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mcfost_grid.i
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mcfost_grid.i
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require, "init/mcfost_struct.i" ;
func create_grid(name,reference_file,
diskmass=,H0=,Rin=,Rout=,edge=,beta=,surf=,amin=,amax=,aexp=, gas_dust=, viscosity=,
diskmass_zone=,H0_zone=,Rin_zone=,Rout_zone=,edge_zone=,beta_zone=,surf_zone=,amin_zone=,amax_zone=,aexp_zone=,
diskmass_2=,H0_2=,Rin_2=,Rout_2=,edge_2=,beta_2=,surf_2=,amin_2=,amax_2=,aexp_2=,
diskmass_zone_2=,H0_zone_2=,Rin_zone_2=,Rout_zone_2=,edge_zone_2=,beta_zone_2=,surf_zone_2=,amin_zone_2=,amax_zone_2=,aexp_zone_2=,
diskmass_3=,H0_3=,Rin_3=,Rout_3=,edge_3=,beta_3=,surf_3=,amin_3=,amax_3=,aexp_3=,
diskmass_zone_3=,H0_zone_3=,Rin_zone_3=,Rout_zone_3=,edge_zone_3=,beta_zone_3=,surf_zone_3=,amin_zone_3=,amax_zone_3=,aexp_zone_3=,
diskmass_4=,H0_4=,Rin_4=,Rout_4=,edge_4=,beta_4=,surf_4=,amin_4=,amax_4=,aexp_4=,
diskmass_zone_4=,H0_zone_4=,Rin_zone_4=,Rout_zone_4=,edge_zone_4=,beta_zone_4=,surf_zone_4=,amin_zone_4=,amax_zone_4=,aexp_zone_4=,
amin_specie=,amax_specie=,aexp_specie=,
amin_specie_2=,amax_specie_2=,aexp_specie_2=,
amin_specie_3=,amax_specie_3=,aexp_specie_3=,
amin_specie_4=,amax_specie_4=,aexp_specie_4=,
Rstar=,Tstar=,fUV=,slope_UV=,star=,strat=,R0Rin=,correct_Rsub=,istart=,zone=,gasp=,basename=,extension=,return_param=) {
/* DOCUMENT create_grid(name,reference_file,diskmass=,H0=,Rin=,Rout=,edge=,beta=,surf=,Rstar=,Tstar=,star=,amin=,amax=,aexp=,strat=,R0Rin=,istart=,zone=,gasp=,basename=,extension=,return_param=,
diskmass_zone=,H0_zone=,Rin_zone=,Rout_zone=,edge_zone=,beta_zone=,surf_zone=,amin_zone=,amax_zone=,aexp_zone=)
name : name of the grid of models to calculate
reference_file : mcfost reference parameter file
Parameters that can be varied :
- add _# for zone #
- add extra keword PARAMETER_zone(_#) for the zones it applies to (ie in case of correlated zones)
- add extra keword PARAMETER_specie(_#) in case of multiple species
diskmass=
H0=
Rin=
Rout=
edge=
beta=
surf=
correct_Rsub=
amin=
amax=
aexp=
strat=
Tstar=
Rstar=
star=
R0Rin=1 --> H0 defines the ratio H0(Rin)/Rin instead of H0(R0)
Command line options : default = none --> SED calculation
cmd_opt=
SEE ALSO:
_create_grid
*/
extern n_params_tot;
//tic ;
V = 2.20 ;
if (is_void(istart)) istart = 0 ;
if (is_void(zone)) zone = 1 ;
if (is_void(R0Rin)) R0Rin = 0 ;
if (is_void(gasp)) gasp = 0 ;
if (is_void(extension)) extension = ".par" ;
if (is_void(return_param)) return_param=0 ;
if (is_void(diskmass_zone)) diskmass_zone=zone ;
if (is_void(H0_zone)) H0_zone=zone ;
if (is_void(Rin_zone)) Rin_zone=zone ;
if (is_void(Rout_zone)) Rout_zone=zone ;
if (is_void(edge_zone)) edge_zone=zone ;
if (is_void(beta_zone)) beta_zone=zone ;
if (is_void(surf_zone)) surf_zone=zone ;
if (is_void(amin_zone)) amin_zone=zone ;
if (is_void(amax_zone)) amax_zone=zone ;
if (is_void(aexp_zone)) aexp_zone=zone ;
if (is_void(amin_specie)) amin_specie=1 ;
if (is_void(amax_specie)) amax_specie=1 ;
if (is_void(aexp_specie)) aexp_specie=1 ;
if (is_void(diskmass_zone_2)) diskmass_zone_2=2 ;
if (is_void(H0_zone_2)) H0_zone_2=2 ;
if (is_void(Rin_zone_2)) Rin_zone_2=2 ;
if (is_void(Rout_zone_2)) Rout_zone_2=2 ;
if (is_void(edge_zone_2)) edge_zone_2=2 ;
if (is_void(beta_zone_2)) beta_zone_2=2 ;
if (is_void(surf_zone_2)) surf_zone_2=2 ;
if (is_void(amin_zone_2)) amin_zone_2=2 ;
if (is_void(amax_zone_2)) amax_zone_2=2 ;
if (is_void(aexp_zone_2)) aexp_zone_2=2 ;
if (is_void(amin_specie_2)) amin_specie_2=1 ;
if (is_void(amax_specie_2)) amax_specie_2=1 ;
if (is_void(aexp_specie_2)) aexp_specie_2=1 ;
if (is_void(diskmass_zone_3)) diskmass_zone_3=3 ;
if (is_void(H0_zone_3)) H0_zone_3=3 ;
if (is_void(Rin_zone_3)) Rin_zone_3=3 ;
if (is_void(Rout_zone_3)) Rout_zone_3=3 ;
if (is_void(edge_zone_3)) edge_zone_3=3 ;
if (is_void(beta_zone_3)) beta_zone_3=3 ;
if (is_void(surf_zone_3)) surf_zone_3=3 ;
if (is_void(amin_zone_3)) amin_zone_3=3 ;
