void SynChan::vProcess( const Eref& e, ProcPtr info )
{
// http://www.genesis-sim.org/GENESIS/Hyperdoc/Manual-26.html#synchan
// For a spike event, activation = weight / dt
// is sent from SynHandler-s for one dt
// For continuous activation in a graded synapse,
// send activation for continous dt-s.
setGk( e, calcGk() );
updateIk();
sendProcessMsgs( e, info ); // Sends out messages for channel.
}
void MarkovChannel::vProcess( const Eref& e, const ProcPtr p )
{
g_ = 0.0;
//Cannot use the Gbar_ variable of the ChanBase class. The conductance
//Gk_ calculated here is the "expected conductance" of the channel due to its
//stochastic nature.
for( unsigned int i = 0; i < numOpenStates_; ++i )
g_ += Gbars_[i] * state_[i];
setGk( e, g_ );
updateIk();
sendProcessMsgs( e, p );
}
void SynChan::process( const Eref& e, ProcPtr info )
{
// while ( !pendingEvents_.empty() &&
// pendingEvents_.top().getDelay() <= info->currTime ) {
activation_ += popBuffer(info->currTime) / info->dt;
// pendingEvents_.pop();
// }
X_ = modulation_ * activation_ * xconst1_ + X_ * xconst2_;
Y_ = X_ * yconst1_ + Y_ * yconst2_;
double Gk = Y_ * norm_;
setGk( Gk );
updateIk();
activation_ = 0.0;
modulation_ = 1.0;
SynChanBase::process( e, info ); // Sends out messages for channel.
}
