MODULE module_sf_urban 
(docs) 3
!===============================================================================
! Single-Layer Urban Canopy Model for WRF Noah-LSM
! Original Version: 2002/11/06 by Hiroyuki Kusaka
! Last Update: 2006/08/24 by Fei Chen and Mukul Tewari (NCAR/RAL)
!===============================================================================
CHARACTER(LEN=4) :: LU_DATA_TYPE
INTEGER :: ICATE
REAL, ALLOCATABLE, DIMENSION(:) :: ZR_TBL
REAL, ALLOCATABLE, DIMENSION(:) :: Z0C_TBL
REAL, ALLOCATABLE, DIMENSION(:) :: Z0HC_TBL
REAL, ALLOCATABLE, DIMENSION(:) :: ZDC_TBL
REAL, ALLOCATABLE, DIMENSION(:) :: SVF_TBL
REAL, ALLOCATABLE, DIMENSION(:) :: R_TBL
REAL, ALLOCATABLE, DIMENSION(:) :: RW_TBL
REAL, ALLOCATABLE, DIMENSION(:) :: HGT_TBL
REAL, ALLOCATABLE, DIMENSION(:) :: AH_TBL
REAL, ALLOCATABLE, DIMENSION(:) :: BETR_TBL
REAL, ALLOCATABLE, DIMENSION(:) :: BETB_TBL
REAL, ALLOCATABLE, DIMENSION(:) :: BETG_TBL
REAL, ALLOCATABLE, DIMENSION(:) :: FRC_URB_TBL
REAL, ALLOCATABLE, DIMENSION(:) :: CAPR_TBL, CAPB_TBL, CAPG_TBL
REAL, ALLOCATABLE, DIMENSION(:) :: AKSR_TBL, AKSB_TBL, AKSG_TBL
REAL, ALLOCATABLE, DIMENSION(:) :: ALBR_TBL, ALBB_TBL, ALBG_TBL
REAL, ALLOCATABLE, DIMENSION(:) :: EPSR_TBL, EPSB_TBL, EPSG_TBL
REAL, ALLOCATABLE, DIMENSION(:) :: Z0R_TBL, Z0B_TBL, Z0G_TBL
REAL, ALLOCATABLE, DIMENSION(:) :: Z0HR_TBL, Z0HB_TBL, Z0HG_TBL
REAL, ALLOCATABLE, DIMENSION(:) :: TRLEND_TBL, TBLEND_TBL, TGLEND_TBL
!for BEP
! MAXDIRS :: The maximum number of street directions we're allowed to define
INTEGER, PARAMETER :: MAXDIRS = 3
! MAXHGTS :: The maximum number of building height bins we're allowed to define
INTEGER, PARAMETER :: MAXHGTS = 50
INTEGER, ALLOCATABLE, DIMENSION(:) :: NUMDIR_TBL
REAL, ALLOCATABLE, DIMENSION(:,:) :: STREET_DIRECTION_TBL
REAL, ALLOCATABLE, DIMENSION(:,:) :: STREET_WIDTH_TBL
REAL, ALLOCATABLE, DIMENSION(:,:) :: BUILDING_WIDTH_TBL
INTEGER, ALLOCATABLE, DIMENSION(:) :: NUMHGT_TBL
REAL, ALLOCATABLE, DIMENSION(:,:) :: HEIGHT_BIN_TBL
REAL, ALLOCATABLE, DIMENSION(:,:) :: HPERCENT_BIN_TBL
!end BEP
INTEGER :: BOUNDR_DATA,BOUNDB_DATA,BOUNDG_DATA
INTEGER :: CH_SCHEME_DATA, TS_SCHEME_DATA
INTEGER :: ahoption ! Miao, 2007/01/17, cal. ah
REAL, DIMENSION(1:24) :: ahdiuprf ! ah diurnal profile, tloc: 1-24
INTEGER :: allocate_status
! INTEGER :: num_roof_layers
! INTEGER :: num_wall_layers
! INTEGER :: num_road_layers
CONTAINS
!===============================================================================
!
! Author:
! Hiroyuki KUSAKA, PhD
! University of Tsukuba, JAPAN
! (CRIEPI, NCAR/MMM visiting scientist, 2002-2004)
! kusaka@ccs.tsukuba.ac.jp
!
! Co-Researchers:
! Fei CHEN, PhD
! NCAR/RAP feichen@ucar.edu
! Mukul TEWARI, PhD
! NCAR/RAP mukul@ucar.edu
!
! Purpose:
! Calculate surface temeprature, fluxes, canopy air temperature, and canopy wind
!
! Subroutines:
! module_sf_urban
! |- urban
! |- read_param
! |- mos or jurges
! |- multi_layer or force_restore
! |- urban_param_init <-- URBPARM.TBL
! |- urban_var_init
!
! Input Data from WRF [MKS unit]:
!
! UTYPE [-] : Urban type. 1=Commercial/Industrial; 2=High-intensity residential;
! : 3=low-intensity residential
! TA [K] : Potential temperature at 1st wrf level (absolute temp)
! QA [kg/kg] : Mixing ratio at 1st atmospheric level
! UA [m/s] : Wind speed at 1st atmospheric level
! SSG [W/m/m] : Short wave downward radiation at a flat surface
! Note this is the total of direct and diffusive solar
! downward radiation. If without two components, the
! single solar downward can be used instead.
! SSG = SSGD + SSGQ
! LSOLAR [-] : Indicating the input type of solar downward radiation
! True: both direct and diffusive solar radiation
! are available
! False: only total downward ridiation is available.
! SSGD [W/m/m] : Direct solar radiation at a flat surface
! if SSGD is not available, one can assume a ratio SRATIO
! (e.g., 0.7), so that SSGD = SRATIO*SSG
! SSGQ [W/m/m] : Diffuse solar radiation at a flat surface
! If SSGQ is not available, SSGQ = SSG - SSGD
! LLG [W/m/m] : Long wave downward radiation at a flat surface
! RAIN [mm/h] : Precipitation
! RHOO [kg/m/m/m] : Air density
! ZA [m] : First atmospheric level
! as a lowest boundary condition
! DECLIN [rad] : solar declination
! COSZ : = sin(fai)*sin(del)+cos(fai)*cos(del)*cos(omg)
! OMG [rad] : solar hour angle
! XLAT [deg] : latitude
! DELT [sec] : Time step
! ZNT [m] : Roughnes length
!
! Output Data to WRF [MKS unit]:
!
! TS [K] : Surface potential temperature (absolute temp)
! QS [-] : Surface humidity
!
! SH [W/m/m/] : Sensible heat flux, = FLXTH*RHOO*CPP
! LH [W/m/m] : Latent heat flux, = FLXHUM*RHOO*ELL
! LH_INEMATIC [kg/m/m/sec]: Moisture Kinematic flux, = FLXHUM*RHOO
! SW [W/m/m] : Upward shortwave radiation flux,
! = SSG-SNET*697.7*60. (697.7*60.=100.*100.*4.186)
! ALB [-] : Time-varying albedo
! LW [W/m/m] : Upward longwave radiation flux,
! = LNET*697.7*60.-LLG
! G [W/m/m] : Heat Flux into the Ground
! RN [W/m/m] : Net radiation
!
! PSIM [-] : Diagnostic similarity stability function for momentum
! PSIH [-] : Diagnostic similarity stability function for heat
!
! TC [K] : Diagnostic canopy air temperature
! QC [-] : Diagnostic canopy humidity
!
! TH2 [K] : Diagnostic potential temperature at 2 m
! Q2 [-] : Diagnostic humidity at 2 m
! U10 [m/s] : Diagnostic u wind component at 10 m
! V10 [m/s] : Diagnostic v wind component at 10 m
!
! CHS, CHS2 [m/s] : CH*U at ZA, CH*U at 2 m (not used)
!
! Important parameters:
!
! Morphology of the urban canyon:
! These parameters assigned in the URBPARM.TBL
!
! ZR [m] : roof level (building height)
! ROOF_WIDTH [m] : roof (i.e., building) width
! ROAD_WIDTH [m] : road width
!
! Parameters derived from the morphological terms above.
! These parameters are computed in the code.
!
! HGT [-] : normalized building height
! SVF [-] : sky view factor
! R [-] : Normalized roof width (a.k.a. "building coverage ratio")
! RW [-] : = 1 - R
! Z0C [m] : Roughness length above canyon for momentum (1/10 of ZR)
! Z0HC [m] : Roughness length above canyon for heat (1/10 of Z0C)
! ZDC [m] : Zero plane displacement height (1/5 of ZR)
!
! Following parameter are assigned in run/URBPARM.TBL
!
! AH [ W m{-2} ] : anthropogenic heat ( W m{-2} in the table, converted internally to cal cm{-2} )
! CAPR[ J m{-3} K{-1} ] : heat capacity of roof ( units converted in code to [ cal cm{-3} deg{-1} ] )
! CAPB[ J m{-3} K{-1} ] : heat capacity of building wall ( units converted in code to [ cal cm{-3} deg{-1} ] )
! CAPG[ J m{-3} K{-1} ] : heat capacity of road ( units converted in code to [ cal cm{-3} deg{-1} ] )
! AKSR [ J m{-1} s{-1} K{-1} ] : thermal conductivity of roof ( units converted in code to [ cal cm{-1} s{-1} deg{-1} ] )
! AKSB [ J m{-1} s{-1} K{-1} ] : thermal conductivity of building wall ( units converted in code to [ cal cm{-1} s{-1} deg{-1} ] )
! AKSG [ J m{-1} s{-1} K{-1} ] : thermal conductivity of road ( units converted in code to [ cal cm{-1} s{-1} deg{-1} ] )
! ALBR [-] : surface albedo of roof
! ALBB [-] : surface albedo of building wall
! ALBG [-] : surface albedo of road
! EPSR [-] : surface emissivity of roof
! EPSB [-] : surface emissivity of building wall
! EPSG [-] : surface emissivity of road
! Z0R [m] : roughness length for momentum of roof
! Z0B [m] : roughness length for momentum of building wall (only for CH_SCHEME = 1)
! Z0G [m] : roughness length for momentum of road (only for CH_SCHEME = 1)
! Z0HR [m] : roughness length for heat of roof
! Z0HB [m] : roughness length for heat of building wall (only for CH_SCHEME = 1)
! Z0HG [m] : roughness length for heat of road
! num_roof_layers : number of layers within roof
! num_wall_layers : number of layers within building walls
! num_road_layers : number of layers within below road surface
! NOTE: for now, these layers are defined as same as the number of soil layers in namelist.input
! DZR [cm] : thickness of each roof layer
! DZB [cm] : thickness of each building wall layer
! DZG [cm] : thickness of each ground layer
! BOUNDR [integer 1 or 2] : Boundary Condition for Roof Layer Temp [1: Zero-Flux, 2: T = Constant]
! BOUNDB [integer 1 or 2] : Boundary Condition for Building Wall Layer Temp [1: Zero-Flux, 2: T = Constant]
! BOUNDG [integer 1 or 2] : Boundary Condition for Road Layer Temp [1: Zero-Flux, 2: T = Constant]
! TRLEND [K] : lower boundary condition of roof temperature
! TBLEND [K] : lower boundary condition of building temperature
! TGLEND [K] : lower boundary condition of ground temperature
! CH_SCHEME [integer 1 or 2] : Sfc exchange scheme used for building wall and road
! [1: M-O Similarity Theory, 2: Empirical Form (recommend)]
! TS_SCHEME [integer 1 or 2] : Scheme for computing surface temperature (for roof, wall, and road)
! [1: 4-layer model, 2: Force-Restore method]
!
!for BEP
! numdir [ - ] : Number of street directions defined for a particular urban category
! street_direction [ deg ] : Direction of streets for a particular urban category and a particular street direction
! street_width [ m ] : Width of street for a particular urban category and a particular street direction
! building_width [ m ] : Width of buildings for a particular urban category and a particular street direction
! numhgt [ - ] : Number of building height levels defined for a particular urban category
! height_bin [ m ] : Building height bins defined for a particular urban category.
! hpercent_bin [ % ] : Percentage of a particular urban category populated by buildings of particular height bins
!end BEP
! Moved from URBPARM.TBL
!
! BETR [-] : minimum moisture availability of roof
! BETB [-] : minimum moisture availability of building wall
! BETG [-] : minimum moisture availability of road
! Z0HR [m] : roughness length for heat of roof
! Z0HB [m] : roughness length for heat of building wall (only for CH_SCHEME = 1)
! Z0HG [m] : roughness length for heat of road
! num_roof_layers : number of layers within roof
! num_wall_layers : number of layers within building walls
! num_road_layers : number of layers within below road surface
! NOTE: for now, these layers are defined as same as the number of soil layers in namelist.input
!
! References:
! Kusaka and Kimura (2004) J.Appl.Meteor., vol.43, p1899-1910
! Kusaka and Kimura (2004) J.Meteor.Soc.Japan, vol.82, p45-65
! Kusaka et al. (2001) Bound.-Layer Meteor., vol.101, p329-358
!
