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module_domain.F
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!WRF:DRIVER_LAYER:DOMAIN_OBJECT
!
! Following are the routines contained within this MODULE:
! alloc_and_configure_domain 1. Allocate the space for a single domain (constants
! and null terminate pointers).
! 2. Connect the domains as a linked list.
! 3. Store all of the domain constants.
! 4. CALL alloc_space_field.
! alloc_space_field 1. Allocate space for the gridded data required for
! each domain.
! dealloc_space_domain 1. Reconnect linked list nodes since the current
! node is removed.
! 2. CALL dealloc_space_field.
! 3. Deallocate single domain.
! dealloc_space_field 1. Deallocate each of the fields for a particular
! domain.
! first_loc_integer 1. Find the first incidence of a particular
! domain identifier from an array of domain
! identifiers.
MODULE module_domain
USE module_driver_constants
USE module_machine
USE module_configure
USE module_wrf_error
USE module_utility
USE module_domain_type
! In WRFV3, the module_domain_type is defined
! in a separaate source file, frame/module_domain_type.F
! This enables splitting off the alloc_space_field routine
! into a separate file, reducing the size of module_domain
! Now that a "domain" TYPE exists, we can use it to store a few pointers
! to this type. These are primarily for use in traversing the linked list.
! The "head_grid" is always the pointer to the first domain that is
! allocated. This is available and is not to be changed. The others are
! just temporary pointers.
TYPE(domain) , POINTER :: head_grid , new_grid , next_grid , old_grid
! To facilitate an easy integration of each of the domains that are on the
! same level, we have an array for the head pointer for each level. This
! removed the need to search through the linked list at each time step to
! find which domains are to be active.
TYPE domain_levels
TYPE(domain) , POINTER :: first_domain
END TYPE domain_levels
TYPE(domain_levels) , DIMENSION(max_levels) :: head_for_each_level
! Use this to support debugging features, giving easy access to clock, etc.
TYPE(domain), POINTER :: current_grid
LOGICAL, SAVE :: current_grid_set = .FALSE.
! internal routines
PRIVATE domain_time_test_print
PRIVATE test_adjust_io_timestr
INTERFACE get_ijk_from_grid
MODULE PROCEDURE get_ijk_from_grid1, get_ijk_from_grid2
END INTERFACE
INTEGER, PARAMETER :: max_hst_mods = 1000
CONTAINS
SUBROUTINE adjust_domain_dims_for_move( grid , dx, dy )
IMPLICIT NONE
TYPE( domain ), POINTER :: grid
INTEGER, INTENT(IN) :: dx, dy
data_ordering : SELECT CASE ( model_data_order )
CASE ( DATA_ORDER_XYZ )
grid%sm31 = grid%sm31 + dx
grid%em31 = grid%em31 + dx
grid%sm32 = grid%sm32 + dy
grid%em32 = grid%em32 + dy
grid%sp31 = grid%sp31 + dx
grid%ep31 = grid%ep31 + dx
grid%sp32 = grid%sp32 + dy
grid%ep32 = grid%ep32 + dy
grid%sd31 = grid%sd31 + dx
grid%ed31 = grid%ed31 + dx
grid%sd32 = grid%sd32 + dy
grid%ed32 = grid%ed32 + dy
CASE ( DATA_ORDER_YXZ )
grid%sm31 = grid%sm31 + dy
grid%em31 = grid%em31 + dy
grid%sm32 = grid%sm32 + dx
grid%em32 = grid%em32 + dx
grid%sp31 = grid%sp31 + dy
grid%ep31 = grid%ep31 + dy
grid%sp32 = grid%sp32 + dx
grid%ep32 = grid%ep32 + dx
grid%sd31 = grid%sd31 + dy
grid%ed31 = grid%ed31 + dy
grid%sd32 = grid%sd32 + dx
grid%ed32 = grid%ed32 + dx
CASE ( DATA_ORDER_ZXY )
grid%sm32 = grid%sm32 + dx
grid%em32 = grid%em32 + dx
grid%sm33 = grid%sm33 + dy
grid%em33 = grid%em33 + dy
grid%sp32 = grid%sp32 + dx
grid%ep32 = grid%ep32 + dx
grid%sp33 = grid%sp33 + dy
grid%ep33 = grid%ep33 + dy
grid%sd32 = grid%sd32 + dx
grid%ed32 = grid%ed32 + dx
grid%sd33 = grid%sd33 + dy
grid%ed33 = grid%ed33 + dy
CASE ( DATA_ORDER_ZYX )
grid%sm32 = grid%sm32 + dy
grid%em32 = grid%em32 + dy
grid%sm33 = grid%sm33 + dx
grid%em33 = grid%em33 + dx
grid%sp32 = grid%sp32 + dy
grid%ep32 = grid%ep32 + dy
grid%sp33 = grid%sp33 + dx
grid%ep33 = grid%ep33 + dx
grid%sd32 = grid%sd32 + dy
grid%ed32 = grid%ed32 + dy
grid%sd33 = grid%sd33 + dx
grid%ed33 = grid%ed33 + dx
CASE ( DATA_ORDER_XZY )
grid%sm31 = grid%sm31 + dx
grid%em31 = grid%em31 + dx
grid%sm33 = grid%sm33 + dy
grid%em33 = grid%em33 + dy
grid%sp31 = grid%sp31 + dx
grid%ep31 = grid%ep31 + dx
grid%sp33 = grid%sp33 + dy
grid%ep33 = grid%ep33 + dy
grid%sd31 = grid%sd31 + dx
grid%ed31 = grid%ed31 + dx
grid%sd33 = grid%sd33 + dy
grid%ed33 = grid%ed33 + dy
CASE ( DATA_ORDER_YZX )
grid%sm31 = grid%sm31 + dy
grid%em31 = grid%em31 + dy
grid%sm33 = grid%sm33 + dx
grid%em33 = grid%em33 + dx
grid%sp31 = grid%sp31 + dy
grid%ep31 = grid%ep31 + dy
grid%sp33 = grid%sp33 + dx
grid%ep33 = grid%ep33 + dx
grid%sd31 = grid%sd31 + dy
grid%ed31 = grid%ed31 + dy
grid%sd33 = grid%sd33 + dx
grid%ed33 = grid%ed33 + dx
END SELECT data_ordering
#if 0
