/
integrate_placeholder4.f
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integrate_placeholder4.f
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c 23 Aug 2019, tuftRS not used in initial piriform.f
c so this program becomes a placeholder
c Need to make sure there is no false contribution to fields
! 7 Sept. 2006: start with integrate_tuftRSXX.f from isoldeepVFOK, and
! add GABA-B
c 31 March 2005: lower axonal gNa density and shift gNaF rate functions
c 4 Nov. 2003, modify layVtup.f as integration program for layer V
c tufted RS pyramidal cell, for use with groucho.f
c20 May 2003: adapt non-tufted RS layer 5 cell, layVrsp.f, to tufted
c layer 5 cell - should be either RS or IB, depending on params.
c Total number of compartments = 61, axon 56-61; 18 levels; level 0 = axon.
c 14 May 2003. Copy program from Rose and modify for mpi.
c 19 June 2001. Taken from scortpd.f. Parallel.
c 19 June 2001: layer V RS cell with "thin" dendrite, no apical tuft.
c See Kim & Connors, Mason & Larkman.
c 44 SD compartments, 6 axonal, total 50.
c 5 basal and 6 apical oblique dendrites, each with 3 compartments.
c 10-compartment apical dendrite, no branches (apart from obliques)
c 13 April 2001, version of scortp.f, for looking at dendritic activities.
c 7 April 2001, parallel version of scort.f
c 30 March 2001: layer 2/3 pyramidal cell, with geometry (as much as
c possible) from Guy Major thesis; start with tcr.f.
c Total 74 compartments: 6 axon. 8 basal and 3 oblique dendrites, each
c with 3 compartments: apical shaft and branch; 8 3-segment pieces in
c the "apical tuft".
c Revised tcr.f, using modifications developed in short.f
c 22 Feb. 2001: alter persistent gNaP to have lower threshold and
c 1st power activation; in addition, try increasing activation
c threshold of fast gNa, as per Parri & Crunelli 1998.
c 25 Jan. 2001, single TCR cell, modification of nrt.f
c TCR cell has 10 short dendrites, each with 13 compartments.
c Soma is compartment 1; axon is 132-137, with structure as in
c nRT cell model. Each dendrite has 2 layers of trifurcations.
c 28 Dec. 2000, begin converting interneuron program to nRT cell.
c Soma will be comp. 1. 4 equivalent dendrites, each with 13 comps.
c (so 53 SD compartments). Branching axon with 6 compartments - 59
c compartments in all. Try one integration program for whole structure.
c Currents: leak, fast Na (naf), persistent Na (nap), fast DR (kdr),
c A-current (ka), K2 current, M-current (km), C current (kc), AHP
c (kahp), T-current (cat), high-thresh. Ca (CAL), h-current = anomalous
c rectifier (ar).
c SUBROUTINE integrate_tuftRSXXB (O, time, numcell, V, curr,
SUBROUTINE integrate_placeholder4 (O, time, numcell, V, curr,
& initialize, firstcell, lastcell,
& gAMPA, gNMDA, gGABA_A, gGABA_B,
& Mg, gapcon, totaxgj, gjtable, dt,
& chi,mnaf,mnap,
& hnaf,mkdr,mka,
& hka,mk2,hk2,
& mkm,mkc,mkahp,
& mcat,hcat,mcal,
& mar,field_sup,field_deep)
SAVE
integer, parameter:: numcomp = 61
c numcomp = number of compartments, including 6 in the axon.
integer numcell, totaxgj, gjtable(totaxgj,4)
integer initialize, firstcell, lastcell
INTEGER J1, I, J, K, L, O, K1, k2, k3
REAL*8 Z, Z1, Z2, Z3,z4,curr(numcomp,numcell),c(numcomp)
REAL*8 mg, dt, time, gapcon
c CINV is 1/C, i.e. inverse capacitance
real*8 v(numcomp,numcell),chi(numcomp,numcell),
x mnaf(numcomp,numcell),mnap(numcomp,numcell),
x hnaf(numcomp,numcell),mkdr(numcomp,numcell),
x mka(numcomp,numcell),hka(numcomp,numcell),
x mk2(numcomp,numcell), cinv(numcomp),
x hk2(numcomp,numcell),mkm(numcomp,numcell),
x mkc(numcomp,numcell),mkahp(numcomp,numcell),
x mcat(numcomp,numcell),
x hcat(numcomp,numcell),mcal(numcomp,numcell),
x mar(numcomp,numcell),
x jacob(numcomp,numcomp),betchi(numcomp),
x gam(0:numcomp,0:numcomp),gL(numcomp),gnaf(numcomp),
x gnap(numcomp),gkdr(numcomp),gka(numcomp),
x gk2(numcomp),gkm(numcomp),
x gkc(numcomp),gkahp(numcomp),
x gcat(numcomp),gcaL(numcomp),gar(numcomp),
x gampa(numcomp,numcell),ggaba_b(numcomp,numcell),
x gnmda(numcomp,numcell),ggaba_a(numcomp,numcell),
x cafor(numcomp)
real*8
X alpham_naf(0:640),betam_naf(0:640),dalpham_naf(0:640),
X dbetam_naf(0:640),
X alphah_naf(0:640),betah_naf(0:640),dalphah_naf(0:640),
X dbetah_naf(0:640),
X alpham_kdr(0:640),betam_kdr(0:640),dalpham_kdr(0:640),
X dbetam_kdr(0:640),
X alpham_ka(0:640), betam_ka(0:640),dalpham_ka(0:640) ,
X dbetam_ka(0:640),
X alphah_ka(0:640), betah_ka(0:640), dalphah_ka(0:640),
X dbetah_ka(0:640),
X alpham_k2(0:640), betam_k2(0:640), dalpham_k2(0:640),
X dbetam_k2(0:640),
X alphah_k2(0:640), betah_k2(0:640), dalphah_k2(0:640),
X dbetah_k2(0:640),
X alpham_km(0:640), betam_km(0:640), dalpham_km(0:640),
X dbetam_km(0:640),
X alpham_kc(0:640), betam_kc(0:640), dalpham_kc(0:640),
X dbetam_kc(0:640),
X alpham_cat(0:640),betam_cat(0:640),dalpham_cat(0:640),
X dbetam_cat(0:640),
X alphah_cat(0:640),betah_cat(0:640),dalphah_cat(0:640),
X dbetah_cat(0:640),
X alpham_caL(0:640),betam_caL(0:640),dalpham_caL(0:640),
X dbetam_caL(0:640),
X alpham_ar(0:640), betam_ar(0:640), dalpham_ar(0:640),
X dbetam_ar(0:640)
real*8 outrcd(20)
INTEGER NEIGH(numcomp, 7), NNUM(numcomp)
real*8 persistentNa_shift, fastNa_shift_SD
real*8 fastNa_shift_axon
c the f's are the functions giving 1st derivatives for evolution of
c the differential equations for the voltages (v), calcium (chi), and
c other state variables.