! History:
! 2006/06 modified by H. Kusaka (Univ. Tsukuba), M. Tewari
! 2005/10/26, modified by Fei Chen, Mukul Tewari
! 2003/07/21 WRF , modified by H. Kusaka of CRIEPI (NCAR/MMM)
! 2001/08/26 PhD , modified by H. Kusaka of CRIEPI (Univ.Tsukuba)
! 1999/08/25 LCM , developed by H. Kusaka of CRIEPI (Univ.Tsukuba)
!
!===============================================================================
!
! subroutine urban:
!
!===============================================================================
SUBROUTINE urban (docs) (LSOLAR, & ! L 1,11
num_roof_layers,num_wall_layers,num_road_layers, & ! I
DZR,DZB,DZG, & ! I
UTYPE,TA,QA,UA,U1,V1,SSG,SSGD,SSGQ,LLG,RAIN,RHOO, & ! I
ZA,DECLIN,COSZ,OMG,XLAT,DELT,ZNT, & ! I
CHS, CHS2, & ! I
TR, TB, TG, TC, QC, UC, & ! H
TRL,TBL,TGL, & ! H
XXXR, XXXB, XXXG, XXXC, & ! H
TS,QS,SH,LH,LH_KINEMATIC, & ! O
SW,ALB,LW,G,RN,PSIM,PSIH, & ! O
GZ1OZ0, & ! O
U10,V10,TH2,Q2,UST & ! O
)
IMPLICIT NONE
REAL, PARAMETER :: CP=0.24 ! heat capacity of dry air [cgs unit]
REAL, PARAMETER :: EL=583. ! latent heat of vaporation [cgs unit]
REAL, PARAMETER :: SIG=8.17E-11 ! stefun bolzman constant [cgs unit]
REAL, PARAMETER :: SIG_SI=5.67E-8 ! [MKS unit]
REAL, PARAMETER :: AK=0.4 ! kalman const. [-]
REAL, PARAMETER :: PI=3.14159 ! pi [-]
REAL, PARAMETER :: TETENA=7.5 ! const. of Tetens Equation [-]
REAL, PARAMETER :: TETENB=237.3 ! const. of Tetens Equation [-]
REAL, PARAMETER :: SRATIO=0.75 ! ratio between direct/total solar [-]
REAL, PARAMETER :: CPP=1004.5 ! heat capacity of dry air [J/K/kg]
REAL, PARAMETER :: ELL=2.442E+06 ! latent heat of vaporization [J/kg]
REAL, PARAMETER :: XKA=2.4E-5
!-------------------------------------------------------------------------------
! C: configuration variables
!-------------------------------------------------------------------------------
LOGICAL, INTENT(IN) :: LSOLAR ! logical [true=both, false=SSG only]
! The following variables are also model configuration variables, but are
! defined in the URBAN.TBL and in the contains statement in the top of
! the module_urban_init, so we should not declare them here.
INTEGER, INTENT(IN) :: num_roof_layers
INTEGER, INTENT(IN) :: num_wall_layers
INTEGER, INTENT(IN) :: num_road_layers
REAL, INTENT(IN), DIMENSION(1:num_roof_layers) :: DZR ! grid interval of roof layers [cm]
REAL, INTENT(IN), DIMENSION(1:num_wall_layers) :: DZB ! grid interval of wall layers [cm]
REAL, INTENT(IN), DIMENSION(1:num_road_layers) :: DZG ! grid interval of road layers [cm]
!-------------------------------------------------------------------------------
! I: input variables from LSM to Urban
!-------------------------------------------------------------------------------
INTEGER, INTENT(IN) :: UTYPE ! urban type [1=Commercial/Industrial, 2=High-intensity residential,
! 3=low-intensity residential]
REAL, INTENT(IN) :: TA ! potential temp at 1st atmospheric level [K]
REAL, INTENT(IN) :: QA ! mixing ratio at 1st atmospheric level [kg/kg]
REAL, INTENT(IN) :: UA ! wind speed at 1st atmospheric level [m/s]
REAL, INTENT(IN) :: U1 ! u at 1st atmospheric level [m/s]
REAL, INTENT(IN) :: V1 ! v at 1st atmospheric level [m/s]
REAL, INTENT(IN) :: SSG ! downward total short wave radiation [W/m/m]
REAL, INTENT(IN) :: LLG ! downward long wave radiation [W/m/m]
REAL, INTENT(IN) :: RAIN ! precipitation [mm/h]
REAL, INTENT(IN) :: RHOO ! air density [kg/m^3]
REAL, INTENT(IN) :: ZA ! first atmospheric level [m]
REAL, INTENT(IN) :: DECLIN ! solar declination [rad]
REAL, INTENT(IN) :: COSZ ! sin(fai)*sin(del)+cos(fai)*cos(del)*cos(omg)
REAL, INTENT(IN) :: OMG ! solar hour angle [rad]
REAL, INTENT(IN) :: XLAT ! latitude [deg]
REAL, INTENT(IN) :: DELT ! time step [s]
REAL, INTENT(IN) :: ZNT ! roughness length [m]
REAL, INTENT(IN) :: CHS,CHS2 ! CH*U at za and 2 m [m/s]
REAL, INTENT(INOUT) :: SSGD ! downward direct short wave radiation [W/m/m]
REAL, INTENT(INOUT) :: SSGQ ! downward diffuse short wave radiation [W/m/m]
!-------------------------------------------------------------------------------
! O: output variables from Urban to LSM
!-------------------------------------------------------------------------------
REAL, INTENT(OUT) :: TS ! surface potential temperature [K]
REAL, INTENT(OUT) :: QS ! surface humidity [K]
REAL, INTENT(OUT) :: SH ! sensible heat flux [W/m/m]
REAL, INTENT(OUT) :: LH ! latent heat flux [W/m/m]
REAL, INTENT(OUT) :: LH_KINEMATIC ! latent heat, kinetic [kg/m/m/s]
REAL, INTENT(OUT) :: SW ! upward short wave radiation flux [W/m/m]
REAL, INTENT(OUT) :: ALB ! time-varying albedo [fraction]
REAL, INTENT(OUT) :: LW ! upward long wave radiation flux [W/m/m]
REAL, INTENT(OUT) :: G ! heat flux into the ground [W/m/m]
REAL, INTENT(OUT) :: RN ! net radition [W/m/m]
REAL, INTENT(OUT) :: PSIM ! similality stability shear function for momentum
REAL, INTENT(OUT) :: PSIH ! similality stability shear function for heat
REAL, INTENT(OUT) :: GZ1OZ0
REAL, INTENT(OUT) :: U10 ! u at 10m [m/s]
REAL, INTENT(OUT) :: V10 ! u at 10m [m/s]
REAL, INTENT(OUT) :: TH2 ! potential temperature at 2 m [K]
REAL, INTENT(OUT) :: Q2 ! humidity at 2 m [-]
!m REAL, INTENT(OUT) :: CHS,CHS2 ! CH*U at za and 2 m [m/s]
REAL, INTENT(OUT) :: UST ! friction velocity [m/s]
!-------------------------------------------------------------------------------
! H: Historical (state) variables of Urban : LSM <--> Urban
!-------------------------------------------------------------------------------
! TR: roof temperature [K]; TRP: at previous time step [K]
! TB: building wall temperature [K]; TBP: at previous time step [K]
! TG: road temperature [K]; TGP: at previous time step [K]
! TC: urban-canopy air temperature [K]; TCP: at previous time step [K]
! (absolute temperature)
! QC: urban-canopy air mixing ratio [kg/kg]; QCP: at previous time step [kg/kg]
!
! XXXR: Monin-Obkhov length for roof [dimensionless]
! XXXB: Monin-Obkhov length for building wall [dimensionless]
! XXXG: Monin-Obkhov length for road [dimensionless]
! XXXC: Monin-Obkhov length for urban-canopy [dimensionless]
!
! TRL, TBL, TGL: layer temperature [K] (absolute temperature)
REAL, INTENT(INOUT):: TR, TB, TG, TC, QC, UC
REAL, INTENT(INOUT):: XXXR, XXXB, XXXG, XXXC
REAL, DIMENSION(1:num_roof_layers), INTENT(INOUT) :: TRL
REAL, DIMENSION(1:num_wall_layers), INTENT(INOUT) :: TBL
REAL, DIMENSION(1:num_road_layers), INTENT(INOUT) :: TGL
!-------------------------------------------------------------------------------
! L: Local variables from read_param
!-------------------------------------------------------------------------------
REAL :: ZR, Z0C, Z0HC, ZDC, SVF, R, RW, HGT, AH
REAL :: CAPR, CAPB, CAPG, AKSR, AKSB, AKSG, ALBR, ALBB, ALBG
REAL :: EPSR, EPSB, EPSG, Z0R, Z0B, Z0G, Z0HR, Z0HB, Z0HG
REAL :: TRLEND,TBLEND,TGLEND
REAL :: TH2X !m
INTEGER :: BOUNDR, BOUNDB, BOUNDG
INTEGER :: CH_SCHEME, TS_SCHEME
LOGICAL :: SHADOW ! [true=consider svf and shadow effects, false=consider svf effect only]
!for BEP
INTEGER :: NUMDIR
REAL, DIMENSION ( MAXDIRS ) :: STREET_DIRECTION
REAL, DIMENSION ( MAXDIRS ) :: STREET_WIDTH
REAL, DIMENSION ( MAXDIRS ) :: BUILDING_WIDTH
INTEGER :: NUMHGT
REAL, DIMENSION ( MAXHGTS ) :: HEIGHT_BIN
REAL, DIMENSION ( MAXHGTS ) :: HPERCENT_BIN
!end BEP
!-------------------------------------------------------------------------------
! L: Local variables
!-------------------------------------------------------------------------------
REAL :: BETR, BETB, BETG
REAL :: SX, SD, SQ, RX
REAL :: UR, ZC, XLB, BB
REAL :: Z, RIBR, RIBB, RIBG, RIBC, BHR, BHB, BHG, BHC
REAL :: TSC, LNET, SNET, FLXUV, THG, FLXTH, FLXHUM, FLXG
REAL :: W, VFGS, VFGW, VFWG, VFWS, VFWW
REAL :: HOUI1, HOUI2, HOUI3, HOUI4, HOUI5, HOUI6, HOUI7, HOUI8
REAL :: SLX, SLX1, SLX2, SLX3, SLX4, SLX5, SLX6, SLX7, SLX8
REAL :: FLXTHR, FLXTHB, FLXTHG, FLXHUMR, FLXHUMB, FLXHUMG
REAL :: SR, SB, SG, RR, RB, RG
REAL :: SR1, SR2, SB1, SB2, SG1, SG2, RR1, RR2, RB1, RB2, RG1, RG2
REAL :: HR, HB, HG, ELER, ELEB, ELEG, G0R, G0B, G0G
REAL :: ALPHAC, ALPHAR, ALPHAB, ALPHAG
REAL :: CHC, CHR, CHB, CHG, CDC, CDR, CDB, CDG
REAL :: C1R, C1B, C1G, TE, TC1, TC2, QC1, QC2, QS0R, QS0B, QS0G,RHO,ES
REAL :: DESDT
REAL :: F
REAL :: DQS0RDTR
REAL :: DRRDTR, DHRDTR, DELERDTR, DG0RDTR
REAL :: DTR, DFDT
REAL :: FX, FY, GF, GX, GY
REAL :: DTCDTB, DTCDTG
REAL :: DQCDTB, DQCDTG
REAL :: DRBDTB1, DRBDTG1, DRBDTB2, DRBDTG2
REAL :: DRGDTB1, DRGDTG1, DRGDTB2, DRGDTG2
REAL :: DRBDTB, DRBDTG, DRGDTB, DRGDTG
REAL :: DHBDTB, DHBDTG, DHGDTB, DHGDTG
REAL :: DELEBDTB, DELEBDTG, DELEGDTG, DELEGDTB
REAL :: DG0BDTB, DG0BDTG, DG0GDTG, DG0GDTB
REAL :: DQS0BDTB, DQS0GDTG
REAL :: DTB, DTG, DTC
REAL :: THEATAZ ! Solar Zenith Angle [rad]
REAL :: THEATAS ! = PI/2. - THETAZ
REAL :: FAI ! Latitude [rad]
REAL :: CNT,SNT
REAL :: PS ! Surface Pressure [hPa]
REAL :: TAV ! Vertial Temperature [K]
REAL :: XXX, X, Z0, Z0H, CD, CH
REAL :: XXX2, PSIM2, PSIH2, XXX10, PSIM10, PSIH10
REAL :: PSIX, PSIT, PSIX2, PSIT2, PSIX10, PSIT10
REAL :: TRP, TBP, TGP, TCP, QCP, TST, QST
INTEGER :: iteration, K
INTEGER :: tloc
!-------------------------------------------------------------------------------
! Set parameters
!-------------------------------------------------------------------------------
! Miao, 2007/01/17, cal. ah
if(ahoption==1) then
tloc=mod(int(OMG/PI*180./15.+12.+0.5 ),24)
if(tloc==0) tloc=24
endif
CALL read_param
(UTYPE,ZR,Z0C,Z0HC,ZDC,SVF,R,RW,HGT,AH, &
CAPR,CAPB,CAPG,AKSR,AKSB,AKSG,ALBR,ALBB,ALBG, &
EPSR,EPSB,EPSG,Z0R,Z0B,Z0G,Z0HR,Z0HB,Z0HG, &
BETR,BETB,BETG,TRLEND,TBLEND,TGLEND, &
!for BEP
NUMDIR, STREET_DIRECTION, STREET_WIDTH, &
BUILDING_WIDTH, NUMHGT, HEIGHT_BIN, &
HPERCENT_BIN, &
!end BEP
BOUNDR,BOUNDB,BOUNDG,CH_SCHEME,TS_SCHEME)
! Miao, 2007/01/17, cal. ah
if(ahoption==1) AH=AH*ahdiuprf(tloc)
IF( ZDC+Z0C+2. >= ZA) THEN
PRINT *, 'ZDC + Z0C + 2m is larger than the 1st WRF level'
PRINT *, 'Stop in the subroutine urban - change ZDC and Z0C'
STOP
END IF
IF(.NOT.LSOLAR) THEN
SSGD = SRATIO*SSG
SSGQ = SSG - SSGD
ENDIF
SSGD = SRATIO*SSG ! No radiation scheme has SSGD and SSGQ.
