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Atm_RT_INI.F90 @ 4476

Last change on this file since 4476 was 2089, checked in by Laurent Fairhead, 10 years ago

Inclusion de la physique de MAR

Integration of MAR physics

File size: 19.4 KB

Line
1	subroutine Atm_RT_INI
2
3	!--------------------------------------------------------------------------+
4	! Mon 24-Jun-2013 MAR \|
5	! subroutine Atm_RT_INI initializes MAR PHYsics interface \|
6	! with ECMWF Solar/Infrared Radiative Transfer Scheme \|
7	! \|
8	! version 3.p.4.1 created by H. Gallee, Tue 2-Apr-2013 \|
9	! Last Modification by H. Gallee, Mon 24-Jun-2013 \|
10	! \|
11	!--------------------------------------------------------------------------+
12	! \|
13	! Content: CALL of - ECMWF Code initializing the Radiation Transfert \|
14	! - ECMWF Radiation Transfert \|
15	! \|
16	! ECMWF Code Source: J.-J. Morcrette, 28 nov 2002 \|
17	! \|
18	!--------------------------------------------------------------------------+
19
20	use Mod_Real
21	use Mod_PHY_RT_dat
22	use Mod_PHY____grd
23	use Mod_PHY_S0_grd
24	use Mod_PHY_RT_grd
25	use Mod_PHY_DY_kkl
26	use Mod_SISVAT_gpt
27
28
29
30	#include "tsmbkind.h"
31
32
33
34
35	! Global Variables (ECMWF)
36	! ========================
37
38	USE PARRTM1D , ONLY : JP_LON ,JP_IDIA ,JP_FDIA ,JP_TDIA ,&
39	& JP_LEV ,JP_LW ,JP_SW ,JP_NUA ,JP_MODE ,&
40	& JP_AER ,JP_LEVP1
41	USE YOMCST , ONLY : RD ,RG ,RTT ,RSIGMA ,&
42	& RCPD ,RPI ,RDAY ,REA ,RI0 ,&
43	& REPSM ,RMD ,RKBOL ,RNAVO ,R ,&
44	& RLVTT ,RLSTT
45	USE YOERAD , ONLY : NSW ,NTSW ,NRADFR ,&
46	& LRRTM ,LINHOM ,LOIFUEC ,LTEMPDS ,LOWASYF ,&
47	& LOWHSSS,LONEWSW ,LNEWAER ,LHVOLCA ,&
48	& NRADIP ,NRADLP ,NOZOCL ,&
49	& NICEOPT,NLIQOPT ,NOVLP ,NHOWINH ,RMINICE
50	USE YOEAERD , ONLY : CVDAES ,CVDAEL ,CVDAEU ,CVDAED ,&
51	& RCTRBGA,RCVOBGA ,RCSTBGA ,RCAEOPS ,RCAEOPL ,RCAEOPU ,&
52	& RCAEOPD,RCTRPT ,RCAEADK ,RCAEADM ,RCAEROS
53	USE YOERDI , ONLY : RCH4 ,RN2O ,RO3 ,RCFC11 ,&
54	& RCFC12
55	USE YOERDU , ONLY : RCDAY ,R10E ,DIFF ,REPLOG ,&
56	& REPSC ,REPSCO ,REPSCQ ,REPSCT ,REPSCW ,&
57	& NTRAER
58	USE YOETHF , ONLY : R2ES ,R3LES ,R3IES ,R4LES ,&
59	& R4IES ,R5LES ,R5IES ,R5ALVCP ,R5ALSCP ,&
60	& RALVDCP,RALSDCP ,RTWAT ,RTICE ,RTICECU
61
62
63
64
65	IMPLICIT NONE
66
67
68
69
70	! INTERNAL VARIABLES
71	! ==================
72
73	integer :: i ,j ,ikl
74
75	! For Use in radlsw
76	! ^^^^^^^^^^^^^^^^^
77	INTEGER_M :: KIDIA ,KFDIA ,KTDIA ,KLON ,KLEV
78	INTEGER_M :: KMODE ,KAER ,KSW
79
80	INTEGER_M :: KBOX ,NBOX
81	INTEGER_M :: NDUMP ,ILWRAD
82	!
