source: trunk/LMDZ.MARS/libf/phymars/conf_phys.F @ 3126

Last change on this file since 3126 was 3126, checked in by llange, 13 months ago

Mars PCM

  • Update in soilwater: adding the possibility to run without adsorption, but with the possibility to run with seasonal frost forming in the subsurface
  • THe choice of the isotherm for adsorption can be now done by setting the integer choice_ads in the callphys.def choice_ads = 1 adsorption rate is computed with the H2O thermal speed; choice_ads = 2 adsorption rate is computed based on exeperimental resutls, choice_ads =3 no adsorption

LL

File size: 47.0 KB
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1      MODULE conf_phys_mod
2     
3      IMPLICIT NONE
4     
5      CONTAINS
6
7      SUBROUTINE conf_phys(ngrid,nlayer,nq)
8 
9!=======================================================================
10!
11!   purpose:
12!   -------
13!
14!   Initialisation for the physical parametrisations
15!   flags (i.e. run-time options) of the Mars PCM
16!-----------------------------------------------------------------------
17
18      USE ioipsl_getin_p_mod, ONLY : getin_p
19      use tracer_mod, only : nuice_sed, ccn_factor, nuiceco2_sed,
20     &                       nuice_ref,nuiceco2_ref
21      use surfdat_h, only: albedo_h2o_cap,albedo_h2o_frost,
22     &                     frost_albedo_threshold, inert_h2o_ice,
23     &                     frost_metam_threshold,old_wsublimation_scheme
24      use time_phylmdz_mod, only: ecritphy,day_step,iphysiq,ecritstart,
25     &                            daysec,dtphys
26      use dimradmars_mod, only: naerkind, name_iaer,
27     &                      ini_scatterers,tauvis
28      use datafile_mod, only: datadir
29      use wstats_mod, only: callstats
30      use writediagsoil_mod, only: diagsoil
31      use calchim_mod, only: ichemistry
32      use co2condens_mod, only: scavco2cond
33      use dust_param_mod, only: dustbin, doubleq, submicron, active,
34     &                          lifting, freedust, callddevil,
35     &                          dustscaling_mode,
36     &                          reff_driven_IRtoVIS_scenario
37      use aeropacity_mod, only: iddist, topdustref
38      USE mod_phys_lmdz_transfert_para, ONLY: bcast
39      USE paleoclimate_mod,ONLY: paleoclimate,albedo_perenialco2,
40     &                           lag_layer
41      use microphys_h, only: mteta
42      use comsoil_h, only: adsorption_soil, choice_ads
43
44      IMPLICIT NONE
45
46      include "callkeys.h"
47
48      INTEGER,INTENT(IN) :: ngrid ! number of atmospheric columns
49      INTEGER,INTENT(IN) :: nlayer ! number of atmospheric layers
50      INTEGER,INTENT(IN) :: nq ! number of tracers
51
52      INTEGER ierr,j
53      character(len=20),parameter :: modname="conf_phys"
54 
55      CHARACTER ch1*12
56#ifndef MESOSCALE
57      ! read in some parameters from "run.def" for physics,
58      ! or shared between dynamics and physics.
59      ecritphy=240 ! default value
60      call getin_p("ecritphy",ecritphy) ! frequency of outputs in physics,
61                                      ! in dynamical steps
62      day_step=960 ! default value
63      call getin_p("day_step",day_step) ! number of dynamical steps per day
64      iphysiq=20 ! default value
65      call getin_p("iphysiq",iphysiq) ! call physics every iphysiq dyn step
66      ecritstart=0 ! default value
67      call getin_p("ecritstart",ecritstart) ! write a restart every ecristart steps
68#endif
69
70! --------------------------------------------------------------
71!  Reading the "callphys.def" file controlling some key options
72! --------------------------------------------------------------
73     
74!$OMP MASTER
75      ! check that 'callphys.def' file is around
76      OPEN(99,file='callphys.def',status='old',form='formatted'
77     &     ,iostat=ierr)
78      CLOSE(99)
79!$OMP END MASTER
80      call bcast(ierr)
81!       ierr=0
82     
83      IF(ierr.EQ.0) THEN
84         PRINT*
85         PRINT*
86         PRINT*,'--------------------------------------------'
87         PRINT*,' conf_phys: Parameters for the physics (callphys.def)'
88         PRINT*,'--------------------------------------------'
89
90         write(*,*) "Directory where external input files are:"
91         ! default path is set in datafile_mod
92         call getin_p("datadir",datadir)
93         write(*,*) " datadir = ",trim(datadir)
94
95         write(*,*) "Initialize physics with startfi.nc file ?"
96         startphy_file=.true.
97         call getin_p("startphy_file",startphy_file)
98         write(*,*) "startphy_file", startphy_file
99         
100         write(*,*) "Diurnal cycle ?"
101         write(*,*) "(if diurnal=False, diurnal averaged solar heating)"
102         diurnal=.true. ! default value
103         call getin_p("diurnal",diurnal)
104         write(*,*) " diurnal = ",diurnal
105
106         write(*,*) "Seasonal cycle ?"
107         write(*,*) "(if season=False, Ls stays constant, to value ",
108     &   "set in 'start'"
109         season=.true. ! default value
110         call getin_p("season",season)
111         write(*,*) " season = ",season
112
113         write(*,*) "Write some extra output to the screen ?"
114         lwrite=.false. ! default value
115         call getin_p("lwrite",lwrite)
116         write(*,*) " lwrite = ",lwrite
117
118         write(*,*) "Save statistics in file stats.nc ?"
119#ifdef MESOSCALE
120         callstats=.false. ! default value
121#else
122         callstats=.true. ! default value
123#endif
124         call getin_p("callstats",callstats)
125         write(*,*) " callstats = ",callstats
126
127         write(*,*) "Write sub-surface fields in file diagsoil.nc ?"
128         diagsoil=.false. ! default value
129         call getin_p("diagsoil",diagsoil)
130         write(*,*) " diagsoil = ",diagsoil
131         
132         write(*,*) "Save EOF profiles in file 'profiles' for ",
133     &              "Climate Database?"