SSGQ = SSG - SSGD
W=2.*1.*HGT
VFGS=SVF
VFGW=1.-SVF
VFWG=(1.-SVF)*(1.-R)/W
VFWS=VFWG
VFWW=1.-2.*VFWG
!-------------------------------------------------------------------------------
! Convert unit from MKS to cgs
! Renew surface and layer temperatures
!-------------------------------------------------------------------------------
SX=(SSGD+SSGQ)/697.7/60. ! downward short wave radition [ly/min]
SD=SSGD/697.7/60. ! downward direct short wave radiation
SQ=SSGQ/697.7/60. ! downward diffuse short wave radiation
RX=LLG/697.7/60. ! downward long wave radiation
RHO=RHOO*0.001 ! air density at first atmospheric level
TRP=TR
TBP=TB
TGP=TG
TCP=TC
QCP=QC
TAV=TA*(1.+0.61*QA)
PS=RHOO*287.*TAV/100. ![hPa]
!-------------------------------------------------------------------------------
! Canopy wind
!-------------------------------------------------------------------------------
IF ( ZR + 2. < ZA ) THEN
UR=UA*LOG((ZR-ZDC)/Z0C)/LOG((ZA-ZDC)/Z0C)
ZC=0.7*ZR
XLB=0.4*(ZR-ZDC)
! BB formulation from Inoue (1963)
BB = 0.4 * ZR / ( XLB * alog( ( ZR - ZDC ) / Z0C ) )
UC=UR*EXP(-BB*(1.-ZC/ZR))
ELSE
PRINT *, 'Warning ZR + 2m is larger than the 1st WRF level'
ZC=ZA/2.
UC=UA/2.
END IF
!-------------------------------------------------------------------------------
! Net Short Wave Radiation at roof, wall, and road
!-------------------------------------------------------------------------------
SHADOW = .false.
! SHADOW = .true.
IF (SSG > 0.0) THEN
IF(.NOT.SHADOW) THEN ! no shadow effects model
SR1=SX*(1.-ALBR)
SG1=SX*VFGS*(1.-ALBG)
SB1=SX*VFWS*(1.-ALBB)
SG2=SB1*ALBB/(1.-ALBB)*VFGW*(1.-ALBG)
SB2=SG1*ALBG/(1.-ALBG)*VFWG*(1.-ALBB)
ELSE ! shadow effects model
FAI=XLAT*PI/180.
THEATAS=ABS(ASIN(COSZ))
THEATAZ=ABS(ACOS(COSZ))
SNT=COS(DECLIN)*SIN(OMG)/COS(THEATAS)
CNT=(COSZ*SIN(FAI)-SIN(DECLIN))/COS(THEATAS)/COS(FAI)
HOUI1=(SNT*COS(PI/8.) -CNT*SIN(PI/8.))
HOUI2=(SNT*COS(2.*PI/8.) -CNT*SIN(2.*PI/8.))
HOUI3=(SNT*COS(3.*PI/8.) -CNT*SIN(3.*PI/8.))
HOUI4=(SNT*COS(4.*PI/8.) -CNT*SIN(4.*PI/8.))
HOUI5=(SNT*COS(5.*PI/8.) -CNT*SIN(5.*PI/8.))
HOUI6=(SNT*COS(6.*PI/8.) -CNT*SIN(6.*PI/8.))
HOUI7=(SNT*COS(7.*PI/8.) -CNT*SIN(7.*PI/8.))
HOUI8=(SNT*COS(8.*PI/8.) -CNT*SIN(8.*PI/8.))
SLX1=HGT*ABS(TAN(THEATAZ))*ABS(HOUI1)
SLX2=HGT*ABS(TAN(THEATAZ))*ABS(HOUI2)
SLX3=HGT*ABS(TAN(THEATAZ))*ABS(HOUI3)
SLX4=HGT*ABS(TAN(THEATAZ))*ABS(HOUI4)
SLX5=HGT*ABS(TAN(THEATAZ))*ABS(HOUI5)
SLX6=HGT*ABS(TAN(THEATAZ))*ABS(HOUI6)
SLX7=HGT*ABS(TAN(THEATAZ))*ABS(HOUI7)
SLX8=HGT*ABS(TAN(THEATAZ))*ABS(HOUI8)
IF(SLX1 > RW) SLX1=RW
IF(SLX2 > RW) SLX2=RW
IF(SLX3 > RW) SLX3=RW
IF(SLX4 > RW) SLX4=RW
IF(SLX5 > RW) SLX5=RW
IF(SLX6 > RW) SLX6=RW
IF(SLX7 > RW) SLX7=RW
IF(SLX8 > RW) SLX8=RW
SLX=(SLX1+SLX2+SLX3+SLX4+SLX5+SLX6+SLX7+SLX8)/8.
SR1=SD*(1.-ALBR)+SQ*(1.-ALBR)
SG1=SD*(RW-SLX)/RW*(1.-ALBG)+SQ*VFGS*(1.-ALBG)
SB1=SD*SLX/W*(1.-ALBB)+SQ*VFWS*(1.-ALBB)
SG2=SB1*ALBB/(1.-ALBB)*VFGW*(1.-ALBG)
SB2=SG1*ALBG/(1.-ALBG)*VFWG*(1.-ALBB)
END IF
SR=SR1
SG=SG1+SG2
SB=SB1+SB2
SNET=R*SR+W*SB+RW*SG
ELSE
SR=0.
SG=0.
SB=0.
SNET=0.
END IF
!-------------------------------------------------------------------------------
! Roof
!-------------------------------------------------------------------------------
!-------------------------------------------------------------------------------
! CHR, CDR, BETR
!-------------------------------------------------------------------------------
Z=ZA-ZDC
BHR=LOG(Z0R/Z0HR)/0.4
RIBR=(9.8*2./(TA+TRP))*(TA-TRP)*(Z+Z0R)/(UA*UA)
CALL mos(XXXR,ALPHAR,CDR,BHR,RIBR,Z,Z0R,UA,TA,TRP,RHO)
CHR=ALPHAR/RHO/CP/UA
IF(RAIN > 1.) BETR=0.7
IF (TS_SCHEME == 1) THEN
!-------------------------------------------------------------------------------
! TR Solving Non-Linear Equation by Newton-Rapson
! TRL Solving Heat Equation by Tri Diagonal Matrix Algorithm
!-------------------------------------------------------------------------------
! TSC=TRP-273.15
! ES=EXP(19.482-4303.4/(TSC+243.5)) ! WMO
! ES=6.11*10.**(TETENA*TSC/(TETENB+TSC)) ! Tetens
! DESDT=( 6.1078*(2500.-2.4*TSC)/ & ! Tetens
! (0.46151*(TSC+273.15)**2.) )*10.**(7.5*TSC/(237.3+TSC))
! ES=6.11*EXP((2.5*10.**6./461.51)*(TRP-273.15)/(273.15*TRP) ) ! Clausius-Clapeyron
! DESDT=(2.5*10.**6./461.51)*ES/(TRP**2.) ! Clausius-Clapeyron
! QS0R=0.622*ES/(PS-0.378*ES)
! DQS0RDTR = DESDT*0.622*PS/((PS-0.378*ES)**2.)
! DQS0RDTR = 17.269*(273.15-35.86)/((TRP-35.86)**2.)*QS0R
! TRP=350.
DO ITERATION=1,20
ES=6.11*EXP( (2.5*10.**6./461.51)*(TRP-273.15)/(273.15*TRP) )
DESDT=(2.5*10.**6./461.51)*ES/(TRP**2.)
QS0R=0.622*ES/(PS-0.378*ES)
DQS0RDTR = DESDT*0.622*PS/((PS-0.378*ES)**2.)
RR=EPSR*(RX-SIG*(TRP**4.)/60.)
HR=RHO*CP*CHR*UA*(TRP-TA)*100.
ELER=RHO*EL*CHR*UA*BETR*(QS0R-QA)*100.
G0R=AKSR*(TRP-TRL(1))/(DZR(1)/2.)
F = SR + RR - HR - ELER - G0R
DRRDTR = (-4.*EPSR*SIG*TRP**3.)/60.
DHRDTR = RHO*CP*CHR*UA*100.
DELERDTR = RHO*EL*CHR*UA*BETR*DQS0RDTR*100.
DG0RDTR = 2.*AKSR/DZR(1)
DFDT = DRRDTR - DHRDTR - DELERDTR - DG0RDTR
DTR = F/DFDT
TR = TRP - DTR
TRP = TR
IF( ABS(F) < 0.000001 .AND. ABS(DTR) < 0.000001 ) EXIT
END DO
! multi-layer heat equation model
CALL multi_layer(num_roof_layers,BOUNDR,G0R,CAPR,AKSR,TRL,DZR,DELT,TRLEND)
ELSE
ES=6.11*EXP( (2.5*10.**6./461.51)*(TRP-273.15)/(273.15*TRP) )
QS0R=0.622*ES/(PS-0.378*ES)
RR=EPSR*(RX-SIG*(TRP**4.)/60.)
HR=RHO*CP*CHR*UA*(TRP-TA)*100.
ELER=RHO*EL*CHR*UA*BETR*(QS0R-QA)*100.
G0R=SR+RR-HR-ELER
CALL force_restore(CAPR,AKSR,DELT,SR,RR,HR,ELER,TRLEND,TRP,TR)
TRP=TR
END IF
FLXTHR=HR/RHO/CP/100.
FLXHUMR=ELER/RHO/EL/100.
!-------------------------------------------------------------------------------
! Wall and Road
!-------------------------------------------------------------------------------
!-------------------------------------------------------------------------------
! CHC, CHB, CDB, BETB, CHG, CDG, BETG
!-------------------------------------------------------------------------------
Z=ZA-ZDC
BHC=LOG(Z0C/Z0HC)/0.4
RIBC=(9.8*2./(TA+TCP))*(TA-TCP)*(Z+Z0C)/(UA*UA)
CALL mos(XXXC,ALPHAC,CDC,BHC,RIBC,Z,Z0C,UA,TA,TCP,RHO)
IF (CH_SCHEME == 1) THEN
Z=ZDC
BHB=LOG(Z0B/Z0HB)/0.4
BHG=LOG(Z0G/Z0HG)/0.4
RIBB=(9.8*2./(TCP+TBP))*(TCP-TBP)*(Z+Z0B)/(UC*UC)
RIBG=(9.8*2./(TCP+TGP))*(TCP-TGP)*(Z+Z0G)/(UC*UC)
CALL mos(XXXB,ALPHAB,CDB,BHB,RIBB,Z,Z0B,UC,TCP,TBP,RHO)
CALL mos(XXXG,ALPHAG,CDG,BHG,RIBG,Z,Z0G,UC,TCP,TGP,RHO)
ELSE
ALPHAB=RHO*CP*(6.15+4.18*UC)/1200.
IF(UC > 5.) ALPHAB=RHO*CP*(7.51*UC**0.78)/1200.
ALPHAG=RHO*CP*(6.15+4.18*UC)/1200.
IF(UC > 5.) ALPHAG=RHO*CP*(7.51*UC**0.78)/1200.
END IF
CHC=ALPHAC/RHO/CP/UA
CHB=ALPHAB/RHO/CP/UC
CHG=ALPHAG/RHO/CP/UC
BETB=0.0
IF(RAIN > 1.) BETG=0.7
IF (TS_SCHEME == 1) THEN
!-------------------------------------------------------------------------------
! TB, TG Solving Non-Linear Simultaneous Equation by Newton-Rapson
! TBL,TGL Solving Heat Equation by Tri Diagonal Matrix Algorithm
!-------------------------------------------------------------------------------
! TBP=350.