83	REAL_B :: PRII05
84
85	REAL_B :: PAER5(JP_LON,JP_AER,JP_LEV) ! Aerosol Optical Depth
86	REAL_B :: PALBD5(JP_LON,JP_SW)
87	REAL_B :: PALBP5(JP_LON,JP_SW)
88	!
89	REAL_B :: PAPH5(JP_LON,JP_LEVP1)
90	REAL_B :: PAP5(JP_LON,JP_LEV)
91	!
92	REAL_B :: PCCO25
93	REAL_B :: PCLFR5(JP_LON,JP_LEV)
94	REAL_B :: PDP5(JP_LON,JP_LEV)
95	REAL_B :: PEMIS5(JP_LON)
96	REAL_B :: PEMIW5(JP_LON)
97	REAL_B :: PLSM5(JP_LON)
98	REAL_B :: PMU05(JP_LON)
99	REAL_B :: POZON5(JP_LON,JP_LEV)
100	REAL_B :: PQ5(JP_LON,JP_LEV)
101	!
102	REAL_B :: PQIWP5(JP_LON,JP_LEV)
103	REAL_B :: PQLWP5(JP_LON,JP_LEV) ! Dropplets Concentration
104	REAL_B :: PSQIW5(JP_LON,JP_LEV) ! Ice Crystals Concentration
105	REAL_B :: PSQLW5(JP_LON,JP_LEV) !
106	REAL_B :: PQS5(JP_LON,JP_LEV)
107	REAL_B :: PQRAIN5(JP_LON,JP_LEV)
108	REAL_B :: PRAINT5(JP_LON,JP_LEV)
109	REAL_B :: PRLVRI5(JP_LON,JP_LEV)
110	REAL_B :: PRLVRL5(JP_LON,JP_LEV)
111	REAL_B :: PTH5(JP_LON,JP_LEVP1)
112	REAL_B :: PT5(JP_LON,JP_LEV)
113	REAL_B :: PTS5(JP_LON)
114	REAL_B :: PNBAS5(JP_LON)
115	REAL_B :: PNTOP5(JP_LON)
116
117	! For Use in SUCLD
118	! ^^^^^^^^^^^^^^^^
119	REAL_B :: ZETA(JP_LEV)
120	REAL_B :: ZETAH(JP_LEVP1)
121
122	! For Use in SUOVLP
123	! ^^^^^^^^^^^^^^^^^
124	REAL_B :: ZTVIR
125	REAL_B :: ZFACT
126	REAL_B :: ZAZ(JP_LEV)
127	REAL_B :: ZAZH(JP_LEVP1)
128
129
130
131	! Local Variables
132	! ----------------
133
134	REAL_B :: RTIMTR
135
136	INTEGER_M :: JL , JK , JAER ,JNU
137	INTEGER_M :: KULOUT , NINDAT , NSSSSS ,KPRTLEV
138	INTEGER_M :: IYR , MONTH , IDAY ,IMINUT
139	INTEGER_M :: KPRINT , SKSHIFT
140
141
142
143
144	! Load External Functions
145	! =======================
146
147	#include "fctast.h"
148	#include "fcttim.h"
149	#include "fcttre.h"
150
151
152	KPRTLEV= 1
153	KPRINT = 1
154	SKSHIFT= 0
155
156
157
158
159	! Time Base
160	! =========
161
162	NINDAT = min(yearTU,2004)10000+mon_TU100+Day_TU ! Date in the form yyyyMMdd
163	NSSSSS = HourTU * 3600+minuTU* 60+sec_TU ! Nb of second since day Begin
164	IYR = NAA(NINDAT)
165	MONTH = NMM(NINDAT)
166	IDAY = NDD(NINDAT)
167	RTIMTR = RTIME(IYR,MONTH,IDAY,NSSSSS)
168	IMINUT = INT(FLOAT(NSSSSS)/60.)
169
170
171
172
173	! Basic Initialization
174	! ====================
175
176	! Dimensions (auxiliary variables)