real*8 fv(numcomp), fchi(numcomp),
x fmnaf(numcomp),fhnaf(numcomp),fmkdr(numcomp),
x fmka(numcomp),fhka(numcomp),
x fmk2(numcomp),fhk2(numcomp),fmnap(numcomp),
x fmkm(numcomp),fmkc(numcomp),fmkahp(numcomp),
x fmcat(numcomp),fhcat(numcomp),
x fmcal(numcomp),fmar(numcomp)
c below are for calculating the partial derivatives
real*8 dfv_dv(numcomp,numcomp), dfv_dchi(numcomp),
x dfv_dmnaf(numcomp),
x dfv_dmnap(numcomp),
x dfv_dhnaf(numcomp),dfv_dmkdr(numcomp),
x dfv_dmka(numcomp),dfv_dhka(numcomp),
x dfv_dmk2(numcomp),dfv_dhk2(numcomp),
x dfv_dmkm(numcomp),dfv_dmkc(numcomp),
x dfv_dmkahp(numcomp),dfv_dmcat(numcomp),
x dfv_dhcat(numcomp),dfv_dmcal(numcomp),
x dfv_dmar(numcomp)
real*8 dfchi_dv(numcomp), dfchi_dchi(numcomp),
x dfmnaf_dmnaf(numcomp),
x dfmnaf_dv(numcomp),dfhnaf_dhnaf(numcomp),
x dfmnap_dmnap(numcomp), dfmnap_dv(numcomp),
x dfhnaf_dv(numcomp),
x dfmkdr_dmkdr(numcomp),dfmkdr_dv(numcomp),
x dfmka_dmka(numcomp),dfmka_dv(numcomp),
x dfhka_dhka(numcomp),dfhka_dv(numcomp),
x dfmk2_dmk2(numcomp),dfmk2_dv(numcomp),
x dfhk2_dhk2(numcomp),dfhk2_dv(numcomp),
x dfmkm_dmkm(numcomp),dfmkm_dv(numcomp),
x dfmkc_dmkc(numcomp),dfmkc_dv(numcomp),
x dfmcat_dmcat(numcomp),
x dfmcat_dv(numcomp),dfhcat_dhcat(numcomp),
x dfhcat_dv(numcomp),
x dfmcal_dmcal(numcomp),dfmcal_dv(numcomp),
x dfmar_dmar(numcomp),
x dfmar_dv(numcomp),dfmkahp_dchi(numcomp),
x dfmkahp_dmkahp(numcomp), dt2
REAL*8 vL(numcomp),vk(numcomp),vna,var,vca,vgaba_a
REAL*8 OPEN(numcomp),gamma(numcomp),gamma_prime(numcomp)
c gamma is function of chi used in calculating KC conductance
REAL*8 alpham_ahp(numcomp),alpham_ahp_prime(numcomp)
REAL*8 gna_tot(numcomp),gk_tot(numcomp)
REAL*8 gca_tot(numcomp),gar_tot(numcomp)
REAL*8 gca_high(numcomp)
c this will be gCa conductance corresponding to high-thresh channels
REAL*8 A, BB1, BB2
real*8 depth(18), membcurr(18), field_sup, field_deep
integer level(numcomp)
! do initialization on 1st time step
c if (O == 1) then
if (initialize == 0) then
c Program assumes A, BB1, BB2 defined in calling program
c as follows:
A = DEXP(-2.847d0)
BB1 = DEXP(-.693d0)
BB2 = DEXP(-3.101d0)
CALL LAYVTU_RS_SETUP
X (alpham_naf, betam_naf, dalpham_naf, dbetam_naf,
X alphah_naf, betah_naf, dalphah_naf, dbetah_naf,
X alpham_kdr, betam_kdr, dalpham_kdr, dbetam_kdr,
X alpham_ka , betam_ka , dalpham_ka , dbetam_ka ,
X alphah_ka , betah_ka , dalphah_ka , dbetah_ka ,
X alpham_k2 , betam_k2 , dalpham_k2 , dbetam_k2 ,
X alphah_k2 , betah_k2 , dalphah_k2 , dbetah_k2 ,
X alpham_km , betam_km , dalpham_km , dbetam_km ,
X alpham_kc , betam_kc , dalpham_kc , dbetam_kc ,
X alpham_cat, betam_cat, dalpham_cat, dbetam_cat,
X alphah_cat, betah_cat, dalphah_cat, dbetah_cat,
X alpham_caL, betam_caL, dalpham_caL, dbetam_caL,
X alpham_ar , betam_ar , dalpham_ar , dbetam_ar)
CALL LAYVTU_RS_MAJ (GL,GAM,GKDR,GKA,GKC,GKAHP,GK2,GKM,
X GCAT,GCAL,GNAF,GNAP,GAR,
X CAFOR,JACOB,C,BETCHI,NEIGH,NNUM,depth,level)
do i = 1, numcomp
cinv(i) = 1.d0 / c(i)
end do
do i = 1, numcomp
if (i.le. 55) then
vL(i) = -70.d0
else
vL(i) = -70.d0
endif
end do
do i = 1, numcomp
if (i.le. 55) then
vK(i) = -95.d0
else
vK(i) = - 95.d0
endif
end do
VNA = 50.d0
VCA = 125.d0
VAR = -43.d0
VAR = -35.d0
c -43 mV from Huguenard & McCormick
c VGABA_A = -81.d0
VGABA_A = -75.d0
c ? initialize membrane state variables?