! TGP=350.
DO ITERATION=1,20
ES=6.11*EXP( (2.5*10.**6./461.51)*(TBP-273.15)/(273.15*TBP) )
DESDT=(2.5*10.**6./461.51)*ES/(TBP**2.)
QS0B=0.622*ES/(PS-0.378*ES)
DQS0BDTB=DESDT*0.622*PS/((PS-0.378*ES)**2.)
ES=6.11*EXP( (2.5*10.**6./461.51)*(TGP-273.15)/(273.15*TGP) )
DESDT=(2.5*10.**6./461.51)*ES/(TGP**2.)
QS0G=0.622*ES/(PS-0.378*ES)
DQS0GDTG=DESDT*0.22*PS/((PS-0.378*ES)**2.)
RG1=EPSG*( RX*VFGS &
+EPSB*VFGW*SIG*TBP**4./60. &
-SIG*TGP**4./60. )
RB1=EPSB*( RX*VFWS &
+EPSG*VFWG*SIG*TGP**4./60. &
+EPSB*VFWW*SIG*TBP**4./60. &
-SIG*TBP**4./60. )
RG2=EPSG*( (1.-EPSB)*(1.-SVF)*VFWS*RX &
+(1.-EPSB)*(1.-SVF)*VFWG*EPSG*SIG*TGP**4./60. &
+EPSB*(1.-EPSB)*(1.-SVF)*(1.-2.*VFWS)*SIG*TBP**4./60. )
RB2=EPSB*( (1.-EPSG)*VFWG*VFGS*RX &
+(1.-EPSG)*EPSB*VFGW*VFWG*SIG*(TBP**4.)/60. &
+(1.-EPSB)*VFWS*(1.-2.*VFWS)*RX &
+(1.-EPSB)*VFWG*(1.-2.*VFWS)*EPSG*SIG*EPSG*TGP**4./60. &
+EPSB*(1.-EPSB)*(1.-2.*VFWS)*(1.-2.*VFWS)*SIG*TBP**4./60. )
RG=RG1+RG2
RB=RB1+RB2
DRBDTB1=EPSB*(4.*EPSB*SIG*TB**3.*VFWW-4.*SIG*TB**3.)/60.
DRBDTG1=EPSB*(4.*EPSG*SIG*TG**3.*VFWG)/60.
DRBDTB2=EPSB*(4.*(1.-EPSG)*EPSB*SIG*TB**3.*VFGW*VFWG &
+4.*EPSB*(1.-EPSB)*SIG*TB**3.*VFWW*VFWW)/60.
DRBDTG2=EPSB*(4.*(1.-EPSB)*EPSG*SIG*TG**3.*VFWG*VFWW)/60.
DRGDTB1=EPSG*(4.*EPSB*SIG*TB**3.*VFGW)/60.
DRGDTG1=EPSG*(-4.*SIG*TG**3.)/60.
DRGDTB2=EPSG*(4.*EPSB*(1.-EPSB)*SIG*TB**3.*VFWW*VFGW)/60.
DRGDTG2=EPSG*(4.*(1.-EPSB)*EPSG*SIG*TG**3.*VFWG*VFGW)/60.
DRBDTB=DRBDTB1+DRBDTB2
DRBDTG=DRBDTG1+DRBDTG2
DRGDTB=DRGDTB1+DRGDTB2
DRGDTG=DRGDTG1+DRGDTG2
HB=RHO*CP*CHB*UC*(TBP-TCP)*100.
HG=RHO*CP*CHG*UC*(TGP-TCP)*100.
DTCDTB=W*ALPHAB/(RW*ALPHAC+RW*ALPHAG+W*ALPHAB)
DTCDTG=RW*ALPHAG/(RW*ALPHAC+RW*ALPHAG+W*ALPHAB)
DHBDTB=RHO*CP*CHB*UC*(1.-DTCDTB)*100.
DHBDTG=RHO*CP*CHB*UC*(0.-DTCDTG)*100.
DHGDTG=RHO*CP*CHG*UC*(1.-DTCDTG)*100.
DHGDTB=RHO*CP*CHG*UC*(0.-DTCDTB)*100.
ELEB=RHO*EL*CHB*UC*BETB*(QS0B-QCP)*100.
ELEG=RHO*EL*CHG*UC*BETG*(QS0G-QCP)*100.
DQCDTB=W*ALPHAB*BETB*DQS0BDTB/(RW*ALPHAC+RW*ALPHAG*BETG+W*ALPHAB*BETB)
DQCDTG=RW*ALPHAG*BETG*DQS0GDTG/(RW*ALPHAC+RW*ALPHAG*BETG+W*ALPHAB*BETB)
DELEBDTB=RHO*EL*CHB*UC*BETB*(DQS0BDTB-DQCDTB)*100.
DELEBDTG=RHO*EL*CHB*UC*BETB*(0.-DQCDTG)*100.
DELEGDTG=RHO*EL*CHG*UC*BETG*(DQS0GDTG-DQCDTG)*100.
DELEGDTB=RHO*EL*CHG*UC*BETG*(0.-DQCDTB)*100.
G0B=AKSB*(TBP-TBL(1))/(DZB(1)/2.)
G0G=AKSG*(TGP-TGL(1))/(DZG(1)/2.)
DG0BDTB=2.*AKSB/DZB(1)
DG0BDTG=0.
DG0GDTG=2.*AKSG/DZG(1)
DG0GDTB=0.
F = SB + RB - HB - ELEB - G0B
FX = DRBDTB - DHBDTB - DELEBDTB - DG0BDTB
FY = DRBDTG - DHBDTG - DELEBDTG - DG0BDTG
GF = SG + RG - HG - ELEG - G0G
GX = DRGDTB - DHGDTB - DELEGDTB - DG0GDTB
GY = DRGDTG - DHGDTG - DELEGDTG - DG0GDTG
DTB = (GF*FY-F*GY)/(FX*GY-GX*FY)
DTG = -(GF+GX*DTB)/GY
TB = TBP + DTB
TG = TGP + DTG
TBP = TB
TGP = TG
TC1=RW*ALPHAC+RW*ALPHAG+W*ALPHAB
TC2=RW*ALPHAC*TA+RW*ALPHAG*TGP+W*ALPHAB*TBP
TC=TC2/TC1
QC1=RW*ALPHAC+RW*ALPHAG*BETG+W*ALPHAB*BETB
QC2=RW*ALPHAC*QA+RW*ALPHAG*BETG*QS0G+W*ALPHAB*BETB*QS0B
QC=QC2/QC1
DTC=TCP - TC
TCP=TC
QCP=QC
IF( ABS(F) < 0.000001 .AND. ABS(DTB) < 0.000001 &
.AND. ABS(GF) < 0.000001 .AND. ABS(DTG) < 0.000001 &
.AND. ABS(DTC) < 0.000001) EXIT
END DO
CALL multi_layer(num_wall_layers,BOUNDB,G0B,CAPB,AKSB,TBL,DZB,DELT,TBLEND)
CALL multi_layer(num_road_layers,BOUNDG,G0G,CAPG,AKSG,TGL,DZG,DELT,TGLEND)
ELSE
!-------------------------------------------------------------------------------
! TB, TG by Force-Restore Method
!-------------------------------------------------------------------------------
ES=6.11*EXP((2.5*10.**6./461.51)*(TBP-273.15)/(273.15*TBP) )
QS0B=0.622*ES/(PS-0.378*ES)
ES=6.11*EXP((2.5*10.**6./461.51)*(TGP-273.15)/(273.15*TGP) )
QS0G=0.622*ES/(PS-0.378*ES)
RG1=EPSG*( RX*VFGS &
+EPSB*VFGW*SIG*TBP**4./60. &
-SIG*TGP**4./60. )
RB1=EPSB*( RX*VFWS &
+EPSG*VFWG*SIG*TGP**4./60. &
+EPSB*VFWW*SIG*TBP**4./60. &
-SIG*TBP**4./60. )
RG2=EPSG*( (1.-EPSB)*(1.-SVF)*VFWS*RX &
+(1.-EPSB)*(1.-SVF)*VFWG*EPSG*SIG*TGP**4./60. &
+EPSB*(1.-EPSB)*(1.-SVF)*(1.-2.*VFWS)*SIG*TBP**4./60. )
RB2=EPSB*( (1.-EPSG)*VFWG*VFGS*RX &
+(1.-EPSG)*EPSB*VFGW*VFWG*SIG*(TBP**4.)/60. &
+(1.-EPSB)*VFWS*(1.-2.*VFWS)*RX &
+(1.-EPSB)*VFWG*(1.-2.*VFWS)*EPSG*SIG*EPSG*TGP**4./60. &
+EPSB*(1.-EPSB)*(1.-2.*VFWS)*(1.-2.*VFWS)*SIG*TBP**4./60. )
RG=RG1+RG2
RB=RB1+RB2
HB=RHO*CP*CHB*UC*(TBP-TCP)*100.
ELEB=RHO*EL*CHB*UC*BETB*(QS0B-QCP)*100.
G0B=SB+RB-HB-ELEB
HG=RHO*CP*CHG*UC*(TGP-TCP)*100.
ELEG=RHO*EL*CHG*UC*BETG*(QS0G-QCP)*100.
G0G=SG+RG-HG-ELEG
CALL force_restore(CAPB,AKSB,DELT,SB,RB,HB,ELEB,TBLEND,TBP,TB)
CALL force_restore(CAPG,AKSG,DELT,SG,RG,HG,ELEG,TGLEND,TGP,TG)
TBP=TB
TGP=TG
TC1=RW*ALPHAC+RW*ALPHAG+W*ALPHAB
TC2=RW*ALPHAC*TA+RW*ALPHAG*TGP+W*ALPHAB*TBP
TC=TC2/TC1
QC1=RW*ALPHAC+RW*ALPHAG*BETG+W*ALPHAB*BETB
QC2=RW*ALPHAC*QA+RW*ALPHAG*BETG*QS0G+W*ALPHAB*BETB*QS0B
QC=QC2/QC1
TCP=TC
QCP=QC
END IF
FLXTHB=HB/RHO/CP/100.
FLXHUMB=ELEB/RHO/EL/100.
FLXTHG=HG/RHO/CP/100.
FLXHUMG=ELEG/RHO/EL/100.
!-------------------------------------------------------------------------------
! Total Fluxes from Urban Canopy
!-------------------------------------------------------------------------------
FLXUV = ( R*CDR + RW*CDC )*UA*UA
! Miao, 2007/01/17, cal. ah
if(ahoption==1) then
FLXTH = ( R*FLXTHR + W*FLXTHB + RW*FLXTHG ) + AH/RHOO/CPP
else
FLXTH = ( R*FLXTHR + W*FLXTHB + RW*FLXTHG )
endif
FLXHUM = ( R*FLXHUMR + W*FLXHUMB + RW*FLXHUMG )
FLXG = ( R*G0R + W*G0B + RW*G0G )
LNET = R*RR + W*RB + RW*RG
!----------------------------------------------------------------------------
! Convert Unit: FLUXES and u* T* q* --> WRF
!----------------------------------------------------------------------------
SH = FLXTH * RHOO * CPP ! Sensible heat flux [W/m/m]
LH = FLXHUM * RHOO * ELL ! Latent heat flux [W/m/m]
LH_KINEMATIC = FLXHUM * RHOO ! Latent heat, Kinematic [kg/m/m/s]
LW = LLG - (LNET*697.7*60.) ! Upward longwave radiation [W/m/m]
SW = SSG - (SNET*697.7*60.) ! Upward shortwave radiation [W/m/m]
ALB = 0.
IF( ABS(SSG) > 0.0001) ALB = SW/SSG ! Effective albedo [-]
G = -FLXG*697.7*60. ! [W/m/m]
RN = (SNET+LNET)*697.7*60. ! Net radiation [W/m/m]
UST = SQRT(FLXUV) ! u* [m/s]
TST = -FLXTH/UST ! T* [K]
QST = -FLXHUM/UST ! q* [-]
!------------------------------------------------------
! diagnostic GRID AVERAGED PSIM PSIH TS QS --> WRF
!------------------------------------------------------
Z0 = Z0C
Z0H = Z0HC
Z = ZA - ZDC
XXX = 0.4*9.81*Z*TST/TA/UST/UST
IF ( XXX >= 1. ) XXX = 1.
IF ( XXX <= -5. ) XXX = -5.
IF ( XXX > 0 ) THEN
PSIM = -5. * XXX
PSIH = -5. * XXX
ELSE
X = (1.-16.*XXX)**0.25
PSIM = 2.*ALOG((1.+X)/2.) + ALOG((1.+X*X)/2.) - 2.*ATAN(X) + PI/2.
PSIH = 2.*ALOG((1.+X*X)/2.)
END IF
GZ1OZ0 = ALOG(Z/Z0)
CD = 0.4**2./(ALOG(Z/Z0)-PSIM)**2.
!
