// P5IBc.p - for TraubIB_VP
// Format of file :
// x,y,z,dia are in microns, all other units are SI (Meter Kilogram Sec Amp)
// In polar mode 'r' is in microns, theta and phi in degrees
// Control line options start with a '*'
// The format for each compartment parameter line is :
//name parent r theta phi d ch dens ...
//in polar mode, and in cartesian mode :
//name parent x y z d ch dens ...
// For channels, "dens" = maximum conductance per unit area of compartment
// For spike elements, "dens" is the spike threshold
// Coordinate mode
*relative
*cartesian
*asymmetric
// Specifying constants
*set_compt_param RM 5.0 // 5.0
*set_compt_param RA 2.50 // 2.50
*set_compt_param CM 0.009 // 0.009
*set_compt_param EREST_ACT -0.07 // -0.075
*set_compt_param ELEAK -0.0666 // -0.075
//SOMA *************************************************************
// For the soma, use the leakage potential (-0.07 + 0.0106) for Em
//*set_compt_param ELEAK -0.0594
// Actually, after Traub et al. J Neurophys 2003;89:909-921, will maintain
// leakage potential at ELEAK -0.07
soma none 0 0 15 18 Ca_s8 -6.1304081E14 NaF8 2000 \
NaP8 1.6 KDR8 1700 \
KA8 200 K28 5 \
KM8 119 CaL8 1 \
CaH8 40 KCs8 160 \
AR8 1.0 KAHPs8 2.0
*set_compt_param CM 0.018
*set_compt_param RM 2.5
//APICAL DENDRITE COMPARTMENTS ***************************************
// apdend1 Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
apdend1 soma 0 0 75 4 Ca_d8 -1.47129963E17 NaF8 3000 \
NaP8 2.4 KDR8 2400 \
KA8 160 K28 10 \
KM8 380 CaL8 2 \
CaH8 80 KCd8 320 \
AR8 2.0 KAHPd8 4
// apdend2 Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
apdend2 apdend1 0 0 75 3.8 Ca_d8 -1.54873652E17 NaF8 1500 \
NaP8 1.2 KDR8 1500 \
KA8 80 K28 10 \
KM8 380.8 CaL8 2 \
CaH8 80 KCd8 320 \
AR8 2.0 KAHPd8 4.0
// apdend3 Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
apdend3 apdend2 0 0 75 3.6 Ca_d8 -1.63477742E17 NaF8 300 \
NaP8 0.24 KDR8 0 \
KA8 12 K28 10 \
KM8 380.8 CaL8 2 \
CaH8 80 KCd8 10 \
AR8 2.0 KAHPd8 4.0
// apdend4 Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
apdend4 apdend3 0 0 75 2.4 Ca_d8 -1.94730587E17 NaF8 300 \
NaP8 0.24 KDR8 0 \
KA8 12 K28 10 \
KM8 380.8 CaL8 2 \
CaH8 80 KCd8 10 \
AR8 2.0 KAHPd8 4.0
// apdend5 Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
apdend5 apdend4 0 0 75 3.2 Ca_d8 -2.06900497E17 NaF8 300 \
NaP8 0.24 KDR8 0 \
KA8 12 K28 10 \
KM8 380.8 CaL8 2 \
CaH8 40 KCd8 10 \
AR8 2.0 KAHPd8 4.0
// apdend6 Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
apdend6 apdend5 0 0 75 3 Ca_d8 -2.20693871E17 NaF8 300 \
NaP8 0.24 KDR8 0 \
KA8 12 K28 10 \
KM8 380.8 CaL8 2 \