! curr = 0.d0
v = VL(1)
k1 = idnint (4.d0 * (v(1,1) + 120.d0))
hnaf = alphah_naf(k1)/(alphah_naf(k1)+betah_naf(k1))
hka = alphah_ka(k1)/(alphah_ka(k1)+betah_ka(k1))
hk2 = alphah_k2(k1)/(alphah_k2(k1)+betah_k2(k1))
hcat=alphah_cat(k1)/(alphah_cat(k1)+betah_cat(k1))
c mar=alpham_ar(k1)/(alpham_ar(k1)+betam_ar(k1))
mar= .25d0
mnaf = 0.d0
mnap = 0.d0
mkdr = 0.d0
mka = 0.d0
mk2 = 0.d0
mkm = 0.d0
mkc = 0.d0
mkahp = 0.d0
mcat = 0.d0
mcal = 0.d0
chi = 0.d0
! z1, z2, z3 as per layVtup.f.2Jun03: altered Sept. 7, 2006
c z1 = 0.2d0
z1 = 0.05d0
z2 = 3.6d0
c z3 = 0.4d0
z3 = 0.2d0
z4 = 0.7d0
do i = 1, 55
gnap(i) = z1 * gnap(i)
gkc (i) = z2 * gkc (i)
gCaL(i) = z3 * gCaL(I)
gnaf(i) = z4 * gnaf(I)
end do
c above should give RS cell.
c Inrease gCaL just past bifurcation, so that tuft can make Ca spike
gCaL(48) = 4.5d0 * gCaL(48)
gCaL(49) = 4.5d0 * gCaL(49)
goto 4000
! End initialization
endif
do i = 1, 18
membcurr(i) = 0.d0
end do
c do L = 1, numcell
do L = firstcell, lastcell
DO 301, I = 1, numcomp
FV(I) = -GL(I) * (V(I,L) - VL(i)) * cinv(i)
DO 302, J = 1, NNUM(I)
K = NEIGH(I,J)
302 FV(I) = FV(I) + GAM(I,K) * (V(K,L) - V(I,L)) * cinv(i)
301 CONTINUE
CALL FNMDA (V, OPEN, numcell, numcomp, MG, L,
& A, BB1, BB2)
DO 421, I = 1, numcomp
FV(I) = FV(I) + ( CURR(I,L)
X - (gampa(I,L) + open(i) * gnmda(I,L))*V(I,L)
X - ggaba_a(I,L)*(V(I,L)-Vgaba_a)
X - ggaba_b(I,L)*(V(I,L)-VK(i) ) ) * cinv(i)
c above assumes equil. potential for AMPA & NMDA = 0 mV
421 continue
! gj code here
do m = 1, totaxgj
if (gjtable(m,1).eq.L) then
L1 = gjtable(m,3)
igap1 = gjtable(m,2)
igap2 = gjtable(m,4)
fv(igap1) = fv(igap1) + gapcon *
& (v(igap2,L1) - v(igap1,L)) * cinv(igap1)
else if (gjtable(m,3).eq.L) then
L1 = gjtable(m,1)
igap1 = gjtable(m,4)
igap2 = gjtable(m,2)
fv(igap1) = fv(igap1) + gapcon *
& (v(igap2,L1) - v(igap1,L)) * cinv(igap1)
endif
end do ! do m
do i = 1, numcomp
gamma(i) = dmin1 (1.d0, .004d0 * chi(i,L))
if (chi(i,L).le.250.d0) then
gamma_prime(i) = .004d0
else
gamma_prime(i) = 0.d0
endif
c endif
end do
DO 88, I = 1, numcomp
gna_tot(i) = gnaf(i) * (mnaf(i,L)**3) * hnaf(i,L) +
x gnap(i) * mnap(i,L)
gk_tot(i) = gkdr(i) * (mkdr(i,L)**4) +
x gka(i) * (mka(i,L)**4) * hka(i,L) +
x gk2(i) * mk2(i,L) * hk2(i,L) +
x gkm(i) * mkm(i,L) +
x gkc(i) * mkc(i,L) * gamma(i) +
x gkahp(i)* mkahp(i,L)
gca_tot(i) = gcat(i) * (mcat(i,L)**2) * hcat(i,L) +
x gcaL(i) * (mcaL(i,L)**2)
gca_high(i) =
x gcaL(i) * (mcaL(i,L)**2)
gar_tot(i) = gar(i) * mar(i,L)
FV(I) = FV(I) - ( gna_tot(i) * (v(i,L) - vna)
X + gk_tot(i) * (v(i,L) - vK(i))
X + gca_tot(i) * (v(i,L) - vCa)
X + gar_tot(i) * (v(i,L) - var) ) * cinv(i)
c endif
88 continue
do i = 1, numcomp
do j = 1, numcomp
if (i.ne.j) then
dfv_dv(i,j) = jacob(i,j)
else
dfv_dv(i,j) = jacob(i,i) - cinv(i) *
X (gna_tot(i) + gk_tot(i) + gca_tot(i) + gar_tot(i)
X + ggaba_a(i,L) + ggaba_b(i,L) + gampa(i,L)
X + open(i) * gnmda(I,L) )
endif
end do
end do
do i = 1, numcomp
dfv_dchi(i) = - cinv(i) * gkc(i) * mkc(i,L) *
x gamma_prime(i) * (v(i,L)-vK(i))
dfv_dmnaf(i) = -3.d0 * cinv(i) * (mnaf(i,L)**2) *
X (gnaf(i) * hnaf(i,L) ) * (v(i,L) - vna)
dfv_dmnap(i) = - cinv(i) *
X ( gnap(i)) * (v(i,L) - vna)
dfv_dhnaf(i) = - cinv(i) * gnaf(i) * (mnaf(i,L)**3) *
X (v(i,L) - vna)
dfv_dmkdr(i) = -4.d0 * cinv(i) * gkdr(i) * (mkdr(i,L)**3)
X * (v(i,L) - vK(i))
dfv_dmka(i) = -4.d0 * cinv(i) * gka(i) * (mka(i,L)**3) *
X hka(i,L) * (v(i,L) - vK(i))
dfv_dhka(i) = - cinv(i) * gka(i) * (mka(i,L)**4) *
X (v(i,L) - vK(i))
dfv_dmk2(i) = - cinv(i)*gk2(i)*hk2(i,L)*(v(i,L)-vK(i))
dfv_dhk2(i) = - cinv(i)*gk2(i)*mk2(i,L)*(v(i,L)-vK(i))
dfv_dmkm(i) = - cinv(i) * gkm(i) * (v(i,L) - vK(i))
