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FV3GFS_io.F90
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FV3GFS_io.F90
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module FV3GFS_io_mod
!-----------------------------------------------------------------------
! gfs_physics_driver_mod defines the GFS physics routines used by
! the GFDL FMS system to obtain tendencies and boundary fluxes due
! to the physical parameterizations and processes that drive
! atmospheric time tendencies for use by other components, namely
! the atmospheric dynamical core.
!
! NOTE: This module currently supports only the operational GFS
! parameterizations as of September 2015. Further development
! is needed to support the full suite of physical
! parameterizations present in the GFS physics package.
!-----------------------------------------------------------------------
!
!--- FMS/GFDL modules
use block_control_mod, only: block_control_type
use mpp_mod, only: mpp_error, mpp_pe, mpp_root_pe, &
mpp_chksum, NOTE, FATAL, mpp_get_current_pelist_name
use mpp_domains_mod, only: domain2d, mpp_get_compute_domain
use fms_mod, only: stdout
use fms2_io_mod, only: FmsNetcdfDomainFile_t, unlimited, &
open_file, close_file, register_field, &
register_axis, register_restart_field, &
register_variable_attribute, &
read_restart, write_restart, &
get_global_io_domain_indices, &
dimension_exists, write_data
use time_manager_mod, only: time_type
use data_override_mod, only: data_override
use diag_manager_mod, only: register_diag_field, send_data
use fv_mp_mod, only: is_master, mp_reduce_sum, mp_reduce_min, mp_reduce_max
!
!--- GFS physics modules
use machine, only: kind_phys
!--- variables needed for calculating 'sncovr'
use namelist_soilveg, only: salp_data, snupx
!
! --- variables needed for Noah MP init
!
use noahmp_tables, only: laim_table,saim_table,sla_table, &
bexp_table,smcmax_table,smcwlt_table, &
dwsat_table,dksat_table,psisat_table, &
isurban_table,isbarren_table, &
isice_table,iswater_table
!
!--- GFS_typedefs
use GFS_typedefs, only: GFS_sfcprop_type, GFS_diag_type, GFS_grid_type
use GFS_typedefs, only: GFS_cldprop_type
use ozne_def, only: oz_coeff
!
!--- IPD typdefs
use IPD_typedefs, only: IPD_control_type, IPD_data_type, &
IPD_restart_type
!--- GFS physics constants
use physcons, only: pi => con_pi, RADIUS => con_rerth, rd => con_rd
!--- needed for dq3dt output
use ozne_def, only: oz_coeff
!--- needed for cold-start capability to initialize q2m
use gfdl_cld_mp_mod, only: wqs, qs_init
use coarse_graining_mod, only: block_mode, block_upsample, block_min, block_max, block_sum, weighted_block_average
use coarse_graining_mod, only: MODEL_LEVEL, PRESSURE_LEVEL
use coarse_graining_mod, only: vertical_remapping_requirements, get_coarse_array_bounds
use coarse_graining_mod, only: vertically_remap_field, mask_area_weights
!
!-----------------------------------------------------------------------
implicit none
private
!--- public interfaces ---
public FV3GFS_restart_read, FV3GFS_restart_write, FV3GFS_restart_write_coarse
public FV3GFS_IPD_checksum
public gfdl_diag_register, gfdl_diag_output
public FV3GFS_diag_register_coarse, register_diag_manager_controlled_diagnostics
public register_coarse_diag_manager_controlled_diagnostics
public send_diag_manager_controlled_diagnostic_data
public sfc_data_override
!--- GFDL filenames
character(len=32) :: fn_oro = 'oro_data.nc'
character(len=32) :: fn_srf = 'sfc_data.nc'
character(len=32) :: fn_phy = 'phy_data.nc'
character(len=32) :: fn_ifsSST = 'ifs_sst_data.nc'
!--- GFDL FMS netcdf restart data types
type(FmsNetcdfDomainFile_t) :: Oro_restart
type(FmsNetcdfDomainFile_t) :: Sfc_restart
type(FmsNetcdfDomainFile_t) :: Phy_restart
type(FmsNetcdfDomainFile_t) :: ifsSST_restart
!--- GFDL FMS restart containers
character(len=32), allocatable, dimension(:) :: oro_name2, sfc_name2, sfc_name3
real(kind=kind_phys), allocatable, target, dimension(:,:,:) :: oro_var2, sfc_var2, phy_var2
real(kind=kind_phys), allocatable, target, dimension(:,:) :: ifsSST
real(kind=kind_phys), allocatable, target, dimension(:,:,:,:) :: sfc_var3, phy_var3
!--- Noah MP restart containers
real(kind=kind_phys), allocatable, target, dimension(:,:,:,:) :: sfc_var3sn,sfc_var3eq,sfc_var3zn
! Coarse graining
real(kind=kind_phys), allocatable, target, dimension(:,:,:) :: sfc_var2_coarse
real(kind=kind_phys), allocatable, target, dimension(:,:,:,:) :: sfc_var3_coarse
type(FmsNetcdfDomainFile_t) :: Sfc_restart_coarse
integer :: isco, ieco, jsco, jeco, levo
!-RAB
type data_subtype
real(kind=kind_phys), dimension(:), pointer :: var2 => NULL()
real(kind=kind_phys), dimension(:,:), pointer :: var3 => NULL()
real(kind=kind_phys), dimension(:), pointer :: var21 => NULL()
end type data_subtype
!--- data type definition for use with GFDL FMS diagnostic manager until write component is working
type gfdl_diag_type
private
integer :: id = -1
integer :: axes = -1
logical :: time_avg = .false.
character(len=64) :: time_avg_kind = ''
character(len=64) :: mod_name = ''
character(len=128) :: name = ''
character(len=128) :: desc = ''
character(len=64) :: unit = ''
character(len=64) :: mask = ''
character(len=64) :: intpl_method = ''
real(kind=kind_phys) :: cnvfac
type(data_subtype), dimension(:), allocatable :: data
! Add an attribute that specifies the coarse-graining method for the
! variable. By default we will set this as unspecified and raise an error
! if a user asks to coarse-grain a variable that does not have a supported
! method for coarse-graining. Currently supported methods are:
!
! 'area_weighted'
! 'mass_weighted'
!
! In the future we may want to support more methods, e.g. for the land
! surface variables, which may require masking.
character(len=64) :: coarse_graining_method = 'unspecified'
!rab real(kind=kind_phys), dimension(:), pointer :: var2 => NULL()
!rab real(kind=kind_phys), dimension(:), pointer :: var21 => NULL()
end type gfdl_diag_type
real(kind=kind_phys) :: zhour
!
integer :: tot_diag_idx = 0
integer, parameter :: DIAG_SIZE = 500
real(kind=kind_phys), parameter :: missing_value = 9.99e20
type(gfdl_diag_type), dimension(DIAG_SIZE) :: Diag, Diag_coarse, Diag_diag_manager_controlled, Diag_diag_manager_controlled_coarse
!-RAB
!--- miscellaneous other variables
logical :: module_is_initialized = .FALSE.
character(len=64) :: AREA_WEIGHTED = 'area_weighted'
character(len=64) :: MASKED_AREA_WEIGHTED = 'masked_area_weighted'
character(len=64) :: MASS_WEIGHTED = 'mass_weighted'
character(len=64) :: MODE = 'mode'
CONTAINS
!%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
!