CaH8 40 KCd8 10 \
AR8 2.0 KAHPd8 4.0
// apdend7 Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
apdend7 apdend6 0 0 75 2.8 Ca_d8 -2.36457724E17 NaF8 300 \
NaP8 0.24 KDR8 0 \
KA8 12 K28 10 \
KM8 380.8 CaL8 2 \
CaH8 40 KCd8 10 \
AR8 2.0 KAHPd8 4.0
// apdend8 Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
apdend8 apdend7 0 0 75 2.6 Ca_d8 -2.82942241E17 NaF8 300 \
NaP8 0.24 KDR8 0 \
KA8 12 K28 10 \
KM8 380.8 CaL8 2 \
CaH8 40 KCd8 10 \
AR8 2.0 KAHPd8 4.0
// apdend9 Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
apdend9 apdend8 0 0 75 2.4 Ca_d8 -3.06520752E17 NaF8 300 \
NaP8 0.24 KDR8 0 \
KA8 12 K28 10 \
KM8 380.8 CaL8 2 \
CaH8 40 KCd8 10 \
AR8 2.0 KAHPd8 4.0
// apdend10 Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
apdend10 apdend9 0 0 75 2 Ca_d8 -4.04611345E17 NaF8 300 \
NaP8 0.24 KDR8 0 \
KA8 12 K28 10 \
KM8 380.8 CaL8 2 \
CaH8 40 KCd8 10 \
AR8 2.0 KAHPd8 4.0
// apdend11 Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
apdend11 apdend10 0 0 75 1.6 Ca_d8 -5.51737374E17 NaF8 60 \
NaP8 0.048 KDR8 0 \
KA8 12 K28 10 \
KM8 112 CaL8 2 \
CaH8 20 KCd8 24 \
AR8 2.0 KAHPd8 4.0
// apdend12 Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
apdend12 apdend11 0 0 75 1.4 Ca_d8 -6.8309675E17 NaF8 60 \
NaP8 0.048 KDR8 0 \
KA8 12 K28 10 \
KM8 112 CaL8 2 \
CaH8 20 KCd8 24 \
AR8 2.0 KAHPd8 4.0
// apdend13 Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
apdend13 apdend12 0 0 75 1.2 Ca_d8 -8.5827204E17 NaF8 60 \
NaP8 0.048 KDR8 0 \
KA8 12 K28 10 \
KM8 112 CaL8 2 \
CaH8 20 KCd8 24 \
AR8 2.0 KAHPd8 4.0
// apdend14aR Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
apdend14aR apdend13 11.2 -19.5 55.6 1.1 Ca_d8 -1.00311682E18 NaF8 60 \
NaP8 0.048 KDR8 0 \
KA8 12 K28 10 \
KM8 112 CaL8 2 \
CaH8 54 KCd8 24 \
AR8 4.0 KAHPd8 4.0
// apdend14bR Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
apdend14bR apdend14aR 11.2 -19.5 55.6 1.1 Ca_d8 -1.00321358E18 NaF8 60 \
NaP8 0.048 KDR8 0 \
KA8 12 K28 10 \
KM8 112 CaL8 2 \
CaH8 12 KCd8 24 \
AR8 4.0 KAHPd8 4.0
// apdend14cR Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
apdend14cR apdend14bR 11.2 -19.5 55.6 1.1 Ca_d8 -1.00321358E18 NaF8 60 \
NaP8 0.048 KDR8 0 \
KA8 12 K28 10 \
KM8 112 CaL8 2 \
CaH8 12 KCd8 24 \
AR8 4.0 KAHPd8 4.0
// apdend14dR Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
apdend14dR apdend14cR 11.2 -19.5 55.6 1.1 Ca_d8 -1.00307944E18 NaF8 60 \
NaP8 0.048 KDR8 0 \
KA8 12 K28 10 \
KM8 112 CaL8 2 \
CaH8 12 KCd8 24 \
AR8 4.0 KAHPd8 4.0
// apdend14aL Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
apdend14aL apdend13 -11.2 19.5 55.6 1.1 Ca_d8 -1.0030927E18 NaF8 60 \