134         calleofdump=.false. ! default value
135         call getin_p("calleofdump",calleofdump)
136         write(*,*) " calleofdump = ",calleofdump
137
138         write(*,*) "Dust scenario: 1=constant dust (read from startfi",
139     &   " or set as tauvis); 2=Viking scenario; =3 MGS scenario,",
140     &   "=6 cold (low dust) scenario; =7 warm (high dust) scenario ",
141     &   "=24,25 ... 30 :Mars Year 24, ... or 30 from TES assimilation"
142         iaervar=3 ! default value
143         call getin_p("iaervar",iaervar)
144         write(*,*) " iaervar = ",iaervar
145
146         write(*,*) "Reference (visible) dust opacity at 610 Pa ",
147     &   "(matters only if iaervar=1)"
148         ! NB: default value of tauvis is set/read in startfi.nc file
149         call getin_p("tauvis",tauvis)
150         write(*,*) " tauvis = ",tauvis
151
152         write(*,*) "Dust vertical distribution:"
153         write(*,*) "(=1 top set by topdustref parameter;",
154     & " =2 Viking scenario; =3 MGS scenario)"
155         iddist=3 ! default value
156         call getin_p("iddist",iddist)
157         write(*,*) " iddist = ",iddist
158
159         write(*,*) "Dust top altitude (km). (Matters only if iddist=1)"
160         topdustref= 90.0 ! default value
161         call getin_p("topdustref",topdustref)
162         write(*,*) " topdustref = ",topdustref
163
164         write(*,*) "Prescribed surface thermal flux (H/(rho*cp),K m/s)"
165         tke_heat_flux=0. ! default value
166         call getin_p("tke_heat_flux",tke_heat_flux)
167         write(*,*) " tke_heat_flux = ",tke_heat_flux
168         write(*,*) " 0 means the usual schemes are computing"
169
170         write(*,*) "call radiative transfer ?"
171         callrad=.true. ! default value
172         call getin_p("callrad",callrad)
173         write(*,*) " callrad = ",callrad
174
175         write(*,*) "call slope insolation scheme ?",
176     &              "(matters only if callrad=T)"
177#ifdef MESOSCALE
178         callslope=.true. ! default value
179#else
180         callslope=.false. ! default value (not supported yet)
181#endif
182         call getin_p("callslope",callslope)
183         write(*,*) " callslope = ",callslope
184
185         write(*,*) "call NLTE radiative schemes ?",
186     &              "(matters only if callrad=T)"
187         callnlte=.false. ! default value
188         call getin_p("callnlte",callnlte)
189         write(*,*) " callnlte = ",callnlte
190         
191         nltemodel=0    !default value
192         write(*,*) "NLTE model?"
193         write(*,*) "0 -> old model, static O"
194         write(*,*) "1 -> old model, dynamic O"
195         write(*,*) "2 -> new model"
196         write(*,*) "(matters only if callnlte=T)"
197         call getin_p("nltemodel",nltemodel)
198         write(*,*) " nltemodel = ",nltemodel
199
200         write(*,*) "call CO2 NIR absorption ?",
201     &              "(matters only if callrad=T)"
202         callnirco2=.false. ! default value
203         call getin_p("callnirco2",callnirco2)
204         write(*,*) " callnirco2 = ",callnirco2
205
206         write(*,*) "New NIR NLTE correction ?",
207     $              "0-> old model (no correction)",
208     $              "1-> new correction",
209     $              "(matters only if callnirco2=T)"
210#ifdef MESOSCALE
211         nircorr=0      !default value. this is OK below 60 km.
212#else
213         nircorr=0      !default value
214#endif
215         call getin_p("nircorr",nircorr)
216         write(*,*) " nircorr = ",nircorr
217
218         write(*,*) "call turbulent vertical diffusion ?"
219         calldifv=.true. ! default value
220         call getin_p("calldifv",calldifv)
221         write(*,*) " calldifv = ",calldifv
222
223         write(*,*) "call thermals ?"
224         calltherm=.false. ! default value
225         call getin_p("calltherm",calltherm)
226         write(*,*) " calltherm = ",calltherm
227
228         write(*,*) "call convective adjustment ?"
229         calladj=.true. ! default value
230         call getin_p("calladj",calladj)
231         write(*,*) " calladj = ",calladj
232
233         if (calltherm .and. calladj) then
234          print*,'!!! PLEASE NOTE !!!'
235          print*,'convective adjustment is on'
236          print*,'but since thermal plume model is on'
237          print*,'convadj is only activated above the PBL'
238         endif
239       
240         write(*,*) "used latest version of yamada scheme?"
241         callyamada4=.true. ! default value
242         call getin_p("callyamada4",callyamada4)
243         write(*,*) " callyamada4 = ",callyamada4
244
245         if (calltherm .and. .not.callyamada4) then
246          print*,'!!!! WARNING WARNING WARNING !!!!'
247          print*,'if calltherm=T we strongly advise that '
248          print*,'you set the flag callyamada4 to T '
249          print*,'!!!! WARNING WARNING WARNING !!!!'
250         endif
251 
252         write(*,*) "call Richardson-based surface layer ?"
253         callrichsl=.false. ! default value
254         call getin_p("callrichsl",callrichsl)
255         write(*,*) " callrichsl = ",callrichsl
256
257         if (calltherm .and. .not.callrichsl) then
258          print*,'WARNING WARNING WARNING'
259          print*,'if calltherm=T we strongly advise that '
260          print*,'you use the new surface layer scheme '
261          print*,'by setting callrichsl=T '
262         endif
263
264         if (calladj .and. callrichsl .and. (.not. calltherm)) then
265          print*,'You should not be calling the convective adjustment
266     & scheme with the Richardson surface-layer and without the thermals
267     &. This approach is not
268     & physically consistent and can lead to unrealistic friction
269     & values.'
270          print*,'If you want to use the Ri. surface-layer, either
271     & activate thermals OR de-activate the convective adjustment.'
272          call abort_physic(modname,
273     &     "Richardson layer must be used with thermals",1)
274         endif
275
276         write(*,*) "call CO2 condensation ?"
277         callcond=.true. ! default value
278         call getin_p("callcond",callcond)
279         write(*,*) " callcond = ",callcond
280
281         write(*,*)"call thermal conduction in the soil ?"
282         callsoil=.true. ! default value
283         call getin_p("callsoil",callsoil)
284         write(*,*) " callsoil = ",callsoil
285         
286
287         write(*,*)"call Lott's gravity wave/subgrid topography ",
288     &             "scheme ?"
289         calllott=.true. ! default value
290         call getin_p("calllott",calllott)
291         write(*,*)" calllott = ",calllott
292
293         write(*,*)"call Lott's non-oro GWs parameterisation ",
294     &             "scheme ?"