! PUBLIC SUBROUTINES
!
!%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
!
!--------------------
! FV3GFS_restart_read
!--------------------
subroutine FV3GFS_restart_read (IPD_Data, IPD_Restart, Atm_block, Model, fv_domain, enforce_rst_cksum)
type(IPD_data_type), intent(inout) :: IPD_Data(:)
type(IPD_restart_type), intent(inout) :: IPD_Restart
type(block_control_type), intent(in) :: Atm_block
type(IPD_control_type), intent(inout) :: Model
type(domain2d), intent(in) :: fv_domain
logical, intent(in) :: enforce_rst_cksum
!--- read in surface data from chgres
call sfc_prop_restart_read (IPD_Data%Sfcprop, Atm_block, Model, fv_domain, enforce_rst_cksum)
!--- read in
if (Model%sfc_override) call sfc_prop_override (IPD_Data%Sfcprop, IPD_Data%Grid, Atm_block, Model, fv_domain)
!--- read in physics restart data
call phys_restart_read (IPD_Restart, Atm_block, Model, fv_domain, enforce_rst_cksum)
end subroutine FV3GFS_restart_read
!---------------------
! FV3GFS_restart_write
!---------------------
subroutine FV3GFS_restart_write (IPD_Data, IPD_Restart, Atm_block, Model, fv_domain, timestamp)
type(IPD_data_type), intent(inout) :: IPD_Data(:)
type(IPD_restart_type), intent(inout) :: IPD_Restart
type(block_control_type), intent(in) :: Atm_block
type(IPD_control_type), intent(in) :: Model
type(domain2d), intent(in) :: fv_domain
character(len=32), optional, intent(in) :: timestamp
!--- read in surface data from chgres
call sfc_prop_restart_write (IPD_Data%Sfcprop, Atm_block, Model, fv_domain, timestamp)
!--- read in physics restart data
call phys_restart_write (IPD_Restart, Atm_block, Model, fv_domain, timestamp)
end subroutine FV3GFS_restart_write
subroutine FV3GFS_restart_write_coarse (IPD_Data, IPD_Restart, Atm_block, Model, coarse_domain, timestamp)
type(IPD_data_type), intent(inout) :: IPD_Data(:)
type(IPD_restart_type), intent(inout) :: IPD_Restart
type(block_control_type), intent(in) :: Atm_block
type(IPD_control_type), intent(in) :: Model
type(domain2d), intent(in) :: coarse_domain
character(len=32), optional, intent(in) :: timestamp
if (present(timestamp)) then
call sfc_prop_restart_write_coarse (IPD_Data%Sfcprop, Atm_block, Model, &
coarse_domain, IPD_Data%Grid, timestamp)
else
call sfc_prop_restart_write_coarse (IPD_Data%Sfcprop, Atm_block, Model, &
coarse_domain, IPD_Data%Grid)
endif
end subroutine FV3GFS_restart_write_coarse
!--------------------
! FV3GFS_IPD_checksum
!--------------------
subroutine FV3GFS_IPD_checksum (Model, IPD_Data, Atm_block)
!--- interface variables
type(IPD_control_type), intent(in) :: Model
type(IPD_data_type), intent(in) :: IPD_Data(:)
type (block_control_type), intent(in) :: Atm_block
!--- local variables
integer :: outunit, j, i, ix, nb, isc, iec, jsc, jec, lev, ct, l, ntr
integer :: nsfcprop2d, idx_opt
real(kind=kind_phys), allocatable :: temp2d(:,:,:)
real(kind=kind_phys), allocatable :: temp3d(:,:,:,:)
character(len=32) :: name
isc = Model%isc
iec = Model%isc+Model%nx-1
jsc = Model%jsc
jec = Model%jsc+Model%ny-1
lev = Model%levs
ntr = size(IPD_Data(1)%Statein%qgrs,3)
if(Model%lsm == Model%lsm_noahmp) then
nsfcprop2d = 154
else
nsfcprop2d = 100
endif
allocate (temp2d(isc:iec,jsc:jec,nsfcprop2d+Model%ntot3d+Model%nctp))
allocate (temp3d(isc:iec,jsc:jec,1:lev,17+Model%ntot3d+2*ntr))
temp2d = 0.
temp3d = 0.
do j=jsc,jec
do i=isc,iec
nb = Atm_block%blkno(i,j)
ix = Atm_block%ixp(i,j)
!--- statein pressure
temp2d(i,j, 1) = IPD_Data(nb)%Statein%pgr(ix)
temp2d(i,j, 2) = IPD_Data(nb)%Sfcprop%slmsk(ix)
temp2d(i,j, 3) = IPD_Data(nb)%Sfcprop%tsfc(ix)
temp2d(i,j, 4) = IPD_Data(nb)%Sfcprop%tisfc(ix)
temp2d(i,j, 5) = IPD_Data(nb)%Sfcprop%snowd(ix)
temp2d(i,j, 6) = IPD_Data(nb)%Sfcprop%zorl(ix)
temp2d(i,j, 7) = IPD_Data(nb)%Sfcprop%fice(ix)
temp2d(i,j, 8) = IPD_Data(nb)%Sfcprop%hprime(ix,1)