!m CH = 0.4**2./(ALOG(Z/Z0)-PSIM)/(ALOG(Z/Z0H)-PSIH)
!m CHS = 0.4*UST/(ALOG(Z/Z0H)-PSIH)
!m TS = TA + FLXTH/CH/UA ! surface potential temp (flux temp)
!m QS = QA + FLXHUM/CH/UA ! surface humidity
!
TS = TA + FLXTH/CHS ! surface potential temp (flux temp)
QS = QA + FLXHUM/CHS ! surface humidity
!-------------------------------------------------------
! diagnostic GRID AVERAGED U10 V10 TH2 Q2 --> WRF
!-------------------------------------------------------
XXX2 = (2./Z)*XXX
IF ( XXX2 >= 1. ) XXX2 = 1.
IF ( XXX2 <= -5. ) XXX2 = -5.
IF ( XXX2 > 0 ) THEN
PSIM2 = -5. * XXX2
PSIH2 = -5. * XXX2
ELSE
X = (1.-16.*XXX2)**0.25
PSIM2 = 2.*ALOG((1.+X)/2.) + ALOG((1.+X*X)/2.) - 2.*ATAN(X) + 2.*ATAN(1.)
PSIH2 = 2.*ALOG((1.+X*X)/2.)
END IF
!
!m CHS2 = 0.4*UST/(ALOG(2./Z0H)-PSIH2)
!
XXX10 = (10./Z)*XXX
IF ( XXX10 >= 1. ) XXX10 = 1.
IF ( XXX10 <= -5. ) XXX10 = -5.
IF ( XXX10 > 0 ) THEN
PSIM10 = -5. * XXX10
PSIH10 = -5. * XXX10
ELSE
X = (1.-16.*XXX10)**0.25
PSIM10 = 2.*ALOG((1.+X)/2.) + ALOG((1.+X*X)/2.) - 2.*ATAN(X) + 2.*ATAN(1.)
PSIH10 = 2.*ALOG((1.+X*X)/2.)
END IF
PSIX = ALOG(Z/Z0) - PSIM
PSIT = ALOG(Z/Z0H) - PSIH
PSIX2 = ALOG(2./Z0) - PSIM2
PSIT2 = ALOG(2./Z0H) - PSIH2
PSIX10 = ALOG(10./Z0) - PSIM10
PSIT10 = ALOG(10./Z0H) - PSIH10
U10 = U1 * (PSIX10/PSIX) ! u at 10 m [m/s]
V10 = V1 * (PSIX10/PSIX) ! v at 10 m [m/s]
! TH2 = TS + (TA-TS)*(PSIT2/PSIT) ! potential temp at 2 m [K]
! TH2 = TS + (TA-TS)*(PSIT2/PSIT) ! Fei: this seems to be temp (not potential) at 2 m [K]
!Fei: consistant with M-O theory
TH2 = TS + (TA-TS) *(CHS/CHS2)
Q2 = QS + (QA-QS)*(PSIT2/PSIT) ! humidity at 2 m [-]
! TS = (LW/SIG_SI/0.88)**0.25 ! Radiative temperature [K]
END SUBROUTINE urban
!===============================================================================
!
! mos
!
!===============================================================================
SUBROUTINE mos (docs) (XXX,ALPHA,CD,B1,RIB,Z,Z0,UA,TA,TSF,RHO) 4
! XXX: z/L (requires iteration by Newton-Rapson method)
! B1: Stanton number
! PSIM: = PSIX of LSM
! PSIH: = PSIT of LSM
IMPLICIT NONE
REAL, PARAMETER :: CP=0.24
REAL, INTENT(IN) :: B1, Z, Z0, UA, TA, TSF, RHO
REAL, INTENT(OUT) :: ALPHA, CD
REAL, INTENT(INOUT) :: XXX, RIB
REAL :: XXX0, X, X0, FAIH, DPSIM, DPSIH
REAL :: F, DF, XXXP, US, TS, AL, XKB, DD, PSIM, PSIH
INTEGER :: NEWT
INTEGER, PARAMETER :: NEWT_END=10
IF(RIB <= -15.) RIB=-15.
IF(RIB < 0.) THEN
DO NEWT=1,NEWT_END
IF(XXX >= 0.) XXX=-1.E-3
XXX0=XXX*Z0/(Z+Z0)
X=(1.-16.*XXX)**0.25
X0=(1.-16.*XXX0)**0.25
PSIM=ALOG((Z+Z0)/Z0) &
-ALOG((X+1.)**2.*(X**2.+1.)) &
+2.*ATAN(X) &
+ALOG((X+1.)**2.*(X0**2.+1.)) &
-2.*ATAN(X0)
FAIH=1./SQRT(1.-16.*XXX)
PSIH=ALOG((Z+Z0)/Z0)+0.4*B1 &
-2.*ALOG(SQRT(1.-16.*XXX)+1.) &
+2.*ALOG(SQRT(1.-16.*XXX0)+1.)
DPSIM=(1.-16.*XXX)**(-0.25)/XXX &
-(1.-16.*XXX0)**(-0.25)/XXX
DPSIH=1./SQRT(1.-16.*XXX)/XXX &
-1./SQRT(1.-16.*XXX0)/XXX
F=RIB*PSIM**2./PSIH-XXX
DF=RIB*(2.*DPSIM*PSIM*PSIH-DPSIH*PSIM**2.) &
/PSIH**2.-1.
XXXP=XXX
XXX=XXXP-F/DF
IF(XXX <= -10.) XXX=-10.
END DO
ELSE IF(RIB >= 0.142857) THEN
XXX=0.714
PSIM=ALOG((Z+Z0)/Z0)+7.*XXX
PSIH=PSIM+0.4*B1
ELSE
AL=ALOG((Z+Z0)/Z0)
XKB=0.4*B1
DD=-4.*RIB*7.*XKB*AL+(AL+XKB)**2.
IF(DD <= 0.) DD=0.
XXX=(AL+XKB-2.*RIB*7.*AL-SQRT(DD))/(2.*(RIB*7.**2-7.))
PSIM=ALOG((Z+Z0)/Z0)+7.*MIN(XXX,0.714)
PSIH=PSIM+0.4*B1
END IF
US=0.4*UA/PSIM ! u*
IF(US <= 0.01) US=0.01
TS=0.4*(TA-TSF)/PSIH ! T*
CD=US*US/UA**2. ! CD
ALPHA=RHO*CP*0.4*US/PSIH ! RHO*CP*CH*U
RETURN
END SUBROUTINE mos
!===============================================================================
!
! louis79
!
!===============================================================================
SUBROUTINE louis79 (docs) (ALPHA,CD,RIB,Z,Z0,UA,RHO)
IMPLICIT NONE
REAL, PARAMETER :: CP=0.24
REAL, INTENT(IN) :: Z, Z0, UA, RHO
REAL, INTENT(OUT) :: ALPHA, CD
REAL, INTENT(INOUT) :: RIB
REAL :: A2, XX, CH, CMB, CHB
A2=(0.4/ALOG(Z/Z0))**2.
IF(RIB <= -15.) RIB=-15.
IF(RIB >= 0.0) THEN
IF(RIB >= 0.142857) THEN
XX=0.714
ELSE
XX=RIB*LOG(Z/Z0)/(1.-7.*RIB)
END IF
CH=0.16/0.74/(LOG(Z/Z0)+7.*MIN(XX,0.714))**2.
CD=0.16/(LOG(Z/Z0)+7.*MIN(XX,0.714))**2.
ELSE
CMB=7.4*A2*9.4*SQRT(Z/Z0)
CHB=5.3*A2*9.4*SQRT(Z/Z0)
CH=A2/0.74*(1.-9.4*RIB/(1.+CHB*SQRT(-RIB)))
CD=A2*(1.-9.4*RIB/(1.+CHB*SQRT(-RIB)))
END IF
ALPHA=RHO*CP*CH*UA
RETURN
END SUBROUTINE louis79
!===============================================================================
!
! louis82
!
!===============================================================================
SUBROUTINE louis82 (docs) (ALPHA,CD,RIB,Z,Z0,UA,RHO)
IMPLICIT NONE
REAL, PARAMETER :: CP=0.24
REAL, INTENT(IN) :: Z, Z0, UA, RHO
REAL, INTENT(OUT) :: ALPHA, CD
REAL, INTENT(INOUT) :: RIB
REAL :: A2, FM, FH, CH, CHH
A2=(0.4/ALOG(Z/Z0))**2.
IF(RIB <= -15.) RIB=-15.
IF(RIB >= 0.0) THEN
FM=1./((1.+(2.*5.*RIB)/SQRT(1.+5.*RIB)))
FH=1./(1.+(3.*5.*RIB)*SQRT(1.+5.*RIB))
CH=A2*FH
CD=A2*FM
ELSE
CHH=5.*3.*5.*A2*SQRT(Z/Z0)
FM=1.-(2.*5.*RIB)/(1.+3.*5.*5.*A2*SQRT(Z/Z0+1.)*(-RIB))
FH=1.-(3.*5.*RIB)/(1.+CHH*SQRT(-RIB))
CH=A2*FH
CD=A2*FM
END IF
ALPHA=RHO*CP*CH*UA
RETURN
END SUBROUTINE louis82
!===============================================================================
!
! multi_layer
!
!===============================================================================
SUBROUTINE multi_layer (docs) (KM,BOUND,G0,CAP,AKS,TSL,DZ,DELT,TSLEND) 3,1
IMPLICIT NONE
REAL, INTENT(IN) :: G0
REAL, INTENT(IN) :: CAP
REAL, INTENT(IN) :: AKS
REAL, INTENT(IN) :: DELT ! Time step [ s ]
REAL, INTENT(IN) :: TSLEND
INTEGER, INTENT(IN) :: KM
INTEGER, INTENT(IN) :: BOUND
REAL, DIMENSION(KM), INTENT(IN) :: DZ
REAL, DIMENSION(KM), INTENT(INOUT) :: TSL
REAL, DIMENSION(KM) :: A, B, C, D, X, P, Q
REAL :: DZEND
INTEGER :: K
DZEND=DZ(KM)
A(1) = 0.0
B(1) = CAP*DZ(1)/DELT &
+2.*AKS/(DZ(1)+DZ(2))
C(1) = -2.*AKS/(DZ(1)+DZ(2))
D(1) = CAP*DZ(1)/DELT*TSL(1) + G0
DO K=2,KM-1
A(K) = -2.*AKS/(DZ(K-1)+DZ(K))
B(K) = CAP*DZ(K)/DELT + 2.*AKS/(DZ(K-1)+DZ(K)) + 2.*AKS/(DZ(K)+DZ(K+1))
C(K) = -2.*AKS/(DZ(K)+DZ(K+1))
D(K) = CAP*DZ(K)/DELT*TSL(K)
END DO
IF(BOUND == 1) THEN ! Flux=0
A(KM) = -2.*AKS/(DZ(KM-1)+DZ(KM))
B(KM) = CAP*DZ(KM)/DELT + 2.*AKS/(DZ(KM-1)+DZ(KM))
C(KM) = 0.0
D(KM) = CAP*DZ(KM)/DELT*TSL(KM)
ELSE ! T=constant
A(KM) = -2.*AKS/(DZ(KM-1)+DZ(KM))
B(KM) = CAP*DZ(KM)/DELT + 2.*AKS/(DZ(KM-1)+DZ(KM)) + 2.*AKS/(DZ(KM)+DZEND)
C(KM) = 0.0
D(KM) = CAP*DZ(KM)/DELT*TSL(KM) + 2.*AKS*TSLEND/(DZ(KM)+DZEND)
END IF
P(1) = -C(1)/B(1)
Q(1) = D(1)/B(1)
DO K=2,KM
P(K) = -C(K)/(A(K)*P(K-1)+B(K))
Q(K) = (-A(K)*Q(K-1)+D(K))/(A(K)*P(K-1)+B(K))
END DO
X(KM) = Q(KM)
DO K=KM-1,1,-1
X(K) = P(K)*X(K+1)+Q(K)
END DO
DO K=1,KM
TSL(K) = X(K)
END DO
RETURN
END SUBROUTINE multi_layer
!===============================================================================
!
! subroutine read_param
!