295         calllott_nonoro=.false. ! default value
296         call getin_p("calllott_nonoro",calllott_nonoro)
297         write(*,*)" calllott_nonoro = ",calllott_nonoro
298
299! rocket dust storm injection scheme
300         write(*,*)"call rocket dust storm parametrization"
301         rdstorm=.false. ! default value
302         call getin_p("rdstorm",rdstorm)
303         write(*,*)" rdstorm = ",rdstorm
304! rocket dust storm detrainment coefficient       
305        coeff_detrainment=0.02 ! default value
306        call getin_p("coeff_detrainment",coeff_detrainment)
307        write(*,*)" coeff_detrainment = ",coeff_detrainment
308
309! entrainment by mountain top dust flows scheme
310         write(*,*)"call mountain top dust flows parametrization"
311         topflows=.false. ! default value
312         call getin_p("topflows",topflows)
313         write(*,*)" topflows = ",topflows
314
315! latent heat release from ground water ice sublimation/condensation
316         write(*,*)"latent heat release during sublimation",
317     &              " /condensation of ground water ice"
318         latentheat_surfwater=.true. ! default value
319         call getin_p("latentheat_surfwater",latentheat_surfwater)
320         write(*,*)" latentheat_surfwater = ",latentheat_surfwater
321
322         write(*,*)"rad.transfer is computed every iradia",
323     &             " physical timestep"
324         iradia=1 ! default value
325         call getin_p("iradia",iradia)
326         write(*,*)" iradia = ",iradia
327         
328
329         write(*,*)"Output of the exchange coefficient mattrix ?",
330     &             "(for diagnostics only)"
331         callg2d=.false. ! default value
332         call getin_p("callg2d",callg2d)
333         write(*,*)" callg2d = ",callg2d
334
335         write(*,*)"Rayleigh scattering : (should be .false. for now)"
336         rayleigh=.false.
337         call getin_p("rayleigh",rayleigh)
338         write(*,*)" rayleigh = ",rayleigh
339
340! PALEOCLIMATE
341
342         write(*,*)"Using lag layer??"
343         lag_layer=.false.
344         call getin_p("lag_layer",lag_layer)
345         write(*,*) " lag_layer = ", lag_layer
346
347        write(*,*)"Is it paleoclimate run?"
348         paleoclimate=.false. ! default value
349         call getin_p("paleoclimate",paleoclimate)
350         write(*,*)" paleoclimate = ",paleoclimate
351
352
353         write(*,*)"Albedo for perenial CO2 ice?"
354         albedo_perenialco2 = 0.85 ! default value
355         call getin_p("albedo_perenialco2",albedo_perenialco2)
356         write(*,*)"albedo_perenialco2 = ",albedo_perenialco2
357
358! TRACERS:
359
360! dustbin
361         write(*,*)"Transported dust ? (if >0, use 'dustbin' dust bins)"
362         dustbin=0 ! default value
363         call getin_p("dustbin",dustbin)
364         write(*,*)" dustbin = ",dustbin
365! active
366         write(*,*)"Radiatively active dust ? (matters if dustbin>0)"
367         active=.false. ! default value
368         call getin_p("active",active)
369         write(*,*)" active = ",active
370
371! Test of incompatibility:
372! if active is used, then dustbin should be > 0
373
374         if (active.and.(dustbin.lt.1)) then
375           print*,'if active is used, then dustbin should > 0'
376           call abort_physic(modname,
377     &          "active option requires dustbin < 0",1)
378         endif
379! doubleq
380         write(*,*)"use mass and number mixing ratios to predict",
381     &             " dust size ?"
382         doubleq=.false. ! default value
383         call getin_p("doubleq",doubleq)
384         write(*,*)" doubleq = ",doubleq
385! submicron
386         submicron=.false. ! default value
387         call getin_p("submicron",submicron)
388         write(*,*)" submicron = ",submicron
389
390! Test of incompatibility:
391! if doubleq is used, then dustbin should be 2
392
393         if (doubleq.and.(dustbin.ne.2)) then
394           print*,'if doubleq is used, then dustbin should be 2'
395           call abort_physic(modname,
396     &          "doubleq option requires dustbin = 2",1)
397         endif
398         if (doubleq.and.submicron.and.(nq.LT.3)) then
399           print*,'If doubleq is used with a submicron tracer,'
400           print*,' then the number of tracers has to be'
401           print*,' larger than 3.'
402           call abort_physic(modname,
403     &          "submicron option requires dustbin > 2",1)
404         endif
405
406! lifting
407         write(*,*)"dust lifted by GCM surface winds ?"
408         lifting=.false. ! default value
409         call getin_p("lifting",lifting)
410         write(*,*)" lifting = ",lifting
411
412! Test of incompatibility:
413! if lifting is used, then dustbin should be > 0
414
415         if (lifting.and.(dustbin.lt.1)) then
416           print*,'if lifting is used, then dustbin should > 0'
417           call abort_physic(modname,
418     &          "lifting option requires dustbin > 0",1)
419         endif
420
421! dust injection scheme
422        dustinjection=0 ! default: no injection scheme
423        call getin_p("dustinjection",dustinjection)
424        write(*,*)" dustinjection = ",dustinjection
425! dust injection scheme coefficient       
426        coeff_injection=0.25 ! default value
427        call getin_p("coeff_injection",coeff_injection)
428        write(*,*)" coeff_in,jection = ",coeff_injection
429! timing for dust injection       
430        ti_injection=0. ! default value
431        tf_injection=24. ! default value
432        call getin_p("ti_injection",ti_injection)
433        write(*,*)" ti_injection = ",ti_injection
434        call getin_p("tf_injection",tf_injection)
435        write(*,*)" tf_injection = ",tf_injection
436
437! free evolving dust
438! freedust=true just says that there is no lifting and no dust opacity scaling.
439         write(*,*)"dust lifted by GCM surface winds ?"
440         freedust=.false. ! default value
441         call getin_p("freedust",freedust)
442         write(*,*)" freedust = ",freedust
443         if (freedust.and..not.doubleq) then
444           print*,'freedust should be used with doubleq !'
445           call abort_physic(modname,
446     &          "freedust option requires doubleq",1)
447         endif
448
449! dust rescaling mode (if any)
450!     =0 --> freedust, tauscaling=1
451!     =1 --> GCM5.3-like, tauscaling computed wrt tau_pref_scenario
452!     =2 --> tauscaling=1 but dust_rad_adjust (rescaling for the radiative transfer only)
453         if (freedust) then
454           dustscaling_mode=0
455         else
456           dustscaling_mode=1 ! GCMv5.3 style
457         endif
458         call getin_p("dustscaling_mode",dustscaling_mode)
459         write(*,*) "dustscaling_mode=",dustscaling_mode
460         if ((dustscaling_mode.eq.1).and.freedust) then
461           print*,'freedust and dustscaling_mode=1 are incompatible !'