dfv_dmkc(i) = - cinv(i) * gkc(i)*gamma(i) * (v(i,L)-vK(i))
dfv_dmkahp(i)= - cinv(i) * gkahp(i) * (v(i,L) - vK(i))
dfv_dmcat(i) = -2.d0 * cinv(i) * gcat(i) * mcat(i,L) *
X hcat(i,L) * (v(i,L) - vCa)
dfv_dhcat(i) = - cinv(i) * gcat(i) * (mcat(i,L)**2) *
X (v(i,L) - vCa)
dfv_dmcal(i) = -2.d0 * cinv(i) * gcal(i) * mcal(i,L) *
X (v(i,L) - vCa)
dfv_dmar(i) = - cinv(i) * gar(i) * (v(i,L) - var)
end do
do i = 1, numcomp
fchi(i) = - cafor(i) * gca_high(i) * (v(i,L) - vca)
c fchi(i) = - cafor(i) * gca_tot (i) * (v(i,L) - vca)
x - betchi(i) * chi(i,L)
dfchi_dv(i) = - cafor(i) * gca_high(i)
c dfchi_dv(i) = - cafor(i) * gca_tot (i)
dfchi_dchi(i) = - betchi(i)
end do
do i = 1, numcomp
c Note possible increase in rate at which AHP current develops
c alpham_ahp(i) = dmin1(0.2d-4 * chi(i,L),0.01d0)
alpham_ahp(i) = dmin1(1.0d-4 * chi(i,L),0.01d0)
c alpham_ahp(i) = dmin1(1.0d-4 * chi(i,L),0.02d0)
if (chi(i,L).le.500.d0) then
c alpham_ahp_prime(i) = 0.2d-4
alpham_ahp_prime(i) = 1.0d-4
else
alpham_ahp_prime(i) = 0.d0
endif
end do
do i = 1, numcomp
fmkahp(i) = alpham_ahp(i) * (1.d0 - mkahp(i,L))
x -.001d0 * mkahp(i,L)
c x -.010d0 * mkahp(i,L)
dfmkahp_dmkahp(i) = - alpham_ahp(i) - .001d0
c dfmkahp_dmkahp(i) = - alpham_ahp(i) - .010d0
dfmkahp_dchi(i) = alpham_ahp_prime(i) *
x (1.d0 - mkahp(i,L))
end do
do i = 1, numcomp
K1 = IDNINT ( 4.d0 * (V(I,L) + 120.d0) )
IF (K1.GT.640) K1 = 640
IF (K1.LT. 0) K1 = 0
c persistentNa_shift = 0.d0
c persistentNa_shift = 8.d0
persistentNa_shift = 10.d0
K2 = IDNINT ( 4.d0 * (V(I,L)+persistentNa_shift+ 120.d0) )
IF (K2.GT.640) K2 = 640
IF (K2.LT. 0) K2 = 0
c fastNa_shift = -2.0d0
c fastNa_shift = -2.5d0
fastNa_shift_SD = -3.5d0
c fastNa_shift_axon = fastNa_shift_SD + 7.d0
fastNa_shift_axon = fastNa_shift_SD + 4.d0
K0 = IDNINT ( 4.d0 * (V(I,L)+ fastNa_shift_SD+ 120.d0) )
K3 = IDNINT ( 4.d0 * (V(I,L)+ fastNa_shift_axon+ 120.d0) )
IF (K0.GT.640) K0 = 640
IF (K0.LT. 0) K0 = 0
IF (K3.GT.640) K3 = 640
IF (K3.LT. 0) K3 = 0
if (i.le.55) then
fmnaf(i) = alpham_naf(k0) * (1.d0 - mnaf(i,L)) -
X betam_naf(k0) * mnaf(i,L)
fhnaf(i) = alphah_naf(k0) * (1.d0 - hnaf(i,L)) -
X betah_naf(k0) * hnaf(i,L)
else
fmnaf(i) = alpham_naf(k3) * (1.d0 - mnaf(i,L)) -
X betam_naf(k3) * mnaf(i,L)
fhnaf(i) = alphah_naf(k3) * (1.d0 - hnaf(i,L)) -
X betah_naf(k3) * hnaf(i,L)
endif
fmnap(i) = alpham_naf(k2) * (1.d0 - mnap(i,L)) -
X betam_naf(k2) * mnap(i,L)
fmkdr(i) = alpham_kdr(k1) * (1.d0 - mkdr(i,L)) -
X betam_kdr(k1) * mkdr(i,L)
fmka(i) = alpham_ka (k1) * (1.d0 - mka(i,L)) -
X betam_ka (k1) * mka(i,L)
fhka(i) = alphah_ka (k1) * (1.d0 - hka(i,L)) -
X betah_ka (k1) * hka(i,L)
fmk2(i) = alpham_k2 (k1) * (1.d0 - mk2(i,L)) -
X betam_k2 (k1) * mk2(i,L)
fhk2(i) = alphah_k2 (k1) * (1.d0 - hk2(i,L)) -
X betah_k2 (k1) * hk2(i,L)
fmkm(i) = alpham_km (k1) * (1.d0 - mkm(i,L)) -
X betam_km (k1) * mkm(i,L)
fmkc(i) = alpham_kc (k1) * (1.d0 - mkc(i,L)) -
X betam_kc (k1) * mkc(i,L)
fmcat(i) = alpham_cat(k1) * (1.d0 - mcat(i,L)) -
X betam_cat(k1) * mcat(i,L)
fhcat(i) = alphah_cat(k1) * (1.d0 - hcat(i,L)) -
X betah_cat(k1) * hcat(i,L)
fmcaL(i) = alpham_caL(k1) * (1.d0 - mcaL(i,L)) -
X betam_caL(k1) * mcaL(i,L)
fmar(i) = alpham_ar (k1) * (1.d0 - mar(i,L)) -
X betam_ar (k1) * mar(i,L)
dfmnaf_dv(i) = dalpham_naf(k0) * (1.d0 - mnaf(i,L)) -
X dbetam_naf(k0) * mnaf(i,L)
dfmnap_dv(i) = dalpham_naf(k2) * (1.d0 - mnap(i,L)) -
X dbetam_naf(k2) * mnap(i,L)
dfhnaf_dv(i) = dalphah_naf(k1) * (1.d0 - hnaf(i,L)) -
X dbetah_naf(k1) * hnaf(i,L)
dfmkdr_dv(i) = dalpham_kdr(k1) * (1.d0 - mkdr(i,L)) -
X dbetam_kdr(k1) * mkdr(i,L)
