void NounShip::updateGadgets( dword nTick )
{
PROFILE_FUNCTION();
// check gadgets list, initialize internal gadget queues if needed
if ( m_Gadgets.size() == 0 )
initializeGadgets();
// update energy, signature, and visibility of this ship
int energy = m_Energy;
float visibility = 1.0f;
for(int i=0;i<m_Gadgets.size();i++)
{
NounGadget * pGadget = m_Gadgets[i];
// use energy
energy = pGadget->useEnergy( nTick, energy );
// update signature of this ship
addSignature( nTick, pGadget->addSignature() );
// update visibility
visibility += pGadget->addVisibility();
}
m_Energy = Clamp( energy, 0, maxEnergy() );
m_Visibility = Clamp( visibility, 0.0f, 1.0f );
// use gadgets that are in the queue
if ( m_UseGadgets.size() > 0 )
if ( --m_UseGadgetTick <= 0 )
useGadgets();
}
CharString GadgetDrive::useTip( Noun * pTarget, bool shift ) const
{
CharString tip;
// usage information
int generate = 0;
if ( active() )
{
generate = damageRatioInv() * this->energy();
// reduce energy based on velocity
NounShip * pShip = WidgetCast<NounShip>( parent() );
if ( pShip != NULL )
{
if ( energyFalloff() > 0 && pShip->maxVelocity() > 0.0f && pShip->velocity() > pShip->baseVelocity() )
{
float scale = ( pShip->velocity() - pShip->baseVelocity() ) / pShip->velocityRange();
generate -= ( energyFalloff() * scale) ;
}
}
}
tip += CharString().format("\nEnergy p/s:<X;100>%.1f", ( generate * TICKS_PER_SECOND ) / 1000.0f );
tip += CharString().format("\nEnergy Stored:<X;100>%.0f", maxEnergy() / 1000.0f );
return tip;
}
//Constructor
Organism::Organism()
{
//Keep track of id numbers
static unsigned long int next_id = 0;
id = next_id;
++next_id;
//First and Last name lengths
int fNameLen = GetDistribution(std::uniform_int_distribution<int>(3, 8));
int lNameLen = GetDistribution(std::uniform_int_distribution<int>(4, 12));
//Generate name
for (int i = 0; i < fNameLen; ++i) {
fName += static_cast<char>(GetDistribution( std::uniform_int_distribution<int>(65, 90) ));
}
for (int i = 0; i < lNameLen; ++i) {
lName += static_cast<char>(GetDistribution( std::uniform_int_distribution<int>(65, 90) ));
}
//Organism is not asleep at creation
asleep = false;
asleepSince = -1.0;
//Organisms begin with energy normally distributed around 50% of their maximum
energy = std::max(unsigned int(GetDistribution(std::normal_distribution<float>(maxEnergy() / 2, maxEnergy() / 10))), maxEnergy());
//In case above energy distribution does not work out
//energy = GetDistribution(std::uniform_int_distribution<int>(0, maxEnergy() ));
age = 0.0;
}
//Attempt to Awaken from Sleep
bool Organism::wakeUp(float curTime) {
//Organism is Already Awake
if (!asleep) return false;
//Organism has not yet rested enough
if (energy < 9 * maxEnergy() / 10) return false;
//Note: Tweak Sleep Energy Gain multiplier
energy += (curTime - asleepSince) * 0.05;
//Adjust energy to maximum energy for Organism
energy = std::max(energy, maxEnergy());
asleep = false;
asleepSince = -1.0;
return true;
}
//Attempt to Sleep
bool Organism::sleep(float curTime) {
//Organism is already asleep
if (asleep) return false;
//Organism is well rested, so sleep is unnecessary
if (energy > maxEnergy() / 2) return false;
asleepSince = curTime;
asleep = true;
return true;
}
void NounShip::setup()
{
NounBody::setup();
// clear all flags
clearFlags( FLAG_ALL );
// remove all damage
m_Damage = 0;
initializeGadgets();
initializeEnhancements();
initializeUnits();
// update the characteristics of this ship
updateCharacter();
// fill energy
m_Energy = maxEnergy();
}
int GadgetDrive::addMaxEnergy() const
{
return( maxEnergy() );
}