462           call abort_physic(modname,
463     &          "freedust and dustscaling_mode=1 are incompatible",1)
464         endif         
465
466#ifndef MESOSCALE
467         ! this test is valid in GCM case
468         ! ... not in mesoscale case, for we want to activate mesoscale lifting
469         if (freedust.and.dustinjection.eq.0)then
470           if(lifting) then
471             print*,'if freedust is used and dustinjection = 0,
472     &      then lifting should not be used'
473             call abort_physic(modname,
474     &          "freedust option with dustinjection = 0"//
475     &          " requires lifting to be false",1)
476           endif
477         endif
478#endif
479         if (dustinjection.eq.1)then
480           if(.not.lifting) then
481             print*,"if dustinjection=1, then lifting should be true"
482             call abort_physic(modname,
483     &          "dustinjection=1 requires lifting",1)
484           endif
485           if(.not.freedust) then
486             print*,"if dustinjection=1, then freedust should be true"
487             call abort_physic(modname,
488     &          "dustinjection=1 requires freedust",1)
489           endif
490         endif
491! rocket dust storm and entrainment by top flows
492! Test of incompatibility:
493! if rdstorm or topflows is used, then doubleq should be true
494         if ((rdstorm.or.topflows).and..not.doubleq) then
495           print*,'if rdstorm or topflows is used, then doubleq
496     &            should be used !'
497           call abort_physic(modname,
498     &          "rdstorm or topflows requires doubleq",1)
499         endif
500         if ((rdstorm.or.topflows).and..not.active) then
501           print*,'if rdstorm or topflows is used, then active
502     &            should be used !'
503           call abort_physic(modname,
504     &          "rdstorm or topflows requires active",1)
505         endif
506         if (rdstorm.and..not.lifting) then
507           print*,'if rdstorm is used, then lifting
508     &            should be used !'
509           call abort_physic(modname,
510     &          "rdstorm requires lifting",1)
511         endif
512         if ((rdstorm.or.topflows).and..not.freedust) then
513           print*,'if rdstorm or topflows is used, then freedust
514     &            should be used !'
515           call abort_physic(modname,
516     &          "rdstorm or topflows requires freedust",1)
517         endif
518         if (rdstorm.and.(dustinjection.eq.0)) then
519           print*,'if rdstorm is used, then dustinjection
520     &            should be used !'
521           call abort_physic(modname,
522     &          "rdstorm requires dustinjection",1)
523         endif
524! Dust IR opacity
525         write(*,*)" Wavelength for infrared opacity of dust ?"
526         write(*,*)" Choices are:"
527         write(*,*)" tes  --- > 9.3 microns  [default]"
528         write(*,*)" mcs  --- > 21.6 microns"
529         !
530         ! WARNING WARNING WARNING WARNING WARNING WARNING
531         !
532         ! BEFORE ADDING A NEW VALUE, BE SURE THAT THE
533         ! CORRESPONDING WAVELENGTH IS IN THE LOOKUP TABLE,
534         ! OR AT LEAST NO TO FAR, TO AVOID FALLACIOUS INTERPOLATIONS.
535         !
536         dustiropacity="tes" !default value
537         call getin_p("dustiropacity",dustiropacity)
538         write(*,*)" dustiropacity = ",trim(dustiropacity)
539         select case (trim(dustiropacity))
540           case ("tes")
541             dustrefir = 9.3E-6
542           case ("mcs")
543             dustrefir = 21.6E-6
544           case default
545              write(*,*) trim(dustiropacity),
546     &                  " is not a valid option for dustiropacity"
547             call abort_physic(modname,
548     &          "invalid dustiropacity option value",1)
549         end select
550! Dust scenario IR to VIS conversion
551         write(*,*)"Use an IR to VIS conversion coefficient"
552         write(*,*)"for the dust scenario, that is dependent"
553         write(*,*)"on the GCM dust effective radius,"
554         write(*,*)"instead of a fixed 2.6 coefficient ?"
555         reff_driven_IRtoVIS_scenario=.false. !default value
556         call getin_p("reff_driven_IRtoVIS_scenario",
557     &                 reff_driven_IRtoVIS_scenario)
558         write(*,*)" reff_driven_IRtoVIS_scenario = ",
559     &               reff_driven_IRtoVIS_scenario
560! Test of incompatibility:
561! if reff_driven_IRtoVIS_scenario=.true.,
562! dustrefir must be 9.3E-6 = scenarios' wavelength
563         if (reff_driven_IRtoVIS_scenario .and.
564     &      (dustrefir.ne.9.3E-6)) then
565           print*,'if reff_driven_IRtoVIS_scenario is used, then '//
566     &           'the GCM IR reference wavelength should be the one '//
567     &           'of the scenarios (dustiropacity=tes)'
568           call abort_physic(modname,
569     &        "reff_driven_IRtoVIS_scenario requires tes wavelength",1)
570         endif
571
572! callddevil
573         write(*,*)" dust lifted by dust devils ?"
574         callddevil=.false. !default value
575         call getin_p("callddevil",callddevil)
576         write(*,*)" callddevil = ",callddevil
577
578! Test of incompatibility:
579! if dustdevil is used, then dustbin should be > 0
580         if (callddevil.and.(dustbin.lt.1)) then
581           print*,'if dustdevil is used, then dustbin should > 0'
582           call abort_physic(modname,
583     &          "callddevil requires dustbin > 0",1)
584         endif
585         
586! sedimentation
587         write(*,*) "Gravitationnal sedimentation ?"
588         sedimentation=.true. ! default value
589         call getin_p("sedimentation",sedimentation)
590         write(*,*) " sedimentation = ",sedimentation
591! activice
592         write(*,*) "Radiatively active transported atmospheric ",
593     &              "water ice ?"
594         activice=.false. ! default value
595         call getin_p("activice",activice)
596         write(*,*) " activice = ",activice
597! water
598         write(*,*) "Compute water cycle ?"
599         water=.false. ! default value
600         call getin_p("water",water)
601         write(*,*) " water = ",water
602! hdo
603         write(*,*) "Compute hdo cycle ?"
604         hdo=.false. ! default value
605         call getin_p("hdo",hdo)
606         write(*,*) " hdo = ",hdo
607
608         write(*,*) "Use fractionation for hdo?"
609         hdofrac=.true. ! default value
610         call getin_p("hdofrac",hdofrac)
611         write(*,*) " hdofrac = ",hdofrac
612
613! Activeco2ice
614         write(*,*) "Radiatively active transported atmospheric ",
615     &              "Co2 ice ?"
616         activeco2ice=.false. ! default value
617         call getin_p("activeco2ice",activeco2ice)
618         write(*,*) " activeco2ice = ",activeco2ice
619
620! sub-grid cloud fraction: fixed
621         write(*,*) "Fixed cloud fraction?"
