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module_domain.F @ 2760

Last change on this file since 2760 was 2759, checked in by aslmd, 2 years ago
adding unmodified code from WRFV3.0.1.1, expurged from useless data +1M size
File size: 93.6 KB

Line
1	!WRF:DRIVER_LAYER:DOMAIN_OBJECT
2	!
3	! Following are the routines contained within this MODULE:
4
5	! alloc_and_configure_domain 1. Allocate the space for a single domain (constants
6	! and null terminate pointers).
7	! 2. Connect the domains as a linked list.
8	! 3. Store all of the domain constants.
9	! 4. CALL alloc_space_field.
10
11	! alloc_space_field 1. Allocate space for the gridded data required for
12	! each domain.
13
14	! dealloc_space_domain 1. Reconnect linked list nodes since the current
15	! node is removed.
16	! 2. CALL dealloc_space_field.
17	! 3. Deallocate single domain.
18
19	! dealloc_space_field 1. Deallocate each of the fields for a particular
20	! domain.
21
22	! first_loc_integer 1. Find the first incidence of a particular
23	! domain identifier from an array of domain
24	! identifiers.
25
26	MODULE module_domain
27
28	USE module_driver_constants
29	USE module_machine
30	USE module_configure
31	USE module_wrf_error
32	USE module_utility
33	USE module_domain_type
34
35	! In WRFV3, the module_domain_type is defined
36	! in a separaate source file, frame/module_domain_type.F
37	! This enables splitting off the alloc_space_field routine
38	! into a separate file, reducing the size of module_domain
39
40	! Now that a "domain" TYPE exists, we can use it to store a few pointers
41	! to this type. These are primarily for use in traversing the linked list.
42	! The "head_grid" is always the pointer to the first domain that is
43	! allocated. This is available and is not to be changed. The others are
44	! just temporary pointers.
45
46	TYPE(domain) , POINTER :: head_grid , new_grid , next_grid , old_grid
47
48	! To facilitate an easy integration of each of the domains that are on the
49	! same level, we have an array for the head pointer for each level. This
50	! removed the need to search through the linked list at each time step to
51	! find which domains are to be active.
52
53	TYPE domain_levels
54	TYPE(domain) , POINTER :: first_domain
55	END TYPE domain_levels
56
57	TYPE(domain_levels) , DIMENSION(max_levels) :: head_for_each_level
58
59	! Use this to support debugging features, giving easy access to clock, etc.
60	TYPE(domain), POINTER :: current_grid
61	LOGICAL, SAVE :: current_grid_set = .FALSE.
62
63	! internal routines
64	PRIVATE domain_time_test_print
65	PRIVATE test_adjust_io_timestr
66
67	INTERFACE get_ijk_from_grid
68	MODULE PROCEDURE get_ijk_from_grid1, get_ijk_from_grid2
69	END INTERFACE
70
71
72	CONTAINS
73
74	SUBROUTINE adjust_domain_dims_for_move( grid , dx, dy )
75	IMPLICIT NONE
76
77	TYPE( domain ), POINTER :: grid
78	INTEGER, INTENT(IN) :: dx, dy
79
80	data_ordering : SELECT CASE ( model_data_order )
81	CASE ( DATA_ORDER_XYZ )
82	grid%sm31 = grid%sm31 + dx
83	grid%em31 = grid%em31 + dx
84	grid%sm32 = grid%sm32 + dy
85	grid%em32 = grid%em32 + dy
86	grid%sp31 = grid%sp31 + dx
87	grid%ep31 = grid%ep31 + dx
88	grid%sp32 = grid%sp32 + dy
89	grid%ep32 = grid%ep32 + dy
90	grid%sd31 = grid%sd31 + dx
91	grid%ed31 = grid%ed31 + dx
92	grid%sd32 = grid%sd32 + dy
93	grid%ed32 = grid%ed32 + dy
94
95	CASE ( DATA_ORDER_YXZ )
96	grid%sm31 = grid%sm31 + dy
97	grid%em31 = grid%em31 + dy
98	grid%sm32 = grid%sm32 + dx
99	grid%em32 = grid%em32 + dx
100	grid%sp31 = grid%sp31 + dy
101	grid%ep31 = grid%ep31 + dy
102	grid%sp32 = grid%sp32 + dx
103	grid%ep32 = grid%ep32 + dx
104	grid%sd31 = grid%sd31 + dy
105	grid%ed31 = grid%ed31 + dy
106	grid%sd32 = grid%sd32 + dx
107	grid%ed32 = grid%ed32 + dx
108
109	CASE ( DATA_ORDER_ZXY )
110	grid%sm32 = grid%sm32 + dx
111	grid%em32 = grid%em32 + dx
112	grid%sm33 = grid%sm33 + dy
113	grid%em33 = grid%em33 + dy
114	grid%sp32 = grid%sp32 + dx
115	grid%ep32 = grid%ep32 + dx
116	grid%sp33 = grid%sp33 + dy
117	grid%ep33 = grid%ep33 + dy
118	grid%sd32 = grid%sd32 + dx
119	grid%ed32 = grid%ed32 + dx
120	grid%sd33 = grid%sd33 + dy
121	grid%ed33 = grid%ed33 + dy
122
123	CASE ( DATA_ORDER_ZYX )
124	grid%sm32 = grid%sm32 + dy
125	grid%em32 = grid%em32 + dy
126	grid%sm33 = grid%sm33 + dx
127	grid%em33 = grid%em33 + dx
128	grid%sp32 = grid%sp32 + dy
129	grid%ep32 = grid%ep32 + dy
130	grid%sp33 = grid%sp33 + dx
131	grid%ep33 = grid%ep33 + dx
132	grid%sd32 = grid%sd32 + dy
133	grid%ed32 = grid%ed32 + dy
134	grid%sd33 = grid%sd33 + dx
135	grid%ed33 = grid%ed33 + dx
136
137	CASE ( DATA_ORDER_XZY )
138	grid%sm31 = grid%sm31 + dx
139	grid%em31 = grid%em31 + dx
140	grid%sm33 = grid%sm33 + dy
141	grid%em33 = grid%em33 + dy
142	grid%sp31 = grid%sp31 + dx
143	grid%ep31 = grid%ep31 + dx
144	grid%sp33 = grid%sp33 + dy
145	grid%ep33 = grid%ep33 + dy
146	grid%sd31 = grid%sd31 + dx
147	grid%ed31 = grid%ed31 + dx
148	grid%sd33 = grid%sd33 + dy
149	grid%ed33 = grid%ed33 + dy
150
151	CASE ( DATA_ORDER_YZX )
152	grid%sm31 = grid%sm31 + dy
153	grid%em31 = grid%em31 + dy
154	grid%sm33 = grid%sm33 + dx
155	grid%em33 = grid%em33 + dx
156	grid%sp31 = grid%sp31 + dy
157	grid%ep31 = grid%ep31 + dy
158	grid%sp33 = grid%sp33 + dx
159	grid%ep33 = grid%ep33 + dx
160	grid%sd31 = grid%sd31 + dy
161	grid%ed31 = grid%ed31 + dy
162	grid%sd33 = grid%sd33 + dx
163	grid%ed33 = grid%ed33 + dx
164
165	END SELECT data_ordering
166
167	#if 0
168	CALL dealloc_space_field ( grid )
169
170	CALL alloc_space_field ( grid, grid%id , 1 , 2 , .FALSE. , &
171	grid%sd31, grid%ed31, grid%sd32, grid%ed32, grid%sd33, grid%ed33, &
172	grid%sm31, grid%em31, grid%sm32, grid%em32, grid%sm33, grid%em33, &
173	grid%sm31x, grid%em31x, grid%sm32x, grid%em32x, grid%sm33x, grid%em33x, & ! x-xpose
174	grid%sm31y, grid%em31y, grid%sm32y, grid%em32y, grid%sm33y, grid%em33y & ! y-xpose
175	)
176	#endif
177
178	RETURN
179	END SUBROUTINE adjust_domain_dims_for_move
180
181	SUBROUTINE get_ijk_from_grid1 ( grid , &
182	ids, ide, jds, jde, kds, kde, &
183	ims, ime, jms, jme, kms, kme, &
184	ips, ipe, jps, jpe, kps, kpe, &
185	imsx, imex, jmsx, jmex, kmsx, kmex, &
186	ipsx, ipex, jpsx, jpex, kpsx, kpex, &
187	imsy, imey, jmsy, jmey, kmsy, kmey, &
188	ipsy, ipey, jpsy, jpey, kpsy, kpey )
189	IMPLICIT NONE
190	TYPE( domain ), INTENT (IN) :: grid
191	INTEGER, INTENT(OUT) :: &
192	ids, ide, jds, jde, kds, kde, &
193	ims, ime, jms, jme, kms, kme, &
194	ips, ipe, jps, jpe, kps, kpe, &
195	imsx, imex, jmsx, jmex, kmsx, kmex, &
196	ipsx, ipex, jpsx, jpex, kpsx, kpex, &
197	imsy, imey, jmsy, jmey, kmsy, kmey, &
198	ipsy, ipey, jpsy, jpey, kpsy, kpey
199
200	CALL get_ijk_from_grid2 ( grid , &
201	ids, ide, jds, jde, kds, kde, &
202	ims, ime, jms, jme, kms, kme, &
203	ips, ipe, jps, jpe, kps, kpe )
204	data_ordering : SELECT CASE ( model_data_order )
205	CASE ( DATA_ORDER_XYZ )
206	imsx = grid%sm31x ; imex = grid%em31x ; jmsx = grid%sm32x ; jmex = grid%em32x ; kmsx = grid%sm33x ; kmex = grid%em33x ;
207	ipsx = grid%sp31x ; ipex = grid%ep31x ; jpsx = grid%sp32x ; jpex = grid%ep32x ; kpsx = grid%sp33x ; kpex = grid%ep33x ;
208	imsy = grid%sm31y ; imey = grid%em31y ; jmsy = grid%sm32y ; jmey = grid%em32y ; kmsy = grid%sm33y ; kmey = grid%em33y ;
209	ipsy = grid%sp31y ; ipey = grid%ep31y ; jpsy = grid%sp32y ; jpey = grid%ep32y ; kpsy = grid%sp33y ; kpey = grid%ep33y ;
210	CASE ( DATA_ORDER_YXZ )
211	imsx = grid%sm32x ; imex = grid%em32x ; jmsx = grid%sm31x ; jmex = grid%em31x ; kmsx = grid%sm33x ; kmex = grid%em33x ;
212	ipsx = grid%sp32x ; ipex = grid%ep32x ; jpsx = grid%sp31x ; jpex = grid%ep31x ; kpsx = grid%sp33x ; kpex = grid%ep33x ;
213	imsy = grid%sm32y ; imey = grid%em32y ; jmsy = grid%sm31y ; jmey = grid%em31y ; kmsy = grid%sm33y ; kmey = grid%em33y ;
214	ipsy = grid%sp32y ; ipey = grid%ep32y ; jpsy = grid%sp31y ; jpey = grid%ep31y ; kpsy = grid%sp33y ; kpey = grid%ep33y ;
215	CASE ( DATA_ORDER_ZXY )
216	imsx = grid%sm32x ; imex = grid%em32x ; jmsx = grid%sm33x ; jmex = grid%em33x ; kmsx = grid%sm31x ; kmex = grid%em31x ;
217	ipsx = grid%sp32x ; ipex = grid%ep32x ; jpsx = grid%sp33x ; jpex = grid%ep33x ; kpsx = grid%sp31x ; kpex = grid%ep31x ;
218	imsy = grid%sm32y ; imey = grid%em32y ; jmsy = grid%sm33y ; jmey = grid%em33y ; kmsy = grid%sm31y ; kmey = grid%em31y ;
219	ipsy = grid%sp32y ; ipey = grid%ep32y ; jpsy = grid%sp33y ; jpey = grid%ep33y ; kpsy = grid%sp31y ; kpey = grid%ep31y ;
220	CASE ( DATA_ORDER_ZYX )
221	imsx = grid%sm33x ; imex = grid%em33x ; jmsx = grid%sm32x ; jmex = grid%em32x ; kmsx = grid%sm31x ; kmex = grid%em31x ;
222	ipsx = grid%sp33x ; ipex = grid%ep33x ; jpsx = grid%sp32x ; jpex = grid%ep32x ; kpsx = grid%sp31x ; kpex = grid%ep31x ;
223	imsy = grid%sm33y ; imey = grid%em33y ; jmsy = grid%sm32y ; jmey = grid%em32y ; kmsy = grid%sm31y ; kmey = grid%em31y ;
224	ipsy = grid%sp33y ; ipey = grid%ep33y ; jpsy = grid%sp32y ; jpey = grid%ep32y ; kpsy = grid%sp31y ; kpey = grid%ep31y ;
225	CASE ( DATA_ORDER_XZY )
226	imsx = grid%sm31x ; imex = grid%em31x ; jmsx = grid%sm33x ; jmex = grid%em33x ; kmsx = grid%sm32x ; kmex = grid%em32x ;
227	ipsx = grid%sp31x ; ipex = grid%ep31x ; jpsx = grid%sp33x ; jpex = grid%ep33x ; kpsx = grid%sp32x ; kpex = grid%ep32x ;
228	imsy = grid%sm31y ; imey = grid%em31y ; jmsy = grid%sm33y ; jmey = grid%em33y ; kmsy = grid%sm32y ; kmey = grid%em32y ;
229	ipsy = grid%sp31y ; ipey = grid%ep31y ; jpsy = grid%sp33y ; jpey = grid%ep33y ; kpsy = grid%sp32y ; kpey = grid%ep32y ;
230	CASE ( DATA_ORDER_YZX )
231	imsx = grid%sm33x ; imex = grid%em33x ; jmsx = grid%sm31x ; jmex = grid%em31x ; kmsx = grid%sm32x ; kmex = grid%em32x ;
232	ipsx = grid%sp33x ; ipex = grid%ep33x ; jpsx = grid%sp31x ; jpex = grid%ep31x ; kpsx = grid%sp32x ; kpex = grid%ep32x ;
233	imsy = grid%sm33y ; imey = grid%em33y ; jmsy = grid%sm31y ; jmey = grid%em31y ; kmsy = grid%sm32y ; kmey = grid%em32y ;
234	ipsy = grid%sp33y ; ipey = grid%ep33y ; jpsy = grid%sp31y ; jpey = grid%ep31y ; kpsy = grid%sp32y ; kpey = grid%ep32y ;
235	END SELECT data_ordering
236	END SUBROUTINE get_ijk_from_grid1
237
238	SUBROUTINE get_ijk_from_grid2 ( grid , &
239	ids, ide, jds, jde, kds, kde, &
240	ims, ime, jms, jme, kms, kme, &
241	ips, ipe, jps, jpe, kps, kpe )
242