temp2d(i,j, 9) = IPD_Data(nb)%Sfcprop%sncovr(ix)
temp2d(i,j,10) = IPD_Data(nb)%Sfcprop%snoalb(ix)
temp2d(i,j,11) = IPD_Data(nb)%Sfcprop%alvsf(ix)
temp2d(i,j,12) = IPD_Data(nb)%Sfcprop%alnsf(ix)
temp2d(i,j,13) = IPD_Data(nb)%Sfcprop%alvwf(ix)
temp2d(i,j,14) = IPD_Data(nb)%Sfcprop%alnwf(ix)
temp2d(i,j,15) = IPD_Data(nb)%Sfcprop%facsf(ix)
temp2d(i,j,16) = IPD_Data(nb)%Sfcprop%facwf(ix)
temp2d(i,j,17) = IPD_Data(nb)%Sfcprop%slope(ix)
temp2d(i,j,18) = IPD_Data(nb)%Sfcprop%shdmin(ix)
temp2d(i,j,19) = IPD_Data(nb)%Sfcprop%shdmax(ix)
temp2d(i,j,20) = IPD_Data(nb)%Sfcprop%tg3(ix)
temp2d(i,j,21) = IPD_Data(nb)%Sfcprop%vfrac(ix)
temp2d(i,j,22) = IPD_Data(nb)%Sfcprop%vtype(ix)
temp2d(i,j,23) = IPD_Data(nb)%Sfcprop%stype(ix)
temp2d(i,j,24) = IPD_Data(nb)%Sfcprop%uustar(ix)
temp2d(i,j,25) = IPD_Data(nb)%Sfcprop%oro(ix)
temp2d(i,j,26) = IPD_Data(nb)%Sfcprop%oro_uf(ix)
temp2d(i,j,27) = IPD_Data(nb)%Sfcprop%hice(ix)
temp2d(i,j,28) = IPD_Data(nb)%Sfcprop%weasd(ix)
temp2d(i,j,29) = IPD_Data(nb)%Sfcprop%canopy(ix)
temp2d(i,j,30) = IPD_Data(nb)%Sfcprop%ffmm(ix)
temp2d(i,j,31) = IPD_Data(nb)%Sfcprop%ffhh(ix)
temp2d(i,j,32) = IPD_Data(nb)%Sfcprop%f10m(ix)
temp2d(i,j,33) = IPD_Data(nb)%Sfcprop%tprcp(ix)
temp2d(i,j,34) = IPD_Data(nb)%Sfcprop%srflag(ix)
temp2d(i,j,35) = IPD_Data(nb)%Sfcprop%slc(ix,1)
temp2d(i,j,36) = IPD_Data(nb)%Sfcprop%slc(ix,2)
temp2d(i,j,37) = IPD_Data(nb)%Sfcprop%slc(ix,3)
temp2d(i,j,38) = IPD_Data(nb)%Sfcprop%slc(ix,4)
temp2d(i,j,39) = IPD_Data(nb)%Sfcprop%smc(ix,1)
temp2d(i,j,40) = IPD_Data(nb)%Sfcprop%smc(ix,2)
temp2d(i,j,41) = IPD_Data(nb)%Sfcprop%smc(ix,3)
temp2d(i,j,42) = IPD_Data(nb)%Sfcprop%smc(ix,4)
temp2d(i,j,43) = IPD_Data(nb)%Sfcprop%stc(ix,1)
temp2d(i,j,44) = IPD_Data(nb)%Sfcprop%stc(ix,2)
temp2d(i,j,45) = IPD_Data(nb)%Sfcprop%stc(ix,3)
temp2d(i,j,46) = IPD_Data(nb)%Sfcprop%stc(ix,4)
temp2d(i,j,47) = IPD_Data(nb)%Sfcprop%t2m(ix)
temp2d(i,j,48) = IPD_Data(nb)%Sfcprop%q2m(ix)
temp2d(i,j,49) = IPD_Data(nb)%Coupling%nirbmdi(ix)
temp2d(i,j,50) = IPD_Data(nb)%Coupling%nirdfdi(ix)
temp2d(i,j,51) = IPD_Data(nb)%Coupling%visbmdi(ix)
temp2d(i,j,52) = IPD_Data(nb)%Coupling%visdfdi(ix)
temp2d(i,j,53) = IPD_Data(nb)%Coupling%nirbmui(ix)
temp2d(i,j,54) = IPD_Data(nb)%Coupling%nirdfui(ix)
temp2d(i,j,55) = IPD_Data(nb)%Coupling%visbmui(ix)
temp2d(i,j,56) = IPD_Data(nb)%Coupling%visdfui(ix)
temp2d(i,j,57) = IPD_Data(nb)%Coupling%sfcdsw(ix)
temp2d(i,j,58) = IPD_Data(nb)%Coupling%sfcnsw(ix)
temp2d(i,j,59) = IPD_Data(nb)%Coupling%sfcdlw(ix)
temp2d(i,j,60) = IPD_Data(nb)%Grid%xlon(ix)
temp2d(i,j,61) = IPD_Data(nb)%Grid%xlat(ix)
temp2d(i,j,62) = IPD_Data(nb)%Grid%xlat_d(ix)
temp2d(i,j,63) = IPD_Data(nb)%Grid%sinlat(ix)
temp2d(i,j,64) = IPD_Data(nb)%Grid%coslat(ix)
temp2d(i,j,65) = IPD_Data(nb)%Grid%area(ix)
temp2d(i,j,66) = IPD_Data(nb)%Grid%dx(ix)
if (Model%ntoz > 0) then
temp2d(i,j,67) = IPD_Data(nb)%Grid%ddy_o3(ix)
endif
if (Model%h2o_phys) then
temp2d(i,j,68) = IPD_Data(nb)%Grid%ddy_h(ix)
endif
temp2d(i,j,69) = IPD_Data(nb)%Cldprop%cv(ix)
temp2d(i,j,70) = IPD_Data(nb)%Cldprop%cvt(ix)
temp2d(i,j,71) = IPD_Data(nb)%Cldprop%cvb(ix)
temp2d(i,j,72) = IPD_Data(nb)%Radtend%sfalb(ix)
temp2d(i,j,73) = IPD_Data(nb)%Radtend%coszen(ix)
temp2d(i,j,74) = IPD_Data(nb)%Radtend%tsflw(ix)
temp2d(i,j,75) = IPD_Data(nb)%Radtend%semis(ix)
temp2d(i,j,76) = IPD_Data(nb)%Radtend%coszdg(ix)
temp2d(i,j,77) = IPD_Data(nb)%Radtend%sfcfsw(ix)%upfxc
temp2d(i,j,78) = IPD_Data(nb)%Radtend%sfcfsw(ix)%upfx0
temp2d(i,j,79) = IPD_Data(nb)%Radtend%sfcfsw(ix)%dnfxc
temp2d(i,j,80) = IPD_Data(nb)%Radtend%sfcfsw(ix)%dnfx0
temp2d(i,j,81) = IPD_Data(nb)%Radtend%sfcflw(ix)%upfxc
temp2d(i,j,82) = IPD_Data(nb)%Radtend%sfcflw(ix)%upfx0
temp2d(i,j,83) = IPD_Data(nb)%Radtend%sfcflw(ix)%dnfxc
temp2d(i,j,84) = IPD_Data(nb)%Radtend%sfcflw(ix)%dnfx0
idx_opt = 85
if (Model%lsm == Model%lsm_noahmp) then