622         CLFfixval=1.0 ! default value
623         call getin_p("CLFfixval",CLFfixval)
624         write(*,*) "CLFfixval=",CLFfixval
625! sub-grid cloud fraction: varying
626         write(*,*) "Use partial nebulosity?"
627         CLFvarying=.false. ! default value
628         call getin_p("CLFvarying",CLFvarying)
629         write(*,*)"CLFvarying=",CLFvarying
630
631!CO2 clouds scheme?
632         write(*,*) "Compute CO2 clouds (implies microphysical scheme)?"
633         co2clouds=.false. ! default value
634         call getin_p("co2clouds",co2clouds)
635         write(*,*) " co2clouds = ",co2clouds
636!Can water ice particles serve as CCN for CO2clouds
637         write(*,*) "Use water ice as CO2 clouds CCN ?"
638         co2useh2o=.false. ! default value
639         call getin_p("co2useh2o",co2useh2o)
640         write(*,*) " co2useh2o = ",co2useh2o
641!Do we allow a supply of meteoritic paricles to serve as CO2 ice CCN?
642         write(*,*) "Supply meteoritic particle for CO2 clouds ?"
643         meteo_flux=.false. !Default value
644         call getin_p("meteo_flux",meteo_flux)
645         write(*,*)  " meteo_flux = ",meteo_flux
646!Do we allow a sub-grid temperature distribution for the CO2 microphysics
647         write(*,*) "sub-grid temperature distribution for CO2 clouds?"
648         CLFvaryingCO2=.false. !Default value
649         call getin_p("CLFvaryingCO2",CLFvaryingCO2)
650         write(*,*)  " CLFvaryingCO2 = ",CLFvaryingCO2
651!Amplitude of the sub-grid temperature distribution for the CO2 microphysics
652         write(*,*) "sub-grid temperature amplitude for CO2 clouds?"
653         spantCO2=0 !Default value
654         call getin_p("spantCO2",spantCO2)
655         write(*,*)  " spantCO2 = ",spantCO2
656!Do you want to filter the sub-grid T distribution by a Saturation index?
657         write(*,*) "filter sub-grid temperature by Saturation index?"
658         satindexco2=.true.
659         call getin_p("satindexco2",satindexco2)
660         write(*,*)  " satindexco2 = ",satindexco2
661
662
663! thermal inertia feedback
664         write(*,*) "Activate the thermal inertia feedback ?"
665         tifeedback=.false. ! default value
666         call getin_p("tifeedback",tifeedback)
667         write(*,*) " tifeedback = ",tifeedback
668
669! Test of incompatibility:
670
671         if (tifeedback.and..not.water) then
672           print*,'if tifeedback is used,'
673           print*,'water should be used too'
674           call abort_physic(modname,
675     &          "tifeedback requires water",1)
676         endif
677
678         if (tifeedback.and..not.callsoil) then
679           print*,'if tifeedback is used,'
680           print*,'callsoil should be used too'
681           call abort_physic(modname,
682     &          "tifeedback requires callsoil",1)
683         endif
684
685         if (activice.and..not.water) then
686           print*,'if activice is used, water should be used too'
687           call abort_physic(modname,
688     &          "activeice requires water",1)
689         endif
690
691         if (hdo.and..not.water) then
692           print*,'if hdo is used, water should be used too'
693           call abort_physic(modname,
694     &          "hd2 requires tracer",1)
695         endif
696
697         
698         if (activeco2ice.and..not.co2clouds) then
699          print*,'if activeco2ice is used, co2clouds should be used too'
700          call abort_physic(modname,
701     &          "activeco2ice requires co2clouds",1)
702         endif
703
704! water ice clouds effective variance distribution for sedimentaion       
705        write(*,*) "Sed effective variance for water ice clouds ?"
706        nuice_sed=0.45
707        call getin_p("nuice_sed",nuice_sed)
708        write(*,*) "water_param nueff Sedimentation:", nuice_sed
709             
710        write(*,*) "Sed effective variance for CO2 clouds ?"
711        nuiceco2_sed=0.45
712        call getin_p("nuiceco2_sed",nuiceco2_sed)
713        write(*,*) "CO2 nueff Sedimentation:", nuiceco2_sed
714 
715        write(*,*) "REF effective variance for CO2 clouds ?"
716        nuiceco2_ref=0.45
717        call getin_p("nuiceco2_ref",nuiceco2_ref)
718        write(*,*) "CO2 nueff Sedimentation:", nuiceco2_ref
719
720        write(*,*) "REF effective variance for water clouds ?"
721        nuice_ref=0.1
722        call getin_p("nuice_ref",nuice_ref)
723        write(*,*) "H2O nueff Sedimentation:", nuice_ref
724
725
726! ccn factor if no scavenging         
727        write(*,*) "water param CCN reduc. factor ?"
728        ccn_factor = 4.5
729        call getin_p("ccn_factor",ccn_factor)
730        write(*,*)" ccn_factor = ",ccn_factor
731        write(*,*)"Careful: only used when microphys=F, otherwise"
732        write(*,*)"the contact parameter is used instead;"
733
734       ! microphys
735        write(*,*)"Microphysical scheme for water-ice clouds?"
736        microphys=.false.       ! default value
737        call getin_p("microphys",microphys)
738        write(*,*)" microphys = ",microphys
739
740      ! supersat
741        write(*,*)"Allow super-saturation of water vapor?"
742        supersat=.true.         ! default value
743        call getin_p("supersat",supersat)
744        write(*,*)"supersat = ",supersat
745
746! microphysical parameter contact       
747        write(*,*) "water contact parameter ?"
748        mteta  = 0.95 ! default value
749        temp_dependent_m  = .false. ! default value
750        call getin_p("temp_dependent_m",temp_dependent_m)
751        if (temp_dependent_m) then !(JN 2023)
752           print*,'You have chosen a temperature-dependent water'
753           print*,'contact parameter ! From Maattanen et al. 2014'
754        else if (.not.temp_dependent_m) then
755           print*,'Water contact parameter is constant'
756           call getin_p("mteta",mteta)
757           write(*,*) "mteta = ", mteta
758        endif
759
760! Adaptative timestep for cloud microphysics (JN 2023)
761         write(*,*)"Adaptative timestep for cloud",
762     &              " microphysics ? (default is false)"
763         cloud_adapt_ts=.false. ! default value
764         call getin_p("cloud_adapt_ts",cloud_adapt_ts)
765         write(*,*)"cloud_adapt_ts= ",cloud_adapt_ts
766
767! Test of incompatibility:
768! If you want the adaptative timestep, you should use the
769! temperature dependent contact parameter (otherwise the
770! global water cycle is nuts !)