243	IMPLICIT NONE
244
245	TYPE( domain ), INTENT (IN) :: grid
246	INTEGER, INTENT(OUT) :: &
247	ids, ide, jds, jde, kds, kde, &
248	ims, ime, jms, jme, kms, kme, &
249	ips, ipe, jps, jpe, kps, kpe
250
251	data_ordering : SELECT CASE ( model_data_order )
252	CASE ( DATA_ORDER_XYZ )
253	ids = grid%sd31 ; ide = grid%ed31 ; jds = grid%sd32 ; jde = grid%ed32 ; kds = grid%sd33 ; kde = grid%ed33 ;
254	ims = grid%sm31 ; ime = grid%em31 ; jms = grid%sm32 ; jme = grid%em32 ; kms = grid%sm33 ; kme = grid%em33 ;
255	ips = grid%sp31 ; ipe = grid%ep31 ; jps = grid%sp32 ; jpe = grid%ep32 ; kps = grid%sp33 ; kpe = grid%ep33 ;
256	CASE ( DATA_ORDER_YXZ )
257	ids = grid%sd32 ; ide = grid%ed32 ; jds = grid%sd31 ; jde = grid%ed31 ; kds = grid%sd33 ; kde = grid%ed33 ;
258	ims = grid%sm32 ; ime = grid%em32 ; jms = grid%sm31 ; jme = grid%em31 ; kms = grid%sm33 ; kme = grid%em33 ;
259	ips = grid%sp32 ; ipe = grid%ep32 ; jps = grid%sp31 ; jpe = grid%ep31 ; kps = grid%sp33 ; kpe = grid%ep33 ;
260	CASE ( DATA_ORDER_ZXY )
261	ids = grid%sd32 ; ide = grid%ed32 ; jds = grid%sd33 ; jde = grid%ed33 ; kds = grid%sd31 ; kde = grid%ed31 ;
262	ims = grid%sm32 ; ime = grid%em32 ; jms = grid%sm33 ; jme = grid%em33 ; kms = grid%sm31 ; kme = grid%em31 ;
263	ips = grid%sp32 ; ipe = grid%ep32 ; jps = grid%sp33 ; jpe = grid%ep33 ; kps = grid%sp31 ; kpe = grid%ep31 ;
264	CASE ( DATA_ORDER_ZYX )
265	ids = grid%sd33 ; ide = grid%ed33 ; jds = grid%sd32 ; jde = grid%ed32 ; kds = grid%sd31 ; kde = grid%ed31 ;
266	ims = grid%sm33 ; ime = grid%em33 ; jms = grid%sm32 ; jme = grid%em32 ; kms = grid%sm31 ; kme = grid%em31 ;
267	ips = grid%sp33 ; ipe = grid%ep33 ; jps = grid%sp32 ; jpe = grid%ep32 ; kps = grid%sp31 ; kpe = grid%ep31 ;
268	CASE ( DATA_ORDER_XZY )
269	ids = grid%sd31 ; ide = grid%ed31 ; jds = grid%sd33 ; jde = grid%ed33 ; kds = grid%sd32 ; kde = grid%ed32 ;
270	ims = grid%sm31 ; ime = grid%em31 ; jms = grid%sm33 ; jme = grid%em33 ; kms = grid%sm32 ; kme = grid%em32 ;
271	ips = grid%sp31 ; ipe = grid%ep31 ; jps = grid%sp33 ; jpe = grid%ep33 ; kps = grid%sp32 ; kpe = grid%ep32 ;
272	CASE ( DATA_ORDER_YZX )
273	ids = grid%sd33 ; ide = grid%ed33 ; jds = grid%sd31 ; jde = grid%ed31 ; kds = grid%sd32 ; kde = grid%ed32 ;
274	ims = grid%sm33 ; ime = grid%em33 ; jms = grid%sm31 ; jme = grid%em31 ; kms = grid%sm32 ; kme = grid%em32 ;
275	ips = grid%sp33 ; ipe = grid%ep33 ; jps = grid%sp31 ; jpe = grid%ep31 ; kps = grid%sp32 ; kpe = grid%ep32 ;
276	END SELECT data_ordering
277	END SUBROUTINE get_ijk_from_grid2
278
279	! return the values for subgrid whose refinement is in grid%sr
280	! note when using this routine, it does not affect K. For K
281	! (vertical), it just returns what get_ijk_from_grid does
282	SUBROUTINE get_ijk_from_subgrid ( grid , &
283	ids0, ide0, jds0, jde0, kds0, kde0, &
284	ims0, ime0, jms0, jme0, kms0, kme0, &
285	ips0, ipe0, jps0, jpe0, kps0, kpe0 )
286	TYPE( domain ), INTENT (IN) :: grid
287	INTEGER, INTENT(OUT) :: &
288	ids0, ide0, jds0, jde0, kds0, kde0, &
289	ims0, ime0, jms0, jme0, kms0, kme0, &
290	ips0, ipe0, jps0, jpe0, kps0, kpe0
291	! Local
292	INTEGER :: &
293	ids, ide, jds, jde, kds, kde, &
294	ims, ime, jms, jme, kms, kme, &
295	ips, ipe, jps, jpe, kps, kpe
296	CALL get_ijk_from_grid ( grid , &
297	ids, ide, jds, jde, kds, kde, &
298	ims, ime, jms, jme, kms, kme, &
299	ips, ipe, jps, jpe, kps, kpe )
300	ids0 = ids
301	ide0 = ide * grid%sr_x
302	ims0 = (ims-1)*grid%sr_x+1
303	ime0 = ime * grid%sr_x
304	ips0 = (ips-1)*grid%sr_x+1
305	ipe0 = ipe * grid%sr_x
306
307	jds0 = jds
308	jde0 = jde * grid%sr_y
309	jms0 = (jms-1)*grid%sr_y+1
310	jme0 = jme * grid%sr_y
311	jps0 = (jps-1)*grid%sr_y+1
312	jpe0 = jpe * grid%sr_y
313
314	kds0 = kds
315	kde0 = kde
316	kms0 = kms
317	kme0 = kme
318	kps0 = kps
319	kpe0 = kpe
320	RETURN
321	END SUBROUTINE get_ijk_from_subgrid
322
323
324	! Default version ; Otherwise module containing interface to DM library will provide
325
326	SUBROUTINE wrf_patch_domain( id , domdesc , parent, parent_id , parent_domdesc , &
327	sd1 , ed1 , sp1 , ep1 , sm1 , em1 , &
328	sd2 , ed2 , sp2 , ep2 , sm2 , em2 , &
329	sd3 , ed3 , sp3 , ep3 , sm3 , em3 , &
330	sp1x , ep1x , sm1x , em1x , &
331	sp2x , ep2x , sm2x , em2x , &
332	sp3x , ep3x , sm3x , em3x , &
333	sp1y , ep1y , sm1y , em1y , &
334	sp2y , ep2y , sm2y , em2y , &
335	sp3y , ep3y , sm3y , em3y , &
336	bdx , bdy , bdy_mask )
337	!<DESCRIPTION>
338	! Wrf_patch_domain is called as part of the process of initiating a new
339	! domain. Based on the global domain dimension information that is
340	! passed in it computes the patch and memory dimensions on this
341	! distributed-memory process for parallel compilation when DM_PARALLEL is
342	! defined in configure.wrf. In this case, it relies on an external
343	! communications package-contributed routine, wrf_dm_patch_domain. For
344	! non-parallel compiles, it returns the patch and memory dimensions based
345	! on the entire domain. In either case, the memory dimensions will be
346	! larger than the patch dimensions, since they allow for distributed
347	! memory halo regions (DM_PARALLEL only) and for boundary regions around
348	! the domain (used for idealized cases only). The width of the boundary
349	! regions to be accommodated is passed in as bdx and bdy.
350	!
351	! The bdy_mask argument is a four-dimensional logical array, each element
352	! of which is set to true for any boundaries that this process's patch
353	! contains (all four are true in the non-DM_PARALLEL case) and false
354	! otherwise. The indices into the bdy_mask are defined in
355	! frame/module_state_description.F. P_XSB corresponds boundary that
356	! exists at the beginning of the X-dimension; ie. the western boundary;
357	! P_XEB to the boundary that corresponds to the end of the X-dimension
358	! (east). Likewise for Y (south and north respectively).
359	!
360	! The correspondence of the first, second, and third dimension of each
361	! set (domain, memory, and patch) with the coordinate axes of the model
362	! domain is based on the setting of the variable model_data_order, which
363	! comes into this routine through USE association of
364	! module_driver_constants in the enclosing module of this routine,
365	! module_domain. Model_data_order is defined by the Registry, based on
366	! the dimspec entries which associate dimension specifiers (e.g. 'k') in
367	! the Registry with a coordinate axis and specify which dimension of the
368	! arrays they represent. For WRF, the sd1 , ed1 , sp1 , ep1 , sm1 , and
369	! em1 correspond to the starts and ends of the global, patch, and memory
370	! dimensions in X; those with 2 specify Z (vertical); and those with 3
371	! specify Y. Note that the WRF convention is to overdimension to allow
372	! for staggered fields so that sd<em>n</em>:ed<em>n</em> are the starts
373	! and ends of the staggered domains in X. The non-staggered grid runs
374	! sd<em>n</em>:ed<em>n</em>-1. The extra row or column on the north or
375	! east boundaries is not used for non-staggered fields.
376	!
377	! The domdesc and parent_domdesc arguments are for external communication
378	! packages (e.g. RSL) that establish and return to WRF integer handles
379	! for referring to operations on domains. These descriptors are not set
380	! or used otherwise and they are opaque, which means they are never
381	! accessed or modified in WRF; they are only only passed between calls to
382	! the external package.
383	!</DESCRIPTION>
384
385	USE module_machine
386	IMPLICIT NONE
387	LOGICAL, DIMENSION(4), INTENT(OUT) :: bdy_mask
388	INTEGER, INTENT(IN) :: sd1 , ed1 , sd2 , ed2 , sd3 , ed3 , bdx , bdy
389	INTEGER, INTENT(OUT) :: sp1 , ep1 , sp2 , ep2 , sp3 , ep3 , & ! z-xpose (std)
390	sm1 , em1 , sm2 , em2 , sm3 , em3
391	INTEGER, INTENT(OUT) :: sp1x , ep1x , sp2x , ep2x , sp3x , ep3x , & ! x-xpose
392	sm1x , em1x , sm2x , em2x , sm3x , em3x
393	INTEGER, INTENT(OUT) :: sp1y , ep1y , sp2y , ep2y , sp3y , ep3y , & ! y-xpose
394	sm1y , em1y , sm2y , em2y , sm3y , em3y
395	INTEGER, INTENT(IN) :: id , parent_id , parent_domdesc
396	INTEGER, INTENT(INOUT) :: domdesc
397	TYPE(domain), POINTER :: parent
398
399	!local data
400
401	INTEGER spec_bdy_width
402
403	CALL nl_get_spec_bdy_width( 1, spec_bdy_width )
404
405	#ifndef DM_PARALLEL
406
407	bdy_mask = .true. ! only one processor so all 4 boundaries are there
408
409	! this is a trivial version -- 1 patch per processor;
410	! use version in module_dm to compute for DM
411	sp1 = sd1 ; sp2 = sd2 ; sp3 = sd3
412	ep1 = ed1 ; ep2 = ed2 ; ep3 = ed3
413	SELECT CASE ( model_data_order )
414	CASE ( DATA_ORDER_XYZ )
415	sm1 = sp1 - bdx ; em1 = ep1 + bdx
416	sm2 = sp2 - bdy ; em2 = ep2 + bdy
417	sm3 = sp3 ; em3 = ep3
418	CASE ( DATA_ORDER_YXZ )
419	sm1 = sp1 - bdy ; em1 = ep1 + bdy
420	sm2 = sp2 - bdx ; em2 = ep2 + bdx
421	sm3 = sp3 ; em3 = ep3
422	CASE ( DATA_ORDER_ZXY )
423	sm1 = sp1 ; em1 = ep1
424	sm2 = sp2 - bdx ; em2 = ep2 + bdx
425	sm3 = sp3 - bdy ; em3 = ep3 + bdy
426	CASE ( DATA_ORDER_ZYX )
427	sm1 = sp1 ; em1 = ep1
428	sm2 = sp2 - bdy ; em2 = ep2 + bdy
429	sm3 = sp3 - bdx ; em3 = ep3 + bdx
430	CASE ( DATA_ORDER_XZY )
431	sm1 = sp1 - bdx ; em1 = ep1 + bdx
432	sm2 = sp2 ; em2 = ep2
433	sm3 = sp3 - bdy ; em3 = ep3 + bdy
434	CASE ( DATA_ORDER_YZX )
435	sm1 = sp1 - bdy ; em1 = ep1 + bdy
436	sm2 = sp2 ; em2 = ep2
437	sm3 = sp3 - bdx ; em3 = ep3 + bdx
438	END SELECT
439	sm1x = sm1 ; em1x = em1 ! just copy
440	sm2x = sm2 ; em2x = em2
441	sm3x = sm3 ; em3x = em3
442	sm1y = sm1 ; em1y = em1 ! just copy
443	sm2y = sm2 ; em2y = em2
444	sm3y = sm3 ; em3y = em3
445	! assigns mostly just to suppress warning messages that INTENT OUT vars not assigned
446	sp1x = sp1 ; ep1x = ep1 ; sp2x = sp2 ; ep2x = ep2 ; sp3x = sp3 ; ep3x = ep3
447	sp1y = sp1 ; ep1y = ep1 ; sp2y = sp2 ; ep2y = ep2 ; sp3y = sp3 ; ep3y = ep3
448
449	#else
450	! This is supplied by the package specific version of module_dm, which
451	! is supplied by the external package and copied into the src directory
452	! when the code is compiled. The cp command will be found in the externals
453	! target of the configure.wrf file for this architecture. Eg: for RSL
454	! routine is defined in external/RSL/module_dm.F .