dfmka_dv(i) = dalpham_ka(k1) * (1.d0 - mka(i,L)) -
X dbetam_ka(k1) * mka(i,L)
dfhka_dv(i) = dalphah_ka(k1) * (1.d0 - hka(i,L)) -
X dbetah_ka(k1) * hka(i,L)
dfmk2_dv(i) = dalpham_k2(k1) * (1.d0 - mk2(i,L)) -
X dbetam_k2(k1) * mk2(i,L)
dfhk2_dv(i) = dalphah_k2(k1) * (1.d0 - hk2(i,L)) -
X dbetah_k2(k1) * hk2(i,L)
dfmkm_dv(i) = dalpham_km(k1) * (1.d0 - mkm(i,L)) -
X dbetam_km(k1) * mkm(i,L)
dfmkc_dv(i) = dalpham_kc(k1) * (1.d0 - mkc(i,L)) -
X dbetam_kc(k1) * mkc(i,L)
dfmcat_dv(i) = dalpham_cat(k1) * (1.d0 - mcat(i,L)) -
X dbetam_cat(k1) * mcat(i,L)
dfhcat_dv(i) = dalphah_cat(k1) * (1.d0 - hcat(i,L)) -
X dbetah_cat(k1) * hcat(i,L)
dfmcaL_dv(i) = dalpham_caL(k1) * (1.d0 - mcaL(i,L)) -
X dbetam_caL(k1) * mcaL(i,L)
dfmar_dv(i) = dalpham_ar(k1) * (1.d0 - mar(i,L)) -
X dbetam_ar(k1) * mar(i,L)
dfmnaf_dmnaf(i) = - alpham_naf(k0) - betam_naf(k0)
dfmnap_dmnap(i) = - alpham_naf(k2) - betam_naf(k2)
dfhnaf_dhnaf(i) = - alphah_naf(k1) - betah_naf(k1)
dfmkdr_dmkdr(i) = - alpham_kdr(k1) - betam_kdr(k1)
dfmka_dmka(i) = - alpham_ka (k1) - betam_ka (k1)
dfhka_dhka(i) = - alphah_ka (k1) - betah_ka (k1)
dfmk2_dmk2(i) = - alpham_k2 (k1) - betam_k2 (k1)
dfhk2_dhk2(i) = - alphah_k2 (k1) - betah_k2 (k1)
dfmkm_dmkm(i) = - alpham_km (k1) - betam_km (k1)
dfmkc_dmkc(i) = - alpham_kc (k1) - betam_kc (k1)
dfmcat_dmcat(i) = - alpham_cat(k1) - betam_cat(k1)
dfhcat_dhcat(i) = - alphah_cat(k1) - betah_cat(k1)
dfmcaL_dmcaL(i) = - alpham_caL(k1) - betam_caL(k1)
dfmar_dmar(i) = - alpham_ar (k1) - betam_ar (k1)
end do
dt2 = 0.5d0 * dt * dt
do i = 1, numcomp
v(i,L) = v(i,L) + dt * fv(i)
do j = 1, numcomp
v(i,L) = v(i,L) + dt2 * dfv_dv(i,j) * fv(j)
end do
v(i,L) = v(i,L) + dt2 * ( dfv_dchi(i) * fchi(i)
X + dfv_dmnaf(i) * fmnaf(i)
X + dfv_dmnap(i) * fmnap(i)
X + dfv_dhnaf(i) * fhnaf(i)
X + dfv_dmkdr(i) * fmkdr(i)
X + dfv_dmka(i) * fmka(i)
X + dfv_dhka(i) * fhka(i)
X + dfv_dmk2(i) * fmk2(i)
X + dfv_dhk2(i) * fhk2(i)
X + dfv_dmkm(i) * fmkm(i)
X + dfv_dmkc(i) * fmkc(i)
X + dfv_dmkahp(i)* fmkahp(i)
X + dfv_dmcat(i) * fmcat(i)
X + dfv_dhcat(i) * fhcat(i)
X + dfv_dmcaL(i) * fmcaL(i)
X + dfv_dmar(i) * fmar(i) )
chi(i,L) = chi(i,L) + dt * fchi(i) + dt2 *
X (dfchi_dchi(i) * fchi(i) + dfchi_dv(i) * fv(i))
mnaf(i,L) = mnaf(i,L) + dt * fmnaf(i) + dt2 *
X (dfmnaf_dmnaf(i) * fmnaf(i) + dfmnaf_dv(i)*fv(i))
mnap(i,L) = mnap(i,L) + dt * fmnap(i) + dt2 *
X (dfmnap_dmnap(i) * fmnap(i) + dfmnap_dv(i)*fv(i))
hnaf(i,L) = hnaf(i,L) + dt * fhnaf(i) + dt2 *
X (dfhnaf_dhnaf(i) * fhnaf(i) + dfhnaf_dv(i)*fv(i))
mkdr(i,L) = mkdr(i,L) + dt * fmkdr(i) + dt2 *
X (dfmkdr_dmkdr(i) * fmkdr(i) + dfmkdr_dv(i)*fv(i))
mka(i,L) = mka(i,L) + dt * fmka(i) + dt2 *
X (dfmka_dmka(i) * fmka(i) + dfmka_dv(i) * fv(i))
hka(i,L) = hka(i,L) + dt * fhka(i) + dt2 *
X (dfhka_dhka(i) * fhka(i) + dfhka_dv(i) * fv(i))
mk2(i,L) = mk2(i,L) + dt * fmk2(i) + dt2 *
X (dfmk2_dmk2(i) * fmk2(i) + dfmk2_dv(i) * fv(i))
hk2(i,L) = hk2(i,L) + dt * fhk2(i) + dt2 *
X (dfhk2_dhk2(i) * fhk2(i) + dfhk2_dv(i) * fv(i))
mkm(i,L) = mkm(i,L) + dt * fmkm(i) + dt2 *
X (dfmkm_dmkm(i) * fmkm(i) + dfmkm_dv(i) * fv(i))
mkc(i,L) = mkc(i,L) + dt * fmkc(i) + dt2 *
X (dfmkc_dmkc(i) * fmkc(i) + dfmkc_dv(i) * fv(i))
mkahp(i,L) = mkahp(i,L) + dt * fmkahp(i) + dt2 *
X (dfmkahp_dmkahp(i)*fmkahp(i) + dfmkahp_dchi(i)*fchi(i))
mcat(i,L) = mcat(i,L) + dt * fmcat(i) + dt2 *
X (dfmcat_dmcat(i) * fmcat(i) + dfmcat_dv(i) * fv(i))
hcat(i,L) = hcat(i,L) + dt * fhcat(i) + dt2 *
X (dfhcat_dhcat(i) * fhcat(i) + dfhcat_dv(i) * fv(i))
mcaL(i,L) = mcaL(i,L) + dt * fmcaL(i) + dt2 *
X (dfmcaL_dmcaL(i) * fmcaL(i) + dfmcaL_dv(i) * fv(i))
mar(i,L) = mar(i,L) + dt * fmar(i) + dt2 *