771! However one can use the temperature dependent contact parameter
772! without the adaptative timestep (MCD6.1 configuration)
773       
774        if (cloud_adapt_ts.and..not.temp_dependent_m) then
775           print*,'Water cycle v6 : if cloud_adapt_ts is used'
776           print*,'then temp_dependent_m must be used!'
777           print*,'Otherwise the water cycle is unrealistic.'
778           call abort_physic(modname,
779     &          "cloud_adapt_ts requires temp_dependent_m",1)
780        endif
781! scavenging
782        write(*,*)"Dust scavenging by H2O/CO2 snowfall ?"
783        scavenging=.false.      ! default value
784        call getin_p("scavenging",scavenging)
785        write(*,*)" scavenging = ",scavenging
786         
787
788! Test of incompatibility:
789! if scavenging is used, then dustbin should be > 0
790
791        if ((microphys.and..not.doubleq).or.
792     &       (microphys.and..not.water)) then
793           print*,'if microphys is used, then doubleq,'
794           print*,'and water must be used!'
795           call abort_physic(modname,
796     &          "microphys requires water and doubleq",1)
797        endif
798        if (microphys.and..not.scavenging) then
799           print*,''
800           print*,'----------------WARNING-----------------'
801           print*,'microphys is used without scavenging !!!'
802           print*,'----------------WARNING-----------------'
803           print*,''
804        endif
805       
806        if ((scavenging.and..not.microphys).or.
807     &       (scavenging.and.(dustbin.lt.1)))then
808           print*,'if scavenging is used, then microphys'
809           print*,'must be used!'
810           call abort_physic(modname,
811     &          "scavenging requires microphys",1)
812        endif
813
814! Instantaneous scavenging by CO2
815! -> expected to be replaced by scavenging with microphysics (flag scavenging) one day
816        write(*,*)"Dust scavenging by instantaneous CO2 snowfall ?"
817        scavco2cond=.false.      ! default value
818        call getin_p("scavco2cond",scavco2cond)
819        write(*,*)" scavco2cond = ",scavco2cond
820! Test of incompatibility:
821! if scavco2cond is used, then dustbin should be > 0
822        if (scavco2cond.and.(dustbin.lt.1))then
823           print*,'if scavco2cond is used, then dustbin should be > 0'
824           call abort_physic(modname,
825     &          "scavco2cond requires dustbin > 0",1)
826        endif
827! if co2clouds is used, then there is no need for scavco2cond
828        if (co2clouds.and.scavco2cond) then
829           print*,''
830           print*,'----------------WARNING-----------------'
831           print*,'     microphys scavenging is used so    '
832           print*,'        no need for scavco2cond !!!     '
833           print*,'----------------WARNING-----------------'
834           print*,''
835           call abort_physic(modname,
836     &          "incompatible co2cloud and scavco2cond options",1)
837        endif
838       
839! Test of incompatibility:
840
841         write(*,*) "Permanent water caps at poles ?",
842     &               " .true. is RECOMMENDED"
843         write(*,*) "(with .true., North cap is a source of water ",
844     &   "and South pole is a cold trap)"
845         caps=.true. ! default value
846         call getin_p("caps",caps)
847         write(*,*) " caps = ",caps
848
849! JN : now separated between albedo_h2o_cap and
850! albedo_h2o_frost. Retrocompatible with old
851! callphys.def with albedo_h2o_ice
852         write(*,*) "water ice albedo ? Old settings use ",
853     &              "albedo_h2o_ice, new settings use ",
854     &              "albedo_h2o_cap and albedo_h2o_frost "
855         albedo_h2o_cap=0.35
856         albedo_h2o_frost=0.35
857         call getin_p("albedo_h2o_ice",albedo_h2o_cap)
858         albedo_h2o_frost=albedo_h2o_cap
859         call getin_p("albedo_h2o_cap",albedo_h2o_cap)
860         write(*,*) " albedo_h2o_cap = ",albedo_h2o_cap
861         call getin_p("albedo_h2o_frost",albedo_h2o_frost)
862         write(*,*) " albedo_h2o_frost = ",albedo_h2o_frost
863
864! Northern polar cap albedo (JN 2021)
865         write(*,*)"Watercaptag albedo is unchanged by water frost",
866     &              " deposition (default is false)"
867         cst_cap_albedo=.false. ! default value
868         call getin_p("cst_cap_albedo",cst_cap_albedo)
869         write(*,*)"cst_cap_albedo = ",cst_cap_albedo
870
871! Watercap evolution & refill (with discriminated albedos) (JN 2021)
872         write(*,*)"Watercap is replenished by water frost",
873     &              " accumulation (default is false)"
874         refill_watercap=.false. ! default value
875         call getin_p("refill_watercap",refill_watercap)
876         write(*,*)"refill_watercap= ",refill_watercap
877! frost thickness threshold for refill_watercap (ice metamorphism)
878         write(*,*) "frost thickness threshold for metamorphism ?",
879     &              "ie converted into watercap",
880     &              "only if refill_watercap is .true."
881         frost_metam_threshold=0.05 !  (i.e 0.05 kg.m-2)
882         call getin_p("frost_metam_threshold",
883     &    frost_metam_threshold)
884         write(*,*) " frost_metam_threshold = ",
885     &            frost_metam_threshold
886
887
888! inert_h2o_ice
889         write(*,*) "water ice thermal inertia ?"
890         inert_h2o_ice=2400 ! (J.m^-2.K^-1.s^-1/2)
891         call getin_p("inert_h2o_ice",inert_h2o_ice)
892         write(*,*) " inert_h2o_ice = ",inert_h2o_ice
893! frost_albedo_threshold
894         write(*,*) "frost thickness threshold for albedo ?"
895         frost_albedo_threshold=0.005 ! 5.4 mic (i.e 0.005 kg.m-2)
896         call getin_p("frost_albedo_threshold",
897     &    frost_albedo_threshold)
898         write(*,*) " frost_albedo_threshold = ",
899     &            frost_albedo_threshold
900
901! TMP: old_wsublimation_scheme
902         write(*,*) "Old water sublimation scheme?"
903         old_wsublimation_scheme = .true.
904         call getin_p("old_wsublimation_scheme",old_wsublimation_scheme)
905         write(*,*) "old_wsublimation_scheme",old_wsublimation_scheme
906
907! call Titus crocus line -- DEFAULT IS NONE
908         write(*,*) "Titus crocus line ?"