CALL dealloc_space_field ( grid )
CALL alloc_space_field ( grid, grid%id , 1 , 2 , .FALSE. , &
grid%sd31, grid%ed31, grid%sd32, grid%ed32, grid%sd33, grid%ed33, &
grid%sm31, grid%em31, grid%sm32, grid%em32, grid%sm33, grid%em33, &
grid%sp31, grid%ep31, grid%sp32, grid%ep32, grid%sp33, grid%ep33, &
grid%sp31x, grid%ep31x, grid%sp32x, grid%ep32x, grid%sp33x, grid%ep33x, &
grid%sp31y, grid%ep31y, grid%sp32y, grid%ep32y, grid%sp33y, grid%ep33y, &
grid%sm31x, grid%em31x, grid%sm32x, grid%em32x, grid%sm33x, grid%em33x, & ! x-xpose
grid%sm31y, grid%em31y, grid%sm32y, grid%em32y, grid%sm33y, grid%em33y & ! y-xpose
)
#endif
RETURN
END SUBROUTINE adjust_domain_dims_for_move
#if 1
SUBROUTINE get_ijk_from_grid1 ( grid , &
ids, ide, jds, jde, kds, kde, &
ims, ime, jms, jme, kms, kme, &
ips, ipe, jps, jpe, kps, kpe, &
imsx, imex, jmsx, jmex, kmsx, kmex, &
ipsx, ipex, jpsx, jpex, kpsx, kpex, &
imsy, imey, jmsy, jmey, kmsy, kmey, &
ipsy, ipey, jpsy, jpey, kpsy, kpey )
IMPLICIT NONE
TYPE( domain ), INTENT (IN) :: grid
INTEGER, INTENT(OUT) :: &
ids, ide, jds, jde, kds, kde, &
ims, ime, jms, jme, kms, kme, &
ips, ipe, jps, jpe, kps, kpe, &
imsx, imex, jmsx, jmex, kmsx, kmex, &
ipsx, ipex, jpsx, jpex, kpsx, kpex, &
imsy, imey, jmsy, jmey, kmsy, kmey, &
ipsy, ipey, jpsy, jpey, kpsy, kpey
CALL get_ijk_from_grid2 ( grid , &
ids, ide, jds, jde, kds, kde, &
ims, ime, jms, jme, kms, kme, &
ips, ipe, jps, jpe, kps, kpe )
data_ordering : SELECT CASE ( model_data_order )
CASE ( DATA_ORDER_XYZ )
imsx = grid%sm31x ; imex = grid%em31x ; jmsx = grid%sm32x ; jmex = grid%em32x ; kmsx = grid%sm33x ; kmex = grid%em33x ;
ipsx = grid%sp31x ; ipex = grid%ep31x ; jpsx = grid%sp32x ; jpex = grid%ep32x ; kpsx = grid%sp33x ; kpex = grid%ep33x ;
imsy = grid%sm31y ; imey = grid%em31y ; jmsy = grid%sm32y ; jmey = grid%em32y ; kmsy = grid%sm33y ; kmey = grid%em33y ;
ipsy = grid%sp31y ; ipey = grid%ep31y ; jpsy = grid%sp32y ; jpey = grid%ep32y ; kpsy = grid%sp33y ; kpey = grid%ep33y ;
CASE ( DATA_ORDER_YXZ )
imsx = grid%sm32x ; imex = grid%em32x ; jmsx = grid%sm31x ; jmex = grid%em31x ; kmsx = grid%sm33x ; kmex = grid%em33x ;
ipsx = grid%sp32x ; ipex = grid%ep32x ; jpsx = grid%sp31x ; jpex = grid%ep31x ; kpsx = grid%sp33x ; kpex = grid%ep33x ;
imsy = grid%sm32y ; imey = grid%em32y ; jmsy = grid%sm31y ; jmey = grid%em31y ; kmsy = grid%sm33y ; kmey = grid%em33y ;
ipsy = grid%sp32y ; ipey = grid%ep32y ; jpsy = grid%sp31y ; jpey = grid%ep31y ; kpsy = grid%sp33y ; kpey = grid%ep33y ;
CASE ( DATA_ORDER_ZXY )
imsx = grid%sm32x ; imex = grid%em32x ; jmsx = grid%sm33x ; jmex = grid%em33x ; kmsx = grid%sm31x ; kmex = grid%em31x ;
ipsx = grid%sp32x ; ipex = grid%ep32x ; jpsx = grid%sp33x ; jpex = grid%ep33x ; kpsx = grid%sp31x ; kpex = grid%ep31x ;
imsy = grid%sm32y ; imey = grid%em32y ; jmsy = grid%sm33y ; jmey = grid%em33y ; kmsy = grid%sm31y ; kmey = grid%em31y ;
ipsy = grid%sp32y ; ipey = grid%ep32y ; jpsy = grid%sp33y ; jpey = grid%ep33y ; kpsy = grid%sp31y ; kpey = grid%ep31y ;
CASE ( DATA_ORDER_ZYX )
imsx = grid%sm33x ; imex = grid%em33x ; jmsx = grid%sm32x ; jmex = grid%em32x ; kmsx = grid%sm31x ; kmex = grid%em31x ;
ipsx = grid%sp33x ; ipex = grid%ep33x ; jpsx = grid%sp32x ; jpex = grid%ep32x ; kpsx = grid%sp31x ; kpex = grid%ep31x ;
imsy = grid%sm33y ; imey = grid%em33y ; jmsy = grid%sm32y ; jmey = grid%em32y ; kmsy = grid%sm31y ; kmey = grid%em31y ;
ipsy = grid%sp33y ; ipey = grid%ep33y ; jpsy = grid%sp32y ; jpey = grid%ep32y ; kpsy = grid%sp31y ; kpey = grid%ep31y ;
CASE ( DATA_ORDER_XZY )
imsx = grid%sm31x ; imex = grid%em31x ; jmsx = grid%sm33x ; jmex = grid%em33x ; kmsx = grid%sm32x ; kmex = grid%em32x ;
ipsx = grid%sp31x ; ipex = grid%ep31x ; jpsx = grid%sp33x ; jpex = grid%ep33x ; kpsx = grid%sp32x ; kpex = grid%ep32x ;
imsy = grid%sm31y ; imey = grid%em31y ; jmsy = grid%sm33y ; jmey = grid%em33y ; kmsy = grid%sm32y ; kmey = grid%em32y ;
ipsy = grid%sp31y ; ipey = grid%ep31y ; jpsy = grid%sp33y ; jpey = grid%ep33y ; kpsy = grid%sp32y ; kpey = grid%ep32y ;
CASE ( DATA_ORDER_YZX )
imsx = grid%sm33x ; imex = grid%em33x ; jmsx = grid%sm31x ; jmex = grid%em31x ; kmsx = grid%sm32x ; kmex = grid%em32x ;
ipsx = grid%sp33x ; ipex = grid%ep33x ; jpsx = grid%sp31x ; jpex = grid%ep31x ; kpsx = grid%sp32x ; kpex = grid%ep32x ;
imsy = grid%sm33y ; imey = grid%em33y ; jmsy = grid%sm31y ; jmey = grid%em31y ; kmsy = grid%sm32y ; kmey = grid%em32y ;
ipsy = grid%sp33y ; ipey = grid%ep33y ; jpsy = grid%sp31y ; jpey = grid%ep31y ; kpsy = grid%sp32y ; kpey = grid%ep32y ;
END SELECT data_ordering
END SUBROUTINE get_ijk_from_grid1
SUBROUTINE get_ijk_from_grid2 ( grid , &
ids, ide, jds, jde, kds, kde, &
ims, ime, jms, jme, kms, kme, &
ips, ipe, jps, jpe, kps, kpe )
IMPLICIT NONE
TYPE( domain ), INTENT (IN) :: grid
INTEGER, INTENT(OUT) :: &