X (dfmar_dmar(i) * fmar(i) + dfmar_dv(i) * fv(i))
c endif
end do
! Add membrane currents into membcurr for appropriate compartments
do i = 1, 6
j = level(i)
membcurr(j) = membcurr(j) + fv(i) * c(i)
end do
do i = 13, 17
j = level(i)
membcurr(j) = membcurr(j) + fv(i) * c(i)
end do
do i = 24, 28
j = level(i)
membcurr(j) = membcurr(j) + fv(i) * c(i)
end do
do i = 35, 55
j = level(i)
membcurr(j) = membcurr(j) + fv(i) * c(i)
end do
end do ! do L
field_sup = 0.d0
field_deep = 0.d0
do i = 1, 18
c field_sup = field_sup + membcurr(i) / dabs(100.d0 - depth(i))
field_sup = 0.d0
c field_deep = field_deep + membcurr(i) / dabs(500.d0 - depth(i))
field_deep = 0.d0
end do
4000 END
C SETS UP TABLES FOR RATE FUNCTIONS
SUBROUTINE LAYVTU_RS_SETUP
X (alpham_naf, betam_naf, dalpham_naf, dbetam_naf,
X alphah_naf, betah_naf, dalphah_naf, dbetah_naf,
X alpham_kdr, betam_kdr, dalpham_kdr, dbetam_kdr,
X alpham_ka , betam_ka , dalpham_ka , dbetam_ka ,
X alphah_ka , betah_ka , dalphah_ka , dbetah_ka ,
X alpham_k2 , betam_k2 , dalpham_k2 , dbetam_k2 ,
X alphah_k2 , betah_k2 , dalphah_k2 , dbetah_k2 ,
X alpham_km , betam_km , dalpham_km , dbetam_km ,
X alpham_kc , betam_kc , dalpham_kc , dbetam_kc ,
X alpham_cat, betam_cat, dalpham_cat, dbetam_cat,
X alphah_cat, betah_cat, dalphah_cat, dbetah_cat,
X alpham_caL, betam_caL, dalpham_caL, dbetam_caL,
X alpham_ar , betam_ar , dalpham_ar , dbetam_ar)
INTEGER I,J,K
real*8 minf, hinf, taum, tauh, V, Z, shift_hnaf,
X shift_mkdr,
X alpham_naf(0:640),betam_naf(0:640),dalpham_naf(0:640),
X dbetam_naf(0:640),
X alphah_naf(0:640),betah_naf(0:640),dalphah_naf(0:640),
X dbetah_naf(0:640),
X alpham_kdr(0:640),betam_kdr(0:640),dalpham_kdr(0:640),
X dbetam_kdr(0:640),
X alpham_ka(0:640), betam_ka(0:640),dalpham_ka(0:640) ,
X dbetam_ka(0:640),
X alphah_ka(0:640), betah_ka(0:640), dalphah_ka(0:640),
X dbetah_ka(0:640),
X alpham_k2(0:640), betam_k2(0:640), dalpham_k2(0:640),
X dbetam_k2(0:640),
X alphah_k2(0:640), betah_k2(0:640), dalphah_k2(0:640),
X dbetah_k2(0:640),
X alpham_km(0:640), betam_km(0:640), dalpham_km(0:640),
X dbetam_km(0:640),
X alpham_kc(0:640), betam_kc(0:640), dalpham_kc(0:640),
X dbetam_kc(0:640),
X alpham_cat(0:640),betam_cat(0:640),dalpham_cat(0:640),
X dbetam_cat(0:640),
X alphah_cat(0:640),betah_cat(0:640),dalphah_cat(0:640),
X dbetah_cat(0:640),
X alpham_caL(0:640),betam_caL(0:640),dalpham_caL(0:640),
X dbetam_caL(0:640),
X alpham_ar(0:640), betam_ar(0:640), dalpham_ar(0:640),
X dbetam_ar(0:640)
C FOR VOLTAGE, RANGE IS -120 TO +40 MV (absol.), 0.25 MV RESOLUTION
DO 1, I = 0, 640
V = dble(I)
V = (V / 4.d0) - 120.d0
c gNa
minf = 1.d0/(1.d0 + dexp((-V-38.d0)/10.d0))
if (v.le.-30.d0) then
taum = .025d0 + .14d0*dexp((v+30.d0)/10.d0)
else
taum = .02d0 + .145d0*dexp((-v-30.d0)/10.d0)
endif
c from principal c. data, Martina & Jonas 1997, tau x 0.5
c Note that minf about the same for interneuron & princ. cell.
alpham_naf(i) = minf / taum
betam_naf(i) = 1.d0/taum - alpham_naf(i)
shift_hnaf = 0.d0
hinf = 1.d0/(1.d0 +
x dexp((v + shift_hnaf + 62.9d0)/10.7d0))
tauh = 0.15d0 + 1.15d0/(1.d0+dexp((v+37.d0)/15.d0))
c from princ. cell data, Martina & Jonas 1997, tau x 0.5
alphah_naf(i) = hinf / tauh
betah_naf(i) = 1.d0/tauh - alphah_naf(i)
shift_mkdr = 0.d0
c delayed rectifier, non-inactivating
minf = 1.d0/(1.d0+dexp((-v-shift_mkdr-29.5d0)/10.0d0))
if (v.le.-10.d0) then
taum = .25d0 + 4.35d0*dexp((v+10.d0)/10.d0)
else
taum = .25d0 + 4.35d0*dexp((-v-10.d0)/10.d0)
endif
alpham_kdr(i) = minf / taum
betam_kdr(i) = 1.d0 /taum - alpham_kdr(i)
c from Martina, Schultz et al., 1998. See espec. Table 1.