455	! Note, it would be very nice to be able to pass parent to this routine;
456	! however, there doesn't seem to be a way to do that in F90. That is because
457	! to pass a pointer to a domain structure, this call requires an interface
458	! definition for wrf_dm_patch_domain (otherwise it will try to convert the
459	! pointer to something). In order to provide an interface definition, we
460	! would need to either USE module_dm or use an interface block. In either
461	! case it generates a circular USE reference, since module_dm uses
462	! module_domain. JM 20020416
463
464	CALL wrf_dm_patch_domain( id , domdesc , parent_id , parent_domdesc , &
465	sd1 , ed1 , sp1 , ep1 , sm1 , em1 , &
466	sd2 , ed2 , sp2 , ep2 , sm2 , em2 , &
467	sd3 , ed3 , sp3 , ep3 , sm3 , em3 , &
468	sp1x , ep1x , sm1x , em1x , &
469	sp2x , ep2x , sm2x , em2x , &
470	sp3x , ep3x , sm3x , em3x , &
471	sp1y , ep1y , sm1y , em1y , &
472	sp2y , ep2y , sm2y , em2y , &
473	sp3y , ep3y , sm3y , em3y , &
474	bdx , bdy )
475
476	SELECT CASE ( model_data_order )
477	CASE ( DATA_ORDER_XYZ )
478	bdy_mask( P_XSB ) = ( sp1 <= sd1 .AND. sd1 <= ep1 .AND. sp1 <= sd1+spec_bdy_width-1 .AND. sd1+spec_bdy_width-1 <= ep1 )
479	bdy_mask( P_YSB ) = ( sp2 <= sd2 .AND. sd2 <= ep2 .AND. sp2 <= sd2+spec_bdy_width-1 .AND. sd2+spec_bdy_width-1 <= ep2 )
480	bdy_mask( P_XEB ) = ( sp1 <= ed1 .AND. ed1 <= ep1 .AND. sp1 <= ed1-spec_bdy_width-1 .AND. ed1-spec_bdy_width-1 <= ep1 )
481	bdy_mask( P_YEB ) = ( sp2 <= ed2 .AND. ed2 <= ep2 .AND. sp2 <= ed2-spec_bdy_width-1 .AND. ed2-spec_bdy_width-1 <= ep2 )
482	CASE ( DATA_ORDER_YXZ )
483	bdy_mask( P_XSB ) = ( sp2 <= sd2 .AND. sd2 <= ep2 .AND. sp2 <= sd2+spec_bdy_width-1 .AND. sd2+spec_bdy_width-1 <= ep2 )
484	bdy_mask( P_YSB ) = ( sp1 <= sd1 .AND. sd1 <= ep1 .AND. sp1 <= sd1+spec_bdy_width-1 .AND. sd1+spec_bdy_width-1 <= ep1 )
485	bdy_mask( P_XEB ) = ( sp2 <= ed2 .AND. ed2 <= ep2 .AND. sp2 <= ed2-spec_bdy_width-1 .AND. ed2-spec_bdy_width-1 <= ep2 )
486	bdy_mask( P_YEB ) = ( sp1 <= ed1 .AND. ed1 <= ep1 .AND. sp1 <= ed1-spec_bdy_width-1 .AND. ed1-spec_bdy_width-1 <= ep1 )
487	CASE ( DATA_ORDER_ZXY )
488	bdy_mask( P_XSB ) = ( sp2 <= sd2 .AND. sd2 <= ep2 .AND. sp2 <= sd2+spec_bdy_width-1 .AND. sd2+spec_bdy_width-1 <= ep2 )
489	bdy_mask( P_YSB ) = ( sp3 <= sd3 .AND. sd3 <= ep3 .AND. sp3 <= sd3+spec_bdy_width-1 .AND. sd3+spec_bdy_width-1 <= ep3 )
490	bdy_mask( P_XEB ) = ( sp2 <= ed2 .AND. ed2 <= ep2 .AND. sp2 <= ed2-spec_bdy_width-1 .AND. ed2-spec_bdy_width-1 <= ep2 )
491	bdy_mask( P_YEB ) = ( sp3 <= ed3 .AND. ed3 <= ep3 .AND. sp3 <= ed3-spec_bdy_width-1 .AND. ed3-spec_bdy_width-1 <= ep3 )
492	CASE ( DATA_ORDER_ZYX )
493	bdy_mask( P_XSB ) = ( sp3 <= sd3 .AND. sd3 <= ep3 .AND. sp3 <= sd3+spec_bdy_width-1 .AND. sd3+spec_bdy_width-1 <= ep3 )
494	bdy_mask( P_YSB ) = ( sp2 <= sd2 .AND. sd2 <= ep2 .AND. sp2 <= sd2+spec_bdy_width-1 .AND. sd2+spec_bdy_width-1 <= ep2 )
495	bdy_mask( P_XEB ) = ( sp3 <= ed3 .AND. ed3 <= ep3 .AND. sp3 <= ed3-spec_bdy_width-1 .AND. ed3-spec_bdy_width-1 <= ep3 )
496	bdy_mask( P_YEB ) = ( sp2 <= ed2 .AND. ed2 <= ep2 .AND. sp2 <= ed2-spec_bdy_width-1 .AND. ed2-spec_bdy_width-1 <= ep2 )
497	CASE ( DATA_ORDER_XZY )
498	bdy_mask( P_XSB ) = ( sp1 <= sd1 .AND. sd1 <= ep1 .AND. sp1 <= sd1+spec_bdy_width-1 .AND. sd1+spec_bdy_width-1 <= ep1 )
499	bdy_mask( P_YSB ) = ( sp3 <= sd3 .AND. sd3 <= ep3 .AND. sp3 <= sd3+spec_bdy_width-1 .AND. sd3+spec_bdy_width-1 <= ep3 )
500	bdy_mask( P_XEB ) = ( sp1 <= ed1 .AND. ed1 <= ep1 .AND. sp1 <= ed1-spec_bdy_width-1 .AND. ed1-spec_bdy_width-1 <= ep1 )
501	bdy_mask( P_YEB ) = ( sp3 <= ed3 .AND. ed3 <= ep3 .AND. sp3 <= ed3-spec_bdy_width-1 .AND. ed3-spec_bdy_width-1 <= ep3 )
502	CASE ( DATA_ORDER_YZX )
503	bdy_mask( P_XSB ) = ( sp3 <= sd3 .AND. sd3 <= ep3 .AND. sp3 <= sd3+spec_bdy_width-1 .AND. sd3+spec_bdy_width-1 <= ep3 )
504	bdy_mask( P_YSB ) = ( sp1 <= sd1 .AND. sd1 <= ep1 .AND. sp1 <= sd1+spec_bdy_width-1 .AND. sd1+spec_bdy_width-1 <= ep1 )
505	bdy_mask( P_XEB ) = ( sp3 <= ed3 .AND. ed3 <= ep3 .AND. sp3 <= ed3-spec_bdy_width-1 .AND. ed3-spec_bdy_width-1 <= ep3 )
506	bdy_mask( P_YEB ) = ( sp1 <= ed1 .AND. ed1 <= ep1 .AND. sp1 <= ed1-spec_bdy_width-1 .AND. ed1-spec_bdy_width-1 <= ep1 )
507	END SELECT
508
509	#endif
510
511	RETURN
512	END SUBROUTINE wrf_patch_domain
513	!
514	SUBROUTINE alloc_and_configure_domain ( domain_id , grid , parent, kid )
515
516	!<DESCRIPTION>
517	! This subroutine is used to allocate a domain data structure of
518	! TYPE(DOMAIN) pointed to by the argument <em>grid</em>, link it into the
519	! nested domain hierarchy, and set it's configuration information from
520	! the appropriate settings in the WRF namelist file. Specifically, if the
521	! domain being allocated and configured is nest, the <em>parent</em>
522	! argument will point to the already existing domain data structure for
523	! the parent domain and the <em>kid</em> argument will be set to an
524	! integer indicating which child of the parent this grid will be (child
525	! indices start at 1). If this is the top-level domain, the parent and
526	! kid arguments are ignored. <b>WRF domains may have multiple children
527	! but only ever have one parent.</b>
528	!
529	! The <em>domain_id</em> argument is the
530	! integer handle by which this new domain will be referred; it comes from
531	! the grid_id setting in the namelist, and these grid ids correspond to
532	! the ordering of settings in the namelist, starting with 1 for the
533	! top-level domain. The id of 1 always corresponds to the top-level
534	! domain. and these grid ids correspond to the ordering of settings in
535	! the namelist, starting with 1 for the top-level domain.
536	!
537	! Model_data_order is provide by USE association of
538	! module_driver_constants and is set from dimspec entries in the
539	! Registry.
540	!
541	! The allocation of the TYPE(DOMAIN) itself occurs in this routine.
542	! However, the numerous multi-dimensional arrays that make up the members
543	! of the domain are allocated in the call to alloc_space_field, after
544	! wrf_patch_domain has been called to determine the dimensions in memory
545	! that should be allocated. It bears noting here that arrays and code
546	! that indexes these arrays are always global, regardless of how the
547	! model is decomposed over patches. Thus, when arrays are allocated on a
548	! given process, the start and end of an array dimension are the global
549	! indices of the start and end of that process's subdomain.
550	!
551	! Configuration information for the domain (that is, information from the
552	! namelist) is added by the call to <a href=med_add_config_info_to_grid.html>med_add_config_info_to_grid</a>, defined
553	! in share/mediation_wrfmain.F.
554	!</DESCRIPTION>
555
556	USE module_alloc_space
557	IMPLICIT NONE
558
559	! Input data.
560
561	INTEGER , INTENT(IN) :: domain_id
562	TYPE( domain ) , POINTER :: grid
563	TYPE( domain ) , POINTER :: parent
564	INTEGER , INTENT(IN) :: kid ! which kid of parent am I?
565
566	! Local data.
567	INTEGER :: sd1 , ed1 , sp1 , ep1 , sm1 , em1
568	INTEGER :: sd2 , ed2 , sp2 , ep2 , sm2 , em2
569	INTEGER :: sd3 , ed3 , sp3 , ep3 , sm3 , em3
570
571	INTEGER :: sd1x , ed1x , sp1x , ep1x , sm1x , em1x
572	INTEGER :: sd2x , ed2x , sp2x , ep2x , sm2x , em2x
573	INTEGER :: sd3x , ed3x , sp3x , ep3x , sm3x , em3x
574
575	INTEGER :: sd1y , ed1y , sp1y , ep1y , sm1y , em1y
576	INTEGER :: sd2y , ed2y , sp2y , ep2y , sm2y , em2y
577	INTEGER :: sd3y , ed3y , sp3y , ep3y , sm3y , em3y
578
579	TYPE(domain) , POINTER :: new_grid
580	INTEGER :: i
581	INTEGER :: parent_id , parent_domdesc , new_domdesc
582	INTEGER :: bdyzone_x , bdyzone_y
583	INTEGER :: nx, ny
584
585
586	! This next step uses information that is listed in the registry as namelist_derived
587	! to properly size the domain and the patches; this in turn is stored in the new_grid
588	! data structure
589
590
591	data_ordering : SELECT CASE ( model_data_order )
592	CASE ( DATA_ORDER_XYZ )
593
594	CALL nl_get_s_we( domain_id , sd1 )
595	CALL nl_get_e_we( domain_id , ed1 )
596	CALL nl_get_s_sn( domain_id , sd2 )
597	CALL nl_get_e_sn( domain_id , ed2 )
598	CALL nl_get_s_vert( domain_id , sd3 )
599	CALL nl_get_e_vert( domain_id , ed3 )
600	nx = ed1-sd1+1
601	ny = ed2-sd2+1
602
603	CASE ( DATA_ORDER_YXZ )
604
605	CALL nl_get_s_sn( domain_id , sd1 )
606	CALL nl_get_e_sn( domain_id , ed1 )
607	CALL nl_get_s_we( domain_id , sd2 )
608	CALL nl_get_e_we( domain_id , ed2 )
609	CALL nl_get_s_vert( domain_id , sd3 )
610	CALL nl_get_e_vert( domain_id , ed3 )
611	nx = ed2-sd2+1
612	ny = ed1-sd1+1
613
614	CASE ( DATA_ORDER_ZXY )
615
616	CALL nl_get_s_vert( domain_id , sd1 )
617	CALL nl_get_e_vert( domain_id , ed1 )
618	CALL nl_get_s_we( domain_id , sd2 )
619	CALL nl_get_e_we( domain_id , ed2 )
620	CALL nl_get_s_sn( domain_id , sd3 )
621	CALL nl_get_e_sn( domain_id , ed3 )
622	nx = ed2-sd2+1
623	ny = ed3-sd3+1
624
625	CASE ( DATA_ORDER_ZYX )
626
627	CALL nl_get_s_vert( domain_id , sd1 )
628	CALL nl_get_e_vert( domain_id , ed1 )
629	CALL nl_get_s_sn( domain_id , sd2 )
630	CALL nl_get_e_sn( domain_id , ed2 )
631	CALL nl_get_s_we( domain_id , sd3 )
632	CALL nl_get_e_we( domain_id , ed3 )
633	nx = ed3-sd3+1
634	ny = ed2-sd2+1
635
636	CASE ( DATA_ORDER_XZY )
637
638	CALL nl_get_s_we( domain_id , sd1 )
639	CALL nl_get_e_we( domain_id , ed1 )
640	CALL nl_get_s_vert( domain_id , sd2 )
641	CALL nl_get_e_vert( domain_id , ed2 )
642	CALL nl_get_s_sn( domain_id , sd3 )
643	CALL nl_get_e_sn( domain_id , ed3 )
644	nx = ed1-sd1+1
645	ny = ed3-sd3+1
646
647	CASE ( DATA_ORDER_YZX )
648
649	CALL nl_get_s_sn( domain_id , sd1 )
650	CALL nl_get_e_sn( domain_id , ed1 )
651	CALL nl_get_s_vert( domain_id , sd2 )
652	CALL nl_get_e_vert( domain_id , ed2 )
653	CALL nl_get_s_we( domain_id , sd3 )
654	CALL nl_get_e_we( domain_id , ed3 )
655	nx = ed3-sd3+1
656	ny = ed1-sd1+1
657
658	END SELECT data_ordering
659
660	IF ( num_time_levels > 3 ) THEN
661	WRITE ( wrf_err_message , * ) 'alloc_and_configure_domain: ', &
662	'Incorrect value for num_time_levels ', num_time_levels
663	CALL wrf_error_fatal ( TRIM ( wrf_err_message ) )
664	ENDIF
665
666	IF (ASSOCIATED(parent)) THEN
667	parent_id = parent%id
668	parent_domdesc = parent%domdesc
669	ELSE
670	parent_id = -1
671	parent_domdesc = -1
672	ENDIF
673
674	! provided by application, WRF defines in share/module_bc.F
675	CALL get_bdyzone_x( bdyzone_x )
676	CALL get_bdyzone_y( bdyzone_y )
677
678	ALLOCATE ( new_grid )
679	ALLOCATE ( new_grid%parents( max_parents ) )
680	ALLOCATE ( new_grid%nests( max_nests ) )
681	NULLIFY( new_grid%sibling )
682	DO i = 1, max_nests
683	NULLIFY( new_grid%nests(i)%ptr )
684	ENDDO
685	NULLIFY (new_grid%next)
686	NULLIFY (new_grid%same_level)
687	NULLIFY (new_grid%i_start)
688	NULLIFY (new_grid%j_start)
689	NULLIFY (new_grid%i_end)
690	NULLIFY (new_grid%j_end)
691	ALLOCATE( new_grid%domain_clock )
692	new_grid%domain_clock_created = .FALSE.