909         tituscap=.false.  ! default value
910         call getin_p("tituscap",tituscap)
911         write(*,*) "tituscap",tituscap
912                     
913! Chemistry:
914         write(*,*) "photochemistry: include chemical species"
915         photochem=.false. ! default value
916         call getin_p("photochem",photochem)
917         write(*,*) " photochem = ",photochem
918         
919         write(*,*) "Compute chemistry (if photochem is .true.)",
920     &   "every ichemistry physics step (default: ichemistry=1)"
921         ichemistry=1
922         call getin_p("ichemistry",ichemistry)
923         write(*,*) " ichemistry = ",ichemistry
924
925
926! SCATTERERS
927         write(*,*) "how many scatterers?"
928         naerkind=1 ! default value
929         call getin_p("naerkind",naerkind)
930         write(*,*)" naerkind = ",naerkind
931
932! Test of incompatibility
933c        Logical tests for radiatively active water-ice clouds:
934         IF ( (activice.AND.(.NOT.water)).OR.
935     &        (activice.AND.(naerkind.LT.2)) ) THEN
936           WRITE(*,*) 'If activice is TRUE, water has to be set'
937           WRITE(*,*) 'to TRUE, and "naerkind" must be at least'
938           WRITE(*,*) 'equal to 2.'
939           call abort_physic(modname,
940     &          "radiatively active dust and water"//
941     &          " require naerkind > 1",1)
942         ENDIF
943
944!------------------------------------------
945!------------------------------------------
946! once naerkind is known allocate arrays
947! -- we do it here and not in phys_var_init
948! -- because we need to know naerkind first
949         CALL ini_scatterers(ngrid,nlayer)
950!------------------------------------------
951!------------------------------------------
952
953
954c        Please name the different scatterers here ----------------
955         name_iaer(1) = "dust_conrath"   !! default choice is good old Conrath profile
956         IF (doubleq.AND.active) name_iaer(1) = "dust_doubleq" !! two-moment scheme
957
958         if (nq.gt.1) then
959           ! trick to avoid problems compiling with 1 tracer
960           ! and picky compilers who know name_iaer(2) is out of bounds
961           j=2
962           IF (rdstorm.AND..NOT.activice.AND..NOT.topflows) then
963             name_iaer(j) = "stormdust_doubleq" !! storm dust two-moment scheme
964             j = j+1
965           END IF
966
967           IF (rdstorm.AND.water.AND.activice.AND..NOT.topflows) then
968             name_iaer(j) = "stormdust_doubleq"
969             j = j+1
970           END IF
971
972           IF (topflows.AND..NOT.activice.AND..NOT.rdstorm) then
973             name_iaer(j) = "topdust_doubleq" !! storm dust two-moment scheme
974             j = j+1
975           END IF
976 
977           IF (topflows.AND.water.AND.activice.AND..NOT.rdstorm) then
978             name_iaer(j) =  "topdust_doubleq"
979             j = j+1
980           END IF
981
982           IF (rdstorm.AND.topflows.AND..NOT.activice) THEN
983             name_iaer(j) = "stormdust_doubleq"
984             name_iaer(j+1) = "topdust_doubleq"
985             j = j+2
986           ENDIF
987
988           IF (rdstorm.AND.topflows.AND.water.AND.activice) THEN
989             name_iaer(j) = "stormdust_doubleq"
990             name_iaer(j+1) = "topdust_doubleq"
991             j = j+2
992           ENDIF
993
994           IF (water.AND.activice) then
995            name_iaer(j) = "h2o_ice"      !! radiatively-active clouds
996            j = j+1
997           END IF
998
999           IF (co2clouds.AND.activeco2ice) then
1000             name_iaer(j) = "co2_ice" !! radiatively-active co2 clouds
1001             j = j+1
1002           ENDIF
1003
1004           IF (submicron.AND.active) then
1005             name_iaer(j) = "dust_submicron" !! JBM experimental stuff
1006             j = j+1
1007           ENDIF
1008         endif ! of if (nq.gt.1)
1009c        ----------------------------------------------------------
1010
1011! Adsorption
1012         adsorption_soil = .false.
1013         call getin_p("adsorption_soil",adsorption_soil)
1014         if (adsorption_soil .and. (.not. water)) then
1015              write(*,*)"Adsorption can be run only if water = True"
1016              call abort_physic(modname,
1017     &        "Adsorption must be used with water = true",1)
1018         endif 
1019
1020         if(adsorption_soil) choice_ads = 1
1021         call getin_p("choice_ads",choice_ads)
1022           
1023c        ----------------------------------------------------------
1024
1025! THERMOSPHERE
1026
1027         write(*,*) "call thermosphere ?"
1028         callthermos=.false. ! default value
1029         call getin_p("callthermos",callthermos)
1030         write(*,*) " callthermos = ",callthermos
1031         
1032
1033         write(*,*) " water included without cycle ",
1034     &              "(only if water=.false.)"
1035         thermoswater=.false. ! default value
1036         call getin_p("thermoswater",thermoswater)
1037         write(*,*) " thermoswater = ",thermoswater
1038
1039         write(*,*) "call thermal conduction ?",
1040     &    " (only if callthermos=.true.)"
1041         callconduct=.false. ! default value
1042         call getin_p("callconduct",callconduct)
1043         write(*,*) " callconduct = ",callconduct
1044
1045         write(*,*) "call EUV heating ?",
1046     &   " (only if callthermos=.true.)"
1047         calleuv=.false.  ! default value
1048         call getin_p("calleuv",calleuv)
1049         write(*,*) " calleuv = ",calleuv
1050
1051         write(*,*) "call molecular viscosity ?",
1052     &   " (only if callthermos=.true.)"
1053         callmolvis=.false. ! default value
1054         call getin_p("callmolvis",callmolvis)
1055         write(*,*) " callmolvis = ",callmolvis
1056
1057         write(*,*) "call molecular diffusion ?",
1058     &   " (only if callthermos=.true.)"
1059         callmoldiff=.false. ! default value
1060         call getin_p("callmoldiff",callmoldiff)
1061         write(*,*) " callmoldiff = ",callmoldiff
1062         
1063
1064         write(*,*) "call thermospheric photochemistry ?",
1065     &   " (only if callthermos=.true.)"
1066         thermochem=.false. ! default value
1067         call getin_p("thermochem",thermochem)
1068         write(*,*) " thermochem = ",thermochem
1069
1070         write(*,*) "Method to include solar variability"
1071         write(*,*) "0-> fixed value of E10.7 (fixed_euv_value); ",
1072     &          "1-> daily evolution of E10.7 (for given solvaryear)"
1073         solvarmod=1
1074         call getin_p("solvarmod",solvarmod)
1075         write(*,*) " solvarmod = ",solvarmod
1076
1077         write(*,*) "Fixed euv (for solvarmod==0) 10.7 value?"