!===============================================================================
SUBROUTINE read_param (docs) (UTYPE, & ! in 1
ZR,Z0C,Z0HC,ZDC,SVF,R,RW,HGT,AH, & ! out
CAPR,CAPB,CAPG,AKSR,AKSB,AKSG,ALBR,ALBB,ALBG, & ! out
EPSR,EPSB,EPSG,Z0R,Z0B,Z0G,Z0HR,Z0HB,Z0HG, & ! out
BETR,BETB,BETG,TRLEND,TBLEND,TGLEND, & ! out
!for BEP
NUMDIR, STREET_DIRECTION, STREET_WIDTH, & ! out
BUILDING_WIDTH, NUMHGT, HEIGHT_BIN, & ! out
HPERCENT_BIN, & ! out
!end BEP
BOUNDR,BOUNDB,BOUNDG,CH_SCHEME,TS_SCHEME) ! out
INTEGER, INTENT(IN) :: UTYPE
REAL, INTENT(OUT) :: ZR,Z0C,Z0HC,ZDC,SVF,R,RW,HGT,AH, &
CAPR,CAPB,CAPG,AKSR,AKSB,AKSG,ALBR,ALBB,ALBG, &
EPSR,EPSB,EPSG,Z0R,Z0B,Z0G,Z0HR,Z0HB,Z0HG, &
BETR,BETB,BETG,TRLEND,TBLEND,TGLEND
!for BEP
INTEGER, INTENT(OUT) :: NUMDIR
REAL, DIMENSION(MAXDIRS), INTENT(OUT) :: STREET_DIRECTION
REAL, DIMENSION(MAXDIRS), INTENT(OUT) :: STREET_WIDTH
REAL, DIMENSION(MAXDIRS), INTENT(OUT) :: BUILDING_WIDTH
INTEGER, INTENT(OUT) :: NUMHGT
REAL, DIMENSION(MAXHGTS), INTENT(OUT) :: HEIGHT_BIN
REAL, DIMENSION(MAXHGTS), INTENT(OUT) :: HPERCENT_BIN
!end BEP
INTEGER, INTENT(OUT) :: BOUNDR,BOUNDB,BOUNDG,CH_SCHEME,TS_SCHEME
ZR = ZR_TBL(UTYPE)
Z0C= Z0C_TBL(UTYPE)
Z0HC= Z0HC_TBL(UTYPE)
ZDC= ZDC_TBL(UTYPE)
SVF= SVF_TBL(UTYPE)
R= R_TBL(UTYPE)
RW= RW_TBL(UTYPE)
HGT= HGT_TBL(UTYPE)
AH= AH_TBL(UTYPE)
BETR= BETR_TBL(UTYPE)
BETB= BETB_TBL(UTYPE)
BETG= BETG_TBL(UTYPE)
!m FRC_URB= FRC_URB_TBL(UTYPE)
CAPR= CAPR_TBL(UTYPE)
CAPB= CAPB_TBL(UTYPE)
CAPG= CAPG_TBL(UTYPE)
AKSR= AKSR_TBL(UTYPE)
AKSB= AKSB_TBL(UTYPE)
AKSG= AKSG_TBL(UTYPE)
ALBR= ALBR_TBL(UTYPE)
ALBB= ALBB_TBL(UTYPE)
ALBG= ALBG_TBL(UTYPE)
EPSR= EPSR_TBL(UTYPE)
EPSB= EPSB_TBL(UTYPE)
EPSG= EPSG_TBL(UTYPE)
Z0R= Z0R_TBL(UTYPE)
Z0B= Z0B_TBL(UTYPE)
Z0G= Z0G_TBL(UTYPE)
Z0HR= Z0HR_TBL(UTYPE)
Z0HB= Z0HB_TBL(UTYPE)
Z0HG= Z0HG_TBL(UTYPE)
TRLEND= TRLEND_TBL(UTYPE)
TBLEND= TBLEND_TBL(UTYPE)
TGLEND= TGLEND_TBL(UTYPE)
BOUNDR= BOUNDR_DATA
BOUNDB= BOUNDB_DATA
BOUNDG= BOUNDG_DATA
CH_SCHEME = CH_SCHEME_DATA
TS_SCHEME = TS_SCHEME_DATA
!for BEP
STREET_DIRECTION = -1.E36
STREET_WIDTH = -1.E36
BUILDING_WIDTH = -1.E36
HEIGHT_BIN = -1.E36
HPERCENT_BIN = -1.E36
NUMDIR = NUMDIR_TBL ( UTYPE )
STREET_DIRECTION(1:NUMDIR) = STREET_DIRECTION_TBL( 1:NUMDIR, UTYPE )
STREET_WIDTH (1:NUMDIR) = STREET_WIDTH_TBL ( 1:NUMDIR, UTYPE )
BUILDING_WIDTH (1:NUMDIR) = BUILDING_WIDTH_TBL ( 1:NUMDIR, UTYPE )
NUMHGT = NUMHGT_TBL ( UTYPE )
HEIGHT_BIN (1:NUMHGT) = HEIGHT_BIN_TBL ( 1:NUMHGT , UTYPE )
HPERCENT_BIN (1:NUMHGT) = HPERCENT_BIN_TBL ( 1:NUMHGT , UTYPE )
!end BEP
END SUBROUTINE read_param
!===============================================================================
!
! subroutine urban_param_init: Read parameters from URBPARM.TBL
!
!===============================================================================
SUBROUTINE urban_param_init (docs) (DZR,DZB,DZG,num_soil_layers & 1
)
! num_roof_layers,num_wall_layers,num_road_layers)
IMPLICIT NONE
INTEGER, INTENT(IN) :: num_soil_layers
! REAL, DIMENSION(1:num_roof_layers), INTENT(INOUT) :: DZR
! REAL, DIMENSION(1:num_wall_layers), INTENT(INOUT) :: DZB
! REAL, DIMENSION(1:num_road_layers), INTENT(INOUT) :: DZG
REAL, DIMENSION(1:num_soil_layers), INTENT(INOUT) :: DZR
REAL, DIMENSION(1:num_soil_layers), INTENT(INOUT) :: DZB
REAL, DIMENSION(1:num_soil_layers), INTENT(INOUT) :: DZG
INTEGER :: INDEX, LC, K
INTEGER :: IOSTATUS, ALLOCATE_STATUS
INTEGER :: num_roof_layers
INTEGER :: num_wall_layers
INTEGER :: num_road_layers
INTEGER :: dummy
REAL :: DHGT, HGT, VFWS, VFGS
REAL, allocatable, dimension(:) :: ROOF_WIDTH
REAL, allocatable, dimension(:) :: ROAD_WIDTH
character(len=512) :: string
character(len=128) :: name
integer :: indx
real, parameter :: VonK = 0.4
real :: lambda_p
real :: lambda_f
real :: Cd
real :: alpha_macd
real :: beta_macd
!for BEP
real :: dummy_hgt
real :: dummy_pct
real :: pctsum
!end BEP
num_roof_layers = num_soil_layers
num_wall_layers = num_soil_layers
num_road_layers = num_soil_layers
ICATE=0
OPEN (UNIT=11, &
FILE='URBPARM.TBL', &
ACCESS='SEQUENTIAL', &
STATUS='OLD', &
ACTION='READ', &
POSITION='REWIND', &
IOSTAT=IOSTATUS)
IF (IOSTATUS > 0) STOP 'ERROR OPEN URBPARM.TBL'
READLOOP : do
read(11,'(A512)', iostat=iostatus) string
if (iostatus /= 0) exit READLOOP
if (string(1:1) == "#") cycle READLOOP
if (trim(string) == "") cycle READLOOP
indx = index(string,":")
if (indx <= 0) cycle READLOOP
name = trim(adjustl(string(1:indx-1)))
! Here are the variables we expect to be defined in the URBPARM.TBL:
if (name == "Number of urban categories") then
read(string(indx+1:),*) icate
IF (.not. ALLOCATED(ZR_TBL)) then
ALLOCATE( ZR_TBL(ICATE), stat=allocate_status )
if(allocate_status /= 0) stop 'Error allocating ZR_TBL in urban_param_init'
ALLOCATE( Z0C_TBL(ICATE), stat=allocate_status )
if(allocate_status /= 0) stop 'Error allocating Z0C_TBL in urban_param_init'
ALLOCATE( Z0HC_TBL(ICATE), stat=allocate_status )
if(allocate_status /= 0) stop 'Error allocating Z0HC_TBL in urban_param_init'
ALLOCATE( ZDC_TBL(ICATE), stat=allocate_status )
if(allocate_status /= 0) stop 'Error allocating ZDC_TBL in urban_param_init'
ALLOCATE( SVF_TBL(ICATE), stat=allocate_status )
if(allocate_status /= 0) stop 'Error allocating SVF_TBL in urban_param_init'
ALLOCATE( R_TBL(ICATE), stat=allocate_status )
if(allocate_status /= 0) stop 'Error allocating R_TBL in urban_param_init'
ALLOCATE( RW_TBL(ICATE), stat=allocate_status )
if(allocate_status /= 0) stop 'Error allocating RW_TBL in urban_param_init'
ALLOCATE( HGT_TBL(ICATE), stat=allocate_status )
if(allocate_status /= 0) stop 'Error allocating HGT_TBL in urban_param_init'
ALLOCATE( AH_TBL(ICATE), stat=allocate_status )
if(allocate_status /= 0) stop 'Error allocating AH_TBL in urban_param_init'
ALLOCATE( BETR_TBL(ICATE), stat=allocate_status )
if(allocate_status /= 0) stop 'Error allocating BETR_TBL in urban_param_init'
ALLOCATE( BETB_TBL(ICATE), stat=allocate_status )
if(allocate_status /= 0) stop 'Error allocating BETB_TBL in urban_param_init'
ALLOCATE( BETG_TBL(ICATE), stat=allocate_status )
if(allocate_status /= 0) stop 'Error allocating BETG_TBL in urban_param_init'
ALLOCATE( CAPR_TBL(ICATE), stat=allocate_status )
if(allocate_status /= 0) stop 'Error allocating CAPR_TBL in urban_param_init'
ALLOCATE( CAPB_TBL(ICATE), stat=allocate_status )
if(allocate_status /= 0) stop 'Error allocating CAPB_TBL in urban_param_init'
ALLOCATE( CAPG_TBL(ICATE), stat=allocate_status )
if(allocate_status /= 0) stop 'Error allocating CAPG_TBL in urban_param_init'
ALLOCATE( AKSR_TBL(ICATE), stat=allocate_status )
if(allocate_status /= 0) stop 'Error allocating AKSR_TBL in urban_param_init'
ALLOCATE( AKSB_TBL(ICATE), stat=allocate_status )
if(allocate_status /= 0) stop 'Error allocating AKSB_TBL in urban_param_init'
ALLOCATE( AKSG_TBL(ICATE), stat=allocate_status )
if(allocate_status /= 0) stop 'Error allocating AKSG_TBL in urban_param_init'
ALLOCATE( ALBR_TBL(ICATE), stat=allocate_status )
if(allocate_status /= 0) stop 'Error allocating ALBR_TBL in urban_param_init'
ALLOCATE( ALBB_TBL(ICATE), stat=allocate_status )
if(allocate_status /= 0) stop 'Error allocating ALBB_TBL in urban_param_init'
ALLOCATE( ALBG_TBL(ICATE), stat=allocate_status )
if(allocate_status /= 0) stop 'Error allocating ALBG_TBL in urban_param_init'
ALLOCATE( EPSR_TBL(ICATE), stat=allocate_status )
if(allocate_status /= 0) stop 'Error allocating EPSR_TBL in urban_param_init'
ALLOCATE( EPSB_TBL(ICATE), stat=allocate_status )
if(allocate_status /= 0) stop 'Error allocating EPSB_TBL in urban_param_init'
ALLOCATE( EPSG_TBL(ICATE), stat=allocate_status )
if(allocate_status /= 0) stop 'Error allocating EPSG_TBL in urban_param_init'
ALLOCATE( Z0R_TBL(ICATE), stat=allocate_status )
if(allocate_status /= 0) stop 'Error allocating Z0R_TBL in urban_param_init'
ALLOCATE( Z0B_TBL(ICATE), stat=allocate_status )
if(allocate_status /= 0) stop 'Error allocating Z0B_TBL in urban_param_init'
ALLOCATE( Z0G_TBL(ICATE), stat=allocate_status )
if(allocate_status /= 0) stop 'Error allocating Z0G_TBL in urban_param_init'
ALLOCATE( Z0HR_TBL(ICATE), stat=allocate_status )
if(allocate_status /= 0) stop 'Error allocating Z0HR_TBL in urban_param_init'
ALLOCATE( Z0HB_TBL(ICATE), stat=allocate_status )
if(allocate_status /= 0) stop 'Error allocating Z0HB_TBL in urban_param_init'
ALLOCATE( Z0HG_TBL(ICATE), stat=allocate_status )
if(allocate_status /= 0) stop 'Error allocating Z0HG_TBL in urban_param_init'
ALLOCATE( TRLEND_TBL(ICATE), stat=allocate_status )
if(allocate_status /= 0) stop 'Error allocating TRLEND_TBL in urban_param_init'