ids, ide, jds, jde, kds, kde, &
ims, ime, jms, jme, kms, kme, &
ips, ipe, jps, jpe, kps, kpe
data_ordering : SELECT CASE ( model_data_order )
CASE ( DATA_ORDER_XYZ )
ids = grid%sd31 ; ide = grid%ed31 ; jds = grid%sd32 ; jde = grid%ed32 ; kds = grid%sd33 ; kde = grid%ed33 ;
ims = grid%sm31 ; ime = grid%em31 ; jms = grid%sm32 ; jme = grid%em32 ; kms = grid%sm33 ; kme = grid%em33 ;
ips = grid%sp31 ; ipe = grid%ep31 ; jps = grid%sp32 ; jpe = grid%ep32 ; kps = grid%sp33 ; kpe = grid%ep33 ;
CASE ( DATA_ORDER_YXZ )
ids = grid%sd32 ; ide = grid%ed32 ; jds = grid%sd31 ; jde = grid%ed31 ; kds = grid%sd33 ; kde = grid%ed33 ;
ims = grid%sm32 ; ime = grid%em32 ; jms = grid%sm31 ; jme = grid%em31 ; kms = grid%sm33 ; kme = grid%em33 ;
ips = grid%sp32 ; ipe = grid%ep32 ; jps = grid%sp31 ; jpe = grid%ep31 ; kps = grid%sp33 ; kpe = grid%ep33 ;
CASE ( DATA_ORDER_ZXY )
ids = grid%sd32 ; ide = grid%ed32 ; jds = grid%sd33 ; jde = grid%ed33 ; kds = grid%sd31 ; kde = grid%ed31 ;
ims = grid%sm32 ; ime = grid%em32 ; jms = grid%sm33 ; jme = grid%em33 ; kms = grid%sm31 ; kme = grid%em31 ;
ips = grid%sp32 ; ipe = grid%ep32 ; jps = grid%sp33 ; jpe = grid%ep33 ; kps = grid%sp31 ; kpe = grid%ep31 ;
CASE ( DATA_ORDER_ZYX )
ids = grid%sd33 ; ide = grid%ed33 ; jds = grid%sd32 ; jde = grid%ed32 ; kds = grid%sd31 ; kde = grid%ed31 ;
ims = grid%sm33 ; ime = grid%em33 ; jms = grid%sm32 ; jme = grid%em32 ; kms = grid%sm31 ; kme = grid%em31 ;
ips = grid%sp33 ; ipe = grid%ep33 ; jps = grid%sp32 ; jpe = grid%ep32 ; kps = grid%sp31 ; kpe = grid%ep31 ;
CASE ( DATA_ORDER_XZY )
ids = grid%sd31 ; ide = grid%ed31 ; jds = grid%sd33 ; jde = grid%ed33 ; kds = grid%sd32 ; kde = grid%ed32 ;
ims = grid%sm31 ; ime = grid%em31 ; jms = grid%sm33 ; jme = grid%em33 ; kms = grid%sm32 ; kme = grid%em32 ;
ips = grid%sp31 ; ipe = grid%ep31 ; jps = grid%sp33 ; jpe = grid%ep33 ; kps = grid%sp32 ; kpe = grid%ep32 ;
CASE ( DATA_ORDER_YZX )
ids = grid%sd33 ; ide = grid%ed33 ; jds = grid%sd31 ; jde = grid%ed31 ; kds = grid%sd32 ; kde = grid%ed32 ;
ims = grid%sm33 ; ime = grid%em33 ; jms = grid%sm31 ; jme = grid%em31 ; kms = grid%sm32 ; kme = grid%em32 ;
ips = grid%sp33 ; ipe = grid%ep33 ; jps = grid%sp31 ; jpe = grid%ep31 ; kps = grid%sp32 ; kpe = grid%ep32 ;
END SELECT data_ordering
END SUBROUTINE get_ijk_from_grid2
! return the values for subgrid whose refinement is in grid%sr
! note when using this routine, it does not affect K. For K
! (vertical), it just returns what get_ijk_from_grid does
SUBROUTINE get_ijk_from_subgrid ( grid , &
ids0, ide0, jds0, jde0, kds0, kde0, &
ims0, ime0, jms0, jme0, kms0, kme0, &
ips0, ipe0, jps0, jpe0, kps0, kpe0 )
TYPE( domain ), INTENT (IN) :: grid
INTEGER, INTENT(OUT) :: &
ids0, ide0, jds0, jde0, kds0, kde0, &
ims0, ime0, jms0, jme0, kms0, kme0, &
ips0, ipe0, jps0, jpe0, kps0, kpe0
! Local
INTEGER :: &
ids, ide, jds, jde, kds, kde, &
ims, ime, jms, jme, kms, kme, &
ips, ipe, jps, jpe, kps, kpe
CALL get_ijk_from_grid ( grid , &
ids, ide, jds, jde, kds, kde, &
ims, ime, jms, jme, kms, kme, &
ips, ipe, jps, jpe, kps, kpe )
ids0 = ids
ide0 = ide * grid%sr_x
ims0 = (ims-1)*grid%sr_x+1
ime0 = ime * grid%sr_x
ips0 = (ips-1)*grid%sr_x+1
ipe0 = ipe * grid%sr_x
jds0 = jds
jde0 = jde * grid%sr_y
jms0 = (jms-1)*grid%sr_y+1
jme0 = jme * grid%sr_y
jps0 = (jps-1)*grid%sr_y+1
jpe0 = jpe * grid%sr_y
kds0 = kds
kde0 = kde
kms0 = kms
kme0 = kme
kps0 = kps
kpe0 = kpe
RETURN
END SUBROUTINE get_ijk_from_subgrid
#endif
! Default version ; Otherwise module containing interface to DM library will provide
SUBROUTINE wrf_patch_domain( id , domdesc , parent, parent_id , parent_domdesc , &
sd1 , ed1 , sp1 , ep1 , sm1 , em1 , &
sd2 , ed2 , sp2 , ep2 , sm2 , em2 , &
sd3 , ed3 , sp3 , ep3 , sm3 , em3 , &
sp1x , ep1x , sm1x , em1x , &
sp2x , ep2x , sm2x , em2x , &
sp3x , ep3x , sm3x , em3x , &
sp1y , ep1y , sm1y , em1y , &
sp2y , ep2y , sm2y , em2y , &
sp3y , ep3y , sm3y , em3y , &
bdx , bdy , bdy_mask )
!<DESCRIPTION>
! Wrf_patch_domain is called as part of the process of initiating a new
! domain. Based on the global domain dimension information that is
! passed in it computes the patch and memory dimensions on this
! distributed-memory process for parallel compilation when DM_PARALLEL is
! defined in configure.wrf. In this case, it relies on an external
! communications package-contributed routine, wrf_dm_patch_domain. For
! non-parallel compiles, it returns the patch and memory dimensions based
! on the entire domain. In either case, the memory dimensions will be
! larger than the patch dimensions, since they allow for distributed
! memory halo regions (DM_PARALLEL only) and for boundary regions around
! the domain (used for idealized cases only). The width of the boundary
! regions to be accommodated is passed in as bdx and bdy.