temp2d(i,j,idx_opt) = IPD_Data(nb)%Sfcprop%snowxy(ix)
temp2d(i,j,idx_opt+1) = IPD_Data(nb)%Sfcprop%tvxy(ix)
temp2d(i,j,idx_opt+2) = IPD_Data(nb)%Sfcprop%tgxy(ix)
temp2d(i,j,idx_opt+3) = IPD_Data(nb)%Sfcprop%canicexy(ix)
temp2d(i,j,idx_opt+4) = IPD_Data(nb)%Sfcprop%canliqxy(ix)
temp2d(i,j,idx_opt+5) = IPD_Data(nb)%Sfcprop%eahxy(ix)
temp2d(i,j,idx_opt+6) = IPD_Data(nb)%Sfcprop%tahxy(ix)
temp2d(i,j,idx_opt+7) = IPD_Data(nb)%Sfcprop%cmxy(ix)
temp2d(i,j,idx_opt+8) = IPD_Data(nb)%Sfcprop%chxy(ix)
temp2d(i,j,idx_opt+9) = IPD_Data(nb)%Sfcprop%fwetxy(ix)
temp2d(i,j,idx_opt+10) = IPD_Data(nb)%Sfcprop%sneqvoxy(ix)
temp2d(i,j,idx_opt+11) = IPD_Data(nb)%Sfcprop%alboldxy(ix)
temp2d(i,j,idx_opt+12) = IPD_Data(nb)%Sfcprop%qsnowxy(ix)
temp2d(i,j,idx_opt+13) = IPD_Data(nb)%Sfcprop%wslakexy(ix)
temp2d(i,j,idx_opt+14) = IPD_Data(nb)%Sfcprop%zwtxy(ix)
temp2d(i,j,idx_opt+15) = IPD_Data(nb)%Sfcprop%waxy(ix)
temp2d(i,j,idx_opt+16) = IPD_Data(nb)%Sfcprop%wtxy(ix)
temp2d(i,j,idx_opt+17) = IPD_Data(nb)%Sfcprop%lfmassxy(ix)
temp2d(i,j,idx_opt+18) = IPD_Data(nb)%Sfcprop%rtmassxy(ix)
temp2d(i,j,idx_opt+19) = IPD_Data(nb)%Sfcprop%stmassxy(ix)
temp2d(i,j,idx_opt+20) = IPD_Data(nb)%Sfcprop%woodxy(ix)
temp2d(i,j,idx_opt+21) = IPD_Data(nb)%Sfcprop%stblcpxy(ix)
temp2d(i,j,idx_opt+22) = IPD_Data(nb)%Sfcprop%fastcpxy(ix)
temp2d(i,j,idx_opt+23) = IPD_Data(nb)%Sfcprop%xsaixy(ix)
temp2d(i,j,idx_opt+24) = IPD_Data(nb)%Sfcprop%xlaixy(ix)
temp2d(i,j,idx_opt+25) = IPD_Data(nb)%Sfcprop%taussxy(ix)
temp2d(i,j,idx_opt+26) = IPD_Data(nb)%Sfcprop%smcwtdxy(ix)
temp2d(i,j,idx_opt+27) = IPD_Data(nb)%Sfcprop%deeprechxy(ix)
temp2d(i,j,idx_opt+28) = IPD_Data(nb)%Sfcprop%rechxy(ix)
temp2d(i,j,idx_opt+29) = IPD_Data(nb)%Sfcprop%snicexy(ix,-2)
temp2d(i,j,idx_opt+30) = IPD_Data(nb)%Sfcprop%snicexy(ix,-1)
temp2d(i,j,idx_opt+31) = IPD_Data(nb)%Sfcprop%snicexy(ix,0)
temp2d(i,j,idx_opt+32) = IPD_Data(nb)%Sfcprop%snliqxy(ix,-2)
temp2d(i,j,idx_opt+33) = IPD_Data(nb)%Sfcprop%snliqxy(ix,-1)
temp2d(i,j,idx_opt+34) = IPD_Data(nb)%Sfcprop%snliqxy(ix,0)
temp2d(i,j,idx_opt+35) = IPD_Data(nb)%Sfcprop%tsnoxy(ix,-2)
temp2d(i,j,idx_opt+36) = IPD_Data(nb)%Sfcprop%tsnoxy(ix,-1)
temp2d(i,j,idx_opt+37) = IPD_Data(nb)%Sfcprop%tsnoxy(ix,0)
temp2d(i,j,idx_opt+38) = IPD_Data(nb)%Sfcprop%smoiseq(ix,1)
temp2d(i,j,idx_opt+39) = IPD_Data(nb)%Sfcprop%smoiseq(ix,2)
temp2d(i,j,idx_opt+40) = IPD_Data(nb)%Sfcprop%smoiseq(ix,3)
temp2d(i,j,idx_opt+41) = IPD_Data(nb)%Sfcprop%smoiseq(ix,4)
temp2d(i,j,idx_opt+42) = IPD_Data(nb)%Sfcprop%zsnsoxy(ix,-2)
temp2d(i,j,idx_opt+43) = IPD_Data(nb)%Sfcprop%zsnsoxy(ix,-1)
temp2d(i,j,idx_opt+44) = IPD_Data(nb)%Sfcprop%zsnsoxy(ix,0)
temp2d(i,j,idx_opt+45) = IPD_Data(nb)%Sfcprop%zsnsoxy(ix,1)
temp2d(i,j,idx_opt+46) = IPD_Data(nb)%Sfcprop%zsnsoxy(ix,2)
temp2d(i,j,idx_opt+47) = IPD_Data(nb)%Sfcprop%zsnsoxy(ix,3)
temp2d(i,j,idx_opt+48) = IPD_Data(nb)%Sfcprop%zsnsoxy(ix,4)
temp2d(i,j,idx_opt+49) = IPD_Data(nb)%Sfcprop%albdvis(ix)
temp2d(i,j,idx_opt+50) = IPD_Data(nb)%Sfcprop%albdnir(ix)
temp2d(i,j,idx_opt+51) = IPD_Data(nb)%Sfcprop%albivis(ix)
temp2d(i,j,idx_opt+52) = IPD_Data(nb)%Sfcprop%albinir(ix)
temp2d(i,j,idx_opt+53) = IPD_Data(nb)%Sfcprop%emiss(ix)
idx_opt = 139
endif
if (Model%nstf_name(1) > 0) then
temp2d(i,j,idx_opt) = IPD_Data(nb)%Sfcprop%tref(ix)
temp2d(i,j,idx_opt+1) = IPD_Data(nb)%Sfcprop%z_c(ix)
temp2d(i,j,idx_opt+2) = IPD_Data(nb)%Sfcprop%c_0(ix)
temp2d(i,j,idx_opt+3) = IPD_Data(nb)%Sfcprop%c_d(ix)
temp2d(i,j,idx_opt+4) = IPD_Data(nb)%Sfcprop%w_0(ix)
temp2d(i,j,idx_opt+5) = IPD_Data(nb)%Sfcprop%w_d(ix)
temp2d(i,j,idx_opt+6) = IPD_Data(nb)%Sfcprop%xt(ix)
temp2d(i,j,idx_opt+7) = IPD_Data(nb)%Sfcprop%xs(ix)
temp2d(i,j,idx_opt+8) = IPD_Data(nb)%Sfcprop%xu(ix)
temp2d(i,j,idx_opt+9) = IPD_Data(nb)%Sfcprop%xz(ix)
temp2d(i,j,idx_opt+10) = IPD_Data(nb)%Sfcprop%zm(ix)
