target_regime_name='R1')])
],
analog_ports=[AnalogReceivePort('ARP1', dimension=un.current),
AnalogReceivePort('ARP2', dimension=(un.resistance *
un.time)),
AnalogSendPort('A1',
dimension=un.voltage * un.current),
AnalogSendPort('A2', dimension=un.current)],
parameters=[Parameter('P1', dimension=un.voltage),
Parameter('P2', dimension=un.time),
Parameter('P3', dimension=un.voltage),
Parameter('P4', dimension=un.current)],
constants=[Constant('C1', value=-71.0, units=un.mV),
Constant('C2', value=22.2, units=un.degC)])
ref.state_variable('SV2').annotations.set(('Z1', 'NS1'), 'Y1', 'X1', 2.0)
A = Dynamics(
name='dyn',
aliases=['A1:=SV2', 'A2 := ARP1 + SV2', 'A3 := SV1',
'A4 := C2 * SV1'],
state_variables=[
StateVariable('SV1', dimension=un.voltage),
StateVariable('SV2', dimension=un.current)],
regimes=[
Regime(
'dSV1/dt = -SV1 / P2',
'dSV2/dt = A3 / ARP2 + SV2 / P2',
transitions=[On(Trigger('SV1 > P3'),
do=[OutputEvent('ESP1')]),
On('ERP1', do=[OutputEvent('ESP2')])],