!
! The bdy_mask argument is a four-dimensional logical array, each element
! of which is set to true for any boundaries that this process's patch
! contains (all four are true in the non-DM_PARALLEL case) and false
! otherwise. The indices into the bdy_mask are defined in
! frame/module_state_description.F. P_XSB corresponds boundary that
! exists at the beginning of the X-dimension; ie. the western boundary;
! P_XEB to the boundary that corresponds to the end of the X-dimension
! (east). Likewise for Y (south and north respectively).
!
! The correspondence of the first, second, and third dimension of each
! set (domain, memory, and patch) with the coordinate axes of the model
! domain is based on the setting of the variable model_data_order, which
! comes into this routine through USE association of
! module_driver_constants in the enclosing module of this routine,
! module_domain. Model_data_order is defined by the Registry, based on
! the dimspec entries which associate dimension specifiers (e.g. 'k') in
! the Registry with a coordinate axis and specify which dimension of the
! arrays they represent. For WRF, the sd1 , ed1 , sp1 , ep1 , sm1 , and
! em1 correspond to the starts and ends of the global, patch, and memory
! dimensions in X; those with 2 specify Z (vertical); and those with 3
! specify Y. Note that the WRF convention is to overdimension to allow
! for staggered fields so that sd<em>n</em>:ed<em>n</em> are the starts
! and ends of the staggered domains in X. The non-staggered grid runs
! sd<em>n</em>:ed<em>n</em>-1. The extra row or column on the north or
! east boundaries is not used for non-staggered fields.
!
! The domdesc and parent_domdesc arguments are for external communication
! packages (e.g. RSL) that establish and return to WRF integer handles
! for referring to operations on domains. These descriptors are not set
! or used otherwise and they are opaque, which means they are never
! accessed or modified in WRF; they are only only passed between calls to
! the external package.
!</DESCRIPTION>
USE module_machine
IMPLICIT NONE
LOGICAL, DIMENSION(4), INTENT(OUT) :: bdy_mask
INTEGER, INTENT(IN) :: sd1 , ed1 , sd2 , ed2 , sd3 , ed3 , bdx , bdy
INTEGER, INTENT(OUT) :: sp1 , ep1 , sp2 , ep2 , sp3 , ep3 , & ! z-xpose (std)
sm1 , em1 , sm2 , em2 , sm3 , em3
INTEGER, INTENT(OUT) :: sp1x , ep1x , sp2x , ep2x , sp3x , ep3x , & ! x-xpose
sm1x , em1x , sm2x , em2x , sm3x , em3x
INTEGER, INTENT(OUT) :: sp1y , ep1y , sp2y , ep2y , sp3y , ep3y , & ! y-xpose
sm1y , em1y , sm2y , em2y , sm3y , em3y
INTEGER, INTENT(IN) :: id , parent_id , parent_domdesc
INTEGER, INTENT(INOUT) :: domdesc
TYPE(domain), POINTER :: parent
!local data
INTEGER spec_bdy_width
CALL nl_get_spec_bdy_width( 1, spec_bdy_width )
#ifndef DM_PARALLEL
bdy_mask = .true. ! only one processor so all 4 boundaries are there
! this is a trivial version -- 1 patch per processor;
! use version in module_dm to compute for DM
sp1 = sd1 ; sp2 = sd2 ; sp3 = sd3
ep1 = ed1 ; ep2 = ed2 ; ep3 = ed3
SELECT CASE ( model_data_order )
CASE ( DATA_ORDER_XYZ )
sm1 = sp1 - bdx ; em1 = ep1 + bdx
sm2 = sp2 - bdy ; em2 = ep2 + bdy
sm3 = sp3 ; em3 = ep3
CASE ( DATA_ORDER_YXZ )
sm1 = sp1 - bdy ; em1 = ep1 + bdy
sm2 = sp2 - bdx ; em2 = ep2 + bdx
sm3 = sp3 ; em3 = ep3
CASE ( DATA_ORDER_ZXY )
sm1 = sp1 ; em1 = ep1
sm2 = sp2 - bdx ; em2 = ep2 + bdx
sm3 = sp3 - bdy ; em3 = ep3 + bdy
CASE ( DATA_ORDER_ZYX )
sm1 = sp1 ; em1 = ep1
sm2 = sp2 - bdy ; em2 = ep2 + bdy
sm3 = sp3 - bdx ; em3 = ep3 + bdx
CASE ( DATA_ORDER_XZY )
sm1 = sp1 - bdx ; em1 = ep1 + bdx
sm2 = sp2 ; em2 = ep2
sm3 = sp3 - bdy ; em3 = ep3 + bdy
CASE ( DATA_ORDER_YZX )
sm1 = sp1 - bdy ; em1 = ep1 + bdy
sm2 = sp2 ; em2 = ep2
sm3 = sp3 - bdx ; em3 = ep3 + bdx
END SELECT
sm1x = sm1 ; em1x = em1 ! just copy
sm2x = sm2 ; em2x = em2
sm3x = sm3 ; em3x = em3
sm1y = sm1 ; em1y = em1 ! just copy
sm2y = sm2 ; em2y = em2
sm3y = sm3 ; em3y = em3
! assigns mostly just to suppress warning messages that INTENT OUT vars not assigned
sp1x = sp1 ; ep1x = ep1 ; sp2x = sp2 ; ep2x = ep2 ; sp3x = sp3 ; ep3x = ep3
sp1y = sp1 ; ep1y = ep1 ; sp2y = sp2 ; ep2y = ep2 ; sp3y = sp3 ; ep3y = ep3
#else
! This is supplied by the package specific version of module_dm, which
! is supplied by the external package and copied into the src directory
! when the code is compiled. The cp command will be found in the externals
! target of the configure.wrf file for this architecture. Eg: for RSL
! routine is defined in external/RSL/module_dm.F .