1078         write(*,*) " (min=80 , ave=140, max=320)"
1079         fixed_euv_value=140 ! default value
1080         call getin_p("fixed_euv_value",fixed_euv_value)
1081         write(*,*) " fixed_euv_value = ",fixed_euv_value
1082         
1083         write(*,*) "Solar variability as observed for MY: "
1084         write(*,*) "Only if solvarmod=1"
1085         solvaryear=24
1086         call getin_p("solvaryear",solvaryear)
1087         write(*,*) " solvaryear = ",solvaryear
1088
1089         write(*,*) "UV heating efficiency:",
1090     &   "measured values between 0.19 and 0.23 (Fox et al. 1996)",
1091     &   "lower values may be used to compensate low 15 um cooling"
1092         euveff=0.21 !default value
1093         call getin_p("euveff",euveff)
1094         write(*,*) " euveff = ", euveff
1095
1096
1097         if (.not.callthermos) then
1098           if (thermoswater) then
1099             print*,'if thermoswater is set, callthermos must be true'
1100             call abort_physic(modname,
1101     &          "thermoswater requires callthermos",1)
1102           endif         
1103           if (callconduct) then
1104             print*,'if callconduct is set, callthermos must be true'
1105             call abort_physic(modname,
1106     &          "callconduct requires callthermos",1)
1107           endif       
1108           if (calleuv) then
1109             print*,'if calleuv is set, callthermos must be true'
1110             call abort_physic(modname,
1111     &          "calleuv requires callthermos",1)
1112           endif         
1113           if (callmolvis) then
1114             print*,'if callmolvis is set, callthermos must be true'
1115             call abort_physic(modname,
1116     &          "callmolvis requires callthermos",1)
1117           endif       
1118           if (callmoldiff) then
1119             print*,'if callmoldiff is set, callthermos must be true'
1120             call abort_physic(modname,
1121     &          "callmoldiff requires callthermos",1)
1122           endif         
1123           if (thermochem) then
1124             print*,'if thermochem is set, callthermos must be true'
1125             call abort_physic(modname,
1126     &          "thermochem requires callthermos",1)
1127           endif         
1128        endif
1129
1130! Test of incompatibility:
1131! if photochem is used, then water should be used too
1132
1133         if (photochem.and..not.water) then
1134           print*,'if photochem is used, water should be used too'
1135           call abort_physic(modname,
1136     &          "photochem requires water",1)
1137         endif
1138
1139! if callthermos is used, then thermoswater should be used too
1140! (if water not used already)
1141
1142         if (callthermos .and. .not.water) then
1143           if (callthermos .and. .not.thermoswater) then
1144             print*,'if callthermos is used, water or thermoswater
1145     &               should be used too'
1146             call abort_physic(modname,
1147     &          "callthermos requires water or thermoswater",1)
1148           endif
1149         endif
1150
1151         PRINT*,'--------------------------------------------'
1152         PRINT*
1153         PRINT*
1154      ELSE
1155         write(*,*)
1156         write(*,*) 'Cannot read file callphys.def. Is it here ?'
1157         call abort_physic(modname,
1158     &          "missing callphys.def file",1)
1159      ENDIF
1160
11618000  FORMAT(t5,a12,l8)
11628001  FORMAT(t5,a12,i8)
1163
1164      PRINT*
1165      PRINT*,'conf_phys: daysec',daysec
1166      PRINT*
1167      PRINT*,'conf_phys: The radiative transfer is computed:'
1168      PRINT*,'           each ',iradia,' physical time-step'
1169      PRINT*,'        or each ',iradia*dtphys,' seconds'
1170      PRINT*
1171! --------------------------------------------------------------
1172!  Managing the Longwave radiative transfer
1173! --------------------------------------------------------------
1174
1175!     In most cases, the run just use the following values :
1176!     ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~
1177      callemis=.true.     
1178!     ilwd=10*int(daysec/dtphys) ! bug before 22/10/01       
1179      ilwd=1
1180      ilwn=1 !2
1181      ilwb=1 !2
1182      linear=.true.       
1183      ncouche=3
1184      alphan=0.4
1185      semi=0
1186
1187!     BUT people working hard on the LW may want to read them in 'radia.def'
1188!     ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~
1189!$OMP MASTER
1190      OPEN(99,file='radia.def',status='old',form='formatted'
1191     .     ,iostat=ierr)
1192      IF(ierr.EQ.0) THEN
1193         write(*,*) 'conf_phys: Reading radia.def !!!'
1194         READ(99,fmt='(a)') ch1
1195         READ(99,*) callemis
1196         WRITE(*,8000) ch1,callemis
1197
1198         READ(99,fmt='(a)') ch1
1199         READ(99,*) iradia
1200         WRITE(*,8001) ch1,iradia
1201
1202         READ(99,fmt='(a)') ch1
1203         READ(99,*) ilwd
1204         WRITE(*,8001) ch1,ilwd
1205
1206         READ(99,fmt='(a)') ch1
1207         READ(99,*) ilwn
1208         WRITE(*,8001) ch1,ilwn
1209
1210         READ(99,fmt='(a)') ch1
1211         READ(99,*) linear
1212         WRITE(*,8000) ch1,linear
1213
1214         READ(99,fmt='(a)') ch1
1215         READ(99,*) ncouche
1216         WRITE(*,8001) ch1,ncouche
1217
1218         READ(99,fmt='(a)') ch1
1219         READ(99,*) alphan
1220         WRITE(*,*) ch1,alphan
1221
1222         READ(99,fmt='(a)') ch1
1223         READ(99,*) ilwb
1224         WRITE(*,8001) ch1,ilwb
1225
1226
1227         READ(99,fmt='(a)') ch1
1228         READ(99,'(l1)') callg2d
1229         WRITE(*,8000) ch1,callg2d
1230
1231         READ(99,fmt='(a)') ch1
1232         READ(99,*) semi
1233         WRITE(*,*) ch1,semi
1234      end if
1235      CLOSE(99)
1236!$OMP END MASTER
1237      call bcast(ch1)
1238      call bcast(callemis)
1239      call bcast(iradia)
1240      call bcast(ilwd)
1241      call bcast(ilwn)
1242      call bcast(linear)
1243      call bcast(ncouche)
1244      call bcast(alphan)
1245      call bcast(ilwb)
1246      call bcast(callg2d)
1247      call bcast(semi)
1248
1249      END SUBROUTINE conf_phys
1250
1251      END MODULE conf_phys_mod
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