NaP8 0.048 KDR8 0 \
KA8 12 K28 10 \
KM8 112 CaL8 2 \
CaH8 54 KCd8 24 \
AR8 4.0 KAHPd8 4.0
// apdend14bL Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
apdend14bL apdend14aL -11.2 19.5 55.6 1.1 Ca_d8 -1.00322458E18 NaF8 60 \
NaP8 0.048 KDR8 0 \
KA8 12 K28 10 \
KM8 112 CaL8 2 \
CaH8 12 KCd8 24 \
AR8 4.0 KAHPd8 4.0
// apdend14cL Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
apdend14cL apdend14bL -11.2 19.5 55.6 1.1 Ca_d8 -1.00322368E18 NaF8 60 \
NaP8 0.048 KDR8 0 \
KA8 12 K28 10 \
KM8 112 CaL8 2 \
CaH8 12 KCd8 24 \
AR8 4.0 KAHPd8 4.0
// apdend14dL Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
apdend14dL apdend14cL -11.2 19.5 55.6 1.1 Ca_d8 -1.0030782E18 NaF8 60 \
NaP8 0.048 KDR8 0 \
KA8 12 K28 10 \
KM8 112 CaL8 2 \
CaH8 12 KCd8 24 \
AR8 4.0 KAHPd8 4.0
//APICAL OBLIQUE DENDRITE COMPARTMENTS ***************************************
// apobdistRa Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
apobdistRa apdend3 42.4 42.4 0.0 1.24 Ca_d8 -8.1574073E17 NaF8 1500 \
NaP8 1.2 KDR8 1500 \
KA8 160 K28 10 \
KM8 380.8 CaL8 2 \
CaH8 80 KCd8 320 \
AR8 2.0 KAHPd8 4.0
// apobdistRb Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
apobdistRb apobdistRa 42.4 42.4 0.0 1.24 Ca_d8 -8.1574094E17 NaF8 300 \
NaP8 0.24 KDR8 0 \
KA8 12 K28 10 \
KM8 380.8 CaL8 2 \
CaH8 80 KCd8 10 \
AR8 2.0 KAHPd8 4.0
// apobdistRc Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
apobdistRc apobdistRb 42.4 42.4 0.0 1.24 Ca_d8 -8.1574321E17 NaF8 300 \
NaP8 0.24 KDR8 0 \
KA8 12 K28 10 \
KM8 380.8 CaL8 2 \
CaH8 80 KCd8 10 \
AR8 2.0 KAHPd8 4.0
// apobdistLa Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
apobdistLa apdend3 -42.4 -42.4 0.0 1.24 Ca_d8 -8.1574073E17 NaF8 1500 \
NaP8 1.2 KDR8 1500 \
KA8 160 K28 10 \
KM8 380.8 CaL8 2 \
CaH8 80 KCd8 320 \
AR8 2.0 KAHPd8 4.0
// apobdistLb Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
apobdistLb apobdistLa -42.4 -42.4 0.0 1.24 Ca_d8 -8.1574094E17 NaF8 300 \
NaP8 0.24 KDR8 0 \
KA8 12 K28 10 \
KM8 380.8 CaL8 2 \
CaH8 80 KCd8 10 \
AR8 2.0 KAHPd8 4.0
// apobdistLc Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
apobdistLc apobdistLb -42.4 -42.4 0.0 1.24 Ca_d8 -8.1574321E17 NaF8 300 \
NaP8 0.24 KDR8 0 \
KA8 12 K28 10 \
KM8 380.8 CaL8 2 \
CaH8 80 KCd8 10 \
AR8 2.0 KAHPd8 4.0
// apobmidRa Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
apobmidRa apdend2 42.4 -42.4 0.0 1.24 Ca_d8 -8.1574073E17 NaF8 1500 \
NaP8 1.2 KDR8 1500 \
KA8 160 K28 10 \
KM8 380.8 CaL8 2 \
CaH8 80 KCd8 320 \
AR8 2.0 KAHPd8 4.0
// apobmidRb Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