! Note, it would be very nice to be able to pass parent to this routine;
! however, there doesn't seem to be a way to do that in F90. That is because
! to pass a pointer to a domain structure, this call requires an interface
! definition for wrf_dm_patch_domain (otherwise it will try to convert the
! pointer to something). In order to provide an interface definition, we
! would need to either USE module_dm or use an interface block. In either
! case it generates a circular USE reference, since module_dm uses
! module_domain. JM 20020416
CALL wrf_dm_patch_domain( id , domdesc , parent_id , parent_domdesc , &
sd1 , ed1 , sp1 , ep1 , sm1 , em1 , &
sd2 , ed2 , sp2 , ep2 , sm2 , em2 , &
sd3 , ed3 , sp3 , ep3 , sm3 , em3 , &
sp1x , ep1x , sm1x , em1x , &
sp2x , ep2x , sm2x , em2x , &
sp3x , ep3x , sm3x , em3x , &
sp1y , ep1y , sm1y , em1y , &
sp2y , ep2y , sm2y , em2y , &
sp3y , ep3y , sm3y , em3y , &
bdx , bdy )
SELECT CASE ( model_data_order )
CASE ( DATA_ORDER_XYZ )
bdy_mask( P_XSB ) = ( sd1 <= sp1 .AND. sp1 <= sd1+spec_bdy_width-1 )
bdy_mask( P_YSB ) = ( sd2 <= sp2 .AND. sp2 <= sd2+spec_bdy_width-1 )
bdy_mask( P_XEB ) = ( ed1-spec_bdy_width-1 <= ep1 .AND. ep1 <= ed1 )
bdy_mask( P_YEB ) = ( ed2-spec_bdy_width-1 <= ep2 .AND. ep2 <= ed2 )
CASE ( DATA_ORDER_YXZ )
bdy_mask( P_XSB ) = ( sd2 <= sp2 .AND. sp2 <= sd2+spec_bdy_width-1 )
bdy_mask( P_YSB ) = ( sd1 <= sp1 .AND. sp1 <= sd1+spec_bdy_width-1 )
bdy_mask( P_XEB ) = ( ed2-spec_bdy_width-1 <= ep2 .AND. ep2 <= ed2 )
bdy_mask( P_YEB ) = ( ed1-spec_bdy_width-1 <= ep1 .AND. ep1 <= ed1 )
CASE ( DATA_ORDER_ZXY )
bdy_mask( P_XSB ) = ( sd2 <= sp2 .AND. sp2 <= sd2+spec_bdy_width-1 )
bdy_mask( P_YSB ) = ( sd3 <= sp3 .AND. sp3 <= sd3+spec_bdy_width-1 )
bdy_mask( P_XEB ) = ( ed2-spec_bdy_width-1 <= ep2 .AND. ep2 <= ed2 )
bdy_mask( P_YEB ) = ( ed3-spec_bdy_width-1 <= ep3 .AND. ep3 <= ed3 )
CASE ( DATA_ORDER_ZYX )
bdy_mask( P_XSB ) = ( sd3 <= sp3 .AND. sp3 <= sd3+spec_bdy_width-1 )
bdy_mask( P_YSB ) = ( sd2 <= sp2 .AND. sp2 <= sd2+spec_bdy_width-1 )
bdy_mask( P_XEB ) = ( ed3-spec_bdy_width-1 <= ep3 .AND. ep3 <= ed3 )
bdy_mask( P_YEB ) = ( ed2-spec_bdy_width-1 <= ep2 .AND. ep2 <= ed2 )
CASE ( DATA_ORDER_XZY )
bdy_mask( P_XSB ) = ( sd1 <= sp1 .AND. sp1 <= sd1+spec_bdy_width-1 )
bdy_mask( P_YSB ) = ( sd3 <= sp3 .AND. sp3 <= sd3+spec_bdy_width-1 )
bdy_mask( P_XEB ) = ( ed1-spec_bdy_width-1 <= ep1 .AND. ep1 <= ed1 )
bdy_mask( P_YEB ) = ( ed3-spec_bdy_width-1 <= ep3 .AND. ep3 <= ed3 )
CASE ( DATA_ORDER_YZX )
bdy_mask( P_XSB ) = ( sd3 <= sp3 .AND. sp3 <= sd3+spec_bdy_width-1 )
bdy_mask( P_YSB ) = ( sd1 <= sp1 .AND. sp1 <= sd1+spec_bdy_width-1 )
bdy_mask( P_XEB ) = ( ed3-spec_bdy_width-1 <= ep3 .AND. ep3 <= ed3 )
bdy_mask( P_YEB ) = ( ed1-spec_bdy_width-1 <= ep1 .AND. ep1 <= ed1 )
END SELECT
#endif
RETURN
END SUBROUTINE wrf_patch_domain
!
SUBROUTINE alloc_and_configure_domain ( domain_id , active_this_task, grid , parent, kid )
!<DESCRIPTION>
! This subroutine is used to allocate a domain data structure of
! TYPE(DOMAIN) pointed to by the argument <em>grid</em>, link it into the
! nested domain hierarchy, and set it's configuration information from
! the appropriate settings in the WRF namelist file. Specifically, if the
! domain being allocated and configured is nest, the <em>parent</em>
! argument will point to the already existing domain data structure for
! the parent domain and the <em>kid</em> argument will be set to an
! integer indicating which child of the parent this grid will be (child
! indices start at 1). If this is the top-level domain, the parent and
! kid arguments are ignored. <b>WRF domains may have multiple children
! but only ever have one parent.</b>
!
! The <em>domain_id</em> argument is the
! integer handle by which this new domain will be referred; it comes from
! the grid_id setting in the namelist, and these grid ids correspond to
! the ordering of settings in the namelist, starting with 1 for the
! top-level domain. The id of 1 always corresponds to the top-level
! domain. and these grid ids correspond to the ordering of settings in
! the namelist, starting with 1 for the top-level domain.
!
! Model_data_order is provide by USE association of
! module_driver_constants and is set from dimspec entries in the
! Registry.
!
! The allocation of the TYPE(DOMAIN) itself occurs in this routine.