693	ALLOCATE( new_grid%alarms( MAX_WRF_ALARMS ) ) ! initialize in setup_timekeeping
694	ALLOCATE( new_grid%alarms_created( MAX_WRF_ALARMS ) )
695	DO i = 1, MAX_WRF_ALARMS
696	new_grid%alarms_created( i ) = .FALSE.
697	ENDDO
698	new_grid%time_set = .FALSE.
699
700	! set up the pointers that represent the nest hierarchy
701	! set this up prior to calling the patching or allocation
702	! routines so that implementations of these routines can
703	! traverse the nest hierarchy (through the root head_grid)
704	! if they need to
705
706
707	IF ( domain_id .NE. 1 ) THEN
708	new_grid%parents(1)%ptr => parent
709	new_grid%num_parents = 1
710	parent%nests(kid)%ptr => new_grid
711	new_grid%child_of_parent(1) = kid ! note assumption that nest can have only 1 parent
712	parent%num_nests = parent%num_nests + 1
713	END IF
714	new_grid%id = domain_id ! this needs to be assigned prior to calling wrf_patch_domain
715
716	CALL wrf_patch_domain( domain_id , new_domdesc , parent, parent_id, parent_domdesc , &
717
718	sd1 , ed1 , sp1 , ep1 , sm1 , em1 , & ! z-xpose dims
719	sd2 , ed2 , sp2 , ep2 , sm2 , em2 , & ! (standard)
720	sd3 , ed3 , sp3 , ep3 , sm3 , em3 , &
721
722	sp1x , ep1x , sm1x , em1x , & ! x-xpose dims
723	sp2x , ep2x , sm2x , em2x , &
724	sp3x , ep3x , sm3x , em3x , &
725
726	sp1y , ep1y , sm1y , em1y , & ! y-xpose dims
727	sp2y , ep2y , sm2y , em2y , &
728	sp3y , ep3y , sm3y , em3y , &
729
730	bdyzone_x , bdyzone_y , new_grid%bdy_mask &
731	)
732
733
734	new_grid%domdesc = new_domdesc
735	new_grid%num_nests = 0
736	new_grid%num_siblings = 0
737	new_grid%num_parents = 0
738	new_grid%max_tiles = 0
739	new_grid%num_tiles_spec = 0
740	new_grid%nframes = 0 ! initialize the number of frames per file (array assignment)
741
742	CALL alloc_space_field ( new_grid, domain_id , 3 , 3 , .FALSE. , &
743	sd1, ed1, sd2, ed2, sd3, ed3, &
744	sm1, em1, sm2, em2, sm3, em3, &
745	sm1x, em1x, sm2x, em2x, sm3x, em3x, & ! x-xpose
746	sm1y, em1y, sm2y, em2y, sm3y, em3y & ! y-xpose
747	)
748	#if MOVE_NESTS
749	!set these here, after alloc_space_field, which initializes vc_i, vc_j to zero
750	new_grid%xi = -1.0
751	new_grid%xj = -1.0
752	new_grid%vc_i = -1.0
753	new_grid%vc_j = -1.0
754	#endif
755
756	new_grid%sd31 = sd1
757	new_grid%ed31 = ed1
758	new_grid%sp31 = sp1
759	new_grid%ep31 = ep1
760	new_grid%sm31 = sm1
761	new_grid%em31 = em1
762	new_grid%sd32 = sd2
763	new_grid%ed32 = ed2
764	new_grid%sp32 = sp2
765	new_grid%ep32 = ep2
766	new_grid%sm32 = sm2
767	new_grid%em32 = em2
768	new_grid%sd33 = sd3
769	new_grid%ed33 = ed3
770	new_grid%sp33 = sp3
771	new_grid%ep33 = ep3
772	new_grid%sm33 = sm3
773	new_grid%em33 = em3
774
775	new_grid%sp31x = sp1x
776	new_grid%ep31x = ep1x
777	new_grid%sm31x = sm1x
778	new_grid%em31x = em1x
779	new_grid%sp32x = sp2x
780	new_grid%ep32x = ep2x
781	new_grid%sm32x = sm2x
782	new_grid%em32x = em2x
783	new_grid%sp33x = sp3x
784	new_grid%ep33x = ep3x
785	new_grid%sm33x = sm3x
786	new_grid%em33x = em3x
787
788	new_grid%sp31y = sp1y
789	new_grid%ep31y = ep1y
790	new_grid%sm31y = sm1y
791	new_grid%em31y = em1y
792	new_grid%sp32y = sp2y
793	new_grid%ep32y = ep2y
794	new_grid%sm32y = sm2y
795	new_grid%em32y = em2y
796	new_grid%sp33y = sp3y
797	new_grid%ep33y = ep3y
798	new_grid%sm33y = sm3y
799	new_grid%em33y = em3y
800
801	SELECT CASE ( model_data_order )
802	CASE ( DATA_ORDER_XYZ )
803	new_grid%sd21 = sd1 ; new_grid%sd22 = sd2 ;
804	new_grid%ed21 = ed1 ; new_grid%ed22 = ed2 ;
805	new_grid%sp21 = sp1 ; new_grid%sp22 = sp2 ;
806	new_grid%ep21 = ep1 ; new_grid%ep22 = ep2 ;
807	new_grid%sm21 = sm1 ; new_grid%sm22 = sm2 ;
808	new_grid%em21 = em1 ; new_grid%em22 = em2 ;
809	new_grid%sd11 = sd1
810	new_grid%ed11 = ed1
811	new_grid%sp11 = sp1
812	new_grid%ep11 = ep1
813	new_grid%sm11 = sm1
814	new_grid%em11 = em1
815	CASE ( DATA_ORDER_YXZ )
816	new_grid%sd21 = sd1 ; new_grid%sd22 = sd2 ;
817	new_grid%ed21 = ed1 ; new_grid%ed22 = ed2 ;
818	new_grid%sp21 = sp1 ; new_grid%sp22 = sp2 ;
819	new_grid%ep21 = ep1 ; new_grid%ep22 = ep2 ;
820	new_grid%sm21 = sm1 ; new_grid%sm22 = sm2 ;
821	new_grid%em21 = em1 ; new_grid%em22 = em2 ;
822	new_grid%sd11 = sd1
823	new_grid%ed11 = ed1
824	new_grid%sp11 = sp1
825	new_grid%ep11 = ep1
826	new_grid%sm11 = sm1
827	new_grid%em11 = em1
828	CASE ( DATA_ORDER_ZXY )
829	new_grid%sd21 = sd2 ; new_grid%sd22 = sd3 ;
830	new_grid%ed21 = ed2 ; new_grid%ed22 = ed3 ;
831	new_grid%sp21 = sp2 ; new_grid%sp22 = sp3 ;
832	new_grid%ep21 = ep2 ; new_grid%ep22 = ep3 ;
833	new_grid%sm21 = sm2 ; new_grid%sm22 = sm3 ;
834	new_grid%em21 = em2 ; new_grid%em22 = em3 ;
835	new_grid%sd11 = sd2
836	new_grid%ed11 = ed2
837	new_grid%sp11 = sp2
838	new_grid%ep11 = ep2
839	new_grid%sm11 = sm2
840	new_grid%em11 = em2
841	CASE ( DATA_ORDER_ZYX )
842	new_grid%sd21 = sd2 ; new_grid%sd22 = sd3 ;
843	new_grid%ed21 = ed2 ; new_grid%ed22 = ed3 ;
844	new_grid%sp21 = sp2 ; new_grid%sp22 = sp3 ;
845	new_grid%ep21 = ep2 ; new_grid%ep22 = ep3 ;
846	new_grid%sm21 = sm2 ; new_grid%sm22 = sm3 ;
847	new_grid%em21 = em2 ; new_grid%em22 = em3 ;
848	new_grid%sd11 = sd2
849	new_grid%ed11 = ed2
850	new_grid%sp11 = sp2
851	new_grid%ep11 = ep2
852	new_grid%sm11 = sm2
853	new_grid%em11 = em2
854	CASE ( DATA_ORDER_XZY )
855	new_grid%sd21 = sd1 ; new_grid%sd22 = sd3 ;
856	new_grid%ed21 = ed1 ; new_grid%ed22 = ed3 ;
857	new_grid%sp21 = sp1 ; new_grid%sp22 = sp3 ;
858	new_grid%ep21 = ep1 ; new_grid%ep22 = ep3 ;
859	new_grid%sm21 = sm1 ; new_grid%sm22 = sm3 ;
860	new_grid%em21 = em1 ; new_grid%em22 = em3 ;
861	new_grid%sd11 = sd1
862	new_grid%ed11 = ed1
863	new_grid%sp11 = sp1
864	new_grid%ep11 = ep1
865	new_grid%sm11 = sm1
866	new_grid%em11 = em1
867	CASE ( DATA_ORDER_YZX )
868	new_grid%sd21 = sd1 ; new_grid%sd22 = sd3 ;
869	new_grid%ed21 = ed1 ; new_grid%ed22 = ed3 ;
870	new_grid%sp21 = sp1 ; new_grid%sp22 = sp3 ;
871	new_grid%ep21 = ep1 ; new_grid%ep22 = ep3 ;
872	new_grid%sm21 = sm1 ; new_grid%sm22 = sm3 ;
873	new_grid%em21 = em1 ; new_grid%em22 = em3 ;
874	new_grid%sd11 = sd1
875	new_grid%ed11 = ed1
876	new_grid%sp11 = sp1
877	new_grid%ep11 = ep1
878	new_grid%sm11 = sm1
879	new_grid%em11 = em1
880	END SELECT
881
882	CALL med_add_config_info_to_grid ( new_grid ) ! this is a mediation layer routine
883
884	! Some miscellaneous state that is in the Registry but not namelist data
885
886	new_grid%tiled = .false.
887	new_grid%patched = .false.
888	NULLIFY(new_grid%mapping)
889
890	! This next set of includes causes all but the namelist_derived variables to be
891	! properly assigned to the new_grid record
892
893	grid => new_grid
894
895	! Allocate storage for time series metadata
896	ALLOCATE( grid%lattsloc( grid%max_ts_locs ) )
897	ALLOCATE( grid%lontsloc( grid%max_ts_locs ) )
898	ALLOCATE( grid%nametsloc( grid%max_ts_locs ) )
899	ALLOCATE( grid%desctsloc( grid%max_ts_locs ) )
900	ALLOCATE( grid%itsloc( grid%max_ts_locs ) )
901	ALLOCATE( grid%jtsloc( grid%max_ts_locs ) )
902	ALLOCATE( grid%id_tsloc( grid%max_ts_locs ) )
903	ALLOCATE( grid%ts_filename( grid%max_ts_locs ) )
904	grid%ntsloc = 0
905	grid%ntsloc_domain = 0
906
907	#ifdef DM_PARALLEL
908	CALL wrf_get_dm_communicator ( grid%communicator )
909	CALL wrf_dm_define_comms( grid )
910	#endif
911
912	END SUBROUTINE alloc_and_configure_domain
913
914	!
915
916	! This routine ALLOCATEs the required space for the meteorological fields
917	! for a specific domain. The fields are simply ALLOCATEd as an -1. They
918	! are referenced as wind, temperature, moisture, etc. in routines that are
919	! below this top-level of data allocation and management (in the solve routine
920	! and below).
921
922	SUBROUTINE alloc_space_field ( grid, id, setinitval_in , tl_in , inter_domain_in , &
923	sd31, ed31, sd32, ed32, sd33, ed33, &
924	sm31 , em31 , sm32 , em32 , sm33 , em33 , &
925	sm31x, em31x, sm32x, em32x, sm33x, em33x, &
926	sm31y, em31y, sm32y, em32y, sm33y, em33y )
927
928	USE module_alloc_space, ONLY : alloc_space_field_core
929	IMPLICIT NONE
930
931	! Input data.
932
933	TYPE(domain) , POINTER :: grid
934	INTEGER , INTENT(IN) :: id
935	INTEGER , INTENT(IN) :: setinitval_in ! 3 = everything, 1 = arrays only, 0 = none
936	INTEGER , INTENT(IN) :: sd31, ed31, sd32, ed32, sd33, ed33
937	INTEGER , INTENT(IN) :: sm31, em31, sm32, em32, sm33, em33
938	INTEGER , INTENT(IN) :: sm31x, em31x, sm32x, em32x, sm33x, em33x
939	INTEGER , INTENT(IN) :: sm31y, em31y, sm32y, em32y, sm33y, em33y
940
941	! this argument is a bitmask. First bit is time level 1, second is time level 2, and so on.
942	! e.g. to set both 1st and second time level, use 3
943	! to set only 1st use 1
944	! to set only 2st use 2
945	INTEGER , INTENT(IN) :: tl_in
946
947	! true if the allocation is for an intermediate domain (for nesting); only certain fields allocated
948	! false otherwise (all allocated, modulo tl above)
949	LOGICAL , INTENT(IN) :: inter_domain_in
950
951	! now a separate module in WRFV3 to reduce the size of module_domain that the compiler sees
952	CALL alloc_space_field_core ( grid, id, setinitval_in , tl_in , inter_domain_in , &
953	sd31, ed31, sd32, ed32, sd33, ed33, &
954	sm31 , em31 , sm32 , em32 , sm33 , em33 , &
955	sm31x, em31x, sm32x, em32x, sm33x, em33x, &
956	sm31y, em31y, sm32y, em32y, sm33y, em33y )
957
958	END SUBROUTINE alloc_space_field
959
960	! This routine is used to DEALLOCATE space for a single domain and remove
961	! it from the linked list. First the pointers in the linked list are fixed
962	! (so the one in the middle can be removed). Then the domain itself is
963	! DEALLOCATEd via a call to domain_destroy().
964
965	SUBROUTINE dealloc_space_domain ( id )
966
967	IMPLICIT NONE
968
969	! Input data.
970
971	INTEGER , INTENT(IN) :: id
972
973	! Local data.
974
975	TYPE(domain) , POINTER :: grid
976	LOGICAL :: found
977
978	! Initializations required to start the routine.
979
980	grid => head_grid
981	old_grid => head_grid
982	found = .FALSE.
983
984	! The identity of the domain to delete is based upon the "id".
985	! We search all of the possible grids. It is required to find a domain
986	! otherwise it is a fatal error.
987
988	find_grid : DO WHILE ( ASSOCIATED(grid) )
989	IF ( grid%id == id ) THEN
990	found = .TRUE.
