1]->setCoords(thingTempX, thingTempY);
break;
}
}
}
do
{
for( size_t y = 0; y < 20 ; y++ )
{
for( size_t x = 0; x < 79 ; x++ )
{
move(y,x);
addch(vDL[dNum]->display(x,y));
}
refresh();
//cout << endl;
}
sMove = getch();
move(23,0);
clrtoeol();
move(24,0);
clrtoeol();
move(25,0);
clrtoeol();
move(26,0);
clrtoeol();
move(21,0);
clrtoeol();
//vDL[dNum]->display();
//refresh();
mvprintw(30,0,"Got it. Next? ");
//cout << endl <<"Got it, " << pPlayer->getName() << " What Next? ";
//getnstr(sMove, sizeof( users_name ) - 1 );
//cin >> sMove;
//cout << endl;
if( sMove == "w" )
{
//up
tempY--;
break;
}
else if( sMove == "s" )
{
//down
tempY++;
break;
}
else if( sMove == "a" )
{
//left
tempX--;
break;
}
else if( sMove == "d" )
{
//right
tempX++;
break;
}
else if( sMove == "e" )
{
//up to the right
tempX++;
tempY--;
break;
}
else if( sMove == "x" )
{
//down to the right
tempX++;
tempY++;
break;
}
else if( sMove == "z" )
{
//down to the left
tempX--;
tempY++;
break;
}
else if( sMove == "`" )
{
//up to the left
tempX--;
tempY--;
break;
}
else if( sMove == "q" )
{
clear();
mvprintw(0,0,"Really!? You just quit. Good going.");
break;
}
else if( sMove == ">" )
{
if( playerX == vDL[dNum]->downstairXCoord() && playerY == vDL[dNum]->downstairYCoord() )
{
clear();
nextFloor = true;
break;
}
pPlayer->setExperience(pPlayer->getExperience() + 5 * vDL.size());
}
else if( sMove == "<" )
{
if( playerX == vDL[dNum]->upstairXCoord() && playerY == vDL[dNum]->upstairYCoord() )
{
prevFloor = true;
break;
}
}
else if( sMove == "p" )
{
if( vDL[dNum]->checkItem(playerX, playerY) )
{
vDL[dNum]->pickUpItem(playerX, playerY);
if(pPlayer->getDropItem() != NULL)
{
vDL[dNum]->setItems(pPlayer->getDropItem(), playerX, playerY);
}
break;
}
}
else if( sMove == "l" )
{
pPlayer->setDropItem();
if( pPlayer->getDropItem() != NULL )
{
vDL[dNum]->setItems(pPlayer->getDropItem(), playerX, playerY);
}
}
else if( sMove == "u" )
{
pPlayer->getInventory();
}
else
{
//cout << endl << "What!? I try that again. I have no idea what you are trying to do." << endl;
mvprintw(21,0,"What!? I try that again. I have no idea what you are trying to do.");
}
mvprintw(50,0,"Got it, What Next? ");
refresh();
}while( sMove != "q" );
if( sMove == "q" )
{
//cout << endl << "Really!? You just quit. Good going." << endl;
break;
}
/////////////////////////////////////PLAYER MOVEMENT AND ATTACK///////////////////////////////////////////
for( size_t i = 0 ; i < vvCreatures[dNum].size() ; i++ )
{
if( vvCreatures[dNum][i]->getCoordX() == tempX && vvCreatures[dNum][i]->getCoordY() == tempY )
{
//cout << "creature occupied set to true" << endl;
creatureOccupied = true;
break;
}
}
wallOccupied = vDL[dNum]->DungeonLevel::checkMove(tempX,tempY);
if(wallOccupied == true && creatureOccupied == false && ( tempX <! 0 || tempX >! 79 || tempY <! 0 || tempY >! 20 ))
{
vDL[dNum]->removeCreature(playerX, playerY);
playerX = tempX;
playerY = tempY;
vDL[dNum]->setCreature(pPlayer, playerX, playerY);
creatureTurn = true;
}
else if( wallOccupied == true && creatureOccupied == true )
{
if( bWeapon == false )
{
attack = mt() % (pPlayer->getWeapon())->getDamage();
}
else
{
attack = mt() % (punch->getDamage());
}
HP = (vDL[dNum]->getCreature(tempX,tempY))->getHP();
//cout << endl << "Creature's HP before: " << HP << endl;
mvprintw(24,0,"Creature's HP before: %i", HP);
refresh();
(vDL[dNum]->getCreature(tempX,tempY))->setHP(HP - attack);
//cout << endl << pPlayer->getName() << " attacked " << (vDL[dNum]->getCreature(tempX, tempY))->getName() << " for " << attack << " damage " << endl;
if( HP - attack <= 0 )
{
for( int i = 0 ; i < vvCreatures[dNum].size() ; i++ )
{
if( vvCreatures[dNum][i]->getCoordX() == tempX && vvCreatures[dNum][i]->getCoordY() == tempY )
{
vDL[dNum]->removeCreature( vvCreatures[dNum][i]->getCoordX(), vvCreatures[dNum][i]->getCoordY() );
//cout << pPlayer->getName() << " killed " << vvCreatures[dNum][i]->getName() << "!" << endl;