! However, the numerous multi-dimensional arrays that make up the members
! of the domain are allocated in the call to alloc_space_field, after
! wrf_patch_domain has been called to determine the dimensions in memory
! that should be allocated. It bears noting here that arrays and code
! that indexes these arrays are always global, regardless of how the
! model is decomposed over patches. Thus, when arrays are allocated on a
! given process, the start and end of an array dimension are the global
! indices of the start and end of that process's subdomain.
!
! Configuration information for the domain (that is, information from the
! namelist) is added by the call to <a href=med_add_config_info_to_grid.html>med_add_config_info_to_grid</a>, defined
! in share/mediation_wrfmain.F.
!</DESCRIPTION>
IMPLICIT NONE
! Input data.
INTEGER , INTENT(IN) :: domain_id
LOGICAL , OPTIONAL, INTENT(IN) :: active_this_task ! false if domain is being handled by other MPI tasks
TYPE( domain ) , POINTER :: grid
TYPE( domain ) , POINTER :: parent
INTEGER , INTENT(IN) :: kid ! which kid of parent am I?
! Local data.
INTEGER :: sd1 , ed1 , sp1 , ep1 , sm1 , em1
INTEGER :: sd2 , ed2 , sp2 , ep2 , sm2 , em2
INTEGER :: sd3 , ed3 , sp3 , ep3 , sm3 , em3
INTEGER :: sd1x , ed1x , sp1x , ep1x , sm1x , em1x
INTEGER :: sd2x , ed2x , sp2x , ep2x , sm2x , em2x
INTEGER :: sd3x , ed3x , sp3x , ep3x , sm3x , em3x
INTEGER :: sd1y , ed1y , sp1y , ep1y , sm1y , em1y
INTEGER :: sd2y , ed2y , sp2y , ep2y , sm2y , em2y
INTEGER :: sd3y , ed3y , sp3y , ep3y , sm3y , em3y
TYPE(domain) , POINTER :: new_grid
INTEGER :: i
INTEGER :: parent_id , parent_domdesc , new_domdesc
INTEGER :: bdyzone_x , bdyzone_y
INTEGER :: nx, ny
LOGICAL :: active
!
active = .TRUE.
IF ( PRESENT( active_this_task ) ) THEN
active = active_this_task
ENDIF
! This next step uses information that is listed in the registry as namelist_derived
! to properly size the domain and the patches; this in turn is stored in the new_grid
! data structure
data_ordering : SELECT CASE ( model_data_order )
CASE ( DATA_ORDER_XYZ )
CALL nl_get_s_we( domain_id , sd1 )
CALL nl_get_e_we( domain_id , ed1 )
CALL nl_get_s_sn( domain_id , sd2 )
CALL nl_get_e_sn( domain_id , ed2 )
CALL nl_get_s_vert( domain_id , sd3 )
CALL nl_get_e_vert( domain_id , ed3 )
nx = ed1-sd1+1
ny = ed2-sd2+1
CASE ( DATA_ORDER_YXZ )
CALL nl_get_s_sn( domain_id , sd1 )
CALL nl_get_e_sn( domain_id , ed1 )
CALL nl_get_s_we( domain_id , sd2 )
CALL nl_get_e_we( domain_id , ed2 )
CALL nl_get_s_vert( domain_id , sd3 )
CALL nl_get_e_vert( domain_id , ed3 )
nx = ed2-sd2+1
ny = ed1-sd1+1
CASE ( DATA_ORDER_ZXY )
CALL nl_get_s_vert( domain_id , sd1 )
CALL nl_get_e_vert( domain_id , ed1 )
CALL nl_get_s_we( domain_id , sd2 )
CALL nl_get_e_we( domain_id , ed2 )
CALL nl_get_s_sn( domain_id , sd3 )
CALL nl_get_e_sn( domain_id , ed3 )
nx = ed2-sd2+1
ny = ed3-sd3+1
CASE ( DATA_ORDER_ZYX )
CALL nl_get_s_vert( domain_id , sd1 )
CALL nl_get_e_vert( domain_id , ed1 )
CALL nl_get_s_sn( domain_id , sd2 )
CALL nl_get_e_sn( domain_id , ed2 )
CALL nl_get_s_we( domain_id , sd3 )
CALL nl_get_e_we( domain_id , ed3 )
nx = ed3-sd3+1
ny = ed2-sd2+1
CASE ( DATA_ORDER_XZY )
CALL nl_get_s_we( domain_id , sd1 )
CALL nl_get_e_we( domain_id , ed1 )
CALL nl_get_s_vert( domain_id , sd2 )
CALL nl_get_e_vert( domain_id , ed2 )
CALL nl_get_s_sn( domain_id , sd3 )
CALL nl_get_e_sn( domain_id , ed3 )
nx = ed1-sd1+1
ny = ed3-sd3+1
CASE ( DATA_ORDER_YZX )
CALL nl_get_s_sn( domain_id , sd1 )
CALL nl_get_e_sn( domain_id , ed1 )
CALL nl_get_s_vert( domain_id , sd2 )
CALL nl_get_e_vert( domain_id , ed2 )
CALL nl_get_s_we( domain_id , sd3 )
CALL nl_get_e_we( domain_id , ed3 )
nx = ed3-sd3+1
ny = ed1-sd1+1
END SELECT data_ordering
IF ( num_time_levels > 3 ) THEN
WRITE ( wrf_err_message , * ) 'alloc_and_configure_domain: ', &
'Incorrect value for num_time_levels ', num_time_levels
CALL wrf_error_fatal ( TRIM ( wrf_err_message ) )
ENDIF
IF (ASSOCIATED(parent)) THEN
parent_id = parent%id
parent_domdesc = parent%domdesc
ELSE
parent_id = -1
parent_domdesc = -1
ENDIF
! provided by application, WRF defines in share/module_bc.F
CALL get_bdyzone_x( bdyzone_x )
CALL get_bdyzone_y( bdyzone_y )
ALLOCATE ( new_grid )
ALLOCATE( new_grid%head_statevars )
new_grid%head_statevars%Ndim = 0
NULLIFY( new_grid%head_statevars%next)
new_grid%tail_statevars => new_grid%head_statevars
ALLOCATE ( new_grid%parents( max_parents ) )
ALLOCATE ( new_grid%nests( max_nests ) )
NULLIFY( new_grid%sibling )
DO i = 1, max_nests
NULLIFY( new_grid%nests(i)%ptr )
ENDDO
NULLIFY (new_grid%next)
NULLIFY (new_grid%same_level)
NULLIFY (new_grid%i_start)
NULLIFY (new_grid%j_start)
NULLIFY (new_grid%i_end)
NULLIFY (new_grid%j_end)
ALLOCATE( new_grid%domain_clock )
new_grid%domain_clock_created = .FALSE.