991	old_grid%next => grid%next
992	CALL domain_destroy( grid )
993	EXIT find_grid
994	END IF
995	old_grid => grid
996	grid => grid%next
997	END DO find_grid
998
999	IF ( .NOT. found ) THEN
1000	WRITE ( wrf_err_message , * ) 'module_domain: ', &
1001	'dealloc_space_domain: Could not de-allocate grid id ',id
1002	CALL wrf_error_fatal ( TRIM( wrf_err_message ) )
1003	END IF
1004
1005	END SUBROUTINE dealloc_space_domain
1006
1007
1008
1009	! This routine is used to DEALLOCATE space for a single domain type.
1010	! First, the field data are all removed through a CALL to the
1011	! dealloc_space_field routine. Then the pointer to the domain
1012	! itself is DEALLOCATEd.
1013
1014	SUBROUTINE domain_destroy ( grid )
1015
1016	IMPLICIT NONE
1017
1018	! Input data.
1019
1020	TYPE(domain) , POINTER :: grid
1021
1022	CALL dealloc_space_field ( grid )
1023	DEALLOCATE( grid%parents )
1024	DEALLOCATE( grid%nests )
1025	! clean up time manager bits
1026	CALL domain_clock_destroy( grid )
1027	CALL domain_alarms_destroy( grid )
1028	IF ( ASSOCIATED( grid%i_start ) ) THEN
1029	DEALLOCATE( grid%i_start )
1030	ENDIF
1031	IF ( ASSOCIATED( grid%i_end ) ) THEN
1032	DEALLOCATE( grid%i_end )
1033	ENDIF
1034	IF ( ASSOCIATED( grid%j_start ) ) THEN
1035	DEALLOCATE( grid%j_start )
1036	ENDIF
1037	IF ( ASSOCIATED( grid%j_end ) ) THEN
1038	DEALLOCATE( grid%j_end )
1039	ENDIF
1040	IF ( ASSOCIATED( grid%itsloc ) ) THEN
1041	DEALLOCATE( grid%itsloc )
1042	ENDIF
1043	IF ( ASSOCIATED( grid%jtsloc ) ) THEN
1044	DEALLOCATE( grid%jtsloc )
1045	ENDIF
1046	IF ( ASSOCIATED( grid%id_tsloc ) ) THEN
1047	DEALLOCATE( grid%id_tsloc )
1048	ENDIF
1049	IF ( ASSOCIATED( grid%lattsloc ) ) THEN
1050	DEALLOCATE( grid%lattsloc )
1051	ENDIF
1052	IF ( ASSOCIATED( grid%lontsloc ) ) THEN
1053	DEALLOCATE( grid%lontsloc )
1054	ENDIF
1055	IF ( ASSOCIATED( grid%nametsloc ) ) THEN
1056	DEALLOCATE( grid%nametsloc )
1057	ENDIF
1058	IF ( ASSOCIATED( grid%desctsloc ) ) THEN
1059	DEALLOCATE( grid%desctsloc )
1060	ENDIF
1061	IF ( ASSOCIATED( grid%ts_filename ) ) THEN
1062	DEALLOCATE( grid%ts_filename )
1063	ENDIF
1064	DEALLOCATE( grid )
1065	NULLIFY( grid )
1066
1067	END SUBROUTINE domain_destroy
1068
1069	RECURSIVE SUBROUTINE show_nest_subtree ( grid )
1070	TYPE(domain), POINTER :: grid
1071	INTEGER myid
1072	INTEGER kid
1073	IF ( .NOT. ASSOCIATED( grid ) ) RETURN
1074	myid = grid%id
1075	write(0,*)'show_nest_subtree ',myid
1076	DO kid = 1, max_nests
1077	IF ( ASSOCIATED( grid%nests(kid)%ptr ) ) THEN
1078	IF ( grid%nests(kid)%ptr%id .EQ. myid ) THEN
1079	CALL wrf_error_fatal( 'show_nest_subtree: nest hierarchy corrupted' )
1080	ENDIF
1081	CALL show_nest_subtree( grid%nests(kid)%ptr )
1082	ENDIF
1083	ENDDO
1084	END SUBROUTINE show_nest_subtree
1085
1086
1087	!
1088
1089	! This routine DEALLOCATEs each gridded field for this domain. For each type of
1090	! different array (1d, 2d, 3d, etc.), the space for each pointer is DEALLOCATEd
1091	! for every -1 (i.e., each different meteorological field).
1092
1093	SUBROUTINE dealloc_space_field ( grid )
1094
1095	IMPLICIT NONE
1096
1097	! Input data.
1098
1099	TYPE(domain) , POINTER :: grid
1100
1101	! Local data.
1102
1103	INTEGER :: ierr
1104
1105	# include <deallocs.inc>
1106
1107	END SUBROUTINE dealloc_space_field
1108
1109	!
1110	!
1111	RECURSIVE SUBROUTINE find_grid_by_id ( id, in_grid, result_grid )
1112	IMPLICIT NONE
1113	INTEGER, INTENT(IN) :: id
1114	TYPE(domain), POINTER :: in_grid
1115	TYPE(domain), POINTER :: result_grid
1116	! <DESCRIPTION>
1117	! This is a recursive subroutine that traverses the domain hierarchy rooted
1118	! at the input argument <em>in_grid</em>, a pointer to TYPE(domain), and returns
1119	! a pointer to the domain matching the integer argument <em>id</em> if it exists.
1120	!
1121	! </DESCRIPTION>
1122	TYPE(domain), POINTER :: grid_ptr
1123	INTEGER :: kid
1124	LOGICAL :: found
1125	found = .FALSE.
1126	IF ( ASSOCIATED( in_grid ) ) THEN
1127	IF ( in_grid%id .EQ. id ) THEN
1128	result_grid => in_grid
1129	ELSE
1130	grid_ptr => in_grid
1131	DO WHILE ( ASSOCIATED( grid_ptr ) .AND. .NOT. found )
1132	DO kid = 1, max_nests
1133	IF ( ASSOCIATED( grid_ptr%nests(kid)%ptr ) .AND. .NOT. found ) THEN
1134	CALL find_grid_by_id ( id, grid_ptr%nests(kid)%ptr, result_grid )
1135	IF ( ASSOCIATED( result_grid ) ) THEN
1136	IF ( result_grid%id .EQ. id ) found = .TRUE.
1137	ENDIF
1138	ENDIF
1139	ENDDO
1140	IF ( .NOT. found ) grid_ptr => grid_ptr%sibling
1141	ENDDO
1142	ENDIF
1143	ENDIF
1144	RETURN
1145	END SUBROUTINE find_grid_by_id
1146
1147
1148	FUNCTION first_loc_integer ( array , search ) RESULT ( loc )
1149
1150	IMPLICIT NONE
1151
1152	! Input data.
1153
1154	INTEGER , INTENT(IN) , DIMENSION(:) :: array
1155	INTEGER , INTENT(IN) :: search
1156
1157	! Output data.
1158
1159	INTEGER :: loc
1160
1161	!<DESCRIPTION>
1162	! This routine is used to find a specific domain identifier in an array
1163	! of domain identifiers.
1164	!
1165	!</DESCRIPTION>
1166
1167	! Local data.
1168
1169	INTEGER :: loop
1170
1171	loc = -1
1172	find : DO loop = 1 , SIZE(array)
1173	IF ( search == array(loop) ) THEN
1174	loc = loop
1175	EXIT find
1176	END IF
1177	END DO find
1178
1179	END FUNCTION first_loc_integer
1180	!
1181	SUBROUTINE init_module_domain
1182	END SUBROUTINE init_module_domain
1183
1184
1185	! <DESCRIPTION>
1186	!
1187	! The following routines named domain_*() are convenience routines that
1188	! eliminate many duplicated bits of code. They provide shortcuts for the
1189	! most common operations on the domain_clock field of TYPE(domain).
1190	!
1191	! </DESCRIPTION>
1192
1193	FUNCTION domain_get_current_time ( grid ) RESULT ( current_time )
1194	IMPLICIT NONE
1195	! <DESCRIPTION>
1196	! This convenience function returns the current time for domain grid.
1197	!
1198	! </DESCRIPTION>
1199	TYPE(domain), INTENT(IN) :: grid
1200	! result
1201	TYPE(WRFU_Time) :: current_time
1202	! locals
1203	INTEGER :: rc
1204	CALL WRFU_ClockGet( grid%domain_clock, CurrTime=current_time, &
1205	rc=rc )
1206	IF ( rc /= WRFU_SUCCESS ) THEN
1207	CALL wrf_error_fatal ( &
1208	'domain_get_current_time: WRFU_ClockGet failed' )
1209	ENDIF
1210	END FUNCTION domain_get_current_time
1211
1212
1213	FUNCTION domain_get_start_time ( grid ) RESULT ( start_time )
1214	IMPLICIT NONE
1215	! <DESCRIPTION>
1216	! This convenience function returns the start time for domain grid.
1217	!
1218	! </DESCRIPTION>
1219	TYPE(domain), INTENT(IN) :: grid
1220	! result
1221	TYPE(WRFU_Time) :: start_time
1222	! locals
1223	INTEGER :: rc
1224	CALL WRFU_ClockGet( grid%domain_clock, StartTime=start_time, &
1225	rc=rc )
1226	IF ( rc /= WRFU_SUCCESS ) THEN
1227	CALL wrf_error_fatal ( &
1228	'domain_get_start_time: WRFU_ClockGet failed' )
1229	ENDIF
1230	END FUNCTION domain_get_start_time
1231
1232
1233	FUNCTION domain_get_stop_time ( grid ) RESULT ( stop_time )
1234	IMPLICIT NONE
1235	! <DESCRIPTION>
1236	! This convenience function returns the stop time for domain grid.
1237	!
1238	! </DESCRIPTION>
1239	TYPE(domain), INTENT(IN) :: grid
1240	! result
1241	TYPE(WRFU_Time) :: stop_time
1242	! locals
1243	INTEGER :: rc
1244	CALL WRFU_ClockGet( grid%domain_clock, StopTime=stop_time, &
1245	rc=rc )
1246	IF ( rc /= WRFU_SUCCESS ) THEN
1247	CALL wrf_error_fatal ( &
1248	'domain_get_stop_time: WRFU_ClockGet failed' )
1249	ENDIF
1250	END FUNCTION domain_get_stop_time
1251
1252
1253	FUNCTION domain_get_time_step ( grid ) RESULT ( time_step )
1254	IMPLICIT NONE
1255	! <DESCRIPTION>
1256	! This convenience function returns the time step for domain grid.
1257	!
1258	! </DESCRIPTION>
1259	TYPE(domain), INTENT(IN) :: grid
1260	! result
1261	TYPE(WRFU_TimeInterval) :: time_step
1262	! locals
1263	INTEGER :: rc
1264	CALL WRFU_ClockGet( grid%domain_clock, timeStep=time_step, &
1265	rc=rc )
1266	IF ( rc /= WRFU_SUCCESS ) THEN
1267	CALL wrf_error_fatal ( &
1268	'domain_get_time_step: WRFU_ClockGet failed' )
1269	ENDIF
1270	END FUNCTION domain_get_time_step
1271
1272
1273	FUNCTION domain_get_advanceCount ( grid ) RESULT ( advanceCount )
1274	IMPLICIT NONE
1275	! <DESCRIPTION>
1276	! This convenience function returns the time step for domain grid.
1277	! Also converts from INTEGER(WRFU_KIND_I8) to INTEGER.
1278	!
1279	! </DESCRIPTION>
1280	TYPE(domain), INTENT(IN) :: grid
1281	! result
1282	INTEGER :: advanceCount
1283	! locals
1284	INTEGER(WRFU_KIND_I8) :: advanceCountLcl
1285	INTEGER :: rc
1286	CALL WRFU_ClockGet( grid%domain_clock, &
1287	advanceCount=advanceCountLcl, &
1288	rc=rc )
1289	IF ( rc /= WRFU_SUCCESS ) THEN
1290	CALL wrf_error_fatal ( &
1291	'domain_get_advanceCount: WRFU_ClockGet failed' )
1292	ENDIF
1293	advanceCount = advanceCountLcl
1294	END FUNCTION domain_get_advanceCount
1295
1296
1297	SUBROUTINE domain_alarms_destroy ( grid )
1298	IMPLICIT NONE
1299	! <DESCRIPTION>
1300	! This convenience routine destroys and deallocates all alarms associated
1301	! with grid.
1302	!
1303	! </DESCRIPTION>
1304	TYPE(domain), INTENT(INOUT) :: grid
1305	! Local data.
1306	INTEGER :: alarmid
1307
1308	IF ( ASSOCIATED( grid%alarms ) .AND. &
1309	ASSOCIATED( grid%alarms_created ) ) THEN
1310	DO alarmid = 1, MAX_WRF_ALARMS
1311	IF ( grid%alarms_created( alarmid ) ) THEN
1312	CALL WRFU_AlarmDestroy( grid%alarms( alarmid ) )
1313	grid%alarms_created( alarmid ) = .FALSE.
1314	ENDIF
1315	ENDDO
1316	DEALLOCATE( grid%alarms )
1317	NULLIFY( grid%alarms )
1318	DEALLOCATE( grid%alarms_created )
1319	NULLIFY( grid%alarms_created )
1320	ENDIF
1321	END SUBROUTINE domain_alarms_destroy
1322
1323
1324	SUBROUTINE domain_clock_destroy ( grid )
1325	IMPLICIT NONE
1326	! <DESCRIPTION>
1327	! This convenience routine destroys and deallocates the domain clock.
1328	!
1329	! </DESCRIPTION>
1330	TYPE(domain), INTENT(INOUT) :: grid
1331	IF ( ASSOCIATED( grid%domain_clock ) ) THEN
1332	IF ( grid%domain_clock_created ) THEN
1333	CALL WRFU_ClockDestroy( grid%domain_clock )
1334	grid%domain_clock_created = .FALSE.
1335	ENDIF
1336	DEALLOCATE( grid%domain_clock )
1337	NULLIFY( grid%domain_clock )
1338	ENDIF
1339	END SUBROUTINE domain_clock_destroy
1340
1341
1342	FUNCTION domain_last_time_step ( grid ) RESULT ( LAST_TIME )
1343	IMPLICIT NONE
1344	! <DESCRIPTION>
1345	! This convenience function returns .TRUE. if this is the last time
1346	! step for domain grid. Thanks to Tom Black.
1347	!