apobmidRb apobmidRa 42.4 -42.4 0.0 1.24 Ca_d8 -8.1574094E17 NaF8 300 \
NaP8 0.24 KDR8 0 \
KA8 12 K28 10 \
KM8 380.8 CaL8 2 \
CaH8 80 KCd8 10 \
AR8 2.0 KAHPd8 4.0
// apobmidRc Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
apobmidRc apobmidRb 42.4 -42.4 0.0 1.24 Ca_d8 -8.1574321E17 NaF8 300 \
NaP8 0.24 KDR8 0 \
KA8 12 K28 10 \
KM8 380.8 CaL8 2 \
CaH8 80 KCd8 10 \
AR8 2.0 KAHPd8 4.0
// apobmidLa Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
apobmidLa apdend2 -42.4 42.4 0.0 1.24 Ca_d8 -8.1574073E17 NaF8 1500 \
NaP8 1.2 KDR8 1500 \
KA8 160 K28 10 \
KM8 380.8 CaL8 2 \
CaH8 80 KCd8 320 \
AR8 2.0 KAHPd8 4.0
// apobmidLb Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
apobmidLb apobmidLa -42.4 42.4 0.0 1.24 Ca_d8 -8.1574094E17 NaF8 300 \
NaP8 0.24 KDR8 0 \
KA8 12 K28 10 \
KM8 380.8 CaL8 2 \
CaH8 80 KCd8 10 \
AR8 2.0 KAHPd8 4.0
// apobmidLc Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
apobmidLc apobmidLb -42.4 42.4 0.0 1.24 Ca_d8 -8.1574321E17 NaF8 300 \
NaP8 0.24 KDR8 0 \
KA8 12 K28 10 \
KM8 380.8 CaL8 2 \
CaH8 80 KCd8 10 \
AR8 2.0 KAHPd8 4.0
// apobproxRa Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
apobproxRa apdend1 42.4 42.4 0.0 1.24 Ca_d8 -8.1574073E17 NaF8 1500 \
NaP8 1.2 KDR8 1500 \
KA8 160 K28 10 \
KM8 380.8 CaL8 2 \
CaH8 80 KCd8 320 \
AR8 2.0 KAHPd8 4.0
// apobproxRb Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
apobproxRb apobproxRa 42.4 42.4 0.0 1.24 Ca_d8 -8.1574094E17 NaF8 300 \
NaP8 0.24 KDR8 0 \
KA8 12 K28 10 \
KM8 380.8 CaL8 2 \
CaH8 80 KCd8 10 \
AR8 2.0 KAHPd8 4.0
// apobproxRc Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
apobproxRc apobproxRb 42.4 42.4 0.0 1.24 Ca_d8 -8.1573867E17 NaF8 300 \
NaP8 0.24 KDR8 0 \
KA8 12 K28 10 \
KM8 380.8 CaL8 2 \
CaH8 80 KCd8 10 \
AR8 2.0 KAHPd8 4.0
// apobproxLa Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
apobproxLa apdend1 -42.4 -42.4 0.0 1.24 Ca_d8 -8.1574073E17 NaF8 1500 \
NaP8 1.2 KDR8 1500 \
KA8 160 K28 10 \
KM8 380.8 CaL8 2 \
CaH8 80 KCd8 320 \
AR8 2.0 KAHPd8 4.0
// apobproxLb Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
apobproxLb apobproxLa -42.4 -42.4 0.0 1.24 Ca_d8 -8.1574094E17 NaF8 300 \
NaP8 0.24 KDR8 0 \
KA8 12 K28 10 \
KM8 380.8 CaL8 2 \
CaH8 80 KCd8 10 \
AR8 2.0 KAHPd8 4.0
// apobproxLc Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
apobproxLc apobproxLb -42.4 -42.4 0.0 1.24 Ca_d8 -8.1573867E17 NaF8 300 \
NaP8 0.24 KDR8 0 \
KA8 12 K28 10 \
KM8 380.8 CaL8 2 \
CaH8 80 KCd8 10 \
AR8 2.0 KAHPd8 4.0
//BASAL DENDRITE COMPARTMENTS ************************************************