177	! --------------------------------
178
179	KIDIA = 1 ! DO'NT CHANGE
180	KFDIA = JP_LON ! Nb Columns
181	KTDIA = 1 !
182	KLON = JP_LON ! Nb Columns
183	KLEV = JP_LEV ! Nb Levels
184	KMODE = JP_MODE ! Used in Planck Fcts Specification
185	KAER = JP_AER !
186
187	! Nb of Solar Spectral Intervals
188	! ^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^
189	KSW = JP_SW ! SW Nb of Spectral Intervals (max is JP_SW=6)
190	NSW = JP_SW ! SW Nb of Spectral Intervals (max is JP_SW=6)
191	NTSW = JP_SW ! SW Nb of Spectral Intervals (max is JP_SW=6)
192
193	KBOX = 0 ! \VER
194	NBOX = 1 ! \VER
195
196	ILWRAD = 1 ! 0: Morcrette, 1991 operational before 20000627
197	! 1: Mlawer et al., 1997 now ECMWF-operational
198	! 2: Morcrette, 1991 original as in ERA-15'
199
200	NDUMP = 3 ! No Print
201	! NDUMP = 2 ! 1D Results
202	! NDUMP = 1 ! Debug
203	! NDUMP = 0 ! ALL
204	KULOUT = 6 ! Output Device for SUCST
205
206
207	! Verification of the Dimensions
208	! ------------------------------
209
210	write(6,*) 'INITIALISATION OF ECMWF RADIATIVE TRANSFERT: BEGIN'
211
212	write(6,*) 'CONTROL'
213	write(6,*) 'JP_LON=',JP_LON
214	write(6,*) 'kcolp',kcolp
215	IF (kcolp .GT.JP_LON) THEN
216	write(6,6001) kcolp ,JP_LON
217	6001 format(' @!#& BAD dimensions SET-UP (kcolp > JP_LON); = ('&
218	& ,i3,',',i3,')')
219	STOP
220	END IF
221	IF (mzp .NE.JP_LEV) THEN
222	write(6,6002) mzp ,JP_LEV
223	6002 format(' @!#& BAD dimensions SET-UP (mzp /= JP_LEV); = ('&
224	& ,i3,',',i3,')')
225	STOP
226	END IF
227	IF (naero .NE.JP_AER) THEN
228	write(6,6003) naero ,JP_AER
229	6003 format(' @!#& BAD dimensions SET-UP (naero/= JP_AER); = ('&
230	& ,i3,',',i3,')')
231	STOP
232	END IF
233
234
235	! Mathematical Constants
236	! ----------------------
237
238	REPLOG = 1.E-12 ! Minimum Logarithm Argument
239	REPSC = 1.E-12
240	REPSCO = 1.E-12
241	REPSCQ = 1.E-12
242	REPSCT = 1.E-12
243	REPSCW = 1.E-12
244
245
246	! Switches (general)
247	! ------------------
248
249	LONEWSW= .TRUE. ! .TRUE. SWSN radiative routine is used
250	IF (ILWRAD.EQ.1) THEN
251	LRRTM = .TRUE. ! .TRUE. RRTM radiative routine is used
252	ELSE
253	LRRTM = .FALSE. ! .FALSE.RRTM radiative routine is NOT used
254	END IF
255	LTEMPDS= .FALSE. ! .TRUE. ALLOWS FOR SURF. T DISCONTIN. IN RAD.COMPUT.
256
257	NTRAER = 19 ! NUMBER OF TRANSMISSION FUNCTIONS W OR W/O AEROSOLS
258
259
260	! Switches (Clouds Optical Properties)
261	! ------------------------------------
262
263	LINHOM = .FALSE. ! Tiedke (1995) correct. factor (0.7) of tau not used
264	NHOWINH= 2 ! Tau correction factor: exp(-(sig/tau)^2)
265	! (used if LINHOM = .TRUE.)