c A current: Huguenard & McCormick 1992, J Neurophysiol (TCR)
minf = 1.d0/(1.d0 + dexp((-v-60.d0)/8.5d0))
hinf = 1.d0/(1.d0 + dexp((v+78.d0)/6.d0))
taum = .185d0 + .5d0/(dexp((v+35.8d0)/19.7d0) +
x dexp((-v-79.7d0)/12.7d0))
if (v.le.-63.d0) then
tauh = .5d0/(dexp((v+46.d0)/5.d0) +
x dexp((-v-238.d0)/37.5d0))
else
tauh = 9.5d0
endif
alpham_ka(i) = minf/taum
betam_ka(i) = 1.d0 / taum - alpham_ka(i)
alphah_ka(i) = hinf / tauh
betah_ka(i) = 1.d0 / tauh - alphah_ka(i)
c h-current (anomalous rectifier), Huguenard & McCormick, 1992
minf = 1.d0/(1.d0 + dexp((v+75.d0)/5.5d0))
taum = 1.d0/(dexp(-14.6d0 -0.086d0*v) +
x dexp(-1.87 + 0.07d0*v))
alpham_ar(i) = minf / taum
betam_ar(i) = 1.d0 / taum - alpham_ar(i)
c K2 K-current, McCormick & Huguenard
minf = 1.d0/(1.d0 + dexp((-v-10.d0)/17.d0))
hinf = 1.d0/(1.d0 + dexp((v+58.d0)/10.6d0))
taum = 4.95d0 + 0.5d0/(dexp((v-81.d0)/25.6d0) +
x dexp((-v-132.d0)/18.d0))
tauh = 60.d0 + 0.5d0/(dexp((v-1.33d0)/200.d0) +
x dexp((-v-130.d0)/7.1d0))
alpham_k2(i) = minf / taum
betam_k2(i) = 1.d0/taum - alpham_k2(i)
alphah_k2(i) = hinf / tauh
betah_k2(i) = 1.d0 / tauh - alphah_k2(i)
c voltage part of C-current, using 1994 kinetics, shift 60 mV
if (v.le.-10.d0) then
alpham_kc(i) = (2.d0/37.95d0)*dexp((v+50.d0)/11.d0 -
x (v+53.5)/27.d0)
betam_kc(i) = 2.d0*dexp((-v-53.5d0)/27.d0)-alpham_kc(i)
else
alpham_kc(i) = 2.d0*dexp((-v-53.5d0)/27.d0)
betam_kc(i) = 0.d0
endif
c high-threshold gCa, from 1994, with 60 mV shift & no inactivn.
alpham_cal(i) = 1.6d0/(1.d0+dexp(-.072d0*(v-5.d0)))
betam_cal(i) = 0.1d0 * ((v+8.9d0)/5.d0) /
x (dexp((v+8.9d0)/5.d0) - 1.d0)
c M-current, from plast.f, with 60 mV shift
alpham_km(i) = .02d0/(1.d0+dexp((-v-20.d0)/5.d0))
betam_km(i) = .01d0 * dexp((-v-43.d0)/18.d0)
c T-current, from Destexhe, Neubig et al., 1998
minf = 1.d0/(1.d0 + dexp((-v-56.d0)/6.2d0))
hinf = 1.d0/(1.d0 + dexp((v+80.d0)/4.d0))
taum = 0.204d0 + .333d0/(dexp((v+15.8d0)/18.2d0) +
x dexp((-v-131.d0)/16.7d0))
if (v.le.-81.d0) then
tauh = 0.333 * dexp((v+466.d0)/66.6d0)
else
tauh = 9.32d0 + 0.333d0*dexp((-v-21.d0)/10.5d0)
endif
alpham_cat(i) = minf / taum
betam_cat(i) = 1.d0/taum - alpham_cat(i)
alphah_cat(i) = hinf / tauh
betah_cat(i) = 1.d0 / tauh - alphah_cat(i)
1 CONTINUE
do 2, i = 0, 639
dalpham_naf(i) = (alpham_naf(i+1)-alpham_naf(i))/.25d0
dbetam_naf(i) = (betam_naf(i+1)-betam_naf(i))/.25d0
dalphah_naf(i) = (alphah_naf(i+1)-alphah_naf(i))/.25d0
dbetah_naf(i) = (betah_naf(i+1)-betah_naf(i))/.25d0
dalpham_kdr(i) = (alpham_kdr(i+1)-alpham_kdr(i))/.25d0
dbetam_kdr(i) = (betam_kdr(i+1)-betam_kdr(i))/.25d0
dalpham_ka(i) = (alpham_ka(i+1)-alpham_ka(i))/.25d0
dbetam_ka(i) = (betam_ka(i+1)-betam_ka(i))/.25d0
dalphah_ka(i) = (alphah_ka(i+1)-alphah_ka(i))/.25d0
dbetah_ka(i) = (betah_ka(i+1)-betah_ka(i))/.25d0
dalpham_k2(i) = (alpham_k2(i+1)-alpham_k2(i))/.25d0
dbetam_k2(i) = (betam_k2(i+1)-betam_k2(i))/.25d0
dalphah_k2(i) = (alphah_k2(i+1)-alphah_k2(i))/.25d0
dbetah_k2(i) = (betah_k2(i+1)-betah_k2(i))/.25d0
dalpham_km(i) = (alpham_km(i+1)-alpham_km(i))/.25d0
dbetam_km(i) = (betam_km(i+1)-betam_km(i))/.25d0
dalpham_kc(i) = (alpham_kc(i+1)-alpham_kc(i))/.25d0
dbetam_kc(i) = (betam_kc(i+1)-betam_kc(i))/.25d0
dalpham_cat(i) = (alpham_cat(i+1)-alpham_cat(i))/.25d0
dbetam_cat(i) = (betam_cat(i+1)-betam_cat(i))/.25d0
dalphah_cat(i) = (alphah_cat(i+1)-alphah_cat(i))/.25d0
dbetah_cat(i) = (betah_cat(i+1)-betah_cat(i))/.25d0
dalpham_caL(i) = (alpham_cal(i+1)-alpham_cal(i))/.25d0
dbetam_caL(i) = (betam_cal(i+1)-betam_cal(i))/.25d0
dalpham_ar(i) = (alpham_ar(i+1)-alpham_ar(i))/.25d0
dbetam_ar(i) = (betam_ar(i+1)-betam_ar(i))/.25d0
2 CONTINUE
END
SUBROUTINE LAYVTU_RS_MAJ
C BRANCHED ACTIVE DENDRITES
X (GL,GAM,GKDR,GKA,GKC,GKAHP,GK2,GKM,
X GCAT,GCAL,GNAF,GNAP,GAR,
X CAFOR,JACOB,C,BETCHI,NEIGH,NNUM,depth,level)
c Conductances: leak gL, coupling g, delayed rectifier gKDR, A gKA,
c C gKC, AHP gKAHP, K2 gK2, M gKM, low thresh Ca gCAT, high thresh
c gCAL, fast Na gNAF, persistent Na gNAP, h or anom. rectif. gAR.
c Note VAR = equil. potential for anomalous rectifier.