temp2d(i,j,idx_opt+11) = IPD_Data(nb)%Sfcprop%xtts(ix)
temp2d(i,j,idx_opt+12) = IPD_Data(nb)%Sfcprop%xzts(ix)
temp2d(i,j,idx_opt+13) = IPD_Data(nb)%Sfcprop%ifd(ix)
temp2d(i,j,idx_opt+14) = IPD_Data(nb)%Sfcprop%dt_cool(ix)
temp2d(i,j,idx_opt+15) = IPD_Data(nb)%Sfcprop%qrain(ix)
endif
do l = 1,Model%ntot2d
temp2d(i,j,nsfcprop2d+l) = IPD_Data(nb)%Tbd%phy_f2d(ix,l)
enddo
do l = 1,Model%nctp
temp2d(i,j,nsfcprop2d+Model%ntot2d+l) = IPD_Data(nb)%Tbd%phy_fctd(ix,l)
enddo
temp3d(i,j,:, 1) = IPD_Data(nb)%Statein%phii(ix,1:lev)
temp3d(i,j,:, 2) = IPD_Data(nb)%Statein%prsi(ix,1:lev)
temp3d(i,j,:, 3) = IPD_Data(nb)%Statein%prsik(ix,1:lev)
temp3d(i,j,:, 4) = IPD_Data(nb)%Statein%phil(ix,:)
temp3d(i,j,:, 5) = IPD_Data(nb)%Statein%prsl(ix,:)
temp3d(i,j,:, 6) = IPD_Data(nb)%Statein%prslk(ix,:)
temp3d(i,j,:, 7) = IPD_Data(nb)%Statein%ugrs(ix,:)
temp3d(i,j,:, 8) = IPD_Data(nb)%Statein%vgrs(ix,:)
temp3d(i,j,:, 9) = IPD_Data(nb)%Statein%vvl(ix,:)
temp3d(i,j,:,10) = IPD_Data(nb)%Statein%tgrs(ix,:)
temp3d(i,j,:,11) = IPD_Data(nb)%Stateout%gu0(ix,:)
temp3d(i,j,:,12) = IPD_Data(nb)%Stateout%gv0(ix,:)
temp3d(i,j,:,13) = IPD_Data(nb)%Stateout%gt0(ix,:)
temp3d(i,j,:,14) = IPD_Data(nb)%Radtend%htrsw(ix,:)
temp3d(i,j,:,15) = IPD_Data(nb)%Radtend%htrlw(ix,:)
temp3d(i,j,:,16) = IPD_Data(nb)%Radtend%swhc(ix,:)
temp3d(i,j,:,17) = IPD_Data(nb)%Radtend%lwhc(ix,:)
do l = 1,Model%ntot3d
temp3d(i,j,:,17+l) = IPD_Data(nb)%Tbd%phy_f3d(ix,:,l)
enddo
do l = 1,ntr
temp3d(i,j,:,17+Model%ntot3d+l) = IPD_Data(nb)%Statein%qgrs(ix,:,l)
temp3d(i,j,:,17+Model%ntot3d+ntr+l) = IPD_Data(nb)%Stateout%gq0(ix,:,l)
enddo
enddo
enddo
outunit = stdout()
do i = 1,nsfcprop2d+Model%ntot2d+Model%nctp
write (name, '(i3.3,3x,4a)') i, ' 2d '
write(outunit,100) name, mpp_chksum(temp2d(:,:,i:i))
enddo
do i = 1,17+Model%ntot3d+2*ntr
write (name, '(i2.2,3x,4a)') i, ' 3d '
write(outunit,100) name, mpp_chksum(temp3d(:,:,:,i:i))
enddo
100 format("CHECKSUM::",A32," = ",Z20)
end subroutine FV3GFS_IPD_checksum
!%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
!
! PRIVATE SUBROUTINES
!
!%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
!----------------------------------------------------------------------
! register_sfc_prop_restart_vars
!----------------------------------------------------------------------
! creates and populates a data type for surface variables which is
! then used to "register" restart variables with the GFDL FMS
! restart subsystem.
!
! calls: register_restart_field
!
!----------------------------------------------------------------------
subroutine register_sfc_prop_restart_vars(Model, nx, ny, nvar_s2m, action)
type(IPD_control_type), intent(in) :: Model
integer, intent(in) :: nx
integer, intent(in) :: ny
integer, intent(out) :: nvar_s2m
character(len=*), intent(in) :: action !< alloc, read, write
!--- local variables
integer :: is, ie
integer :: lsoil, num
integer :: nvar_s2mp, nvar_s2o
integer :: nvar_s3, nvar_s3mp
logical :: opt
character(len=8) :: dim_names_2d(3), dim_names_3d(4)
integer, allocatable, dimension(:) :: buffer
real(kind=kind_phys), pointer, dimension(:,:) :: var2_p => NULL()
real(kind=kind_phys), pointer, dimension(:,:,:) :: var3_p => NULL()
if (Model%cplflx) then ! needs more variables
nvar_s2m = 34
else
nvar_s2m = 32
endif
nvar_s2o = 18
nvar_s3 = 3
if (Model%lsm == Model%lsm_noahmp) then
nvar_s2mp = 39 !mp 2D
nvar_s3mp = 5 !mp 3D
else
nvar_s2mp = 0 !mp 2D
nvar_s3mp = 0 !mp 3D
endif
if (Model%use_ifs_ini_sst) then
allocate(ifsSST(nx,ny))
endif
if (.not. allocated(sfc_name2)) then
!--- allocate the various containers needed for restarts
allocate(sfc_name2(nvar_s2m+nvar_s2o+nvar_s2mp))
allocate(sfc_name3(nvar_s3+nvar_s3mp))
allocate(sfc_var2(nx,ny,nvar_s2m+nvar_s2o+nvar_s2mp))
allocate(sfc_var3(nx,ny,Model%lsoil,nvar_s3))
sfc_var2 = -9999._kind_phys
sfc_var3 = -9999._kind_phys
!