266	LOIFUEC= .FALSE. ! .FALSE. IF ICE CLOUDS AS EBERT-CURRY (LW & SW)
267	LOWASYF= .FALSE. ! .FALSE. IF WATER CLOUDS AS FOUQUART (SW)
268	LOWHSSS= .FALSE. ! .FALSE. IF WATER CLOUDS AS SMITH-SHI (LW)
269	NRADIP = 3 ! Ice effective Radius:
270	! 0 fixed 40 microns
271	! 1 f(T) 40 - 130 microns
272	! 2 f(T) 30 - 60 microns Jakob-Klein
273	! 3 f(T,IWC) Sun-Rikus, 1999
274	RMINICE= 15 ! Minimum Diameter for Ice Particles (micronm)
275	! Needed only if NRADIP = 3
276	! (see von Walden et al., 2003 (Oct) Tab. 2 p.1393)
277	NRADLP = 0 ! Liquid effective Radius: f(Pressure)
278	! 0 effective radius - liquid as f(Pressure)
279	! 1 fixed 10 microns over land, 13 over ocean
280	! 2 computed from LWC Martin et al, 1994
281	NLIQOPT= 1 ! Cloud Optical Properties (Water): 1=ECMWF Operat.
282	! 0 LW: Smith-Shi, 1992; SW: Fouquart, 1987
283	! 1 LW: Savijarvi, 1997; SW: Slingo , 1989
284	! 2 LW: Lindner,Li, 2000; SW: Slingo , 1989
285	NICEOPT= 1 ! Cloud Optical Properties (Ice) : 1=ECMWF Operat.
286	! 0 LW: Smith,Shi , 1992; SW: Ebert-Curry, 1992
287	! 1 LW: Ebert,Curry, 1992; SW: Ebert-Curry, 1992
288	! 2 LW: Fu,Liou , 1993; SW: Fu,Liou , 1993
289	! 3 LW: Fu et al. , 1998; SW: Fu , 1996
290	NOVLP = 2 ! CLOUD OVERLAP CONFIGURATION:
291	! 1=MRN, 2=MAX, 3=RAN, 4=Hogan
292
293
294	! Switches (Aerosols/O3)
295	! ----------------------
296
297	LNEWAER= .TRUE. ! Climatology of Aerosols: TEGEN ET AL. 1997 / GADS
298	LHVOLCA= .TRUE. ! .TRUE. IF GISS HISTORY OF VOLCANIC AEROSOLS IS ON
299	! NOZOCL = -1 ! TESTS the vertical quadrature (NO absorber)
300	! NOZOCL = 0 ! whatever is read for O3 as input profile
301	! NOZOCL = 1 ! OLD ECMWF O3 climatology and aerosols
302	NOZOCL = 2 ! Fortuin-Langematz O3 climatology and aerosols
303	! NOZOCL = 3 ! OLD ECMWF O3 climatology and NO aerosols
304	! NOZOCL = 4 ! Fortuin-Langematz O3 climatology and NO aerosols
305
306
307	! BASIC CONSTANTS
308	! ---------------
309
310	! *****
311	CALL SUCST (KULOUT, NINDAT, NSSSSS, KPRTLEV) ! Initialize common YOMCST
312	! ***** ! (Basic Constants)
313	! Initialize common YOMRIP
314	! (only date and time)