c Soma = comp. 1; 10 dendrites each with 13 compartments, 6-comp. axon
c Drop "glc"-like terms, just using "gl"-like
c CAFOR corresponds to "phi" in Traub et al., 1994
c Consistent set of units: nF, mV, ms, nA, microS
integer, parameter:: numcomp = 61
REAL*8 C(numcomp),GL(numcomp),GAM(0:numcomp,0:numcomp)
REAL*8 GNAF(numcomp),GCAT(numcomp)
REAL*8 GKDR(numcomp),GKA(numcomp),GAR(numcomp)
REAL*8 GKC(numcomp),GKAHP(numcomp),GCAL(numcomp)
REAL*8 GK2(numcomp),GKM(numcomp),GNAP(numcomp),CDENS
REAL*8 JACOB(numcomp,numcomp),RI_SD,RI_AXON,RM_SD,RM_AXON
INTEGER LEVEL(numcomp)
REAL*8 GNAF_DENS(0:18), GCAT_DENS(0:18), GKDR_DENS(0:18)
REAL*8 GKA_DENS(0:18), GKC_DENS(0:18), GKAHP_DENS(0:18)
REAL*8 GCAL_DENS(0:18), GK2_DENS(0:18), GKM_DENS(0:18)
REAL*8 GNAP_DENS(0:18), GAR_DENS(0:18)
REAL*8 RES, RINPUT
REAL*8 RSOMA, PI, BETCHI(numcomp), CAFOR(numcomp)
REAL*8 RAD(numcomp),LEN(numcomp),GAM1,GAM2,ELEN(numcomp)
REAL*8 RIN, D(numcomp), AREA(numcomp), RI, Z
INTEGER NEIGH(numcomp, 7), NNUM(numcomp)
C FOR ESTABLISHING TOPOLOGY OF COMPARTMENTS
real*8 depth(18)
depth(1) = 1800.d0
depth(2) = 1845.d0
depth(3) = 1890.d0
depth(4) = 1935.d0
depth(5) = 1760.d0
depth(6) = 1685.d0
depth(7) = 1610.d0
depth(8) = 1535.d0
depth(9) = 1460.d0
depth(10) = 1385.d0
depth(11) = 1310.d0
depth(12) = 1235.d0
depth(13) = 1160.d0
depth(14) = 1085.d0
depth(15) = 1010.d0
depth(16) = 935.d0
depth(17) = 860.d0
depth(18) = 790.d0
RI_SD = 250.d0
RM_SD = 50000.d0
RI_AXON = 100.d0
RM_AXON = 1000.d0
CDENS = 0.9d0
PI = 3.14159d0
c gnaf_dens = 5.d0
c gnaf_dens = 10.d0
gnaf_dens = 15.d0
c gnaf_dens(0) = 450.d0
gnaf_dens(0) = 175.d0
c gnaf_dens(1) = 200.d0
gnaf_dens(1) = 175.d0
gnaf_dens(2) = 75.d0
gnaf_dens(5) = 150.d0
gnaf_dens(6) = 75.d0
gnaf_dens(15) = 3.d0
gnaf_dens(16) = 3.d0
gnaf_dens(17) = 3.d0
gnaf_dens(18) = 3.d0
gkdr_dens = 0.d0
gkdr_dens(0) = 450.d0
gkdr_dens(1) = 170.d0
gkdr_dens(2) = 75.d0
gkdr_dens(5) = 120.d0
gkdr_dens(6) = 75.d0
do i = 1, 18
gnap_dens(i) = 0.0040d0 * gnaf_dens(i)
end do
do i = 1, 18
gcat_dens(i) = 0.1d0
c gcat_dens(i) = 0.5d0
end do
c gcaL_dens = 0.5d0
gcaL_dens = 4.0d0
gcaL_dens(0) = 0.d0
gcaL_dens( 8) = 1.d0
gcaL_dens( 9) = 1.d0
gcaL_dens(10) = 1.d0
gcaL_dens(11) = 1.d0
gcaL_dens(12) = 1.d0
gcaL_dens(13) = 1.d0
gcaL_dens(14) = 1.d0
gcaL_dens(15) = 1.d0
gcaL_dens(16) = 1.d0
gcaL_dens(17) = 1.d0
gcaL_dens(18) = 0.6d0
gka_dens = 0.60d0
gka_dens(1) = 20.d0
gka_dens(2) = 8.d0
gka_dens(5) = 8.d0
gka_dens(6) = 8.d0
gkc_dens = 0.25d0
gkc_dens(1) = 8.00d0
gkc_dens(2) = 8.00d0
gkc_dens(5) = 8.00d0
gkc_dens(6) = 8.00d0
gkc_dens(15) = 0.6d0
gkc_dens(16) = 0.6d0
gkc_dens(17) = 0.6d0
gkc_dens(18) = 0.6d0
c gkm_dens = 5.0d0
gkm_dens = 8.5d0
c gkm_dens(0) = 0.d0
gkm_dens(0) = 30.d0
gkm_dens(1) = 8.5d0
do i = 2, 14
gkm_dens(i) = 1.6d0 * 8.5d0
end do
gkm_dens(15) = 1.6d0 * 2.50d0
gkm_dens(16) = 1.6d0 * 2.50d0
gkm_dens(17) = 1.6d0 * 2.50d0
gkm_dens(18) = 1.6d0 * 2.50d0
c gk2_dens = 0.05d0
gk2_dens = 0.50d0
do i = 1, 18
c gkahp_dens(i) = 0.100d0
gkahp_dens(i) = 0.200d0
end do
c gkahp_dens(15) = 0.05d0
c gkahp_dens(16) = 0.05d0
c gkahp_dens(17) = 0.05d0
c gkahp_dens(18) = 0.05d0
do i = 1, 17
gar_dens(i) = 0.10d0
end do
gar_dens(18) = 0.2d0
c if (thisno.eq.0) then
c WRITE (6,9988)
9988 FORMAT(2X,'I',4X,'NADENS',' CADENS(L)',' KDRDEN',' KAHPDE',
X ' KCDENS',' KADENS',' KMDENS')
c DO 9989, I = 0, 18
c WRITE (6,9990) I, gnaf_dens(i), gcaL_dens(i), gkdr_dens(i),
c X gkahp_dens(i), gkc_dens(i), gka_dens(i), gkm_dens(i)
9990 FORMAT(2X,I2,2X,F6.2,1X,F6.2,1X,F6.2,1X,F6.2,1X,F6.2,1X,F6.2,
X 1X,F6.2)
9989 CONTINUE
c endif
level(1) = 1
do i = 2, 12
level(i) = 2
end do
do i = 13, 23
level(i) = 3
end do
do i = 24, 34
level(i) = 4
end do