ALLOCATE( TBLEND_TBL(ICATE), stat=allocate_status )
if(allocate_status /= 0) stop 'Error allocating TBLEND_TBL in urban_param_init'
ALLOCATE( TGLEND_TBL(ICATE), stat=allocate_status )
if(allocate_status /= 0) stop 'Error allocating TGLEND_TBL in urban_param_init'
ALLOCATE( FRC_URB_TBL(ICATE), stat=allocate_status )
if(allocate_status /= 0) stop 'Error allocating FRC_URB_TBL in urban_param_init'
! ALLOCATE( ROOF_WIDTH(ICATE), stat=allocate_status )
! if(allocate_status /= 0) stop 'Error allocating ROOF_WIDTH in urban_param_init'
! ALLOCATE( ROAD_WIDTH(ICATE), stat=allocate_status )
! if(allocate_status /= 0) stop 'Error allocating ROAD_WIDTH in urban_param_init'
!for BEP
ALLOCATE( NUMDIR_TBL(ICATE), stat=allocate_status )
if(allocate_status /= 0) stop 'Error allocating NUMDIR_TBL in urban_param_init'
ALLOCATE( STREET_DIRECTION_TBL(MAXDIRS , ICATE), stat=allocate_status )
if(allocate_status /= 0) stop 'Error allocating STREET_DIRECTION_TBL in urban_param_init'
ALLOCATE( STREET_WIDTH_TBL(MAXDIRS , ICATE), stat=allocate_status )
if(allocate_status /= 0) stop 'Error allocating STREET_WIDTH_TBL in urban_param_init'
ALLOCATE( BUILDING_WIDTH_TBL(MAXDIRS , ICATE), stat=allocate_status )
if(allocate_status /= 0) stop 'Error allocating BUILDING_WIDTH_TBL in urban_param_init'
ALLOCATE( NUMHGT_TBL(ICATE), stat=allocate_status )
if(allocate_status /= 0) stop 'Error allocating NUMHGT_TBL in urban_param_init'
ALLOCATE( HEIGHT_BIN_TBL(MAXHGTS , ICATE), stat=allocate_status )
if(allocate_status /= 0) stop 'Error allocating HEIGHT_BIN_TBL in urban_param_init'
ALLOCATE( HPERCENT_BIN_TBL(MAXHGTS , ICATE), stat=allocate_status )
if(allocate_status /= 0) stop 'Error allocating HPERCENT_BIN_TBL in urban_param_init'
endif
numdir_tbl = 0
street_direction_tbl = -1.E36
street_width_tbl = 0
building_width_tbl = 0
numhgt_tbl = 0
height_bin_tbl = -1.E36
hpercent_bin_tbl = -1.E36
!end BEP
else if (name == "ZR") then
read(string(indx+1:),*) zr_tbl(1:icate)
! print*, 'zr_tbl = ', zr_tbl(1:icate)
else if (name == "ROOF_WIDTH") then
ALLOCATE( ROOF_WIDTH(ICATE), stat=allocate_status )
if(allocate_status /= 0) stop 'Error allocating ROOF_WIDTH in urban_param_init'
read(string(indx+1:),*) roof_width(1:icate)
else if (name == "ROAD_WIDTH") then
ALLOCATE( ROAD_WIDTH(ICATE), stat=allocate_status )
if(allocate_status /= 0) stop 'Error allocating ROAD_WIDTH in urban_param_init'
read(string(indx+1:),*) road_width(1:icate)
else if (name == "AH") then
read(string(indx+1:),*) ah_tbl(1:icate)
else if (name == "FRC_URB") then
read(string(indx+1:),*) frc_urb_tbl(1:icate)
else if (name == "CAPR") then
read(string(indx+1:),*) capr_tbl(1:icate)
! Convert CAPR_TBL from J m{-3} K{-1} to cal cm{-3} deg{-1}
capr_tbl = capr_tbl * ( 1.0 / 4.1868 ) * 1.E-6
else if (name == "CAPB") then
read(string(indx+1:),*) capb_tbl(1:icate)
! Convert CABR_TBL from J m{-3} K{-1} to cal cm{-3} deg{-1}
capb_tbl = capb_tbl * ( 1.0 / 4.1868 ) * 1.E-6
else if (name == "CAPG") then
read(string(indx+1:),*) capg_tbl(1:icate)
! Convert CABG_TBL from J m{-3} K{-1} to cal cm{-3} deg{-1}
capg_tbl = capg_tbl * ( 1.0 / 4.1868 ) * 1.E-6
else if (name == "AKSR") then
read(string(indx+1:),*) aksr_tbl(1:icate)
! Convert AKSR_TBL from J m{-1} s{-1} K{-1} to cal cm{-1} s{-1} deg{-1}
AKSR_TBL = AKSR_TBL * ( 1.0 / 4.1868 ) * 1.E-2
else if (name == "AKSB") then
read(string(indx+1:),*) aksb_tbl(1:icate)
! Convert AKSB_TBL from J m{-1} s{-1} K{-1} to cal cm{-1} s{-1} deg{-1}
AKSB_TBL = AKSB_TBL * ( 1.0 / 4.1868 ) * 1.E-2
else if (name == "AKSG") then
read(string(indx+1:),*) aksg_tbl(1:icate)
! Convert AKSG_TBL from J m{-1} s{-1} K{-1} to cal cm{-1} s{-1} deg{-1}
AKSG_TBL = AKSG_TBL * ( 1.0 / 4.1868 ) * 1.E-2
else if (name == "ALBR") then
read(string(indx+1:),*) albr_tbl(1:icate)
else if (name == "ALBB") then
read(string(indx+1:),*) albb_tbl(1:icate)
else if (name == "ALBG") then
read(string(indx+1:),*) albg_tbl(1:icate)
else if (name == "EPSR") then
read(string(indx+1:),*) epsr_tbl(1:icate)
else if (name == "EPSB") then
read(string(indx+1:),*) epsb_tbl(1:icate)
else if (name == "EPSG") then
read(string(indx+1:),*) epsg_tbl(1:icate)
else if (name == "Z0R") then
read(string(indx+1:),*) z0r_tbl(1:icate)
else if (name == "Z0B") then
read(string(indx+1:),*) z0b_tbl(1:icate)
else if (name == "Z0G") then
read(string(indx+1:),*) z0g_tbl(1:icate)
else if (name == "DDZR") then
read(string(indx+1:),*) dzr(1:num_roof_layers)
! Convert thicknesses from m to cm
dzr = dzr * 100.0
else if (name == "DDZB") then
read(string(indx+1:),*) dzb(1:num_wall_layers)
! Convert thicknesses from m to cm
dzb = dzb * 100.0
else if (name == "DDZG") then
read(string(indx+1:),*) dzg(1:num_road_layers)
! Convert thicknesses from m to cm
dzg = dzg * 100.0
else if (name == "BOUNDR") then
read(string(indx+1:),*) boundr_data
else if (name == "BOUNDB") then
read(string(indx+1:),*) boundb_data
else if (name == "BOUNDG") then
read(string(indx+1:),*) boundg_data
else if (name == "TRLEND") then
read(string(indx+1:),*) trlend_tbl(1:icate)
else if (name == "TBLEND") then
read(string(indx+1:),*) tblend_tbl(1:icate)
else if (name == "TGLEND") then
read(string(indx+1:),*) tglend_tbl(1:icate)
else if (name == "CH_SCHEME") then
read(string(indx+1:),*) ch_scheme_data
else if (name == "TS_SCHEME") then
read(string(indx+1:),*) ts_scheme_data
else if (name == "AHOPTION") then
read(string(indx+1:),*) ahoption
else if (name == "AHDIUPRF") then
read(string(indx+1:),*) ahdiuprf(1:24)
!for BEP
else if (name == "STREET PARAMETERS") then
STREETLOOP : do
read(11,'(A512)', iostat=iostatus) string
if (string(1:1) == "#") cycle STREETLOOP
if (trim(string) == "") cycle STREETLOOP
if (string == "END STREET PARAMETERS") exit STREETLOOP
read(string, *) k ! , dirst, ws, bs
numdir_tbl(k) = numdir_tbl(k) + 1
read(string, *) k, street_direction_tbl(numdir_tbl(k),k), &
street_width_tbl(numdir_tbl(k),k), &
building_width_tbl(numdir_tbl(k),k)
enddo STREETLOOP
else if (name == "BUILDING HEIGHTS") then
read(string(indx+1:),*) k
HEIGHTLOOP : do
read(11,'(A512)', iostat=iostatus) string
if (string(1:1) == "#") cycle HEIGHTLOOP
if (trim(string) == "") cycle HEIGHTLOOP
if (string == "END BUILDING HEIGHTS") exit HEIGHTLOOP
read(string,*) dummy_hgt, dummy_pct
numhgt_tbl(k) = numhgt_tbl(k) + 1
height_bin_tbl(numhgt_tbl(k), k) = dummy_hgt
hpercent_bin_tbl(numhgt_tbl(k),k) = dummy_pct
enddo HEIGHTLOOP
pctsum = sum ( hpercent_bin_tbl(:,k) , mask=(hpercent_bin_tbl(:,k)>-1.E25 ) )
if ( pctsum /= 100.) then
write (*,'(//,"Building height percentages for category ", I2, " must sum to 100.0")') k
write (*,'("Currently, they sum to ", F6.2,/)') pctsum
stop
endif
!end BEP
else
print*, 'name = "'//trim(name)//'"'
stop
endif
enddo READLOOP
CLOSE(11)
! Assign a few table values that do not need to come from URBPARM.TBL
Z0HR_TBL = 0.1 * Z0R_TBL
Z0HB_TBL = 0.1 * Z0B_TBL
Z0HG_TBL = 0.1 * Z0G_TBL
DO LC = 1, ICATE
! HGT: Normalized height
HGT_TBL(LC) = ZR_TBL(LC) / ( ROAD_WIDTH(LC) + ROOF_WIDTH(LC) )
! R: Normalized Roof Width (a.k.a. "building coverage ratio")
R_TBL(LC) = ROOF_WIDTH(LC) / ( ROAD_WIDTH(LC) + ROOF_WIDTH(LC) )
RW_TBL(LC) = 1.0 - R_TBL(LC)
BETR_TBL(LC) = 0.0
BETB_TBL(LC) = 0.0
BETG_TBL(LC) = 0.0
! The following urban canyon geometry parameters are following Macdonald's (1998) formulations
! Lambda_P :: Plan areal fraction, which corresponds to R for a 2-d canyon.
! Lambda_F :: Frontal area index, which corresponds to HGT for a 2-d canyon
! Cd :: Drag coefficient ( 1.2 from Grimmond and Oke, 1998 )
! Alpha_macd :: Emperical coefficient ( 4.43 from Macdonald et al., 1998 )
! Beta_macd :: Correction factor for the drag coefficient ( 1.0 from Macdonald et al., 1998 )
Lambda_P = R_TBL(LC)
Lambda_F = HGT_TBL(LC)
Cd = 1.2
alpha_macd = 4.43
beta_macd = 1.0
ZDC_TBL(LC) = ZR_TBL(LC) * ( 1.0 + ( alpha_macd ** ( -Lambda_P ) ) * ( Lambda_P - 1.0 ) )
Z0C_TBL(LC) = ZR_TBL(LC) * ( 1.0 - ZDC_TBL(LC)/ZR_TBL(LC) ) * &
exp (-(0.5 * beta_macd * Cd / (VonK**2) * ( 1.0-ZDC_TBL(LC)/ZR_TBL(LC) ) * Lambda_F )**(-0.5))
!
! Z0HC still one-tenth of Z0C, as before ?
!
Z0HC_TBL(LC) = 0.1 * Z0C_TBL(LC)
!
! Calculate Sky View Factor:
!
DHGT=HGT_TBL(LC)/100.
HGT=0.
VFWS=0.
HGT=HGT_TBL(LC)-DHGT/2.
do k=1,99
HGT=HGT-DHGT
VFWS=VFWS+0.25*(1.-HGT/SQRT(HGT**2.+RW_TBL(LC)**2.))
end do
VFWS=VFWS/99.
VFWS=VFWS*2.
VFGS=1.-2.*VFWS*HGT_TBL(LC)/RW_TBL(LC)
SVF_TBL(LC)=VFGS
END DO
deallocate(roof_width)
deallocate(road_width)
END SUBROUTINE urban_param_init
!===========================================================================
!
! subroutine urban_var_init: initialization of urban state variables
!