315
316	! YOENCST - THERMODYNAMIC TRANSITION OF PHASE
317	! ^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^
318	RTT=273.16 !
319
320	! YOETHF - DERIVED CONSTANTS SPECIFIC TO ECMWF THERMODYNAMICS
321	! ^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^
322	RTWAT=RTT !
323	RTICE=RTT-23. !
324
325	! YOERDU - CONTROL, PARAMETERS AND SECURITY IN RADIATION
326	! ^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^
327	RCDAY = RDAY * RG / RCPD !
328	R10E = 0.4342945 ! DECIMAL / NATURAL
329	! LOG. FACTOR
330	DIFF = 1.66 ! DIFFUSIVITY FACTOR
331
332
333	! Space/Time Independant Coefficients
334	! -----------------------------------
335
336	CALL SURDI ! ECMWF Surface Albedo, Emissivity
337	CALL SULWN ! Initialize common YOELW (new LW Coeff.)
338	CALL SUOLW ! Initialize common YOELW (old LW Coeff.)
339
340	! Initialization routine for RRTM
341	! ^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^
342	CALL SURRTAB ! AER'S RRTM LW RADIATION
343	CALL SURRTPK ! Initialize common YOERRTWN
344	! (k-coefficients in spectral intervals)
345	CALL SURRTRF ! Initialize common YOERRTRF
346	! (RRTM Reference Atmosphere)
347	CALL SURRTFTR ! Initialize common YOERRTRF
348
349	! RRTM routine ! BAND [cm-1] ! low ! high
350	! ----------------------+---------------+---------------+---------
351	CALL RRTM_KGB1 ! 1: 10- 250 ! H2O ! H2O
352	CALL RRTM_KGB2 ! 2: 250- 500 ! H2O ! H2O
353	CALL RRTM_KGB3 ! 3: 500- 630 ! H2O,CO2 ! H2O,CO2
354	CALL RRTM_KGB4 ! 4: 630- 700 ! H2O,CO2 ! O3,CO2
355	CALL RRTM_KGB5 ! 5: 700- 820 ! H2O,CO2 ! O3,CO2
356	CALL RRTM_KGB6 ! 6: 820- 980 ! H2O ! nothing
357	CALL RRTM_KGB7 ! 7: 980-1080 ! H2O,O3 ! O3
358	CALL RRTM_KGB8 ! 8: 1080-1180 ! (i.e.>~300mb) ! O3
359	! ! H2O !
360	CALL RRTM_KGB9 ! 9: 1180-1390 ! H2O,CH4 ! CH4
361	CALL RRTM_KGB10 ! 10: 1390-1480 ! H2O ! H2O
362	CALL RRTM_KGB11 ! 11: 1480-1800 ! H2O ! H2O
363	CALL RRTM_KGB12 ! 12: 1800-2080 ! H2O,CO2 ! nothing
364	CALL RRTM_KGB13 ! 13: 2080-2250 ! H2O,N2O ! nothing
365	CALL RRTM_KGB14 ! 14: 2250-2380 ! CO2 ! CO2
366	CALL RRTM_KGB15 ! 15: 2380-2600 ! N2O,CO2 ! nothing
367	CALL RRTM_KGB16 ! 16: 2600-3000 ! H2O,CH4 ! nothing
368
369	! Reduce absorption coefficient data from 256 to 140 g-points
370	! ^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^
371	CALL RRTM_INIT_140GP
372
373	! Initialization routine for SW (6 spectral interval resolution)
374	! ^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^^
375	CALL SUSWN ( NTSW , KSW ) ! Initialize common YOESW
376
377
378	write(6,*) 'INITIALISATION OF ECMWF RADIATIVE TRANSFERT: END '
379
380
381
382
383	! Radiation: Global (Time dependant) Parameters
384	! =============================================
385
386	PRII05 = RI0 ! INSOLATION
387	! PRII05 = RI0/(dST_UA*dST_UA) ! INSOLATION (dST_UA: Distance Soleil-Terre [UA])
388	PCCO25 = 360.E-06*44./29. ! CONCENTRATION IN CO2 [Pa/Pa]
389
390
391
392
393	! Surface Properties
394	! ==================
395
396	! Land/sea Mask
397	! -------------
398
399	! Martin CONTROL
400	!PRINT*, 'CONTROL dans Atm_RT_INI'
401	!PRINT*,'SIZE(psa_DY)=)',SIZE(psa_DY)
402	!PRINT*, 'psa_DY=',psa_DY
403	! Martin CONTROL
404
405	DO jl=1,KLON
406	ikl = min(jl,kcolp)
407	i = ii__AP(ikl)
408	j = jj__AP(ikl)
409	PLSM5 (JL) = 1 - MaskSV_gpt(ikl)
410
411
412
413
414	! Atmospheric Thermodynamics (Time and Space dependant)
415	! =====================================================
416
417	! Pressure Distribution
418	! --------------------------
419
420	JK=1+KLEV
421	PAPH5 (JL,JK) = (psa_DY(ikl) + pt__DY) * 1000. ! Pressure (Layer Interface)[Pa]
422	DO JK=1,KLEV
423	PAPH5 (JL,JK) = (psa_DY(ikl) * sigma(JK) + pt__DY) * 1000. ! Pressure (Layer) [Pa]
424	PAP5 (JL,JK) = (psa_DY(ikl) * sigmi(JK) + pt__DY) * 1000. ! Pressure (Layer Interface)[Pa]
425	PDP5 (JL,JK) = psa_DY(ikl) dsigmi(JK) 1000. ! Pressure (Layer Thickness)[Pa]
426
427
428	! Temperature Distribution
429	! --------------------------
430
431	PT5 (JL,JK) = Ta__DY(ikl,JK)
432
433
434	! Water Species Distribution
435	! --------------------------
436
437	PQ5 (JL,JK) = qv__DY(ikl,JK) ! Water Vapor Concentr. [kg/kg]
438
439	ENDDO
440	ENDDO
441
442
443
444
445	! Initialization (Climatologies, Time independant)
446	! ================================================
447
448	! Aerosols Radiative Characteristics (YOEAER)