1348	! </DESCRIPTION>
1349	TYPE(domain), INTENT(IN) :: grid
1350	! result
1351	LOGICAL :: LAST_TIME
1352	LAST_TIME = domain_get_stop_time( grid ) .EQ. &
1353	( domain_get_current_time( grid ) + &
1354	domain_get_time_step( grid ) )
1355	END FUNCTION domain_last_time_step
1356
1357
1358
1359	FUNCTION domain_clockisstoptime ( grid ) RESULT ( is_stop_time )
1360	IMPLICIT NONE
1361	! <DESCRIPTION>
1362	! This convenience function returns .TRUE. iff grid%clock has reached its
1363	! stop time.
1364	!
1365	! </DESCRIPTION>
1366	TYPE(domain), INTENT(IN) :: grid
1367	! result
1368	LOGICAL :: is_stop_time
1369	INTEGER :: rc
1370	is_stop_time = WRFU_ClockIsStopTime( grid%domain_clock , rc=rc )
1371	IF ( rc /= WRFU_SUCCESS ) THEN
1372	CALL wrf_error_fatal ( &
1373	'domain_clockisstoptime: WRFU_ClockIsStopTime() failed' )
1374	ENDIF
1375	END FUNCTION domain_clockisstoptime
1376
1377
1378
1379	FUNCTION domain_clockisstopsubtime ( grid ) RESULT ( is_stop_subtime )
1380	IMPLICIT NONE
1381	! <DESCRIPTION>
1382	! This convenience function returns .TRUE. iff grid%clock has reached its
1383	! grid%stop_subtime.
1384	!
1385	! </DESCRIPTION>
1386	TYPE(domain), INTENT(IN) :: grid
1387	! result
1388	LOGICAL :: is_stop_subtime
1389	INTEGER :: rc
1390	TYPE(WRFU_TimeInterval) :: timeStep
1391	TYPE(WRFU_Time) :: currentTime
1392	LOGICAL :: positive_timestep
1393	is_stop_subtime = .FALSE.
1394	CALL domain_clock_get( grid, time_step=timeStep, &
1395	current_time=currentTime )
1396	positive_timestep = ESMF_TimeIntervalIsPositive( timeStep )
1397	IF ( positive_timestep ) THEN
1398	! hack for bug in PGI 5.1-x
1399	! IF ( currentTime .GE. grid%stop_subtime ) THEN
1400	IF ( ESMF_TimeGE( currentTime, grid%stop_subtime ) ) THEN
1401	is_stop_subtime = .TRUE.
1402	ENDIF
1403	ELSE
1404	! hack for bug in PGI 5.1-x
1405	! IF ( currentTime .LE. grid%stop_subtime ) THEN
1406	IF ( ESMF_TimeLE( currentTime, grid%stop_subtime ) ) THEN
1407	is_stop_subtime = .TRUE.
1408	ENDIF
1409	ENDIF
1410	END FUNCTION domain_clockisstopsubtime
1411
1412
1413
1414
1415	FUNCTION domain_get_sim_start_time ( grid ) RESULT ( simulationStartTime )
1416	IMPLICIT NONE
1417	! <DESCRIPTION>
1418	! This convenience routine returns simulation start time for domain grid as
1419	! a time instant.
1420	!
1421	! If this is not a restart run, the start_time of head_grid%clock is returned
1422	! instead.
1423	!
1424	! Note that simulation start time remains constant through restarts while
1425	! the start_time of head_grid%clock always refers to the start time of the
1426	! current run (restart or otherwise).
1427	!
1428	! </DESCRIPTION>
1429	TYPE(domain), INTENT(IN) :: grid
1430	! result
1431	TYPE(WRFU_Time) :: simulationStartTime
1432	! Locals
1433	INTEGER :: rc
1434	INTEGER :: simulation_start_year, simulation_start_month, &
1435	simulation_start_day, simulation_start_hour , &
1436	simulation_start_minute, simulation_start_second
1437	CALL nl_get_simulation_start_year ( 1, simulation_start_year )
1438	CALL nl_get_simulation_start_month ( 1, simulation_start_month )
1439	CALL nl_get_simulation_start_day ( 1, simulation_start_day )
1440	CALL nl_get_simulation_start_hour ( 1, simulation_start_hour )
1441	CALL nl_get_simulation_start_minute ( 1, simulation_start_minute )
1442	CALL nl_get_simulation_start_second ( 1, simulation_start_second )
1443	CALL WRFU_TimeSet( simulationStartTime, &
1444	YY=simulation_start_year, &
1445	MM=simulation_start_month, &
1446	DD=simulation_start_day, &
1447	H=simulation_start_hour, &
1448	M=simulation_start_minute, &
1449	S=simulation_start_second, &
1450	rc=rc )
1451	IF ( rc /= WRFU_SUCCESS ) THEN
1452	CALL nl_get_start_year ( 1, simulation_start_year )
1453	CALL nl_get_start_month ( 1, simulation_start_month )
1454	CALL nl_get_start_day ( 1, simulation_start_day )
1455	CALL nl_get_start_hour ( 1, simulation_start_hour )
1456	CALL nl_get_start_minute ( 1, simulation_start_minute )
1457	CALL nl_get_start_second ( 1, simulation_start_second )
1458	CALL wrf_debug( 150, "WARNING: domain_get_sim_start_time using head_grid start time from namelist" )
1459	CALL WRFU_TimeSet( simulationStartTime, &
1460	YY=simulation_start_year, &
1461	MM=simulation_start_month, &
1462	DD=simulation_start_day, &
1463	H=simulation_start_hour, &
1464	M=simulation_start_minute, &
1465	S=simulation_start_second, &
1466	rc=rc )
1467	ENDIF
1468	RETURN
1469	END FUNCTION domain_get_sim_start_time
1470
1471	FUNCTION domain_get_time_since_sim_start ( grid ) RESULT ( time_since_sim_start )
1472	IMPLICIT NONE
1473	! <DESCRIPTION>
1474	! This convenience function returns the time elapsed since start of
1475	! simulation for domain grid.
1476	!
1477	! Note that simulation start time remains constant through restarts while
1478	! the start_time of grid%clock always refers to the start time of the
1479	! current run (restart or otherwise).
1480	!
1481	! </DESCRIPTION>
1482	TYPE(domain), INTENT(IN) :: grid
1483	! result
1484	TYPE(WRFU_TimeInterval) :: time_since_sim_start
1485	! locals
1486	TYPE(WRFU_Time) :: lcl_currtime, lcl_simstarttime
1487	lcl_simstarttime = domain_get_sim_start_time( grid )
1488	lcl_currtime = domain_get_current_time ( grid )
1489	time_since_sim_start = lcl_currtime - lcl_simstarttime
1490	END FUNCTION domain_get_time_since_sim_start
1491
1492
1493
1494
1495	SUBROUTINE domain_clock_get( grid, current_time, &
1496	current_timestr, &
1497	current_timestr_frac, &
1498	start_time, start_timestr, &
1499	stop_time, stop_timestr, &
1500	time_step, time_stepstr, &
1501	time_stepstr_frac, &
1502	advanceCount, &
1503	currentDayOfYearReal, &
1504	minutesSinceSimulationStart, &
1505	timeSinceSimulationStart, &
1506	simulationStartTime, &
1507	simulationStartTimeStr )
1508	IMPLICIT NONE
1509	TYPE(domain), INTENT(IN) :: grid
1510	TYPE(WRFU_Time), INTENT( OUT), OPTIONAL :: current_time
1511	CHARACTER (LEN=*), INTENT( OUT), OPTIONAL :: current_timestr
1512	CHARACTER (LEN=*), INTENT( OUT), OPTIONAL :: current_timestr_frac
1513	TYPE(WRFU_Time), INTENT( OUT), OPTIONAL :: start_time
1514	CHARACTER (LEN=*), INTENT( OUT), OPTIONAL :: start_timestr
1515	TYPE(WRFU_Time), INTENT( OUT), OPTIONAL :: stop_time
1516	CHARACTER (LEN=*), INTENT( OUT), OPTIONAL :: stop_timestr
1517	TYPE(WRFU_TimeInterval), INTENT( OUT), OPTIONAL :: time_step
1518	CHARACTER (LEN=*), INTENT( OUT), OPTIONAL :: time_stepstr
1519	CHARACTER (LEN=*), INTENT( OUT), OPTIONAL :: time_stepstr_frac
1520	INTEGER, INTENT( OUT), OPTIONAL :: advanceCount
1521	! currentDayOfYearReal = 0.0 at 0Z on 1 January, 0.5 at 12Z on
1522	! 1 January, etc.
1523	REAL, INTENT( OUT), OPTIONAL :: currentDayOfYearReal
1524	! Time at which simulation started. If this is not a restart run,
1525	! start_time is returned instead.
1526	TYPE(WRFU_Time), INTENT( OUT), OPTIONAL :: simulationStartTime
1527	CHARACTER (LEN=*), INTENT( OUT), OPTIONAL :: simulationStartTimeStr
1528	! time interval since start of simulation, includes effects of
1529	! restarting even when restart uses a different timestep
1530	TYPE(WRFU_TimeInterval), INTENT( OUT), OPTIONAL :: timeSinceSimulationStart
1531	! minutes since simulation start date
1532	REAL, INTENT( OUT), OPTIONAL :: minutesSinceSimulationStart
1533	! <DESCRIPTION>
1534	! This convenience routine returns clock information for domain grid in
1535	! various forms. The caller is responsible for ensuring that character
1536	! string actual arguments are big enough.
1537	!
1538	! </DESCRIPTION>
1539	! Locals
1540	TYPE(WRFU_Time) :: lcl_currtime, lcl_stoptime, lcl_starttime
1541	TYPE(WRFU_Time) :: lcl_simulationStartTime
1542	TYPE(WRFU_TimeInterval) :: lcl_time_step, lcl_timeSinceSimulationStart
1543	INTEGER :: days, seconds, Sn, Sd, rc
1544	CHARACTER (LEN=256) :: tmp_str
1545	CHARACTER (LEN=256) :: frac_str
1546	REAL(WRFU_KIND_R8) :: currentDayOfYearR8
1547	IF ( PRESENT( start_time ) ) THEN
1548	start_time = domain_get_start_time ( grid )
1549	ENDIF
1550	IF ( PRESENT( start_timestr ) ) THEN
1551	lcl_starttime = domain_get_start_time ( grid )
1552	CALL wrf_timetoa ( lcl_starttime, start_timestr )
1553	ENDIF
1554	IF ( PRESENT( time_step ) ) THEN
1555	time_step = domain_get_time_step ( grid )
1556	ENDIF
1557	IF ( PRESENT( time_stepstr ) ) THEN
1558	lcl_time_step = domain_get_time_step ( grid )
1559	CALL WRFU_TimeIntervalGet( lcl_time_step, &
1560	timeString=time_stepstr, rc=rc )
1561	IF ( rc /= WRFU_SUCCESS ) THEN
1562	CALL wrf_error_fatal ( &
1563	'domain_clock_get: WRFU_TimeIntervalGet() failed' )
1564	ENDIF
1565	ENDIF
1566	IF ( PRESENT( time_stepstr_frac ) ) THEN
1567	lcl_time_step = domain_get_time_step ( grid )
1568	CALL WRFU_TimeIntervalGet( lcl_time_step, timeString=tmp_str, &
1569	Sn=Sn, Sd=Sd, rc=rc )
1570	IF ( rc /= WRFU_SUCCESS ) THEN
1571	CALL wrf_error_fatal ( &
1572	'domain_clock_get: WRFU_TimeIntervalGet() failed' )
1573	ENDIF
1574	CALL fraction_to_string( Sn, Sd, frac_str )
1575	time_stepstr_frac = TRIM(tmp_str)//TRIM(frac_str)
1576	ENDIF
1577	IF ( PRESENT( advanceCount ) ) THEN
1578	advanceCount = domain_get_advanceCount ( grid )
1579	ENDIF
1580	! This duplication avoids assignment of time-manager objects
1581	! which works now in ESMF 2.2.0 but may not work in the future
1582	! if these objects become "deep". We have already been bitten
1583	! by this when the clock objects were changed from "shallow" to
1584	! "deep". Once again, adherence to orthodox canonical form by
1585	! ESMF would avoid all this crap.
1586	IF ( PRESENT( current_time ) ) THEN
1587	current_time = domain_get_current_time ( grid )
1588	ENDIF
1589	IF ( PRESENT( current_timestr ) ) THEN
1590	lcl_currtime = domain_get_current_time ( grid )
1591	CALL wrf_timetoa ( lcl_currtime, current_timestr )
1592	ENDIF
1593	! current time string including fractional part, if present
1594	IF ( PRESENT( current_timestr_frac ) ) THEN
1595	lcl_currtime = domain_get_current_time ( grid )
1596	CALL wrf_timetoa ( lcl_currtime, tmp_str )
1597	CALL WRFU_TimeGet( lcl_currtime, Sn=Sn, Sd=Sd, rc=rc )
1598	IF ( rc /= WRFU_SUCCESS ) THEN
1599	CALL wrf_error_fatal ( &
1600	'domain_clock_get: WRFU_TimeGet() failed' )
1601	ENDIF
1602	CALL fraction_to_string( Sn, Sd, frac_str )
1603	current_timestr_frac = TRIM(tmp_str)//TRIM(frac_str)
1604	ENDIF
1605	IF ( PRESENT( stop_time ) ) THEN
1606	stop_time = domain_get_stop_time ( grid )
1607	ENDIF
1608	IF ( PRESENT( stop_timestr ) ) THEN
1609	lcl_stoptime = domain_get_stop_time ( grid )
1610	CALL wrf_timetoa ( lcl_stoptime, stop_timestr )
1611	ENDIF
1612	IF ( PRESENT( currentDayOfYearReal ) ) THEN
1613	lcl_currtime = domain_get_current_time ( grid )
1614	CALL WRFU_TimeGet( lcl_currtime, dayOfYear_r8=currentDayOfYearR8, &
1615	rc=rc )
1616	IF ( rc /= WRFU_SUCCESS ) THEN
1617	CALL wrf_error_fatal ( &
1618	'domain_clock_get: WRFU_TimeGet(dayOfYear_r8) failed' )
1619	ENDIF
1620	currentDayOfYearReal = REAL( currentDayOfYearR8 ) - 1.0
1621	ENDIF
1622	IF ( PRESENT( simulationStartTime ) ) THEN
1623	simulationStartTime = domain_get_sim_start_time( grid )
1624	ENDIF
1625	IF ( PRESENT( simulationStartTimeStr ) ) THEN
1626	lcl_simulationStartTime = domain_get_sim_start_time( grid )
1627	CALL wrf_timetoa ( lcl_simulationStartTime, simulationStartTimeStr )
1628	ENDIF
1629	IF ( PRESENT( timeSinceSimulationStart ) ) THEN
1630	timeSinceSimulationStart = domain_get_time_since_sim_start( grid )
1631	ENDIF
1632	IF ( PRESENT( minutesSinceSimulationStart ) ) THEN
1633	lcl_timeSinceSimulationStart = domain_get_time_since_sim_start( grid )
1634	CALL WRFU_TimeIntervalGet( lcl_timeSinceSimulationStart, &
1635	D=days, S=seconds, Sn=Sn, Sd=Sd, rc=rc )
1636	IF ( rc /= WRFU_SUCCESS ) THEN
1637	CALL wrf_error_fatal ( &
1638	'domain_clock_get: WRFU_TimeIntervalGet() failed' )
1639	ENDIF
1640	! get rid of hard-coded constants
1641	minutesSinceSimulationStart = ( REAL( days ) * 24. * 60. ) + &
1642	( REAL( seconds ) / 60. )
1643	IF ( Sd /= 0 ) THEN
1644	minutesSinceSimulationStart = minutesSinceSimulationStart + &
1645	( ( REAL( Sn ) / REAL( Sd ) ) / 60. )
1646	ENDIF
1647	ENDIF
1648	RETURN
1649	END SUBROUTINE domain_clock_get
1650
1651	FUNCTION domain_clockisstarttime ( grid ) RESULT ( is_start_time )
1652	IMPLICIT NONE
1653	! <DESCRIPTION>
1654	! This convenience function returns .TRUE. iff grid%clock is at its
1655	! start time.