if (Model%lsm == Model%lsm_noahmp) then
allocate(sfc_var3sn(nx,ny,-2:0,4:6))
allocate(sfc_var3eq(nx,ny,1:4,7:7))
allocate(sfc_var3zn(nx,ny,-2:4,8:8))
sfc_var3sn = -9999._kind_phys
sfc_var3eq = -9999._kind_phys
sfc_var3zn = -9999._kind_phys
end if
!--- names of the 2D variables to save
sfc_name2(1) = 'slmsk'
sfc_name2(2) = 'tsea' !tsfc
sfc_name2(3) = 'sheleg' !weasd
sfc_name2(4) = 'tg3'
sfc_name2(5) = 'zorl'
sfc_name2(6) = 'alvsf'
sfc_name2(7) = 'alvwf'
sfc_name2(8) = 'alnsf'
sfc_name2(9) = 'alnwf'
sfc_name2(10) = 'facsf'
sfc_name2(11) = 'facwf'
sfc_name2(12) = 'vfrac'
sfc_name2(13) = 'canopy'
sfc_name2(14) = 'f10m'
sfc_name2(15) = 't2m'
sfc_name2(16) = 'q2m'
sfc_name2(17) = 'vtype'
sfc_name2(18) = 'stype'
sfc_name2(19) = 'uustar'
sfc_name2(20) = 'ffmm'
sfc_name2(21) = 'ffhh'
sfc_name2(22) = 'hice'
sfc_name2(23) = 'fice'
sfc_name2(24) = 'tisfc'
sfc_name2(25) = 'tprcp'
sfc_name2(26) = 'srflag'
sfc_name2(27) = 'snwdph' !snowd
sfc_name2(28) = 'shdmin'
sfc_name2(29) = 'shdmax'
sfc_name2(30) = 'slope'
sfc_name2(31) = 'snoalb'
!--- variables below here are optional
sfc_name2(32) = 'sncovr'
if(Model%cplflx) then
sfc_name2(33) = 'tsfcl' !temp on land portion of a cell
sfc_name2(34) = 'zorll' !zorl on land portion of a cell
end if
!--- NSSTM inputs only needed when (nstf_name(1) > 0) .and. (nstf_name(2)) == 0)
sfc_name2(nvar_s2m+1) = 'tref'
sfc_name2(nvar_s2m+2) = 'z_c'
sfc_name2(nvar_s2m+3) = 'c_0'
sfc_name2(nvar_s2m+4) = 'c_d'
sfc_name2(nvar_s2m+5) = 'w_0'
sfc_name2(nvar_s2m+6) = 'w_d'
sfc_name2(nvar_s2m+7) = 'xt'
sfc_name2(nvar_s2m+8) = 'xs'
sfc_name2(nvar_s2m+9) = 'xu'
sfc_name2(nvar_s2m+10) = 'xv'
sfc_name2(nvar_s2m+11) = 'xz'
sfc_name2(nvar_s2m+12) = 'zm'
sfc_name2(nvar_s2m+13) = 'xtts'
sfc_name2(nvar_s2m+14) = 'xzts'
sfc_name2(nvar_s2m+15) = 'd_conv'
sfc_name2(nvar_s2m+16) = 'ifd'
sfc_name2(nvar_s2m+17) = 'dt_cool'
sfc_name2(nvar_s2m+18) = 'qrain'
!
! Only needed when Noah MP LSM is used - 39 2D
!
if (Model%lsm == Model%lsm_noahmp) then
sfc_name2(nvar_s2m+19) = 'snowxy'
sfc_name2(nvar_s2m+20) = 'tvxy'
sfc_name2(nvar_s2m+21) = 'tgxy'
sfc_name2(nvar_s2m+22) = 'canicexy'
sfc_name2(nvar_s2m+23) = 'canliqxy'
sfc_name2(nvar_s2m+24) = 'eahxy'
sfc_name2(nvar_s2m+25) = 'tahxy'
sfc_name2(nvar_s2m+26) = 'cmxy'
sfc_name2(nvar_s2m+27) = 'chxy'
sfc_name2(nvar_s2m+28) = 'fwetxy'
sfc_name2(nvar_s2m+29) = 'sneqvoxy'
sfc_name2(nvar_s2m+30) = 'alboldxy'
sfc_name2(nvar_s2m+31) = 'qsnowxy'
sfc_name2(nvar_s2m+32) = 'wslakexy'
sfc_name2(nvar_s2m+33) = 'zwtxy'
sfc_name2(nvar_s2m+34) = 'waxy'
sfc_name2(nvar_s2m+35) = 'wtxy'
sfc_name2(nvar_s2m+36) = 'lfmassxy'
sfc_name2(nvar_s2m+37) = 'rtmassxy'
sfc_name2(nvar_s2m+38) = 'stmassxy'
sfc_name2(nvar_s2m+39) = 'woodxy'
sfc_name2(nvar_s2m+40) = 'stblcpxy'
sfc_name2(nvar_s2m+41) = 'fastcpxy'
sfc_name2(nvar_s2m+42) = 'xsaixy'
sfc_name2(nvar_s2m+43) = 'xlaixy'
sfc_name2(nvar_s2m+44) = 'taussxy'
sfc_name2(nvar_s2m+45) = 'smcwtdxy'
sfc_name2(nvar_s2m+46) = 'deeprechxy'
sfc_name2(nvar_s2m+47) = 'rechxy'
sfc_name2(nvar_s2m+48) = 'drainncprv'
sfc_name2(nvar_s2m+49) = 'draincprv'
sfc_name2(nvar_s2m+50) = 'dsnowprv'
sfc_name2(nvar_s2m+51) = 'dgraupelprv'
sfc_name2(nvar_s2m+52) = 'diceprv'
sfc_name2(nvar_s2m+53) = 'albdvis'
sfc_name2(nvar_s2m+54) = 'albdnir'
sfc_name2(nvar_s2m+55) = 'albivis'
sfc_name2(nvar_s2m+56) = 'albinir'
sfc_name2(nvar_s2m+57) = 'emiss'
endif
!--- names of the 3D variables to save
sfc_name3(1) = 'stc'
sfc_name3(2) = 'smc'
sfc_name3(3) = 'slc'
!--- Noah MP
if (Model%lsm == Model%lsm_noahmp) then
sfc_name3(4) = 'snicexy'
sfc_name3(5) = 'snliqxy'
sfc_name3(6) = 'tsnoxy'
sfc_name3(7) = 'smoiseq'
sfc_name3(8) = 'zsnsoxy'
endif
endif ! if not allocated
if (trim(action) == "alloc") then
return
elseif (trim(action) == "read") then
!--- register the axes for restarts
if (dimension_exists(Sfc_restart, "xaxis_1")) then
call register_axis(Sfc_restart, "xaxis_1", "X")
call register_axis(Sfc_restart, "yaxis_1", "Y")
call register_axis(Sfc_restart, "zaxis_1", dimension_length=4)
call register_axis(Sfc_restart, "zaxis_2", dimension_length=3)
call register_axis(Sfc_restart, "zaxis_3", dimension_length=7)
call register_axis(Sfc_restart, "Time", unlimited)
dim_names_2d(1) = "xaxis_1"
dim_names_2d(2) = "yaxis_1"
dim_names_2d(3) = "Time"
dim_names_3d(1) = "xaxis_1"
dim_names_3d(2) = "yaxis_1"
dim_names_3d(3) = "zaxis_1" ! to be reset as needed when variables are registered
dim_names_3d(4) = "Time"
else
call register_axis(Sfc_restart, 'lon', 'X')
call register_axis(Sfc_restart, 'lat', 'Y')
call register_axis(Sfc_restart, 'lsoil', dimension_length=Model%lsoil)
dim_names_2d(1) = "lat"
dim_names_2d(2) = "lon"
dim_names_3d(1) = "lat"
dim_names_3d(2) = "lon"
dim_names_3d(3) = "lsoil"
endif
elseif (trim(action) == "write") then
!--- register the axes for restarts
call register_axis(Sfc_restart, 'xaxis_1', 'X')
call register_field(Sfc_restart, 'xaxis_1', 'double', (/'xaxis_1'/))