// basalLsupera Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
basalLsupera soma -26.8 -46.3 -27.2 1.7 Ca_d8 -5.40919039E17 NaF8 1500 \
NaP8 1.2 KDR8 1500 \
KA8 160 K28 10 \
KM8 380.8 CaL8 2 \
CaH8 80 KCd8 320 \
AR8 2.0 KAHPd8 4.0
// basalLsuperb Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
basalLsuperb basalLsupera -26.8 -46.3 -27.2 1.7 Ca_d8 -5.40918077E17 NaF8 300 \
NaP8 0.24 KDR8 0 \
KA8 12 K28 10 \
KM8 380.8 CaL8 2 \
CaH8 80 KCd8 10 \
AR8 2.0 KAHPd8 4.0
// basalLsuperc Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
basalLsuperc basalLsuperb -26.8 -46.3 -27.2 1.7 Ca_d8 -5.40917321E17 NaF8 300 \
NaP8 0.24 KDR8 0 \
KA8 12 K28 10 \
KM8 380.8 CaL8 2 \
CaH8 80 KCd8 10 \
AR8 2.0 KAHPd8 4.0
// basalLmida Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
basalLmida soma -19.3 33.4 -46.0 1.7 Ca_db8 -5.4091897E17 NaF8 1500 \
NaP8 1.2 KDR8 1500 \
KA8 160 K28 10 \
KM8 380.8 CaL8 2 \
CaH8 80 KCdb8 320 \
AR8 2.0 KAHPdb8 4.0
// basalLmidb Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
basalLmidb basalLmida -19.3 33.4 -46.0 1.7 Ca_d8 -5.40919417E17 NaF8 300 \
NaP8 0.24 KDR8 0 \
KA8 12 K28 10 \
KM8 380.8 CaL8 2 \
CaH8 80 KCd8 10 \
AR8 2.0 KAHPd8 4.0
// basalLmidc Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
basalLmidc basalLmidb -19.3 33.4 -46.0 1.7 Ca_d8 -5.40919967E17 NaF8 300 \
NaP8 0.24 KDR8 0 \
KA8 12 K28 10 \
KM8 380.8 CaL8 2 \
CaH8 80 KCd8 10 \
AR8 2.0 KAHPd8 4.0
// basalRsupera Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
basalRsupera soma 26.8 46.3 -27.2 1.7 Ca_d8 -5.40919039E17 NaF8 1500 \
NaP8 1.2 KDR8 1500 \
KA8 160 K28 10 \
KM8 380.8 CaL8 2 \
CaH8 80 KCd8 320 \
AR8 2.0 KAHPd8 4.0
// basalRsuperb Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
basalRsuperb basalRsupera 26.8 46.3 -27.2 1.7 Ca_d8 -5.40919417E17 NaF8 300 \
NaP8 0.24 KDR8 0 \
KA8 12 K28 10 \
KM8 380.8 CaL8 2 \
CaH8 80 KCd8 10 \
AR8 2.0 KAHPd8 4.0
// basalRsuperc Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
basalRsuperc basalRsuperb 26.8 46.3 -27.2 1.7 Ca_d8 -5.40919967E17 NaF8 300 \
NaP8 0.24 KDR8 0 \
KA8 12 K28 10 \
KM8 380.8 CaL8 2 \
CaH8 80 KCd8 10 \
AR8 2.0 KAHPd8 4.0
// basalRmida Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
basalRmida soma 19.3 -33.4 -46.0 1.7 Ca_db8 -5.40918901E17 NaF8 1500 \
NaP8 1.2 KDR8 1500 \
KA8 160 K28 10 \
KM8 380.0 CaL8 2 \
CaH8 80 KCdb8 320 \
AR8 2.0 KAHPdb8 4.0
// basalRmidb Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
basalRmidb basalRmida 19.3 -33.4 -46.0 1.7 Ca_d8 -5.40919417E17 NaF8 300 \
NaP8 0.24 KDR8 0 \
KA8 12 K28 10 \
KM8 380.8 CaL8 2 \
CaH8 80 KCd8 10 \
AR8 2.0 KAHPd8 4.0
