public void ResetFireState(bool ResetExcitement)
{
m_FireCycle = 0;
//m_Threshold = globals.GlobalThreshold * 2.0;
//m_Energy = 0.5f;
if (ResetExcitement)
{
m_Excitement = 0f;
}
//m_Stimulus = 0f;
m_AxonOutput = 0.0f;
m_FireCycleLength = 5;
m_FireState = Neuron.FireStates.idle;
}
private void DoAutoFireInternal()
{
if (m_Energy < 0.1)
{
return;
}
//m_FireDelay = ThreadSafeRandom.Next(1, 7);
//m_FireCycleLength = ThreadSafeRandom.Next(6, 11);
m_InvokedIteration = globals.Iteration;
m_FireDelay = ThreadSafeRandom.Next(1, 7);
m_FireCycleLength = ThreadSafeRandom.Next(5, 11);
m_FireState = FireStates.autofire;
m_FireCycle = 0;
Fire();
}
private void InvokeFireInternal(float stimulus)
{
if (m_FireState != FireStates.idle || m_Energy < 0.1)
{
return;
}
m_InvokedIteration = globals.Iteration;
//m_Stimulus += stimulus * (1f - m_Stimulus);
m_Stimulus += stimulus;
if (m_Stimulus > 1f)
{
m_Stimulus = 1f;
}
//m_Excitement += ((1f - m_Excitement) * m_Stimulus);
//m_Excitement += stimulus * (1f - m_Excitement);
//if (m_Excitement > 1f)
// m_Excitement = 1f;
//m_FireCycleLength = ThreadSafeRandom.Next(5, 6 + Math.Min(5, (Synapses.Count * 2)));
//m_FireDelay = (m_AxonOutputCount * 2) + ThreadSafeRandom.Next(1, 2 + Math.Min(5, (Synapses.Count * 2)));
//m_FireDelay = ThreadSafeRandom.Next(1, 5);
//m_FireDelay = MaxSynapses / 4;
//m_FireDelay = 1;
m_FireDelay = ThreadSafeRandom.Next(1, 3);
m_FireCycleLength = ThreadSafeRandom.Next(5, 8);
OnceFired = true;
m_FireState = FireStates.fire;
m_FireCycle = 0;
Fire();
}
private void FireInternal()
{
if (m_FireState == FireStates.idle)
{
return;
}
if (m_Energy < 0.1)
{
m_FireState = FireStates.idle;
return;
}
m_FireDelay--;
if (m_FireDelay > 0)
{
return;
}
//if (m_FireCycle == 0 && m_FireState == FireStates.fire)
//{
// //m_Excitement += 0.025f * (1f - m_Excitement);
// m_Excitement += 0.1f * (1f - m_Excitement);
// //m_Excitement += ((1.0f - m_Excitement) * m_Stimulus) / 5.0f;
// if (m_Excitement > 1f)
// m_Excitement = 1f;
//}
if (m_FireCycle < 6)
{
if (m_NeuronType == NeuronTypes.PyramidCell)
{
m_AxonOutput = globals.ActionPotentials[m_FireCycle];
}
else
{
m_AxonOutput = -globals.ActionPotentials[m_FireCycle];
}
}
else
{
m_AxonOutput = 0;
}
//m_Excitement += Math.Abs(m_AxonOutput) * 0.01f * (1f - m_Excitement);
m_Excitement += Math.Abs(m_AxonOutput) * 0.005f;
if (m_Excitement > 1f)
{
m_Excitement = 1f;
}
m_FireCycle++;
if (m_FireCycle > m_FireCycleLength)
{
m_FireCycle = 0;
m_AxonOutput = 0;
m_Energy -= 0.05f;
if (m_Energy < 0f)
{
m_Energy = 0f;
}
// ToDo: Feed Energy to damped Input
if (m_Energy * ThreadSafeRandom.NextDouble() < 0.1)
{
m_FireState = FireStates.idle;
}
else
{
m_FireDelay = 1;
}
}
}