call register_variable_attribute(Sfc_restart, 'xaxis_1', 'cartesian_axis', 'X', str_len=1)
call get_global_io_domain_indices(Sfc_restart, 'xaxis_1', is, ie, indices=buffer)
call write_data(Sfc_restart, "xaxis_1", buffer)
deallocate(buffer)
call register_axis(Sfc_restart, 'yaxis_1', 'Y')
call register_field(Sfc_restart, 'yaxis_1', 'double', (/'yaxis_1'/))
call register_variable_attribute(Sfc_restart, 'yaxis_1', 'cartesian_axis', 'Y', str_len=1)
call get_global_io_domain_indices(Sfc_restart, 'yaxis_1', is, ie, indices=buffer)
call write_data(Sfc_restart, "yaxis_1", buffer)
deallocate(buffer)
call register_axis(Sfc_restart, 'zaxis_1', dimension_length=Model%lsoil)
call register_field(Sfc_restart, 'zaxis_1', 'double', (/'zaxis_1'/))
call register_variable_attribute(Sfc_restart, 'zaxis_1', 'cartesian_axis', 'Z', str_len=1)
allocate( buffer(Model%lsoil) )
do lsoil=1, Model%lsoil
buffer(lsoil) = lsoil
end do
call write_data(Sfc_restart, 'zaxis_1', buffer)
deallocate(buffer)
call register_axis(Sfc_restart, 'Time', unlimited)
call register_field(Sfc_restart, 'Time', 'double', (/'Time'/))
call register_variable_attribute(Sfc_restart, 'Time', 'cartesian_axis', 'T', str_len=1)
call write_data(Sfc_restart, 'Time', 1)
if (Model%lsm == Model%lsm_noahmp) then
call register_axis(Sfc_restart, 'zaxis_2', dimension_length=3)
call register_field(Sfc_restart, 'zaxis_2', 'double', (/'zaxis_2'/))
call register_variable_attribute(Sfc_restart, 'zaxis_2', 'cartesian_axis', 'Z', str_len=1)
allocate( buffer(3) )
do lsoil=-2,0
buffer(lsoil+3) = lsoil
end do
call write_data(Sfc_restart, 'zaxis_2', buffer)
deallocate(buffer)
call register_axis(Sfc_restart, 'zaxis_3', dimension_length=7)
call register_field(Sfc_restart, 'zaxis_3', 'double', (/'zaxis_3'/))
call register_variable_attribute(Sfc_restart, 'zaxis_3', 'cartesian_axis', 'Z', str_len=1)
allocate( buffer(7) )
do lsoil=-2,4
buffer(lsoil+3) = lsoil
end do
call write_data(Sfc_restart, 'zaxis_3', buffer)
deallocate(buffer)
endif ! if (lsm_noahmp)
dim_names_2d(1) = "xaxis_1"
dim_names_2d(2) = "yaxis_1"
dim_names_2d(3) = "Time"
dim_names_3d(1) = "xaxis_1"
dim_names_3d(2) = "yaxis_1"
dim_names_3d(3) = "zaxis_1" ! to be reset as needed when variables are registered
dim_names_3d(4) = "Time"
else ! error case
call mpp_error(FATAL,"FV3GFS_io::register_sfc_prop_restart_vars action not found")
endif ! end of if (read)
!--- register IFS SST
if (Model%use_ifs_ini_sst) then
var2_p => ifsSST
opt = .false.
call register_restart_field(ifsSST_restart, 'sst', var2_p, dim_names_2d, is_optional=opt)
nullify(var2_p)
endif
!--- register the 2D fields
do num = 1,nvar_s2m
var2_p => sfc_var2(:,:,num)
opt = .false.
if (trim(sfc_name2(num)) == 'sncovr'.or.trim(sfc_name2(num)) == 'tsfcl'.or.trim(sfc_name2(num)) == 'zorll') opt = .true.
call register_restart_field(Sfc_restart, sfc_name2(num), var2_p, dim_names_2d, is_optional=opt)
nullify(var2_p)
enddo
!--- register NSST variables
if (Model%nstf_name(1) > 0) then
opt = .true.
if (Model%nstf_name(2) == 0) opt = .false.
do num = nvar_s2m+1,nvar_s2m+nvar_s2o
var2_p => sfc_var2(:,:,num)
call register_restart_field(Sfc_restart, sfc_name2(num), var2_p, dim_names_2d, is_optional=opt)
nullify(var2_p)
enddo
endif
!--- Noah MP register only necessary only lsm = 2, not necessary has values
if (nvar_s2mp > 0) then
opt = .true.
do num = nvar_s2m+nvar_s2o+1,nvar_s2m+nvar_s2o+nvar_s2mp
var2_p => sfc_var2(:,:,num)
call register_restart_field(Sfc_restart, sfc_name2(num), var2_p, dim_names_2d, is_optional=opt)
nullify(var2_p)
enddo
endif ! noahmp
!--- register the 3D fields
do num = 1,nvar_s3
var3_p => sfc_var3(:,:,:,num)
dim_names_3d(3) = "zaxis_1"
call register_restart_field(Sfc_restart, sfc_name3(num), var3_p, dim_names_3d)
nullify(var3_p)
enddo
!--- register the NOAH-MP 3D fields
if (Model%lsm == Model%lsm_noahmp) then
opt = .true.
do num = nvar_s3+1,nvar_s3+3
var3_p => sfc_var3sn(:,:,:,num)
dim_names_3d(3) = "zaxis_2"
call register_restart_field(Sfc_restart, sfc_name3(num), var3_p, dim_names_3d, is_optional=opt)
nullify(var3_p)
enddo
var3_p => sfc_var3eq(:,:,:,7)
dim_names_3d(3) = "zaxis_1"
call register_restart_field(Sfc_restart, sfc_name3(7), var3_p, dim_names_3d, is_optional=opt)
nullify(var3_p)
var3_p => sfc_var3zn(:,:,:,8)
dim_names_3d(3) = "zaxis_3"
call register_restart_fIeld(Sfc_restart, sfc_name3(8), var3_p, dim_names_3d, is_optional=opt)
nullify(var3_p)
endif !mp
end subroutine register_sfc_prop_restart_vars
!----------------------------------------------------------------------
! sfc_prop_restart_read
!----------------------------------------------------------------------
! calls a routine to "register" restart variables with the GFDL FMS
! restart subsystem.
!
! calls a GFDL FMS routine to restore the data from a restart file.
! calculates sncovr if it is not present in the restart file.
!
! calls: open_file, register_sfc_prop_restart_vars, read_restart,
! close_file
!
! opens: oro_data.tile?.nc, sfc_data.tile?.nc
!