ALLOCATE( new_grid%alarms( MAX_WRF_ALARMS ) ) ! initialize in setup_timekeeping
ALLOCATE( new_grid%alarms_created( MAX_WRF_ALARMS ) )
DO i = 1, MAX_WRF_ALARMS
new_grid%alarms_created( i ) = .FALSE.
ENDDO
new_grid%time_set = .FALSE.
new_grid%is_intermediate = .FALSE.
new_grid%have_displayed_alloc_stats = .FALSE.
new_grid%tiling_latch = .FALSE. ! 20121003
! set up the pointers that represent the nest hierarchy
! set this up *prior* to calling the patching or allocation
! routines so that implementations of these routines can
! traverse the nest hierarchy (through the root head_grid)
! if they need to
IF ( domain_id .NE. 1 ) THEN
new_grid%parents(1)%ptr => parent
new_grid%num_parents = 1
parent%nests(kid)%ptr => new_grid
new_grid%child_of_parent(1) = kid ! note assumption that nest can have only 1 parent
parent%num_nests = parent%num_nests + 1
END IF
new_grid%id = domain_id ! this needs to be assigned prior to calling wrf_patch_domain
new_grid%active_this_task = active
CALL wrf_patch_domain( domain_id , new_domdesc , parent, parent_id, parent_domdesc , &
sd1 , ed1 , sp1 , ep1 , sm1 , em1 , & ! z-xpose dims
sd2 , ed2 , sp2 , ep2 , sm2 , em2 , & ! (standard)
sd3 , ed3 , sp3 , ep3 , sm3 , em3 , &
sp1x , ep1x , sm1x , em1x , & ! x-xpose dims
sp2x , ep2x , sm2x , em2x , &
sp3x , ep3x , sm3x , em3x , &
sp1y , ep1y , sm1y , em1y , & ! y-xpose dims
sp2y , ep2y , sm2y , em2y , &
sp3y , ep3y , sm3y , em3y , &
bdyzone_x , bdyzone_y , new_grid%bdy_mask &
)
new_grid%domdesc = new_domdesc
new_grid%num_nests = 0
new_grid%num_siblings = 0
new_grid%num_parents = 0
new_grid%max_tiles = 0
new_grid%num_tiles_spec = 0
new_grid%nframes = 0 ! initialize the number of frames per file (array assignment)
!BPR BEGIN
!#if (EM_CORE == 1)
! new_grid%stepping_to_time = .FALSE.
! new_grid%adaptation_domain = 1
! new_grid%last_step_updated = -1
!#endif
!BPR BEGIN
! IF (active) THEN
! only allocate state if this set of tasks actually computes that domain, jm 20140822
new_grid%active_this_task = active
CALL alloc_space_field ( new_grid, domain_id , 3 , 3 , .FALSE. , active, &
sd1, ed1, sd2, ed2, sd3, ed3, &
sm1, em1, sm2, em2, sm3, em3, &
sp1, ep1, sp2, ep2, sp3, ep3, &
sp1x, ep1x, sp2x, ep2x, sp3x, ep3x, &
sp1y, ep1y, sp2y, ep2y, sp3y, ep3y, &
sm1x, em1x, sm2x, em2x, sm3x, em3x, & ! x-xpose
sm1y, em1y, sm2y, em2y, sm3y, em3y & ! y-xpose
)
! ELSE
! WRITE (wrf_err_message,*)"Not allocating storage for domain ",domain_id," on this set of tasks"
! CALL wrf_message(TRIM(wrf_err_message))
! ENDIF
!BPR BEGIN
#if (EM_CORE == 1)
!Set these here, after alloc_space_field, which initializes at least last_step_updated to zero
new_grid%stepping_to_time = .FALSE.
new_grid%adaptation_domain = 1
new_grid%last_step_updated = -1
#endif
!BPR END
#if MOVE_NESTS
!set these here, after alloc_space_field, which initializes vc_i, vc_j to zero
new_grid%xi = -1.0
new_grid%xj = -1.0
new_grid%vc_i = -1.0
new_grid%vc_j = -1.0
#endif
new_grid%sd31 = sd1
new_grid%ed31 = ed1
new_grid%sp31 = sp1
new_grid%ep31 = ep1
new_grid%sm31 = sm1
new_grid%em31 = em1
new_grid%sd32 = sd2
new_grid%ed32 = ed2
new_grid%sp32 = sp2
new_grid%ep32 = ep2
new_grid%sm32 = sm2
new_grid%em32 = em2
new_grid%sd33 = sd3
new_grid%ed33 = ed3
new_grid%sp33 = sp3
new_grid%ep33 = ep3
new_grid%sm33 = sm3
new_grid%em33 = em3
new_grid%sp31x = sp1x
new_grid%ep31x = ep1x
new_grid%sm31x = sm1x
new_grid%em31x = em1x
new_grid%sp32x = sp2x
new_grid%ep32x = ep2x
new_grid%sm32x = sm2x
new_grid%em32x = em2x
new_grid%sp33x = sp3x
new_grid%ep33x = ep3x
new_grid%sm33x = sm3x
new_grid%em33x = em3x
new_grid%sp31y = sp1y
new_grid%ep31y = ep1y
new_grid%sm31y = sm1y
new_grid%em31y = em1y
new_grid%sp32y = sp2y
new_grid%ep32y = ep2y
new_grid%sm32y = sm2y
new_grid%em32y = em2y
new_grid%sp33y = sp3y
new_grid%ep33y = ep3y
new_grid%sm33y = sm3y
new_grid%em33y = em3y
SELECT CASE ( model_data_order )
CASE ( DATA_ORDER_XYZ )
new_grid%sd21 = sd1 ; new_grid%sd22 = sd2 ;
new_grid%ed21 = ed1 ; new_grid%ed22 = ed2 ;
new_grid%sp21 = sp1 ; new_grid%sp22 = sp2 ;
new_grid%ep21 = ep1 ; new_grid%ep22 = ep2 ;
new_grid%sm21 = sm1 ; new_grid%sm22 = sm2 ;
new_grid%em21 = em1 ; new_grid%em22 = em2 ;
new_grid%sd11 = sd1
new_grid%ed11 = ed1
new_grid%sp11 = sp1
new_grid%ep11 = ep1
new_grid%sm11 = sm1
new_grid%em11 = em1
CASE ( DATA_ORDER_YXZ )
new_grid%sd21 = sd1 ; new_grid%sd22 = sd2 ;
