COMMENT
**************************************************
File generated by: neuroConstruct v1.1.2
**************************************************
This file holds the implementation in NEURON of the Cell Mechanism:
LeakConductance (Type: Channel mechanism, Model: Template based ChannelML file)
with parameters:
/channelml/@units = Physiological Units
/channelml/notes = ChannelML file containing a single Channel description
/channelml/ion/@name = non_specific
/channelml/ion/@charge = 1
/channelml/ion/@default_erev = -50
/channelml/channel_type/@name = LeakConductance
/channelml/channel_type/@density = yes
/channelml/channel_type/status/@value = stable
/channelml/channel_type/notes = Simple example of a leak/passive conductance. Note: for GENESIS cells with a single leak conductance, it is better to use the Rm and Em variables for a passive current.
/channelml/channel_type/current_voltage_relation/ohmic/@ion = non_specific
/channelml/channel_type/current_voltage_relation/ohmic/conductance/@default_gmax = 0.3
// File from which this was generated: /Users/nathan/nC_projects/DM1_combo/cellMechanisms/LeakConductance/LeakConductance.xml
// XSL file with mapping to simulator: /Users/nathan/nC_projects/DM1_combo/cellMechanisms/LeakConductance/ChannelML_v1.7.2_NEURONmod.xsl
ENDCOMMENT
? This is a NEURON mod file generated from a v1.7.2 ChannelML file
? Unit system of original ChannelML file: Physiological Units
COMMENT
ChannelML file containing a single Channel description
ENDCOMMENT
TITLE Channel: LeakConductance
COMMENT
Simple example of a leak/passive conductance. Note: for GENESIS cells with a single leak conductance,
it is better to use the Rm and Em variables for a passive current.
ENDCOMMENT
UNITS {
(mA) = (milliamp)
(mV) = (millivolt)
(S) = (siemens)
(um) = (micrometer)
(molar) = (1/liter)
(mM) = (millimolar)
(l) = (liter)
}
NEURON {
SUFFIX LeakConductance
? A non specific current is present
RANGE e
NONSPECIFIC_CURRENT i
RANGE gmax, gion
}
PARAMETER {
gmax = 0.0003 (S/cm2)
e = -60 (mV)
}
ASSIGNED {
v (mV)
i (mA/cm2)
}
BREAKPOINT {
i = gmax*(v - e)
}