mvprintw(27,0,"%s killed the creature!",pPlayer->getName().c_str());
delete vvCreatures[dNum][i];
vvCreatures[dNum].erase(vvCreatures[dNum].begin() + i);
break;
}
}
pPlayer->setExperience(pPlayer->getExperience() + vDL.size() * 5);
}
else
{
HP = (vDL[dNum]->getCreature(tempX,tempY))->getHP();
}
//cout << endl << "Creature's HP after: " << HP << endl;
mvprintw(26,0,"Creature's HP after: %i", HP);
refresh();
creatureOccupied = false;
tempX = playerX;
tempY = playerY;
}
else if(wallOccupied == false)
{
tempX = playerX;
tempY = playerY;
}
//cout << endl << pPlayer->getName() << "'s health is " << pPlayer->getHP() << endl;
mvprintw(30,0,"%s's health is %i.", pPlayer->getName().c_str(), pPlayer->getHP());
//cout << endl << "There are " << vvCreatures[dNum].size() << " creatures left on the field. " << endl;
mvprintw(31,0,"There are %i creatures left on the field. ", vvCreatures[dNum].size());
//cout << endl << pPlayer->getName() << " has " << pPlayer->getHP() << " Health and " << pPlayer->getExperience() << " Experience right now.";
mvprintw(32,0,"%s has %i Health and %i Experience right now.",pPlayer->getName().c_str(),pPlayer->getHP(),pPlayer->getExperience());
//cout << pPlayer->getName() << " killed the monster and gained experience!" << endl;
////////////////////////////////////MONSTER MOVEMENT AND ATTACK/////////////////////////////////////////////
for( size_t i = 0 ; i < vvCreatures[dNum].size() ; i++ )
{
thingTempX = vvCreatures[dNum][i]->getCoordX();
thingTempY = vvCreatures[dNum][i]->getCoordY();
//cout << endl << "Creature " << i << " moved from (" << thingTempX << ", " << thingTempY << ") to (";
//mvprintw("Creature %i moved from (%i,%i) to (", i,thingTempX,thingTempY);
refresh();
if( thingTempX < playerX )
{
thingTempX ++;
}
else if( thingTempX > playerX )
{
thingTempX --;
}
if( thingTempY < playerY )
{
thingTempY ++;
}
else if( thingTempY > playerY )
{
thingTempY --;
}
for( size_t j = 0 ; j < vvCreatures[dNum].size() ; j++ )
{
if( vvCreatures[dNum][j]->getCoordX() == thingTempX && vvCreatures[dNum][j]->getCoordY() == thingTempY )
{
creatureOccupied = true;
}
}
//cout << ")" << endl;
if(wallOccupied == false)
{
//vDL[dNum]->removeCreature(vvCreatures[dNum][i]->getCoordX(), vvCreatures[dNum][i]->getCoordY());
//cout << endl << "restraint" << endl;
mvprintw(23,50,"You cannot move there...It's a wall.");
//vDL[dNum]->setCreature(vvCreatures[dNum][i], vvCreatures[dNum][i]->getCoordX(), vvCreatures[dNum][i]->getCoordY());
}
else if( (vDL[dNum]->checkMove(thingTempX, thingTempY) == true && creatureOccupied == false) && (playerX != thingTempX && playerY != thingTempY) )
{
vDL[dNum]->removeCreature(vvCreatures[dNum][i]->getCoordX(), vvCreatures[dNum][i]->getCoordY());
vvCreatures[dNum][i]->setCoords(thingTempX, thingTempY);
vDL[dNum]->setCreature(vvCreatures[dNum][i], thingTempX, thingTempY);
}
else if( ((abs( playerX - thingTempX ) == 1) && (abs( playerY - thingTempY ) == 1)) || (thingTempX == playerX && thingTempY == playerY) )
{
//cout << endl << vvCreatures[dNum][i]->getName() << " attacked " << pPlayer->getName();
mvprintw(25,0,"%s atacked %s",vvCreatures[dNum][i]->getName().c_str(), pPlayer->getName().c_str());
HP = pPlayer->getHP();
attack = mt() % punch->getDamage() - (pPlayer->getArmorType())->getArmorValue();
if ( attack > 0 )
{
pPlayer->setHP(HP - attack);
//cout << " for " << attack << " damage." << endl;
mvprintw(25,30," for %i damage.",attack);
refresh();
}
else
{
mvprintw(25,30," for 0 damage");
refresh();
//cout << "for 0 damage" << endl;
}
//If Player Died in the attack:
if(pPlayer->getHP() <= 0)
{
char regen[ 4 ];
//cout << endl << "You were killed in battle!! Do you want to come back to life? y or n? " << endl;
mvprintw(40,0,"You were killed in battle!! Do you want to come back to life? y or n? " );
refresh();
getnstr( regen, sizeof( regen ) - 1 );
//cin >> regen;
if (regen == "y")
{
pPlayer->setHP(100);
}