1656	!
1657	! </DESCRIPTION>
1658	TYPE(domain), INTENT(IN) :: grid
1659	! result
1660	LOGICAL :: is_start_time
1661	TYPE(WRFU_Time) :: start_time, current_time
1662	CALL domain_clock_get( grid, current_time=current_time, &
1663	start_time=start_time )
1664	is_start_time = ( current_time == start_time )
1665	END FUNCTION domain_clockisstarttime
1666
1667	FUNCTION domain_clockissimstarttime ( grid ) RESULT ( is_sim_start_time )
1668	IMPLICIT NONE
1669	! <DESCRIPTION>
1670	! This convenience function returns .TRUE. iff grid%clock is at the
1671	! simulation start time. (It returns .FALSE. during a restart run.)
1672	!
1673	! </DESCRIPTION>
1674	TYPE(domain), INTENT(IN) :: grid
1675	! result
1676	LOGICAL :: is_sim_start_time
1677	TYPE(WRFU_Time) :: simulationStartTime, current_time
1678	CALL domain_clock_get( grid, current_time=current_time, &
1679	simulationStartTime=simulationStartTime )
1680	is_sim_start_time = ( current_time == simulationStartTime )
1681	END FUNCTION domain_clockissimstarttime
1682
1683
1684
1685
1686	SUBROUTINE domain_clock_create( grid, StartTime, &
1687	StopTime, &
1688	TimeStep )
1689	IMPLICIT NONE
1690	TYPE(domain), INTENT(INOUT) :: grid
1691	TYPE(WRFU_Time), INTENT(IN ) :: StartTime
1692	TYPE(WRFU_Time), INTENT(IN ) :: StopTime
1693	TYPE(WRFU_TimeInterval), INTENT(IN ) :: TimeStep
1694	! <DESCRIPTION>
1695	! This convenience routine creates the domain_clock for domain grid and
1696	! sets associated flags.
1697	!
1698	! </DESCRIPTION>
1699	! Locals
1700	INTEGER :: rc
1701	grid%domain_clock = WRFU_ClockCreate( TimeStep= TimeStep, &
1702	StartTime=StartTime, &
1703	StopTime= StopTime, &
1704	rc=rc )
1705	IF ( rc /= WRFU_SUCCESS ) THEN
1706	CALL wrf_error_fatal ( &
1707	'domain_clock_create: WRFU_ClockCreate() failed' )
1708	ENDIF
1709	grid%domain_clock_created = .TRUE.
1710	RETURN
1711	END SUBROUTINE domain_clock_create
1712
1713
1714
1715	SUBROUTINE domain_alarm_create( grid, alarm_id, interval, &
1716	begin_time, end_time )
1717	USE module_utility
1718	IMPLICIT NONE
1719	TYPE(domain), POINTER :: grid
1720	INTEGER, INTENT(IN) :: alarm_id
1721	TYPE(WRFU_TimeInterval), INTENT(IN), OPTIONAL :: interval
1722	TYPE(WRFU_TimeInterval), INTENT(IN), OPTIONAL :: begin_time
1723	TYPE(WRFU_TimeInterval), INTENT(IN), OPTIONAL :: end_time
1724	! <DESCRIPTION>
1725	! This convenience routine creates alarm alarm_id for domain grid and
1726	! sets associated flags.
1727	!
1728	! </DESCRIPTION>
1729	! Locals
1730	INTEGER :: rc
1731	!$$$ TBH: Ideally, this could be simplified by passing all optional actual
1732	!$$$ TBH: args into AlarmCreate. However, since operations are performed on
1733	!$$$ TBH: the actual args in-place in the calls, they must be present for the
1734	!$$$ TBH: operations themselves to be defined. Grrr...
1735	LOGICAL :: interval_only, all_args, no_args
1736	TYPE(WRFU_Time) :: startTime
1737	interval_only = .FALSE.
1738	all_args = .FALSE.
1739	no_args = .FALSE.
1740	IF ( ( .NOT. PRESENT( begin_time ) ) .AND. &
1741	( .NOT. PRESENT( end_time ) ) .AND. &
1742	( PRESENT( interval ) ) ) THEN
1743	interval_only = .TRUE.
1744	ELSE IF ( ( .NOT. PRESENT( begin_time ) ) .AND. &
1745	( .NOT. PRESENT( end_time ) ) .AND. &
1746	( .NOT. PRESENT( interval ) ) ) THEN
1747	no_args = .TRUE.
1748	ELSE IF ( ( PRESENT( begin_time ) ) .AND. &
1749	( PRESENT( end_time ) ) .AND. &
1750	( PRESENT( interval ) ) ) THEN
1751	all_args = .TRUE.
1752	ELSE
1753	CALL wrf_error_fatal ( &
1754	'ERROR in domain_alarm_create: bad argument list' )
1755	ENDIF
1756	CALL domain_clock_get( grid, start_time=startTime )
1757	IF ( interval_only ) THEN
1758	grid%io_intervals( alarm_id ) = interval
1759	grid%alarms( alarm_id ) = &
1760	WRFU_AlarmCreate( clock=grid%domain_clock, &
1761	RingInterval=interval, &
1762	rc=rc )
1763	ELSE IF ( no_args ) THEN
1764	grid%alarms( alarm_id ) = &
1765	WRFU_AlarmCreate( clock=grid%domain_clock, &
1766	RingTime=startTime, &
1767	rc=rc )
1768	ELSE IF ( all_args ) THEN
1769	grid%io_intervals( alarm_id ) = interval
1770	grid%alarms( alarm_id ) = &
1771	WRFU_AlarmCreate( clock=grid%domain_clock, &
1772	RingTime=startTime + begin_time, &
1773	RingInterval=interval, &
1774	StopTime=startTime + end_time, &
1775	rc=rc )
1776	ENDIF
1777	IF ( rc /= WRFU_SUCCESS ) THEN
1778	CALL wrf_error_fatal ( &
1779	'domain_alarm_create: WRFU_AlarmCreate() failed' )
1780	ENDIF
1781	grid%alarms_created( alarm_id ) = .TRUE.
1782	END SUBROUTINE domain_alarm_create
1783
1784
1785
1786	SUBROUTINE domain_clock_set( grid, current_timestr, &
1787	stop_timestr, &
1788	time_step_seconds )
1789	IMPLICIT NONE
1790	TYPE(domain), INTENT(INOUT) :: grid
1791	CHARACTER (LEN=*), INTENT(IN ), OPTIONAL :: current_timestr
1792	CHARACTER (LEN=*), INTENT(IN ), OPTIONAL :: stop_timestr
1793	INTEGER, INTENT(IN ), OPTIONAL :: time_step_seconds
1794	! <DESCRIPTION>
1795	! This convenience routine sets clock information for domain grid.
1796	! The caller is responsible for ensuring that character string actual
1797	! arguments are big enough.
1798	!
1799	! </DESCRIPTION>
1800	! Locals
1801	TYPE(WRFU_Time) :: lcl_currtime, lcl_stoptime
1802	TYPE(WRFU_TimeInterval) :: tmpTimeInterval
1803	INTEGER :: rc
1804	IF ( PRESENT( current_timestr ) ) THEN
1805	CALL wrf_atotime( current_timestr(1:19), lcl_currtime )
1806	CALL WRFU_ClockSet( grid%domain_clock, currTime=lcl_currtime, &
1807	rc=rc )
1808	IF ( rc /= WRFU_SUCCESS ) THEN
1809	CALL wrf_error_fatal ( &
1810	'domain_clock_set: WRFU_ClockSet(CurrTime) failed' )
1811	ENDIF
1812	ENDIF
1813	IF ( PRESENT( stop_timestr ) ) THEN
1814	CALL wrf_atotime( stop_timestr(1:19), lcl_stoptime )
1815	CALL WRFU_ClockSet( grid%domain_clock, stopTime=lcl_stoptime, &
1816	rc=rc )
1817	IF ( rc /= WRFU_SUCCESS ) THEN
1818	CALL wrf_error_fatal ( &
1819	'domain_clock_set: WRFU_ClockSet(StopTime) failed' )
1820	ENDIF
1821	ENDIF
1822	IF ( PRESENT( time_step_seconds ) ) THEN
1823	CALL WRFU_TimeIntervalSet( tmpTimeInterval, &
1824	S=time_step_seconds, rc=rc )
1825	IF ( rc /= WRFU_SUCCESS ) THEN
1826	CALL wrf_error_fatal ( &
1827	'domain_clock_set: WRFU_TimeIntervalSet failed' )
1828	ENDIF
1829	CALL WRFU_ClockSet ( grid%domain_clock, &
1830	timeStep=tmpTimeInterval, &
1831	rc=rc )
1832	IF ( rc /= WRFU_SUCCESS ) THEN
1833	CALL wrf_error_fatal ( &
1834	'domain_clock_set: WRFU_ClockSet(TimeStep) failed' )
1835	ENDIF
1836	ENDIF
1837	RETURN
1838	END SUBROUTINE domain_clock_set
1839
1840
1841	! Debug routine to print key clock information.
1842	! Printed lines include pre_str.
1843	SUBROUTINE domain_clockprint ( level, grid, pre_str )
1844	IMPLICIT NONE
1845	INTEGER, INTENT( IN) :: level
1846	TYPE(domain), INTENT( IN) :: grid
1847	CHARACTER (LEN=*), INTENT( IN) :: pre_str
1848	CALL wrf_clockprint ( level, grid%domain_clock, pre_str )
1849	RETURN
1850	END SUBROUTINE domain_clockprint
1851
1852
1853	! Advance the clock associated with grid.
1854	! Also updates several derived time quantities in grid state.
1855	SUBROUTINE domain_clockadvance ( grid )
1856	IMPLICIT NONE
1857	TYPE(domain), INTENT(INOUT) :: grid
1858	INTEGER :: rc
1859	CALL domain_clockprint ( 250, grid, &
1860	'DEBUG domain_clockadvance(): before WRFU_ClockAdvance,' )
1861	CALL WRFU_ClockAdvance( grid%domain_clock, rc=rc )
1862	IF ( rc /= WRFU_SUCCESS ) THEN
1863	CALL wrf_error_fatal ( &
1864	'domain_clockadvance: WRFU_ClockAdvance() failed' )
1865	ENDIF
1866	CALL domain_clockprint ( 250, grid, &
1867	'DEBUG domain_clockadvance(): after WRFU_ClockAdvance,' )
1868	! Update derived time quantities in grid state.
1869	! These are initialized in setup_timekeeping().
1870	CALL domain_clock_get( grid, minutesSinceSimulationStart=grid%xtime )
1871	CALL domain_clock_get( grid, currentDayOfYearReal=grid%julian )
1872	RETURN
1873	END SUBROUTINE domain_clockadvance
1874
1875
1876
1877	! Set grid%gmt, grid%julday, and grid%julyr from simulation-start-date.
1878	! Set start_of_simulation to TRUE iff current_time == simulation_start_time
1879	SUBROUTINE domain_setgmtetc ( grid, start_of_simulation )
1880	IMPLICIT NONE
1881	TYPE (domain), INTENT(INOUT) :: grid
1882	LOGICAL, INTENT( OUT) :: start_of_simulation
1883	! locals
1884	CHARACTER (LEN=132) :: message
1885	TYPE(WRFU_Time) :: simStartTime
1886	INTEGER :: hr, mn, sec, ms, rc
1887	CALL domain_clockprint(150, grid, &
1888	'DEBUG domain_setgmtetc(): get simStartTime from clock,')
1889	CALL domain_clock_get( grid, simulationStartTime=simStartTime, &
1890	simulationStartTimeStr=message )
1891	CALL WRFU_TimeGet( simStartTime, YY=grid%julyr, dayOfYear=grid%julday, &
1892	H=hr, M=mn, S=sec, MS=ms, rc=rc)
1893	IF ( rc /= WRFU_SUCCESS ) THEN
1894	CALL wrf_error_fatal ( &
1895	'domain_setgmtetc: WRFU_TimeGet() failed' )
1896	ENDIF
1897	WRITE( wrf_err_message , * ) 'DEBUG domain_setgmtetc(): simulation start time = [',TRIM( message ),']'
1898	CALL wrf_debug( 150, TRIM(wrf_err_message) )
1899	grid%gmt=hr+real(mn)/60.+real(sec)/3600.+real(ms)/(1000*3600)
1900	WRITE( wrf_err_message , * ) 'DEBUG domain_setgmtetc(): julyr,hr,mn,sec,ms,julday = ', &
1901	grid%julyr,hr,mn,sec,ms,grid%julday
1902	CALL wrf_debug( 150, TRIM(wrf_err_message) )
1903	WRITE( wrf_err_message , * ) 'DEBUG domain_setgmtetc(): gmt = ',grid%gmt
1904	CALL wrf_debug( 150, TRIM(wrf_err_message) )
1905	start_of_simulation = domain_ClockIsSimStartTime(grid)
1906	RETURN
1907	END SUBROUTINE domain_setgmtetc
1908
1909
1910
1911	! Set pointer to current grid.
1912	! To begin with, current grid is not set.