if (is_void(amax_zone_3)) amax_zone_3=3 ;
if (is_void(aexp_zone_3)) aexp_zone_3=3 ;
if (is_void(amin_specie_3)) amin_specie_3=1 ;
if (is_void(amax_specie_3)) amax_specie_3=1 ;
if (is_void(aexp_specie_3)) aexp_specie_3=1 ;
if (is_void(diskmass_zone_4)) diskmass_zone_4=4 ;
if (is_void(H0_zone_4)) H0_zone_4=4 ;
if (is_void(Rin_zone_4)) Rin_zone_4=4 ;
if (is_void(Rout_zone_4)) Rout_zone_4=4 ;
if (is_void(edge_zone_4)) edge_zone_4=4 ;
if (is_void(beta_zone_4)) beta_zone_4=4 ;
if (is_void(surf_zone_4)) surf_zone_4=4 ;
if (is_void(amin_zone_4)) amin_zone_4=4 ;
if (is_void(amax_zone_4)) amax_zone_4=4 ;
if (is_void(aexp_zone_4)) aexp_zone_4=4 ;
if (is_void(amin_specie_4)) amin_specie_4=1 ;
if (is_void(amax_specie_4)) amax_specie_4=1 ;
if (is_void(aexp_specie_4)) aexp_specie_4=1 ;
// Lecture du fichier de ref mcfost
ref = read_params(reference_file) ;
// Mise a jour des structures
include, struct_file ;
if (abs(V -ref.simu.version) > 1.e-4) {
write, "GRID: Version ", V, "needed. Exiting !!!";
return;
}
// Structure de la grille
mc_grid = array(MCFOST_grid) ;
mc_grid.ref = ref ;
// Definition grille de structure de modeles
dims = array(1,n_params_tot);
// Parametres des zones
if (!is_void(diskmass)) dims(1)=dimsof(diskmass)(0); mc_grid.names(1) = "diskmass" ;
if (!is_void(H0)) dims(2)=dimsof(H0)(0); mc_grid.names(2) = "H0" ;
if (!is_void(R0)) dims(3)=dimsof(R0)(0); mc_grid.names(3) = "R0" ;
if (!is_void(Rin)) dims(4)=dimsof(Rin)(0); mc_grid.names(4) = "Rin" ;
if (!is_void(Rout)) dims(5)=dimsof(Rout)(0); mc_grid.names(5) = "Rout" ;
if (!is_void(edge)) dims(6)=dimsof(edge)(0); mc_grid.names(6) = "edge" ;
if (!is_void(beta)) dims(7)=dimsof(beta)(0); mc_grid.names(7) = "beta" ;
if (!is_void(surf)) dims(8)=dimsof(surf)(0); mc_grid.names(8) = "surf" ;
if (!is_void(amin)) dims(9)=dimsof(amin)(0); mc_grid.names(9) = "amin" ;
if (!is_void(amax))dims(10)=dimsof(amax)(0); mc_grid.names(10) = "amax" ;
if (!is_void(aexp)) dims(11)=dimsof(aexp)(0); mc_grid.names(11) = "aexp" ;
I0 = 11 ;
if (!is_void(diskmass_2)) dims(I0+1)=dimsof(diskmass_2)(0); mc_grid.names(I0+1) = "diskmass_2" ;
if (!is_void(H0_2)) dims(I0+2)=dimsof(H0_2)(0); mc_grid.names(I0+2) = "H0_2" ;
if (!is_void(R0_2)) dims(I0+3)=dimsof(R0_2)(0); mc_grid.names(I0+3) = "R0_2" ;
if (!is_void(Rin_2)) dims(I0+4)=dimsof(Rin_2)(0); mc_grid.names(I0+4) = "Rin_2" ;
if (!is_void(Rout_2)) dims(I0+5)=dimsof(Rout_2)(0); mc_grid.names(I0+5) = "Rout_2" ;
if (!is_void(edge_2)) dims(I0+6)=dimsof(edge_2)(0); mc_grid.names(I0+6) = "edge_2" ;
if (!is_void(beta_2)) dims(I0+7)=dimsof(beta_2)(0); mc_grid.names(I0+7) = "beta_2" ;
if (!is_void(surf_2)) dims(I0+8)=dimsof(surf_2)(0); mc_grid.names(I0+8) = "surf_2" ;
if (!is_void(amin_2)) dims(I0+9)=dimsof(amin_2)(0); mc_grid.names(I0+9) = "amin_2" ;
if (!is_void(amax_2))dims(I0+10)=dimsof(amax_2)(0); mc_grid.names(I0+10) = "amax_2" ;
if (!is_void(aexp_2)) dims(I0+11)=dimsof(aexp_2)(0); mc_grid.names(I0+11) = "aexp_2" ;
if (!is_void(diskmass_3)) dims(2*I0+1)=dimsof(diskmass_3)(0); mc_grid.names(2*I0+1) = "diskmass_3" ;
if (!is_void(H0_3)) dims(2*I0+2)=dimsof(H0_3)(0); mc_grid.names(2*I0+2) = "H0_3" ;
if (!is_void(R0_3)) dims(2*I0+3)=dimsof(R0_3)(0); mc_grid.names(2*I0+3) = "R0_3" ;
if (!is_void(Rin_3)) dims(2*I0+4)=dimsof(Rin_3)(0); mc_grid.names(2*I0+4) = "Rin_3" ;
if (!is_void(Rout_3)) dims(2*I0+5)=dimsof(Rout_3)(0); mc_grid.names(2*I0+5) = "Rout_3" ;
if (!is_void(edge_3)) dims(2*I0+6)=dimsof(edge_3)(0); mc_grid.names(2*I0+6) = "edge_3" ;
if (!is_void(beta_3)) dims(2*I0+7)=dimsof(beta_3)(0); mc_grid.names(2*I0+7) = "beta_3" ;
if (!is_void(surf_3)) dims(2*I0+8)=dimsof(surf_3)(0); mc_grid.names(2*I0+8) = "surf_3" ;
if (!is_void(amin_3)) dims(2*I0+9)=dimsof(amin_3)(0); mc_grid.names(2*I0+9) = "amin_3" ;
if (!is_void(amax_3))dims(2*I0+10)=dimsof(amax_3)(0); mc_grid.names(2*I0+10) = "amax_3" ;
if (!is_void(aexp_3)) dims(2*I0+11)=dimsof(aexp_3)(0); mc_grid.names(2*I0+11) = "aexp_3" ;