!----------------------------------------------------------------------
subroutine sfc_prop_restart_read (Sfcprop, Atm_block, Model, fv_domain, enforce_rst_cksum)
!--- interface variable definitions
type(GFS_sfcprop_type), intent(inout) :: Sfcprop(:)
type (block_control_type), intent(in) :: Atm_block
type(IPD_control_type), intent(inout) :: Model
type (domain2d), intent(in) :: fv_domain
logical, intent(in) :: enforce_rst_cksum
!--- local variables
integer :: i, j, k, ix, lsoil, num, nb
integer :: isc, iec, jsc, jec, npz, nx, ny
integer :: nvar_o2, nvar_s2m
integer :: isnow
logical :: opt
character(len=8) :: dim_names_2d(3)
real(kind=kind_phys), pointer, dimension(:,:) :: var2_p => NULL()
character(len=64) :: fname
!--- local variables for sncovr calculation
integer :: vegtyp
real(kind=kind_phys) :: rsnow, tem
!--- Noah MP
integer :: soiltyp,ns,imon,iter,imn
real(kind=kind_phys) :: masslai, masssai,snd
real(kind=kind_phys) :: ddz,expon,aa,bb,smc,func,dfunc,dx
real(kind=kind_phys) :: bexp, smcmax, smcwlt,dwsat,dksat,psisat
real(kind=kind_phys), dimension(-2:0) :: dzsno
real(kind=kind_phys), dimension(-2:4) :: dzsnso
real(kind=kind_phys), dimension(4), save :: zsoil,dzs
data dzs /0.1,0.3,0.6,1.0/
data zsoil /-0.1,-0.4,-1.0,-2.0/
nvar_o2 = 19
isc = Atm_block%isc
iec = Atm_block%iec
jsc = Atm_block%jsc
jec = Atm_block%jec
npz = Atm_block%npz
nx = (iec - isc + 1)
ny = (jec - jsc + 1)
!--- Open the restart file and associate it with the Oro_restart fileobject
fname='INPUT/'//trim(fn_oro)
if (open_file(Oro_restart, fname, "read", fv_domain, is_restart=.true., dont_add_res_to_filename=.true.)) then
call register_axis(Oro_restart, "lat", "y")
call register_axis(Oro_restart, "lon", "x")
dim_names_2d(1) = "lat"
dim_names_2d(2) = "lon"
!--- OROGRAPHY FILE
if (.not. allocated(oro_name2)) then
!--- allocate the various containers needed for orography data
allocate(oro_name2(nvar_o2))
allocate(oro_var2(nx,ny,nvar_o2))
oro_var2 = -9999._kind_phys
oro_name2(1) = 'stddev' ! hprime(ix,1)
oro_name2(2) = 'convexity' ! hprime(ix,2)
oro_name2(3) = 'oa1' ! hprime(ix,3)
oro_name2(4) = 'oa2' ! hprime(ix,4)
oro_name2(5) = 'oa3' ! hprime(ix,5)
oro_name2(6) = 'oa4' ! hprime(ix,6)
oro_name2(7) = 'ol1' ! hprime(ix,7)
oro_name2(8) = 'ol2' ! hprime(ix,8)
oro_name2(9) = 'ol3' ! hprime(ix,9)
oro_name2(10) = 'ol4' ! hprime(ix,10)
oro_name2(11) = 'theta' ! hprime(ix,11)
oro_name2(12) = 'gamma' ! hprime(ix,12)
oro_name2(13) = 'sigma' ! hprime(ix,13)
oro_name2(14) = 'elvmax' ! hprime(ix,14)
oro_name2(15) = 'orog_filt' ! oro
oro_name2(16) = 'orog_raw' ! oro_uf
oro_name2(17) = 'land_frac' ! land fraction [0:1]
!--- variables below here are optional
oro_name2(18) = 'lake_frac' ! lake fraction [0:1]
oro_name2(19) = 'lake_depth' ! lake depth(m)
!--- register the 2D fields
do num = 1,nvar_o2
var2_p => oro_var2(:,:,num)
opt = .false.
if (trim(oro_name2(num)) == 'lake_frac' .or. trim(oro_name2(num)) == 'lake_depth') opt = .true.
call register_restart_field(Oro_restart, oro_name2(num), var2_p, dim_names_2d, is_optional=opt)
nullify(var2_p)
enddo
endif
!--- read the orography restart/data
call mpp_error(NOTE,'reading topographic/orographic information from INPUT/oro_data.tile*.nc')
call read_restart(Oro_restart, ignore_checksum=enforce_rst_cksum)
call close_file(Oro_restart)
!--- copy data into GFS containers
do nb = 1, Atm_block%nblks
!--- 2D variables
do ix = 1, Atm_block%blksz(nb)
i = Atm_block%index(nb)%ii(ix) - isc + 1
j = Atm_block%index(nb)%jj(ix) - jsc + 1
!--- stddev
Sfcprop(nb)%hprim(ix) = oro_var2(i,j,1)
!--- hprime(1:14)
Sfcprop(nb)%hprime(ix,1) = oro_var2(i,j,1)
Sfcprop(nb)%hprime(ix,2) = oro_var2(i,j,2)
Sfcprop(nb)%hprime(ix,3) = oro_var2(i,j,3)
Sfcprop(nb)%hprime(ix,4) = oro_var2(i,j,4)
Sfcprop(nb)%hprime(ix,5) = oro_var2(i,j,5)
Sfcprop(nb)%hprime(ix,6) = oro_var2(i,j,6)
Sfcprop(nb)%hprime(ix,7) = oro_var2(i,j,7)
Sfcprop(nb)%hprime(ix,8) = oro_var2(i,j,8)
Sfcprop(nb)%hprime(ix,9) = oro_var2(i,j,9)
Sfcprop(nb)%hprime(ix,10) = oro_var2(i,j,10)
Sfcprop(nb)%hprime(ix,11) = oro_var2(i,j,11)
Sfcprop(nb)%hprime(ix,12) = oro_var2(i,j,12)
Sfcprop(nb)%hprime(ix,13) = oro_var2(i,j,13)
Sfcprop(nb)%hprime(ix,14) = oro_var2(i,j,14)
!--- oro
Sfcprop(nb)%oro(ix) = oro_var2(i,j,15)
!--- oro_uf
Sfcprop(nb)%oro_uf(ix) = oro_var2(i,j,16)
Sfcprop(nb)%landfrac(ix) = oro_var2(i,j,17) !land frac [0:1]
Sfcprop(nb)%lakefrac(ix) = oro_var2(i,j,18) !lake frac [0:1]
enddo
enddo
if (nint(oro_var2(1,1,18)) == -9999._kind_phys) then ! lakefrac doesn't exist in the restart, need to create it
if (Model%me == Model%master ) call mpp_error(NOTE, 'gfs_driver::surface_props_input - will computing lakefrac')
Model%frac_grid = .false.
else
Model%frac_grid = .true.
endif
if (Model%me == Model%master ) write(0,*)' resetting Model%frac_grid=',Model%frac_grid
!--- deallocate containers
deallocate(oro_name2, oro_var2)
else ! no file - cold_start (no way yet to create orography on-the-fly)
call mpp_error(NOTE,'No INPUT/oro_data.tile*.nc orographic data found; setting to 0')
!--- copy data into GFS containers
do nb = 1, Atm_block%nblks
!--- 2D variables
do ix = 1, Atm_block%blksz(nb)
i = Atm_block%index(nb)%ii(ix) - isc + 1
j = Atm_block%index(nb)%jj(ix) - jsc + 1