// basalRmidc Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
basalRmidc basalRmidb 19.3 -33.4 -46.0 1.7 Ca_d8 -5.4091952E17 NaF8 300 \
NaP8 0.24 KDR8 0 \
KA8 12 K28 10 \
KM8 380.8 CaL8 2 \
CaH8 80 KCd8 10 \
AR8 2.0 KAHPd8 4.0
// basaldeepa Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
basaldeepa soma 0 0 -60.0 1.7 Ca_db8 -5.40918764E17 NaF8 1500 \
NaP8 1.2 KDR8 1500 \
KA8 160 K28 10 \
KM8 380.8 CaL8 2 \
CaH8 80 KCdb8 320 \
AR8 2.0 KAHPdb8 4.0
// basaldeepb Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
basaldeepb basaldeepa 0 0 -60.0 1.7 Ca_d8 -5.40919417E17 NaF8 300 \
NaP8 0.24 KDR8 0 \
KA8 12 K28 10 \
KM8 380.8 CaL8 2 \
CaH8 80 KCd8 10 \
AR8 2.0 KAHPd8 4.0
// basaldeepc Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
basaldeepc basaldeepb 0 0 -60.0 1.7 Ca_d8 -5.40919967E17 NaF8 300 \
NaP8 0.24 KDR8 0 \
KA8 12 K28 10 \
KM8 380.8 CaL8 2 \
CaH8 80 KCd8 10 \
AR8 2.0 KAHPd8 4.0
// Specifying constants for axonal compartment RMCM=0.0014 (0.0009)
*set_compt_param RM 0.10 // (0.10)
*set_compt_param RA 1.00 // (1.00)
*set_compt_param CM 0.009 // (0.009)
*set_compt_param EREST_ACT -0.07 // -0.075
*set_compt_param ELEAK -0.066 // -0.075
//AXONAL COMPARTMENTS ***************************************
// axona Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
// Differs from Traub et al., in that axon is vertical
axona soma 0 0 -25 1.8 NaF8 4500 \
NaP8 0.0 KDR8 4500 \
KA8 6 K28 5 \
KM8 300 CaL8 0 \
CaH8 0 \
AR8 0
// axonb Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
// Differs from Traub et al., in that axon is vertical
axonb axona 0 0 -50 1.4 NaF8 4500 \
NaP8 0.0 KDR8 4500 \
KA8 6 K28 5 \
KM8 300 CaL8 0 \
CaH8 0 \
AR8 0
// axonLa Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
// Differs from Traub et al., in that axon is vertical
axonLa axonb -8.7 0 -49.2 1.0 NaF8 4500 \
NaP8 0.0 KDR8 4500 \
KA8 6 K28 5 \
KM8 300 CaL8 0 \
CaH8 0 \
AR8 0
// axonLb Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
// Differs from Traub et al., in that axon is vertical
axonLb axonLa -8.7 0 -49.2 1.0 NaF8 4500 \
NaP8 0.0 KDR8 4500 \
KA8 6 K28 5 \
KM8 300 CaL8 0 \
CaH8 0 \
AR8 0
// axonRa Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
// Differs from Traub et al., in that axon is vertical
axonRa axonb 8.7 0 -49.2 1.0 NaF8 4500 \
NaP8 0.0 KDR8 4500 \
KA8 6 K28 5 \
KM8 300 CaL8 0 \
CaH8 0 \
AR8 0
// axonRb Fig 1. Traub et al., J Neurophysiol 2003;89:909-921
// Differs from Traub et al., in that axon is vertical
axonRb axonRa 8.7 0 -49.2 1.0 NaF8 4500 \
NaP8 0.0 KDR8 4500 \
KA8 6 K28 5 \
KM8 300 CaL8 0 \
CaH8 0 \
AR8 0