if (!is_void(diskmass_4)) dims(3*I0+1)=dimsof(diskmass_4)(0); mc_grid.names(3*I0+1) = "diskmass_4" ;
if (!is_void(H0_4)) dims(3*I0+2)=dimsof(H0_4)(0); mc_grid.names(3*I0+2) = "H0_4" ;
if (!is_void(R0_4)) dims(3*I0+3)=dimsof(R0_4)(0); mc_grid.names(3*I0+3) = "R0_4" ;
if (!is_void(Rin_4)) dims(3*I0+4)=dimsof(Rin_4)(0); mc_grid.names(3*I0+4) = "Rin_4" ;
if (!is_void(Rout_4)) dims(3*I0+5)=dimsof(Rout_4)(0); mc_grid.names(3*I0+5) = "Rout_4" ;
if (!is_void(edge_4)) dims(3*I0+6)=dimsof(edge_4)(0); mc_grid.names(3*I0+6) = "edge_4" ;
if (!is_void(beta_4)) dims(3*I0+7)=dimsof(beta_4)(0); mc_grid.names(3*I0+7) = "beta_4" ;
if (!is_void(surf_4)) dims(3*I0+8)=dimsof(surf_4)(0); mc_grid.names(3*I0+8) = "surf_4" ;
if (!is_void(amin_4)) dims(3*I0+9)=dimsof(amin_4)(0); mc_grid.names(3*I0+9) = "amin_4" ;
if (!is_void(amax_4))dims(3*I0+10)=dimsof(amax_4)(0); mc_grid.names(3*I0+10) = "amax_4" ;
if (!is_void(aexp_4)) dims(3*I0+11)=dimsof(aexp_4)(0); mc_grid.names(3*I0+11) = "aexp_4" ;
// Parametres communs a toutes les zones
if (!is_void(strat)) dims(4*I0+1)=dimsof(strat)(0); mc_grid.names(4*I0+1) = "strat" ;
if (!is_void(Rstar)) dims(4*I0+2)=dimsof(Rstar)(0); mc_grid.names(4*I0+2) = "Rstar" ;
if (!is_void(Tstar)) dims(4*I0+3)=dimsof(Tstar)(0); mc_grid.names(4*I0+3) = "Tstar" ;
if (!is_void(fUV)) dims(4*I0+4)=dimsof(fUV)(0); mc_grid.names(4*I0+4) = "fUV" ;
if (!is_void(slope_UV)) dims(4*I0+5)=dimsof(slope_UV)(0); mc_grid.names(4*I0+5) = "slope_UV" ;
if (!is_void(star)) dims(4*I0+6)=dimsof(star)(0); mc_grid.names(4*I0+6) = "star" ;
if (!is_void(correct_Rsub)) dims(4*I0+7)=dimsof(correct_Rsub)(0); mc_grid.names(4*I0+7) = "correct_Rsub" ;
if (!is_void(viscosity)) dims(4*I0+8)=dimsof(viscosity)(0); mc_grid.names(4*I0+8) = "viscosity" ;
if (!is_void(gas_dust)) dims(4*I0+9)=dimsof(gas_dust)(0); mc_grid.names(4*I0+9) = "gas_dust" ;
mc_grid.dims = dims ;
// Indices des parametres varies
ou = where(dims > 1);
n_params_explores = numberof(ou);
dims = dims(ou);
n_models = 1;
for (i=1 ; i<=n_params_explores ; i++) {
n_models *= dims(i);
}
parameters = ref(1);
n_zones = parameters.simu.n_zones ;
write, "Ordre des parametres:" ;
// diskmass
if (!is_void(diskmass)) {
write, "Masse", numberof(diskmass);
mc_grid.values(1,1:numberof(diskmass))= diskmass ;
parameters = parameters(..,-:1:numberof(diskmass)) ;
for (i=1 ; i<= numberof(diskmass) ; i++) {
for (z=1 ; z<=numberof(diskmass_zone) ; z++) {
parameters.zones(diskmass_zone(z),..).mass(..,i) = diskmass(i);
}
}
}
if (!is_void(diskmass_2)) {
write, "Masse zone 2", numberof(diskmass_2);
mc_grid.values(I0+1,1:numberof(diskmass_2))= diskmass_2 ; // TODO : index !!! et pour tous les suivants
parameters = parameters(..,-:1:numberof(diskmass_2)) ;
for (i=1 ; i<= numberof(diskmass_2) ; i++) {
for (z=1 ; z<=numberof(diskmass_zone_2) ; z++) {
parameters.zones(diskmass_zone_2(z),..).mass(..,i) = diskmass_2(i);
}
}
}
if (!is_void(diskmass_3)) {
write, "Masse zone 3", numberof(diskmass_3);
mc_grid.values(2*I0+1,1:numberof(diskmass_3))= diskmass_3 ;
parameters = parameters(..,-:1:numberof(diskmass_3)) ;
for (i=1 ; i<= numberof(diskmass_3) ; i++) {
for (z=1 ; z<=numberof(diskmass_zone_3) ; z++) {
parameters.zones(diskmass_zone_3(z),..).mass(..,i) = diskmass_3(i);
}
}
}
if (!is_void(diskmass_4)) {
write, "Masse zone 4", numberof(diskmass_4);
mc_grid.values(3*I0+1,1:numberof(diskmass_4))= diskmass_4 ;
parameters = parameters(..,-:1:numberof(diskmass_4)) ;
for (i=1 ; i<= numberof(diskmass_4) ; i++) {
for (z=1 ; z<=numberof(diskmass_zone_4) ; z++) {
parameters.zones(diskmass_zone_4(z),..).mass(..,i) = diskmass_4(i);
}
}
}
// H0
if (!is_void(H0)) {
write, "H0", numberof(H0);
mc_grid.values(2,1:numberof(H0))= H0 ;
parameters = parameters(..,-:1:numberof(H0)) ;
for (i=1 ; i<= numberof(H0) ; i++) {
for (z=1 ; z<=numberof(H0_zone) ; z++) {
parameters.zones(H0_zone(z),..).Ho(..,i) = H0(i);
}
}
}
if (!is_void(H0_2)) {
write, "H0 zone 2", numberof(H0_2);
mc_grid.values(I0+2,1:numberof(H0_2))= H0_2 ;
parameters = parameters(..,-:1:numberof(H0_2)) ;
