void ComputeAngularSpeed(EThrusters _eThusters, EThrusters _eOppositeThusers, float _fDeltaAcceleration, ref float _rfAxisLocalSpeed, ref float _rfAxisLocalAcceleration, float _fPowerMultiplier = 1.0f)
{
if (IsThusterEnabled(_eThusters) &&
!IsThusterEnabled(_eOppositeThusers) &&
_rfAxisLocalSpeed > -m_fAngularMaxSpeed)
{
_rfAxisLocalAcceleration -= m_fAngularAcceleration * m_faThruserPowerRatios[(int)_eThusters] * _fPowerMultiplier;
// Handbreaking
if (_rfAxisLocalSpeed > 0.0f)
{
_rfAxisLocalSpeed = ComputeDamping(_rfAxisLocalSpeed, _fDeltaAcceleration * m_fAngularHandbreakpower);
}
}
else if (IsThusterEnabled(_eOppositeThusers) &&
!IsThusterEnabled(_eThusters) &&
_rfAxisLocalSpeed < m_fAngularMaxSpeed)
{
_rfAxisLocalAcceleration += m_fAngularAcceleration * m_faThruserPowerRatios[(int)_eOppositeThusers] * _fPowerMultiplier;
// Handbreaking
if (_rfAxisLocalSpeed < 0.0f)
{
_rfAxisLocalSpeed = ComputeDamping(_rfAxisLocalSpeed, _fDeltaAcceleration * m_fAngularHandbreakpower);
}
}
else if (_rfAxisLocalSpeed != 0.0f)
{
_rfAxisLocalSpeed = ComputeDamping(_rfAxisLocalSpeed, _fDeltaAcceleration);
}
}
public float GetThustersPowerRatio(EThrusters _eThusters)
{
return (m_faThruserPowerRatios[(int)_eThusters]);
}
public bool IsThusterEnabled(EThrusters _eThuster)
{
return (m_baThustersEnabled[(int)_eThuster].Get());
}
public void SetThrusterEnabled(EThrusters _eThusters, float _bPowerRatio)
{
m_baThustersEnabled[(int)_eThusters].Set(_bPowerRatio > 0.0f);
m_faThruserPowerRatios[(int)_eThusters] = _bPowerRatio;
}
void ComputeAngularSpeed(EThrusters _eThusters, EThrusters _eOppositeThusers, float _fDeltaAcceleration, ref float _rfAxisLocalSpeed, ref float _rfAxisLocalAcceleration, float _fPowerMultiplier = 1.0f)
{
if ( IsThusterEnabled(_eThusters) &&
!IsThusterEnabled(_eOppositeThusers) &&
_rfAxisLocalSpeed > -m_fAngularMaxSpeed)
{
_rfAxisLocalAcceleration -= m_fAngularAcceleration * m_faThruserPowerRatios[(int)_eThusters] * _fPowerMultiplier;
// Handbreaking
if (_rfAxisLocalSpeed > 0.0f)
{
_rfAxisLocalSpeed = ComputeDamping(_rfAxisLocalSpeed, _fDeltaAcceleration * m_fAngularHandbreakpower);
}
}
else if (IsThusterEnabled(_eOppositeThusers) &&
!IsThusterEnabled(_eThusters) &&
_rfAxisLocalSpeed < m_fAngularMaxSpeed)
{
_rfAxisLocalAcceleration += m_fAngularAcceleration * m_faThruserPowerRatios[(int)_eOppositeThusers] * _fPowerMultiplier;
// Handbreaking
if (_rfAxisLocalSpeed < 0.0f)
{
_rfAxisLocalSpeed = ComputeDamping(_rfAxisLocalSpeed, _fDeltaAcceleration * m_fAngularHandbreakpower);
}
}
else if (_rfAxisLocalSpeed != 0.0f)
{
_rfAxisLocalSpeed = ComputeDamping(_rfAxisLocalSpeed, _fDeltaAcceleration);
}
}
public float GetThustersPowerRatio(EThrusters _eThusters)
{
return(m_faThruserPowerRatios[(int)_eThusters]);
}
public bool IsThusterEnabled(EThrusters _eThuster)
{
return(m_baThustersEnabled[(int)_eThuster].Get());
}
public void SetThrusterEnabled(EThrusters _eThusters, float _bPowerRatio)
{
m_baThustersEnabled[(int)_eThusters].Set(_bPowerRatio > 0.0f);
m_faThruserPowerRatios[(int)_eThusters] = _bPowerRatio;
}