1913	SUBROUTINE set_current_grid_ptr( grid_ptr )
1914	IMPLICIT NONE
1915	TYPE(domain), POINTER :: grid_ptr
1916	!PRINT *,'DEBUG: begin set_current_grid_ptr()'
1917	!IF ( ASSOCIATED( grid_ptr ) ) THEN
1918	! PRINT *,'DEBUG: set_current_grid_ptr(): current_grid is associated'
1919	!ELSE
1920	! PRINT *,'DEBUG: set_current_grid_ptr(): current_grid is NOT associated'
1921	!ENDIF
1922	current_grid_set = .TRUE.
1923	current_grid => grid_ptr
1924	!PRINT *,'DEBUG: end set_current_grid_ptr()'
1925	END SUBROUTINE set_current_grid_ptr
1926
1927	!******************************************************************************
1928	! BEGIN TEST SECTION
1929	! Code in the test section is used to test domain methods.
1930	! This code should probably be moved elsewhere, eventually.
1931	!******************************************************************************
1932
1933	! Private utility routines for domain_time_test.
1934	SUBROUTINE domain_time_test_print ( pre_str, name_str, res_str )
1935	IMPLICIT NONE
1936	CHARACTER (LEN=*), INTENT(IN) :: pre_str
1937	CHARACTER (LEN=*), INTENT(IN) :: name_str
1938	CHARACTER (LEN=*), INTENT(IN) :: res_str
1939	CHARACTER (LEN=512) :: out_str
1940	WRITE (out_str, &
1941	FMT="('DOMAIN_TIME_TEST ',A,': ',A,' = ',A)") &
1942	TRIM(pre_str), TRIM(name_str), TRIM(res_str)
1943	CALL wrf_debug( 0, TRIM(out_str) )
1944	END SUBROUTINE domain_time_test_print
1945
1946	! Test adjust_io_timestr
1947	SUBROUTINE test_adjust_io_timestr( TI_h, TI_m, TI_s, &
1948	CT_yy, CT_mm, CT_dd, CT_h, CT_m, CT_s, &
1949	ST_yy, ST_mm, ST_dd, ST_h, ST_m, ST_s, &
1950	res_str, testname )
1951	INTEGER, INTENT(IN) :: TI_H
1952	INTEGER, INTENT(IN) :: TI_M
1953	INTEGER, INTENT(IN) :: TI_S
1954	INTEGER, INTENT(IN) :: CT_YY
1955	INTEGER, INTENT(IN) :: CT_MM ! month
1956	INTEGER, INTENT(IN) :: CT_DD ! day of month
1957	INTEGER, INTENT(IN) :: CT_H
1958	INTEGER, INTENT(IN) :: CT_M
1959	INTEGER, INTENT(IN) :: CT_S
1960	INTEGER, INTENT(IN) :: ST_YY
1961	INTEGER, INTENT(IN) :: ST_MM ! month
1962	INTEGER, INTENT(IN) :: ST_DD ! day of month
1963	INTEGER, INTENT(IN) :: ST_H
1964	INTEGER, INTENT(IN) :: ST_M
1965	INTEGER, INTENT(IN) :: ST_S
1966	CHARACTER (LEN=*), INTENT(IN) :: res_str
1967	CHARACTER (LEN=*), INTENT(IN) :: testname
1968	! locals
1969	TYPE(WRFU_TimeInterval) :: TI
1970	TYPE(WRFU_Time) :: CT, ST
1971	LOGICAL :: test_passed
1972	INTEGER :: rc
1973	CHARACTER(LEN=WRFU_MAXSTR) :: TI_str, CT_str, ST_str, computed_str
1974	! TI
1975	CALL WRFU_TimeIntervalSet( TI, H=TI_H, M=TI_M, S=TI_S, rc=rc )
1976	CALL wrf_check_error( WRFU_SUCCESS, rc, &
1977	'FAIL: '//TRIM(testname)//'WRFU_TimeIntervalSet() ', &
1978	__FILE__ , &
1979	__LINE__ )
1980	CALL WRFU_TimeIntervalGet( TI, timeString=TI_str, rc=rc )
1981	CALL wrf_check_error( WRFU_SUCCESS, rc, &
1982	'FAIL: '//TRIM(testname)//'WRFU_TimeGet() ', &
1983	__FILE__ , &
1984	__LINE__ )
1985	! CT
1986	CALL WRFU_TimeSet( CT, YY=CT_YY, MM=CT_MM, DD=CT_DD , &
1987	H=CT_H, M=CT_M, S=CT_S, rc=rc )
1988	CALL wrf_check_error( WRFU_SUCCESS, rc, &
1989	'FAIL: '//TRIM(testname)//'WRFU_TimeSet() ', &
1990	__FILE__ , &
1991	__LINE__ )
1992	CALL WRFU_TimeGet( CT, timeString=CT_str, rc=rc )
1993	CALL wrf_check_error( WRFU_SUCCESS, rc, &
1994	'FAIL: '//TRIM(testname)//'WRFU_TimeGet() ', &
1995	__FILE__ , &
1996	__LINE__ )
1997	! ST
1998	CALL WRFU_TimeSet( ST, YY=ST_YY, MM=ST_MM, DD=ST_DD , &
1999	H=ST_H, M=ST_M, S=ST_S, rc=rc )
2000	CALL wrf_check_error( WRFU_SUCCESS, rc, &
2001	'FAIL: '//TRIM(testname)//'WRFU_TimeSet() ', &
2002	__FILE__ , &
2003	__LINE__ )
2004	CALL WRFU_TimeGet( ST, timeString=ST_str, rc=rc )
2005	CALL wrf_check_error( WRFU_SUCCESS, rc, &
2006	'FAIL: '//TRIM(testname)//'WRFU_TimeGet() ', &
2007	__FILE__ , &
2008	__LINE__ )
2009	! Test
2010	CALL adjust_io_timestr ( TI, CT, ST, computed_str )
2011	! check result
2012	test_passed = .FALSE.
2013	IF ( LEN_TRIM(res_str) == LEN_TRIM(computed_str) ) THEN
2014	IF ( res_str(1:LEN_TRIM(res_str)) == computed_str(1:LEN_TRIM(computed_str)) ) THEN
2015	test_passed = .TRUE.
2016	ENDIF
2017	ENDIF
2018	! print result
2019	IF ( test_passed ) THEN
2020	WRITE(*,FMT='(A)') 'PASS: '//TRIM(testname)
2021	ELSE
2022	WRITE(,) 'FAIL: ',TRIM(testname),': adjust_io_timestr(', &
2023	TRIM(TI_str),',',TRIM(CT_str),',',TRIM(ST_str),') expected <', &
2024	TRIM(res_str),'> but computed <',TRIM(computed_str),'>'
2025	ENDIF
2026	END SUBROUTINE test_adjust_io_timestr
2027
2028	! Print lots of time-related information for testing and debugging.
2029	! Printed lines include pre_str and special string DOMAIN_TIME_TEST
2030	! suitable for grepping by test scripts.
2031	! Returns immediately unless self_test_domain has been set to .true. in
2032	! namelist /time_control/ .
2033	SUBROUTINE domain_time_test ( grid, pre_str )
2034	IMPLICIT NONE
2035	TYPE(domain), INTENT(IN) :: grid
2036	CHARACTER (LEN=*), INTENT(IN) :: pre_str
2037	! locals
2038	LOGICAL, SAVE :: one_time_tests_done = .FALSE.
2039	REAL :: minutesSinceSimulationStart
2040	INTEGER :: advance_count, rc
2041	REAL :: currentDayOfYearReal
2042	TYPE(WRFU_TimeInterval) :: timeSinceSimulationStart
2043	TYPE(WRFU_Time) :: simulationStartTime
2044	CHARACTER (LEN=512) :: res_str
2045	LOGICAL :: self_test_domain
2046	!
2047	! NOTE: test_adjust_io_timestr() (see below) is a self-test that
2048	! prints PASS/FAIL/ERROR messages in a standard format. All
2049	! of the other tests should be strucutred the same way,
2050	! someday.
2051	!
2052	CALL nl_get_self_test_domain( 1, self_test_domain )
2053	IF ( self_test_domain ) THEN
2054	CALL domain_clock_get( grid, advanceCount=advance_count )
2055	WRITE ( res_str, FMT="(I8.8)" ) advance_count
2056	CALL domain_time_test_print( pre_str, 'advanceCount', res_str )
2057	CALL domain_clock_get( grid, currentDayOfYearReal=currentDayOfYearReal )
2058	WRITE ( res_str, FMT='(F10.6)' ) currentDayOfYearReal
2059	CALL domain_time_test_print( pre_str, 'currentDayOfYearReal', res_str )
2060	CALL domain_clock_get( grid, minutesSinceSimulationStart=minutesSinceSimulationStart )
2061	WRITE ( res_str, FMT='(F10.6)' ) minutesSinceSimulationStart
2062	CALL domain_time_test_print( pre_str, 'minutesSinceSimulationStart', res_str )
2063	CALL domain_clock_get( grid, current_timestr=res_str )
2064	CALL domain_time_test_print( pre_str, 'current_timestr', res_str )
2065	CALL domain_clock_get( grid, current_timestr_frac=res_str )
2066	CALL domain_time_test_print( pre_str, 'current_timestr_frac', res_str )
2067	CALL domain_clock_get( grid, timeSinceSimulationStart=timeSinceSimulationStart )
2068	CALL WRFU_TimeIntervalGet( timeSinceSimulationStart, timeString=res_str, rc=rc )
2069	IF ( rc /= WRFU_SUCCESS ) THEN
2070	CALL wrf_error_fatal ( &
2071	'domain_time_test: WRFU_TimeIntervalGet() failed' )
2072	ENDIF
2073	CALL domain_time_test_print( pre_str, 'timeSinceSimulationStart', res_str )
2074	! The following tests should only be done once, the first time this
2075	! routine is called.
2076	IF ( .NOT. one_time_tests_done ) THEN
2077	one_time_tests_done = .TRUE.
2078	CALL domain_clock_get( grid, simulationStartTimeStr=res_str )
2079	CALL domain_time_test_print( pre_str, 'simulationStartTime', res_str )
2080	CALL domain_clock_get( grid, start_timestr=res_str )
2081	CALL domain_time_test_print( pre_str, 'start_timestr', res_str )
2082	CALL domain_clock_get( grid, stop_timestr=res_str )
2083	CALL domain_time_test_print( pre_str, 'stop_timestr', res_str )
2084	CALL domain_clock_get( grid, time_stepstr=res_str )
2085	CALL domain_time_test_print( pre_str, 'time_stepstr', res_str )
2086	CALL domain_clock_get( grid, time_stepstr_frac=res_str )
2087	CALL domain_time_test_print( pre_str, 'time_stepstr_frac', res_str )
2088	! Test adjust_io_timestr()
2089	! CT = 2000-01-26_00:00:00 (current time)
2090	! ST = 2000-01-24_12:00:00 (start time)
2091	! TI = 00000_03:00:00 (time interval)
2092	! the resulting time string should be:
2093	! 2000-01-26_00:00:00
2094	CALL test_adjust_io_timestr( TI_h=3, TI_m=0, TI_s=0, &
2095	CT_yy=2000, CT_mm=1, CT_dd=26, CT_h=0, CT_m=0, CT_s=0, &
2096	ST_yy=2000, ST_mm=1, ST_dd=24, ST_h=12, ST_m=0, ST_s=0, &
2097	res_str='2000-01-26_00:00:00', testname='adjust_io_timestr_1' )
2098	! this should fail (and does)
2099	! CALL test_adjust_io_timestr( TI_h=3, TI_m=0, TI_s=0, &
2100	! CT_yy=2000, CT_mm=1, CT_dd=26, CT_h=0, CT_m=0, CT_s=0, &
2101	! ST_yy=2000, ST_mm=1, ST_dd=24, ST_h=12, ST_m=0, ST_s=0, &
2102	! res_str='2000-01-26_00:00:01', testname='adjust_io_timestr_FAIL1' )
2103	ENDIF
2104	ENDIF
2105	RETURN
2106	END SUBROUTINE domain_time_test
2107
2108	!******************************************************************************
2109	! END TEST SECTION
2110	!******************************************************************************
2111
2112
2113	END MODULE module_domain
2114
2115
2116	! The following routines are outside this module to avoid build dependences.
2117
2118
2119	! Get current time as a string (current time from clock attached to the
2120	! current_grid). Includes fractional part, if present.
2121	! Returns empty string if current_grid is not set or if timing has not yet
2122	! been set up on current_grid.
2123	SUBROUTINE get_current_time_string( time_str )
2124	USE module_domain
2125	IMPLICIT NONE
2126	CHARACTER (LEN=*), INTENT(OUT) :: time_str
2127	! locals
2128	INTEGER :: debug_level_lcl
2129	!PRINT *,'DEBUG: begin get_current_time_string()'
2130	time_str = ''
2131	IF ( current_grid_set ) THEN
2132	!$$$DEBUG
2133	!PRINT *,'DEBUG: get_current_time_string(): checking association of current_grid...'
2134	!IF ( ASSOCIATED( current_grid ) ) THEN
2135	! PRINT *,'DEBUG: get_current_time_string(): current_grid is associated'
2136	!ELSE
2137	! PRINT *,'DEBUG: get_current_time_string(): current_grid is NOT associated'
2138	!ENDIF
2139	!$$$END DEBUG
2140	IF ( current_grid%time_set ) THEN
2141	!PRINT *,'DEBUG: get_current_time_string(): calling domain_clock_get()'
2142	! set debug_level to zero and clear current_grid_set to avoid recursion
2143	CALL get_wrf_debug_level( debug_level_lcl )
2144	CALL set_wrf_debug_level ( 0 )
2145	current_grid_set = .FALSE.
2146	CALL domain_clock_get( current_grid, current_timestr_frac=time_str )
2147	! restore debug_level and current_grid_set
2148	CALL set_wrf_debug_level ( debug_level_lcl )
2149	current_grid_set = .TRUE.
2150	!PRINT *,'DEBUG: get_current_time_string(): back from domain_clock_get()'
2151	ENDIF
2152	ENDIF
2153	!PRINT *,'DEBUG: end get_current_time_string()'
2154	END SUBROUTINE get_current_time_string
2155
2156
2157	! Get current domain name as a string of form "d<NN>" where "<NN>" is
2158	! grid%id printed in two characters, with leading zero if needed ("d01",
2159	! "d02", etc.).
2160	! Return empty string if current_grid not set.
2161	SUBROUTINE get_current_grid_name( grid_str )
2162	USE module_domain
2163	IMPLICIT NONE
2164	CHARACTER (LEN=*), INTENT(OUT) :: grid_str
2165	grid_str = ''
2166	IF ( current_grid_set ) THEN
2167	WRITE(grid_str,FMT="('d',I2.2)") current_grid%id
2168	ENDIF
2169	END SUBROUTINE get_current_grid_name
2170
2171
2172

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