for (i=1 ; i<= numberof(H0_2) ; i++) {
for (z=1 ; z<=numberof(H0_zone_2) ; z++) {
parameters.zones(H0_zone_2(z),..).Ho(..,i) = H0_2(i);
}
}
}
if (!is_void(H0_3)) {
write, "H0 zone 3", numberof(H0_3);
mc_grid.values(2*I0+2,1:numberof(H0_3))= H0_3 ;
parameters = parameters(..,-:1:numberof(H0_3)) ;
for (i=1 ; i<= numberof(H0_3) ; i++) {
for (z=1 ; z<=numberof(H0_zone_3) ; z++) {
parameters.zones(H0_zone_3(z),..).Ho(..,i) = H0_3(i);
}
}
}
if (!is_void(H0_4)) {
write, "H0 zone 4", numberof(H0_4);
mc_grid.values(3*I0+2,1:numberof(H0_4))= H0_4 ;
parameters = parameters(..,-:1:numberof(H0_4)) ;
for (i=1 ; i<= numberof(H0_4) ; i++) {
for (z=1 ; z<=numberof(H0_zone_4) ; z++) {
parameters.zones(H0_zone_4(z),..).Ho(..,i) = H0_4(i);
}
}
}
// Rin
if (!is_void(Rin)) {
write, "Rin", numberof(Rin) ;
mc_grid.values(4,1:numberof(Rin))= Rin ;
parameters = parameters(..,-:1:numberof(Rin)) ;
for (i=1 ; i<= numberof(Rin) ; i++) {
for (z=1 ; z<=numberof(Rin_zone) ; z++) {
parameters.zones(Rin_zone(z),..).rin(..,i) = Rin(i);
}
if (R0Rin) { // echelle de hauteur definie en h/R a Rin
for (z=1 ; z<=numberof(Rin_zone) ; z++) {
parameters.zones(Rin_zone(z),..).Ro(..,i) = Rin(i);
parameters.zones(Rin_zone(z),..).Ho(..,i) = parameters.zones(Rin_zone,..).Ho(..,i) * Rin(i) ;
}
}
}
}
if (!is_void(Rin_2)) {
write, "Rin zone 2", numberof(Rin_2) ;
mc_grid.values(I0+4,1:numberof(Rin_2))= Rin_2 ;
parameters = parameters(..,-:1:numberof(Rin_2)) ;
for (i=1 ; i<= numberof(Rin_2) ; i++) {
for (z=1 ; z<=numberof(Rin_zone_2) ; z++) {
parameters.zones(Rin_zone_2(z),..).rin(..,i) = Rin_2(i);
}
if (R0Rin) { // echelle de hauteur definie en h/R a Rin
for (z=1 ; z<=numberof(Rin_zone_2) ; z++) {
parameters.zones(Rin_zone_2(z),..).Ro(..,i) = Rin_2(i);
parameters.zones(Rin_zone_2(z),..).Ho(..,i) = parameters.zones(Rin_zone_2,..).Ho(..,i) * Rin_2(i) ;
}
}
}
}
if (!is_void(Rin_3)) {
write, "Rin zone 3", numberof(Rin_3) ;
mc_grid.values(2*I0+4,1:numberof(Rin_3))= Rin_3 ;
parameters = parameters(..,-:1:numberof(Rin_3)) ;
for (i=1 ; i<= numberof(Rin_3) ; i++) {
for (z=1 ; z<=numberof(Rin_zone_3) ; z++) {
parameters.zones(Rin_zone_3(z),..).rin(..,i) = Rin_3(i);
}
if (R0Rin) { // echelle de hauteur definie en h/R a Rin
for (z=1 ; z<=numberof(Rin_zone_3) ; z++) {
parameters.zones(Rin_zone_3(z),..).Ro(..,i) = Rin_3(i);
parameters.zones(Rin_zone_3(z),..).Ho(..,i) = parameters.zones(Rin_zone_3,..).Ho(..,i) * Rin_3(i) ;
}
}
}
}
if (!is_void(Rin_4)) {
write, "Rin zone 4", numberof(Rin_4) ;
mc_grid.values(3*I0+4,1:numberof(Rin_4))= Rin_4 ;
parameters = parameters(..,-:1:numberof(Rin_4)) ;
for (i=1 ; i<= numberof(Rin_4) ; i++) {
for (z=1 ; z<=numberof(Rin_zone_4) ; z++) {
parameters.zones(Rin_zone_4(z),..).rin(..,i) = Rin_4(i);
}
if (R0Rin) { // echelle de hauteur definie en h/R a Rin
for (z=1 ; z<=numberof(Rin_zone_4) ; z++) {
parameters.zones(Rin_zone_4(z),..).Ro(..,i) = Rin_4(i);
parameters.zones(Rin_zone_4(z),..).Ho(..,i) = parameters.zones(Rin_zone_4,..).Ho(..,i) * Rin_4(i) ;
}
}
}
}
// Rout
if (!is_void(Rout)) {
write, "Rout", numberof(Rout) ;
mc_grid.values(5,1:numberof(Rout))= Rout ;
parameters = parameters(..,-:1:numberof(Rout)) ;
for (i=1 ; i<= numberof(Rout) ; i++) {
for (z=1 ; z<=numberof(Rout_zone) ; z++) {
parameters.zones(Rout_zone(z),..).rout(..,i) = Rout(i);
}
}
}
if (!is_void(Rout_2)) {
write, "Rout zone 2", numberof(Rout_2) ;
mc_grid.values(I0+5,1:numberof(Rout_2))= Rout_2 ;
parameters = parameters(..,-:1:numberof(Rout_2)) ;
for (i=1 ; i<= numberof(Rout_2) ; i++) {
for (z=1 ; z<=numberof(Rout_zone_2) ; z++) {
parameters.zones(Rout_zone_2(z),..).rout(..,i) = Rout_2(i);
}
}
}
if (!is_void(Rout_3)) {
write, "Rout zone 3", numberof(Rout_3) ;
mc_grid.values(2*I0+5,1:numberof(Rout_3))= Rout_3 ;
parameters = parameters(..,-:1:numberof(Rout_3)) ;
for (i=1 ; i<= numberof(Rout_3) ; i++) {
for (z=1 ; z<=numberof(Rout_zone_3) ; z++) {
parameters.zones(Rout_zone_3(z),..).rout(..,i) = Rout_3(i);
}
}
}
if (!is_void(Rout_4)) {