new_grid%ed21 = ed1 ; new_grid%ed22 = ed2 ;
new_grid%sp21 = sp1 ; new_grid%sp22 = sp2 ;
new_grid%ep21 = ep1 ; new_grid%ep22 = ep2 ;
new_grid%sm21 = sm1 ; new_grid%sm22 = sm2 ;
new_grid%em21 = em1 ; new_grid%em22 = em2 ;
new_grid%sd11 = sd1
new_grid%ed11 = ed1
new_grid%sp11 = sp1
new_grid%ep11 = ep1
new_grid%sm11 = sm1
new_grid%em11 = em1
CASE ( DATA_ORDER_ZXY )
new_grid%sd21 = sd2 ; new_grid%sd22 = sd3 ;
new_grid%ed21 = ed2 ; new_grid%ed22 = ed3 ;
new_grid%sp21 = sp2 ; new_grid%sp22 = sp3 ;
new_grid%ep21 = ep2 ; new_grid%ep22 = ep3 ;
new_grid%sm21 = sm2 ; new_grid%sm22 = sm3 ;
new_grid%em21 = em2 ; new_grid%em22 = em3 ;
new_grid%sd11 = sd2
new_grid%ed11 = ed2
new_grid%sp11 = sp2
new_grid%ep11 = ep2
new_grid%sm11 = sm2
new_grid%em11 = em2
CASE ( DATA_ORDER_ZYX )
new_grid%sd21 = sd2 ; new_grid%sd22 = sd3 ;
new_grid%ed21 = ed2 ; new_grid%ed22 = ed3 ;
new_grid%sp21 = sp2 ; new_grid%sp22 = sp3 ;
new_grid%ep21 = ep2 ; new_grid%ep22 = ep3 ;
new_grid%sm21 = sm2 ; new_grid%sm22 = sm3 ;
new_grid%em21 = em2 ; new_grid%em22 = em3 ;
new_grid%sd11 = sd2
new_grid%ed11 = ed2
new_grid%sp11 = sp2
new_grid%ep11 = ep2
new_grid%sm11 = sm2
new_grid%em11 = em2
CASE ( DATA_ORDER_XZY )
new_grid%sd21 = sd1 ; new_grid%sd22 = sd3 ;
new_grid%ed21 = ed1 ; new_grid%ed22 = ed3 ;
new_grid%sp21 = sp1 ; new_grid%sp22 = sp3 ;
new_grid%ep21 = ep1 ; new_grid%ep22 = ep3 ;
new_grid%sm21 = sm1 ; new_grid%sm22 = sm3 ;
new_grid%em21 = em1 ; new_grid%em22 = em3 ;
new_grid%sd11 = sd1
new_grid%ed11 = ed1
new_grid%sp11 = sp1
new_grid%ep11 = ep1
new_grid%sm11 = sm1
new_grid%em11 = em1
CASE ( DATA_ORDER_YZX )
new_grid%sd21 = sd1 ; new_grid%sd22 = sd3 ;
new_grid%ed21 = ed1 ; new_grid%ed22 = ed3 ;
new_grid%sp21 = sp1 ; new_grid%sp22 = sp3 ;
new_grid%ep21 = ep1 ; new_grid%ep22 = ep3 ;
new_grid%sm21 = sm1 ; new_grid%sm22 = sm3 ;
new_grid%em21 = em1 ; new_grid%em22 = em3 ;
new_grid%sd11 = sd1
new_grid%ed11 = ed1
new_grid%sp11 = sp1
new_grid%ep11 = ep1
new_grid%sm11 = sm1
new_grid%em11 = em1
END SELECT
CALL med_add_config_info_to_grid ( new_grid ) ! this is a mediation layer routine
! Some miscellaneous state that is in the Registry but not namelist data
new_grid%tiled = .false.
new_grid%patched = .false.
NULLIFY(new_grid%mapping)
! This next set of includes causes all but the namelist_derived variables to be
! properly assigned to the new_grid record
grid => new_grid
!debug write(0,*)__FILE__,__LINE__,'grid%mvnest ',grid%mvnest
!debug write(0,*)__FILE__,__LINE__,'grid%mvnest ',grid%mvnest
IF ( grid%active_this_task ) THEN
! Allocate storage for time series metadata
ALLOCATE( grid%lattsloc( grid%max_ts_locs ) )
ALLOCATE( grid%lontsloc( grid%max_ts_locs ) )
ALLOCATE( grid%nametsloc( grid%max_ts_locs ) )
ALLOCATE( grid%desctsloc( grid%max_ts_locs ) )
ALLOCATE( grid%itsloc( grid%max_ts_locs ) )
ALLOCATE( grid%jtsloc( grid%max_ts_locs ) )
ALLOCATE( grid%id_tsloc( grid%max_ts_locs ) )
ALLOCATE( grid%ts_filename( grid%max_ts_locs ) )
grid%ntsloc = 0
grid%ntsloc_domain = 0
#if (EM_CORE == 1)
! Allocate storage for track metadata
ALLOCATE( grid%track_time_in( grid%track_loc_in ) )
ALLOCATE( grid%track_lat_in( grid%track_loc_in ) )
ALLOCATE( grid%track_lon_in( grid%track_loc_in ) )
ALLOCATE( grid%track_time_domain( grid%track_loc_in ) )
ALLOCATE( grid%track_lat_domain( grid%track_loc_in ) )
ALLOCATE( grid%track_lon_domain( grid%track_loc_in ) )
ALLOCATE( grid%track_i( grid%track_loc_in ) )
ALLOCATE( grid%track_j( grid%track_loc_in ) )
grid%track_loc = 0
grid%track_loc_domain = 0
grid%track_have_calculated = .FALSE.
grid%track_have_input = .FALSE.
#endif
ELSE
WRITE (wrf_err_message,*)"Not allocating time series storage for domain ",domain_id," on this set of tasks"
CALL wrf_message(TRIM(wrf_err_message))
ENDIF
!debug write(0,*)__FILE__,__LINE__,'grid%mvnest ',grid%mvnest
#ifdef DM_PARALLEL
CALL wrf_get_dm_communicator_for_id( grid%id, grid%communicator )
CALL wrf_dm_define_comms( grid )
#endif
grid%interp_mp = .true.
END SUBROUTINE alloc_and_configure_domain
SUBROUTINE get_fieldstr(ix,c,instr,outstr,noutstr,noerr)
IMPLICIT NONE
INTEGER, INTENT(IN) :: ix
CHARACTER*(*), INTENT(IN) :: c
CHARACTER*(*), INTENT(IN) :: instr
CHARACTER*(*), INTENT(OUT) :: outstr
INTEGER, INTENT(IN) :: noutstr ! length of outstr
LOGICAL, INTENT(INOUT) :: noerr ! status
!local
INTEGER, PARAMETER :: MAX_DEXES = 1000
INTEGER I, PREV, IDEX
INTEGER DEXES(MAX_DEXES)