void SkillAlchemy(UINT8 *m_PacketBuffer, bool *pRetn)
{
*pRetn = true;
st_Window *pServer = (st_Window*)m_PacketBuffer;
INT16 cId = pServer->Header.ClientId;
if(cId <= NULL || cId >= MAX_PLAYER)
return;
st_Mob *player = GetMobFromIndex(cId);
if(pServer->Slot[0] == 0xFF || pServer->Slot[1] == 0xFF || pServer->Slot[2] == 0xFF)
SendClientMessage(cId, "Coloque os três itens necessários.");
else
{
for(char i = 0; i < 3; i ++)
{
if(memcmp(&pServer->ItemId[i], &player->Inventory[pServer->Slot[i]], sizeof st_Item))
return;
else if(pServer->ItemId[i].Index != player->Inventory[pServer->Slot[i]].Index)
return;
}
Composition(pServer, player);
SendClientSignalParm(cId, 0x7530, 0x3A7, 2);
}
}
void OpenSMOKE_GasStream::lock()
{
if (assignedKineticScheme == false)
ErrorMessage("The kinetic scheme was not defined!!");
if (assignedMassFlowRate == false && assignedMoleFlowRate == false && assignedVolumetricFlowRate == false)
{
// ErrorMessage("The flow rate was not defined!!");
AssignMassFlowRate(1.e-10, "kg/s");
iUndefinedFlowRate = true;
}
if (assignedMoleFractions == false && assignedMassFractions == false)
ErrorMessage("The composition was not defined!!");
Composition();
if (assignedTemperature == true && assignedPressure == true && assignedDensity == true)
ErrorMessage("Only 2 between: T || P || rho");
if (assignedTemperature == true && assignedPressure == true)
{ /* Nothing to do */ }
else if (assignedDensity == true && assignedPressure == true)
{ T = P*MW/Constants::R_J_kmol/rho; }
else if (assignedDensity == true && assignedTemperature == true)
{ P = rho*Constants::R_J_kmol*T/MW; }
else ErrorMessage("2 between must be assigned: T || P || rho");
Concentrations();
Density();
FlowRates();
SpecificEnthalpies();
Enthalpy();
SpecificEntropies();
Entropy();
}
double calculateMZ(double mass, int charge, int pre_charge /* = 0 */)
{
Param& param = Param::Instance();
double electron_mass = param.getParameter<double>("electron_mass").first;
int coef_h = (pre_charge == 0 ? charge : pre_charge);
// TBD: this should be controlled by parameter.
// int coef_e = (pre_charge == 0 ? 1 : 0);
return (mass + coef_h * (Composition("H").getMass() - electron_mass))/abs(charge);
}
double calculateMass( double mz, int charge)
{
// int mode = param.getParameter<int>("mode").first;
// Be careful of the ion mode.
Param& param = Param::Instance();
double electron_mass = param.getParameter<double>("electron_mass").first;
return abs(charge) * mz - charge * (Composition("H").getMass() -electron_mass);
}
void evolveComposition(CompositionHelper::UsedComposition usedComp)
{
std::cout << "\n==Evolving a composition==\n\n";
std::cout << "Composition Before Evolution\n";
usedComp.composition.printDebugInfo();
enemyComposition = Composition(util::game::getEnemy()->getUnits());
std::cout << "Loaded Enemy Composition\n";
//respond to units with counters
if (usedComp.useCount != 0)
{
for each(auto unitType in enemyComposition.getTypes())
{
if (unitType.isBuilding() || unitType == BWAPI::UnitTypes::Zerg_Larva)
continue;
//std::cout << "Responding to unit: " << unitType.c_str() << "\n";
auto counters = CompositionHelper::getCounters(unitType);
auto intersection = usedComp.composition.getIntersection(counters);
if (intersection.getTypes().size() == 0)
{
//add random unit type from counter list
BWAPI::UnitType randomType = util::calc::getRandomType(counters);
usedComp.composition.addType(randomType);
}
else
{
int evolveType = rand() % 100;
//increase amount for existing unit type
if (evolveType <= 50)
{
BWAPI::UnitType randomType = util::calc::getRandomType(intersection.getUnitMap());
usedComp.composition.addType(randomType);
}
//add a new counter unit type
else if (evolveType <= 75)
{
BWAPI::UnitType randomType = util::calc::getRandomType(counters);
usedComp.composition.addType(randomType);
}
}
}
std::cout << "\n==Composition Evolved==\n\n";
std::cout << "Composition After Evolution\n";
usedComp.composition.printDebugInfo();
////possible mutation
//int mutateProbability = rand() % 100;
//if (mutateProbability < 5)
// composition = mutateComposition(composition);
}
else
{
void OpenSMOKE_GasStream::ChangeMoleFractions(BzzVector &_values)
{
AssignMoleFractions(_values);
Composition();
Concentrations();
Density();
FlowRates();
SpecificEnthalpies();
Enthalpy();
SpecificEntropies();
Entropy();
}
Composition CompositionObj::make(Pool *pool, std::string name)
{
auto res = Composition((new CompositionObj(name,pool)));
pool->addComponent(res);
return res;
}
Composition InternalSite::getCleavageShift(FunctionalGroup& fg, const size_t idx)
{
std::multiset<FunctionalGroup>::iterator iter = _groups.find(fg);
return (iter != _groups.end()) ? iter->getCompositionByID(idx) : Composition();
}