write, "Rout zone 4", numberof(Rout_4) ;
mc_grid.values(3*I0+5,1:numberof(Rout_4))= Rout_4 ;
parameters = parameters(..,-:1:numberof(Rout_4)) ;
for (i=1 ; i<= numberof(Rout_4) ; i++) {
for (z=1 ; z<=numberof(Rout_zone_4) ; z++) {
parameters.zones(Rout_zone_4(z),..).rout(..,i) = Rout_4(i);
}
}
}
//edge
if (!is_void(edge)) {
write, "edge", numberof(edge) ;
mc_grid.values(6,1:numberof(edge))= edge ;
parameters = parameters(..,-:1:numberof(edge)) ;
for (i=1 ; i<= numberof(edge) ; i++) {
for (z=1 ; z<=numberof(edge_zone) ; z++) {
parameters.zones(edge_zone(z),..).edge(..,i) = edge(i);
}
}
}
if (!is_void(edge_2)) {
write, "edge zone 2", numberof(edge_2) ;
mc_grid.values(I0+6,1:numberof(edge_2))= edge_2 ;
parameters = parameters(..,-:1:numberof(edge_2)) ;
for (i=1 ; i<= numberof(edge_2) ; i++) {
for (z=1 ; z<=numberof(edge_zone_2) ; z++) {
parameters.zones(edge_zone_2(z),..).edge(..,i) = edge_2(i);
}
}
}
if (!is_void(edge_3)) {
write, "edge zone 3", numberof(edge_3) ;
mc_grid.values(2*I0+6,1:numberof(edge_3))= edge_3 ;
parameters = parameters(..,-:1:numberof(edge_3)) ;
for (i=1 ; i<= numberof(edge_3) ; i++) {
for (z=1 ; z<=numberof(edge_zone_3) ; z++) {
parameters.zones(edge_zone_3(z),..).edge(..,i) = edge_3(i);
}
}
}
if (!is_void(edge_4)) {
write, "edge zone 4", numberof(edge_4) ;
mc_grid.values(3*I0+6,1:numberof(edge_4))= edge_4 ;
parameters = parameters(..,-:1:numberof(edge_4)) ;
for (i=1 ; i<= numberof(edge_4) ; i++) {
for (z=1 ; z<=numberof(edge_zone_4) ; z++) {
parameters.zones(edge_zone_4(z),..).edge(..,i) = edge_4(i);
}
}
}
// beta
if (!is_void(beta)) {
write, "beta", numberof(beta) ;
mc_grid.values(7,1:numberof(beta))= beta ;
parameters = parameters(..,-:1:numberof(beta)) ;
for (i=1 ; i<= numberof(beta) ; i++) {
for (z=1 ; z<=numberof(beta_zone) ; z++) {
parameters.zones(beta_zone(z),..).beta(..,i) = beta(i);
}
}
}
if (!is_void(beta_2)) {
write, "beta zone 2", numberof(beta_2) ;
mc_grid.values(I0+7,1:numberof(beta_2))= beta_2 ;
parameters = parameters(..,-:1:numberof(beta_2)) ;
for (i=1 ; i<= numberof(beta_2) ; i++) {
for (z=1 ; z<=numberof(beta_zone_2) ; z++) {
parameters.zones(beta_zone_2(z),..).beta(..,i) = beta_2(i);
}
}
}
if (!is_void(beta_3)) {
write, "beta zone 3", numberof(beta_3) ;
mc_grid.values(2*I0+7,1:numberof(beta_3))= beta_3 ;
parameters = parameters(..,-:1:numberof(beta_3)) ;
for (i=1 ; i<= numberof(beta_3) ; i++) {
for (z=1 ; z<=numberof(beta_zone_3) ; z++) {
parameters.zones(beta_zone_3(z),..).beta(..,i) = beta_3(i);
}
}
}
if (!is_void(beta_4)) {
write, "beta zone 4", numberof(beta_4) ;
mc_grid.values(3*I0+7,1:numberof(beta_4))= beta_4 ;
parameters = parameters(..,-:1:numberof(beta_4)) ;
for (i=1 ; i<= numberof(beta_4) ; i++) {
for (z=1 ; z<=numberof(beta_zone_4) ; z++) {
parameters.zones(beta_zone_4(z),..).beta(..,i) = beta_4(i);
}
}
}
// Surface density
if (!is_void(surf)) {
write, "surf", numberof(surf) ;
mc_grid.values(8,1:numberof(surf))= surf ;
parameters = parameters(..,-:1:numberof(surf)) ;
for (i=1 ; i<= numberof(surf) ; i++) {
for (z=1 ; z<=numberof(surf_zone) ; z++) {
parameters.zones(surf_zone(z),..).dens(..,i) = surf(i);
}
}
}
if (!is_void(surf_2)) {
write, "surf zone 2", numberof(surf_2) ;
mc_grid.values(I0+8,1:numberof(surf_2))= surf_2 ;
parameters = parameters(..,-:1:numberof(surf_2)) ;
for (i=1 ; i<= numberof(surf_2) ; i++) {
for (z=1 ; z<=numberof(surf_zone_2) ; z++) {
parameters.zones(surf_zone_2(z),..).dens(..,i) = surf_2(i);
}
}
}
if (!is_void(surf_3)) {
write, "surf zone 3", numberof(surf_3) ;
mc_grid.values(2*I0+8,1:numberof(surf_3))= surf_3 ;
parameters = parameters(..,-:1:numberof(surf_3)) ;
for (i=1 ; i<= numberof(surf_3) ; i++) {
for (z=1 ; z<=numberof(surf_zone_3) ; z++) {
parameters.zones(surf_zone_3(z),..).dens(..,i) = surf_3(i);
}
}
}
if (!is_void(surf_4)) {
write, "surf zone 4", numberof(surf_4) ;
mc_grid.values(3*I0+8,1:numberof(surf_4))= surf_4 ;
parameters = parameters(..,-:1:numberof(surf_4)) ;
for (i=1 ; i<= numberof(surf_4) ; i++) {