449	! ----------------------------------
450
451	! *******
452	CALL SUAERL ! Aerosols LW Radiative Charact.
453	CALL SUAERSN ( NTSW , KSW ) ! Aerosols SW Radiative Charact.
454	! *******
455
456
457	! Aerosols Optical Thickness Horizontal Distribution (model grid
458	! -------------------------------------------------- independant)
459
460	! ********
461	CALL SUAERH !
462	CALL SUECAEBC ! BLACK CARBON (URBAN/FOREST FIRE ORIGIN)
463	CALL SUECAEOR ! ORGANIC-TYPE
464	CALL SUECAESD ! SOIL-DUST ORIGIN
465	CALL SUECAESS ! SEA -SALT ORIGIN
466	CALL SUECAESU ! SULFATE-TYPE
467	! ********
468
469
470	! Clouds (YOECLD)
471	! ---------------
472
473	DO jk=1,klev
474	ZETA(jk) =PAP5(1,jk) /PAPH5(1,klev+1)
475	ENDDO
476	DO jk=1,klev+1
477	ZETAH(jk)=PAPH5(1,jk)/PAPH5(1,klev+1)
478	ENDDO
479	! Martin Control
480	!PRINT*, 'PAPH5(1,:)=',PAPH5(1,:)
481	!PRINT*, 'ZETAH=',ZETAH
482	! Martin Control
483
484	! *****
485	CALL SUCLD ( KLEV , ZETA )
486	! *****
487
488
489	! Cloud Optical Parameters SW/LW (all parameterizations)
490	! ------------------------------------------------------
491
492	! *******
493	CALL SUCLOPN ( NTSW , KSW , KLEV ) ! Initialize YOECLOP
494	! *******
495
496
497	! Radar Reflectivity
498	! ------------------
499
500	ZAZH(KLEV+1)= 0.
501	ZAZ(1) =100000.
502	JL=KIDIA
503	DO jk=KLEV,2,-1
504	ZTVIR = PT5(JL,jk) /(1.-0.608*PQ5(jl,jk))
505	ZFACT = LOG(PAPH5(jl,jk+1))- LOG(PAPH5(jl,jk))
506	ZAZH(jk) = ZAZH(jk+1) + R * ZTVIR/(RMDRG)ZFACT
507	ZAZ(jk) = 0.5(ZAZH(jk+1)+ZAZH(jk))1000.
508	END DO
509
510	! ******
511	CALL SUOVLP ( KLEV , ZAZ ) ! Initialize ALPHA1 (%radar refl.)
512	! ****** ! (Hogan & Illingsworth, 1999)
513
514
515	! NO Absorber
516	! -----------
517
518	IF (NOZOCL.EQ.-1) THEN
519	RCH4 = 1.E-18
520	RN2O = 1.E-18
521	RO3 = 1.E-18
522	RCFC11 = 1.E-18
523	RCFC12 = 1.E-18
524	PCCO25 = 1.E-18
525	DO jk=1,klev
526	DO jl=KIDIA,KFDIA
527	POZON5(JL,JK) = 0.
528	ENDDO
529	ENDDO
530	DO JK=1,KLEV
531	DO JAER=1,KAER
532	DO JL=KIDIA,KFDIA
533	PAER5(JL,JAER,JK)= ZEPAER
534	ENDDO
535	ENDDO
536	ENDDO
537	END IF
538
539
540
541	return
542	end subroutine Atm_RT_INI

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