break;
}
//cout << endl << pPlayer->getName() << " now has " << pPlayer->getHP() << " health left " << endl;
//vDL[dNum]->setCreature(vvCreatures[dNum][i], vvCreatures[dNum][i]->getCoordX(), vvCreatures[dNum][i]->getCoordY());
creatureOccupied = false;
}
//cout << endl << vvCreatures[dNum][i]->getCoordX() << ", " << vvCreatures[dNum][i]->getCoordY() << ")" << endl;
}
if( nextFloor == true )
{
dNum++;
if( dNum < vDL.size() )
{
sameFloor = true;
}
break;
}
else if( prevFloor == true )
{
dNum--;
break;
}
}
if( sMove == "q" )
{
//printw("\n You quit... you Quitter!");
//printw("\n");
break;
}
}
for( size_t i = 0 ; i < vDL.size() ; i++ )
{
for( size_t j ; j < vvCreatures[i].size() ; j++ )
{
delete vvCreatures[i][j];
}
}
/*cout << "GAME OVER" << endl;
cout << "Score - " << pPlayer->getExperience() << endl;
cout << "Health at the end - " << pPlayer->getHP() << endl;*/
clear();
mvprintw(0,0,"GAME OVER" );
mvprintw(1,0,"Score - %i", pPlayer->getExperience() );
mvprintw(2,0, "Health at the end - %i", pPlayer->getHP() );
mvprintw(3,0," ");
refresh();
delete pPlayer;
delete punch;
delete keys;
delete TrashCanLid;
output.open(outFileName);
//outputXML(vWorld, output);
//delete memory to avoid memory leaks
for(auto it = vWorld.begin() ; it != vWorld.end() ; it++)
{
delete (*it);
}
//close input and output files!
input.close();
output.close();
clear();
return 0;
}
void init_random_seed(int seed)
{
generator.seed(seed);
}
Controller() :
network(this), model(this), resources(), display(this)
{
_generator.seed(42);
}
static void updateRandomSeed(uint32_t seed_number)
{
m_random_engine.seed(seed_number);
} // updateRandomSeed
void Window::Init(int width, int height, std::string title)
{
// Intiate Random Number Generator
m_Random.seed(time(0));
//initialize all SDL subsystems
if (SDL_Init(SDL_INIT_EVERYTHING) == -1)
throw std::runtime_error("SDL Init Failed");
//if (TTF_Init() == -1)
//throw std::runtime_error("TTF Init Failed");
// -- For Music --
/* We're going to be requesting certain things from our audio
device, so we set them up beforehand */
int audio_rate = 22050;
Uint16 audio_format = AUDIO_S16; /* 16-bit stereo */
int audio_channels = 2;
int audio_buffers = 4096;
SDL_Init(SDL_INIT_VIDEO | SDL_INIT_AUDIO);
/* This is where we open up our audio device. Mix_OpenAudio takes
as its parameters the audio format we'd /like/ to have. */
if (Mix_OpenAudio(audio_rate, audio_format, audio_channels, audio_buffers))
throw std::runtime_error("Unable to open audio!\n");
/* If we actually care about what we got, we can ask here. In this
program we don't, but I'm showing the function call here anyway
in case we'd want to know later. */
Mix_QuerySpec(&audio_rate, &audio_format, &audio_channels);
/* Every sound that gets played is assigned to a channel. Note that
this is different from the number of channels you request when you
open the audio device; a channel in SDL_mixer holds information
about a sound sample that is playing, while the number of channels
you request when opening the device is dependant on what sort of
sound you want (1 channel = mono, 2 = stereo, etc) */
//-- For Sounds --
/* Mix_Chunk is like Mix_Music, only it's for ordinary sounds. */
//Setup our window size
mBox.x = 0;
mBox.y = 0;
mBox.w = width;
mBox.h = height;
/* Create the windows and initialize the renderers */
//Create our window
mWindow.reset(SDL_CreateWindow(title.c_str(), SDL_WINDOWPOS_CENTERED,
SDL_WINDOWPOS_CENTERED, mBox.w, mBox.h, SDL_WINDOW_SHOWN));
//Make sure it created ok
if (mWindow == nullptr)
throw std::runtime_error("Failed to create window");
mRenderer.reset(SDL_CreateRenderer(mWindow.get(), -1,
SDL_RENDERER_ACCELERATED | SDL_RENDERER_PRESENTVSYNC));
//Make sure it created ok
if (mRenderer == nullptr)
throw std::runtime_error("Failed to create renderer");
Clear();
SDL_SetRenderDrawBlendMode(mRenderer.get(), SDL_BLENDMODE_NONE);
SDL_RenderFillRect(mRenderer.get(), NULL);
}