for (z=1 ; z<=numberof(surf_zone_4) ; z++) {
parameters.zones(surf_zone_4(z),..).dens(..,i) = surf_4(i);
}
}
}
// amin
if (!is_void(amin)) {
write, "amin", numberof(amin) ;
mc_grid.values(9,1:numberof(amin))= amin ;
parameters = parameters(..,-:1:numberof(amin)) ;
for (i=1 ; i<= numberof(amin) ; i++) {
for (z=1 ; z<=numberof(amin_zone) ; z++) {
for (s=1 ; s<=numberof(amin_specie) ; s++) {
parameters.dust_pop.amin(amin_zone(z),amin_specie(s),..,i) = amin(i);
}
}
}
}
if (!is_void(amin_2)) {
write, "amin zone 2", numberof(amin_2) ;
mc_grid.values(I0+9,1:numberof(amin_2))= amin_2 ;
parameters = parameters(..,-:1:numberof(amin_2)) ;
for (i=1 ; i<= numberof(amin_2) ; i++) {
for (z=1 ; z<=numberof(amin_zone_2) ; z++) {
for (s=1 ; s<=numberof(amin_specie_2) ; s++) {
parameters.dust_pop.amin(amin_zone_2(z),amin_specie_2(s),..,i) = amin_2(i);
}
}
}
}
if (!is_void(amin_3)) {
write, "amin zone 3", numberof(amin_3) ;
mc_grid.values(2*I0+9,1:numberof(amin_3))= amin_3 ;
parameters = parameters(..,-:1:numberof(amin_3)) ;
for (i=1 ; i<= numberof(amin_3) ; i++) {
for (z=1 ; z<=numberof(amin_zone_3) ; z++) {
for (s=1 ; s<=numberof(amin_specie_3) ; s++) {
parameters.dust_pop.amin(amin_zone_3(z),amin_specie_3(s),..,i) = amin_3(i);
}
}
}
}
if (!is_void(amin_4)) {
write, "amin zone 4", numberof(amin_4) ;
mc_grid.values(3*I0+9,1:numberof(amin_4))= amin_4 ;
parameters = parameters(..,-:1:numberof(amin_4)) ;
for (i=1 ; i<= numberof(amin_4) ; i++) {
for (z=1 ; z<=numberof(amin_zone_4) ; z++) {
for (s=1 ; s<=numberof(amin_specie_4) ; s++) {
parameters.dust_pop.amin(amin_zone_4(z),amin_specie_4(s),..,i) = amin_4(i);
}
}
}
}
// amax
if (!is_void(amax)) {
write, "amax", numberof(amax) ;
mc_grid.values(10,1:numberof(amax))= amax ;
parameters = parameters(..,-:1:numberof(amax)) ;
for (i=1 ; i<= numberof(amax) ; i++) {
for (z=1 ; z<=numberof(amax_zone) ; z++) {
for (s=1 ; s<=numberof(amax_specie) ; s++) {
parameters.dust_pop.amax(amax_zone(z),amax_specie(s),..,i) = amax(i);
}
}
}
}
if (!is_void(amax_2)) {
write, "amax zone 2", numberof(amax_2) ;
mc_grid.values(I0+10,1:numberof(amax_2))= amax_2 ;
parameters = parameters(..,-:1:numberof(amax_2)) ;
for (i=1 ; i<= numberof(amax_2) ; i++) {
for (z=1 ; z<=numberof(amax_zone_2) ; z++) {
for (s=1 ; s<=numberof(amax_specie_2) ; s++) {
parameters.dust_pop.amax(amax_zone_2(z),amax_specie_2(s),..,i) = amax_2(i);
}
}
}
}
if (!is_void(amax_3)) {
write, "amax zone 3", numberof(amax_3) ;
mc_grid.values(2*I0+10,1:numberof(amax_3))= amax_3 ;
parameters = parameters(..,-:1:numberof(amax_3)) ;
for (i=1 ; i<= numberof(amax_3) ; i++) {
for (z=1 ; z<=numberof(amax_zone_3) ; z++) {
for (s=1 ; s<=numberof(amax_specie_3) ; s++) {
parameters.dust_pop.amax(amax_zone_3(z),amax_specie_3(s),..,i) = amax_3(i);
}
}
}
}
if (!is_void(amax_4)) {
write, "amax zone 4", numberof(amax_4) ;
mc_grid.values(3*I0+10,1:numberof(amax_4))= amax_4 ;
parameters = parameters(..,-:1:numberof(amax_4)) ;
for (i=1 ; i<= numberof(amax_4) ; i++) {
for (z=1 ; z<=numberof(amax_zone_4) ; z++) {
for (s=1 ; s<=numberof(amax_specie_4) ; s++) {
parameters.dust_pop.amax(amax_zone_4(z),amax_specie_4(s),..,i) = amax_4(i);
}
}
}
}
// aexp
if (!is_void(aexp)) {
write, "aexp", numberof(aexp) ;
mc_grid.values(11,1:numberof(aexp))= aexp ;
parameters = parameters(..,-:1:numberof(aexp)) ;
for (i=1 ; i<= numberof(aexp) ; i++) {
for (z=1 ; z<=numberof(aexp_zone) ; z++) {
for (s=1 ; s<=numberof(aexp_specie) ; s++) {
parameters.dust_pop.aexp(aexp_zone(z),aexp_specie(s),..,i) = aexp(i);
}
}
}
}
if (!is_void(aexp_2)) {
write, "aexp zone 2", numberof(aexp_2) ;
mc_grid.values(I0+11,1:numberof(aexp_2))= aexp_2 ;
parameters = parameters(..,-:1:numberof(aexp_2)) ;
for (i=1 ; i<= numberof(aexp_2) ; i++) {
for (z=1 ; z<=numberof(aexp_zone_2) ; z++) {
for (s=1 ; s<=numberof(aexp_specie_2) ; s++) {
parameters.dust_pop.aexp(aexp_zone_2(z),aexp_specie_2(s),..,i) = aexp_2(i);
}
}
}
}
if (!is_void(aexp_3)) {
write, "aexp zone 3", numberof(aexp_3) ;
mc_grid.values(2*I0+11,1:numberof(aexp_3))= aexp_3 ;
parameters = parameters(..,-:1:numberof(aexp_3)) ;
for (i=1 ; i<= numberof(aexp_3) ; i++) {
for (z=1 ; z<=numberof(aexp_zone_3) ; z++) {
for (s=1 ; s<=numberof(aexp_specie_3) ; s++) {
parameters.dust_pop.aexp(aexp_zone_3(z),aexp_specie_3(s),..,i) = aexp_3(i);
}
}
}
}
if (!is_void(aexp_4)) {
write, "aexp zone 4", numberof(aexp_4) ;
mc_grid.values(3*I0+11,1:numberof(aexp_4))= aexp_4 ;
parameters = parameters(..,-:1:numberof(aexp_4)) ;
for (i=1 ; i<= numberof(aexp_4) ; i++) {
for (z=1 ; z<=numberof(aexp_zone_4) ; z++) {
for (s=1 ; s<=numberof(aexp_specie_4) ; s++) {
parameters.dust_pop.aexp(aexp_zone_4(z),aexp_specie_4(s),..,i) = aexp_4(i);
}
}
}
}
if (!is_void(strat)) {
write, "strat", numberof(strat) ;
mc_grid.values(4*I0+1,1:numberof(strat))= strat ;
parameters = parameters(..,-:1:numberof(strat)) ;
for (i=1 ; i<= numberof(strat) ; i++) {
parameters.dust.strat(..,i) = strat(i);
}
}
if (!is_void(Rstar)) {
write, "Rstar", numberof(Rstar) ;
mc_grid.values(4*I0+2,1:numberof(Rstar))= Rstar ;
parameters = parameters(..,-:1:numberof(Rstar)) ;
for (i=1 ; i<= numberof(Rstar) ; i++) {
parameters.stars.R(..,i) = Rstar(i);
}
}
if (!is_void(Tstar)) {
write, "Tstar", numberof(Tstar) ;
mc_grid.values(4*I0+3,1:numberof(Tstar))= Tstar ;
parameters = parameters(..,-:1:numberof(Tstar)) ;
for (i=1 ; i<= numberof(Tstar) ; i++) {
parameters.stars.T(..,i) = Tstar(i);
}
}
if (!is_void(fUV)) {
write, "fUV", numberof(fUV) ;
mc_grid.values(4*I0+4,1:numberof(fUV))= fUV ;
parameters = parameters(..,-:1:numberof(fUV)) ;
for (i=1 ; i<= numberof(fUV) ; i++) {
parameters.stars.fUV(..,i) = fUV(i);
}
}
if (!is_void(slope_UV)) {
write, "slope_UV", numberof(slope_UV) ;
mc_grid.values(4*I0+4,1:numberof(slope_UV))= slope_UV ;
parameters = parameters(..,-:1:numberof(slope_UV)) ;
for (i=1 ; i<= numberof(slope_UV) ; i++) {
parameters.stars.slope_UV(..,i) = slope_UV(i);
}
}
if (!is_void(star)) {
write, "star", numberof(star) ;
mc_grid.values(4*I0+6,1:numberof(star))= indgen(numberof(star)) ;
mc_grid.stars(1:numberof(star))= star ;
parameters = parameters(..,-:1:numberof(star)) ;
for (i=1 ; i<= numberof(star) ; i++) {
parameters.stars(..,i) = star(i);
}
}
if (!is_void(correct_Rsub)) {
write, "correct_Rsub", numberof(correct_Rsub) ;
mc_grid.values(4*I0+7,1:numberof(correct_Rsub))= correct_Rsub ;
parameters = parameters(..,-:1:numberof(correct_Rsub)) ;
for (i=1 ; i<= numberof(correct_Rsub) ; i++) {
parameters.simu.correct_Rsub(..,i) = correct_Rsub(i);
}
}
if (!is_void(viscosity)) {
write, "viscosity", numberof(viscosity) ;
mc_grid.values(4*I0+8,1:numberof(viscosity))= viscosity ;
parameters = parameters(..,-:1:numberof(viscosity)) ;
for (i=1 ; i<= numberof(viscosity) ; i++) {
parameters.simu.viscosity(..,i) = viscosity(i);
}
}
if (!is_void(gas_dust)) {
write, "gas_dust", numberof(gas_dust) ;
mc_grid.values(4*I0+8,1:numberof(gas_dust))= gas_dust ;
parameters = parameters(..,-:1:numberof(gas_dust)) ;
for (i=1 ; i<= numberof(gas_dust) ; i++) {
parameters.dust.gas_dust(..,i) = gas_dust(i);
}
}
info, parameters;
write, numberof(parameters), "models";
// Creation du tar avec les fichiers de parametres
if (gasp==1) {
_create_grid_gasp, name,parameters,basename,extension ;
} else {
"Creating parameter files ..." ;
_create_grid, name,parameters,istart,extension ;
"Making tar file ..." ;
system, "tar --directory "+name+" -cf "+get_cwd()+"/"+name+".tar . " ;// --remove-files" ;
system, "gzip -9 "+name+".tar" ;
system, "mv "+name+".tar.gz "+name+"_P.tgz" ;
//system, "rm -rf "+name ;
}
// Fichier binaire avec l'info sur la grille
f = createb(name+".grid");
save, f, mc_grid ;
close, f;
//time = tac();
//write, "Grid generated in ", time, "sec";
if (return_param) return parameters ;
}
//***************************************************
func _create_grid(name,parameters,istart,extension,last_model=) {
// Creation des repertoires
system, "mkdir "+name;
// Ecriture des fichiers de parametres
n_models = numberof(parameters) ;
if (is_void(last_model)) last_model = istart + n_models ;
n_chiffres = floor(log10(last_model) + 1);
format = "%"+swrite(format="%1i",int(n_chiffres))+"i";
for (i=1 ; i<=n_models ; i++) {
number=swrite(format=format,i+istart);
// Ajout des 0
for (j=1 ; j<=n_chiffres -1 ; j++) {
number = streplace(number,strgrep(" ",number),"0");
}
file = name+"/"+number+extension;
write_params, parameters(i),file ;
}
}
//***************************************************
func _create_grid_gasp(name,parameters,basename,extension) {
// Creation des repertoires
system, "mkdir "+name;
system, "mkdir "+name+"/parameter_files";
// Ecriture des fichiers de parametres
dims = dimsof(parameters) ;
n1 = dims(2) ;
n2 = dims(3) ;
n3 = dims(4) ;
n4 = dims(5) ;
n5 = dims(6) ;
n6 = dims(7) ;
n7 = dims(8) ;
for (i1=1 ; i1<=n1 ; i1++) {
for (i2=1 ; i2<=n2 ; i2++) {
for (i3=1 ; i3<=n3 ; i3++) {
for (i4=1 ; i4<=n4 ; i4++) {
for (i5=1 ; i5<=n5 ; i5++) {
for (i6=1 ; i6<=n6 ; i6++) {
for (i7=1 ; i7<=n7 ; i7++) {
number= swrite(format="%1i",i1) + swrite(format="%1i",i2) + swrite(format="%1i",i3) + swrite(format="%1i",i4) + swrite(format="%1i",i5) + swrite(format="%1i",i6) + swrite(format="%1i",i7) ;
file = name+"/parameter_files/"+basename+"_"+number+extension;
write_params, parameters(i1,i2,i3,i4,i5,i6,i7), file ;
}
}
}
}
}
}
}
}
//***************************************************
func write_params(param,file) {
f=open(file,"w");
//write, f, param.simu.version, "mcfost version" ;
write, f, " 3.0 mcfost version" ;
write, f, "";
//photon;
write, f, "#Number of photon packages";
write, f, param.phot.n2, "nbr_photons_eq_th : T computation ";
write, f, param.phot.nlambda, "nbr_photons_lambda : SED computation";
write, f, param.phot.nimage, "nbr_photons_image : images computation";
write, f, "";
//Wavelength
write, f, "#Wavelength";
write, f, param.wave.nlamb1, param.wave.lambda_min, param.wave.lambda_max, "n_lambda, lambda_min, lambda_max";
write, f, param.simu.ltemp , param.simu.lsed ,param.simu.lsed_complete, " compute temperature?, compute sed?, use default wavelength grid ?";
write, f, param.wave.file, "wavelength file";
write, f, param.simu.lsepar, param.simu.lsepar_pola, "separation of different contributions, stokes parameters";
write, f, "";
//Grid
write, f, "#Grid geometry and size";
write, f, param.grid.geometry, "1 = cylindrical, 2 = spherical";
write, f, param.grid.nrad, param.grid.nz, param.grid.n_az, param.grid.nrad_in, "n_rad, nz (or n_theta), n_az, n_rad_in";
write, f, "";
//map;
write, f, "#Maps";
write, f, param.map.nx, param.map.ny, param.map.map_size, "Nx Ny map_size";
//write, f, param.map.nthet, param.map.nphi, param.map.delta, "MC : N_bin_incl, N_bin_az, # of bin where MC is converged ";
write, f, param.map.RT_imin, param.map.RT_imax, param.map.RT_ntheta, param.map.lRT_i_centered, "RT: imin, imax, n_theta, centered?";
write, f, param.map.RT_az_min, param.map.RT_az_max, max(param.map.RT_naz,1), "RT: az_min, az_max, n_az angles" ;
write, f, param.map.dist, "distance (pc)";
write, f, param.map.PA, "disk PA";
write, f, "";
// Scattering method
write, f, "#Scattering method";
write, f, param.simu.scatt_method, "0=auto, 1=grain prop, 2=cell prop";
write, f, param.simu.aniso_method, "1=Mie, 2=hg (2 means loosing pola information)";
write, f, "";
// Symetries
write, f, "#Symetries";
write, f, param.simu.lsym_ima, "image symetry";
write, f, param.simu.lsym_centrale, "central symetry";
write, f, param.simu.lsym_axiale, "axial symmetry (important only if N_phi > 1)" ;
write, f, "";
// Dust global properties
write, f, "#Dust global properties";
write, f, param.dust.strat_type, param.dust.strat, param.dust.a_strat, "dust settling, exp_strat, a_strat";
write, f, param.dust.lmigration, " dust migration?";
write, f, param.simu.ldust_sublimation, " sublimate dust?";
write, f, param.simu.lhydro_eq, " hydrotstatic equilibrium?";
write, f, param.simu.lchauff_int, param.simu.viscosity, "viscous heating, viscosity";