!===========================================================================
SUBROUTINE urban_var_init (docs) (ISURBAN, TSURFACE0_URB,TLAYER0_URB,TDEEP0_URB,IVGTYP, & ! in 1
ims,ime,jms,jme,kms,kme,num_soil_layers, & ! in
! num_roof_layers,num_wall_layers,num_road_layers, & ! in
restart, & !in
XXXR_URB2D,XXXB_URB2D,XXXG_URB2D,XXXC_URB2D, & ! inout
TR_URB2D,TB_URB2D,TG_URB2D,TC_URB2D,QC_URB2D, & ! inout
TRL_URB3D,TBL_URB3D,TGL_URB3D, & ! inout
SH_URB2D,LH_URB2D,G_URB2D,RN_URB2D, & ! inout
TS_URB2D, & ! inout
num_urban_layers, & ! in
TRB_URB4D,TW1_URB4D,TW2_URB4D,TGB_URB4D, & ! inout
SFW1_URB3D,SFW2_URB3D,SFR_URB3D,SFG_URB3D, & ! inout
A_U_BEP,A_V_BEP,A_T_BEP,A_Q_BEP, & ! inout multi-layer urban
A_E_BEP,B_U_BEP,B_V_BEP, & ! inout multi-layer urban
B_T_BEP,B_Q_BEP,B_E_BEP,DLG_BEP, & ! inout multi-layer urban
DL_U_BEP,SF_BEP,VL_BEP, & ! inout multi-layer urban
FRC_URB2D, UTYPE_URB2D) ! inout
IMPLICIT NONE
INTEGER, INTENT(IN) :: ISURBAN
INTEGER, INTENT(IN) :: ims,ime,jms,jme,kms,kme,num_soil_layers
INTEGER, INTENT(IN) :: num_urban_layers !multi-layer urban
! INTEGER, INTENT(IN) :: num_roof_layers, num_wall_layers, num_road_layers
REAL, DIMENSION( ims:ime, jms:jme ), INTENT(IN) :: TSURFACE0_URB
REAL, DIMENSION( ims:ime, 1:num_soil_layers, jms:jme ), INTENT(IN) :: TLAYER0_URB
REAL, DIMENSION( ims:ime, jms:jme ), INTENT(IN) :: TDEEP0_URB
INTEGER, DIMENSION( ims:ime, jms:jme ), INTENT(IN) :: IVGTYP
LOGICAL , INTENT(IN) :: restart
REAL, DIMENSION( ims:ime, jms:jme ), INTENT(INOUT) :: TR_URB2D
REAL, DIMENSION( ims:ime, jms:jme ), INTENT(INOUT) :: TB_URB2D
REAL, DIMENSION( ims:ime, jms:jme ), INTENT(INOUT) :: TG_URB2D
REAL, DIMENSION( ims:ime, jms:jme ), INTENT(INOUT) :: TC_URB2D
REAL, DIMENSION( ims:ime, jms:jme ), INTENT(INOUT) :: QC_URB2D
REAL, DIMENSION( ims:ime, jms:jme ), INTENT(INOUT) :: XXXR_URB2D
REAL, DIMENSION( ims:ime, jms:jme ), INTENT(INOUT) :: XXXB_URB2D
REAL, DIMENSION( ims:ime, jms:jme ), INTENT(INOUT) :: XXXG_URB2D
REAL, DIMENSION( ims:ime, jms:jme ), INTENT(INOUT) :: XXXC_URB2D
! REAL, DIMENSION(ims:ime, 1:num_roof_layers, jms:jme), INTENT(INOUT) :: TRL_URB3D
! REAL, DIMENSION(ims:ime, 1:num_wall_layers, jms:jme), INTENT(INOUT) :: TBL_URB3D
! REAL, DIMENSION(ims:ime, 1:num_road_layers, jms:jme), INTENT(INOUT) :: TGL_URB3D
REAL, DIMENSION(ims:ime, 1:num_soil_layers, jms:jme), INTENT(INOUT) :: TRL_URB3D
REAL, DIMENSION(ims:ime, 1:num_soil_layers, jms:jme), INTENT(INOUT) :: TBL_URB3D
REAL, DIMENSION(ims:ime, 1:num_soil_layers, jms:jme), INTENT(INOUT) :: TGL_URB3D
REAL, DIMENSION( ims:ime, jms:jme ), INTENT(INOUT) :: SH_URB2D
REAL, DIMENSION( ims:ime, jms:jme ), INTENT(INOUT) :: LH_URB2D
REAL, DIMENSION( ims:ime, jms:jme ), INTENT(INOUT) :: G_URB2D
REAL, DIMENSION( ims:ime, jms:jme ), INTENT(INOUT) :: RN_URB2D
REAL, DIMENSION( ims:ime, jms:jme ), INTENT(INOUT) :: TS_URB2D
! multi-layer UCM variables
REAL, DIMENSION(ims:ime, 1:num_urban_layers, jms:jme), INTENT(INOUT) :: TRB_URB4D
REAL, DIMENSION(ims:ime, 1:num_urban_layers, jms:jme), INTENT(INOUT) :: TW1_URB4D
REAL, DIMENSION(ims:ime, 1:num_urban_layers, jms:jme), INTENT(INOUT) :: TW2_URB4D
REAL, DIMENSION(ims:ime, 1:num_urban_layers, jms:jme), INTENT(INOUT) :: TGB_URB4D
REAL, DIMENSION(ims:ime, 1:num_urban_layers, jms:jme), INTENT(INOUT) :: SFW1_URB3D
REAL, DIMENSION(ims:ime, 1:num_urban_layers, jms:jme), INTENT(INOUT) :: SFW2_URB3D
REAL, DIMENSION(ims:ime, 1:num_urban_layers, jms:jme), INTENT(INOUT) :: SFR_URB3D
REAL, DIMENSION(ims:ime, 1:num_urban_layers, jms:jme), INTENT(INOUT) :: SFG_URB3D
REAL, DIMENSION(ims:ime, kms:kme, jms:jme), INTENT(INOUT) :: A_U_BEP
REAL, DIMENSION(ims:ime, kms:kme, jms:jme), INTENT(INOUT) :: A_V_BEP
REAL, DIMENSION(ims:ime, kms:kme, jms:jme), INTENT(INOUT) :: A_T_BEP
REAL, DIMENSION(ims:ime, kms:kme, jms:jme), INTENT(INOUT) :: A_Q_BEP
REAL, DIMENSION(ims:ime, kms:kme, jms:jme), INTENT(INOUT) :: A_E_BEP
REAL, DIMENSION(ims:ime, kms:kme, jms:jme), INTENT(INOUT) :: B_U_BEP
REAL, DIMENSION(ims:ime, kms:kme, jms:jme), INTENT(INOUT) :: B_V_BEP
REAL, DIMENSION(ims:ime, kms:kme, jms:jme), INTENT(INOUT) :: B_T_BEP
REAL, DIMENSION(ims:ime, kms:kme, jms:jme), INTENT(INOUT) :: B_Q_BEP
REAL, DIMENSION(ims:ime, kms:kme, jms:jme), INTENT(INOUT) :: B_E_BEP
REAL, DIMENSION(ims:ime, kms:kme, jms:jme), INTENT(INOUT) :: VL_BEP
REAL, DIMENSION(ims:ime, kms:kme, jms:jme), INTENT(INOUT) :: DLG_BEP
REAL, DIMENSION(ims:ime, kms:kme,jms:jme),INTENT(INOUT) :: SF_BEP
REAL, DIMENSION(ims:ime, kms:kme, jms:jme), INTENT(INOUT) :: DL_U_BEP
!
REAL, DIMENSION( ims:ime, jms:jme ), INTENT(INOUT) :: FRC_URB2D
INTEGER, DIMENSION( ims:ime, jms:jme ), INTENT(INOUT) :: UTYPE_URB2D
INTEGER :: UTYPE_URB
INTEGER :: I,J,K
DO I=ims,ime
DO J=jms,jme
! XXXR_URB2D(I,J)=0.
! XXXB_URB2D(I,J)=0.
! XXXG_URB2D(I,J)=0.
! XXXC_URB2D(I,J)=0.
SH_URB2D(I,J)=0.
LH_URB2D(I,J)=0.
G_URB2D(I,J)=0.
RN_URB2D(I,J)=0.
!m
FRC_URB2D(I,J)=0.
UTYPE_URB2D(I,J)=0.
IF( IVGTYP(I,J) == ISURBAN) THEN
UTYPE_URB2D(I,J) = 2 ! for default. high-intensity
UTYPE_URB = UTYPE_URB2D(I,J) ! for default. high-intensity
FRC_URB2D(I,J) = FRC_URB_TBL(UTYPE_URB)
ENDIF
IF( IVGTYP(I,J) == 31) THEN
UTYPE_URB2D(I,J) = 3 ! low-intensity residential
UTYPE_URB = UTYPE_URB2D(I,J) ! low-intensity residential
FRC_URB2D(I,J) = FRC_URB_TBL(UTYPE_URB)
ENDIF
IF( IVGTYP(I,J) == 32) THEN
UTYPE_URB2D(I,J) = 2 ! high-intensity
UTYPE_URB = UTYPE_URB2D(I,J) ! high-intensity
FRC_URB2D(I,J) = FRC_URB_TBL(UTYPE_URB)
ENDIF
IF( IVGTYP(I,J) == 33) THEN
UTYPE_URB2D(I,J) = 1 ! Commercial/Industrial/Transportation
UTYPE_URB = UTYPE_URB2D(I,J) ! Commercial/Industrial/Transportation
FRC_URB2D(I,J) = FRC_URB_TBL(UTYPE_URB)
ENDIF
QC_URB2D(I,J)=0.01
IF (.not.restart) THEN
XXXR_URB2D(I,J)=0.
XXXB_URB2D(I,J)=0.
XXXG_URB2D(I,J)=0.
XXXC_URB2D(I,J)=0.
TC_URB2D(I,J)=TSURFACE0_URB(I,J)+0.
TR_URB2D(I,J)=TSURFACE0_URB(I,J)+0.
TB_URB2D(I,J)=TSURFACE0_URB(I,J)+0.
TG_URB2D(I,J)=TSURFACE0_URB(I,J)+0.
!
TS_URB2D(I,J)=TSURFACE0_URB(I,J)+0.
! DO K=1,num_roof_layers
! DO K=1,num_soil_layers
! TRL_URB3D(I,1,J)=TLAYER0_URB(I,1,J)+0.
! TRL_URB3D(I,2,J)=TLAYER0_URB(I,2,J)+0.
! TRL_URB3D(I,3,J)=TLAYER0_URB(I,3,J)+0.
! TRL_URB3D(I,4,J)=TLAYER0_URB(I,4,J)+0.
TRL_URB3D(I,1,J)=TLAYER0_URB(I,1,J)+0.
TRL_URB3D(I,2,J)=0.5*(TLAYER0_URB(I,1,J)+TLAYER0_URB(I,2,J))
TRL_URB3D(I,3,J)=TLAYER0_URB(I,2,J)+0.
TRL_URB3D(I,4,J)=TLAYER0_URB(I,2,J)+(TLAYER0_URB(I,3,J)-TLAYER0_URB(I,2,J))*0.29
! END DO
! DO K=1,num_wall_layers
! DO K=1,num_soil_layers
!m TBL_URB3D(I,1,J)=TLAYER0_URB(I,1,J)+0.
!m TBL_URB3D(I,2,J)=TLAYER0_URB(I,2,J)+0.
!m TBL_URB3D(I,3,J)=TLAYER0_URB(I,3,J)+0.
!m TBL_URB3D(I,4,J)=TLAYER0_URB(I,4,J)+0.
TBL_URB3D(I,1,J)=TLAYER0_URB(I,1,J)+0.
TBL_URB3D(I,2,J)=0.5*(TLAYER0_URB(I,1,J)+TLAYER0_URB(I,2,J))
TBL_URB3D(I,3,J)=TLAYER0_URB(I,2,J)+0.
TBL_URB3D(I,4,J)=TLAYER0_URB(I,2,J)+(TLAYER0_URB(I,3,J)-TLAYER0_URB(I,2,J))*0.29
! END DO
! DO K=1,num_road_layers
DO K=1,num_soil_layers
TGL_URB3D(I,K,J)=TLAYER0_URB(I,K,J)+0.
END DO
! multi-layer urban
! write(*,*)i,j,TSURFACE0_URB(i,j),TLAYER0_URB(i,1,j),TLAYER0_URB(i,4,j)
DO k=1,num_urban_layers
! TRB_URB4D(I,k,J)=TSURFACE0_URB(I,J)
! TW1_URB4D(I,k,J)=TSURFACE0_URB(I,J)
! TW2_URB4D(I,k,J)=TSURFACE0_URB(I,J)
! TGB_URB4D(I,k,J)=TSURFACE0_URB(I,J)
TRB_URB4D(I,k,J)=tlayer0_urb(I,1,J)
TW1_URB4D(I,k,J)=tlayer0_urb(I,1,J)
TW2_URB4D(I,k,J)=tlayer0_urb(I,1,J)
TGB_URB4D(I,k,J)=tlayer0_urb(I,1,J)
SFW1_URB3D(I,k,J)=0.
SFW2_URB3D(I,k,J)=0.
SFR_URB3D(I,k,J)=0.
SFG_URB3D(I,k,J)=0.
ENDDO
DO K= KMS,KME
SF_BEP(I,K,J)=1.
VL_BEP(I,K,J)=1.
A_U_BEP(I,K,J)=0.
A_V_BEP(I,K,J)=0.
A_T_BEP(I,K,J)=0.
A_E_BEP(I,K,J)=0.
B_U_BEP(I,K,J)=0.
B_V_BEP(I,K,J)=0.
B_T_BEP(I,K,J)=0.
B_E_BEP(I,K,J)=0.
DLG_BEP(I,K,J)=0.
DL_U_BEP(I,K,J)=0.
END DO
ENDIF !restart
END DO
END DO
RETURN
END SUBROUTINE urban_var_init
!===========================================================================
!
! force_restore
!
!===========================================================================
SUBROUTINE force_restore (docs) (CAP,AKS,DELT,S,R,H,LE,TSLEND,TSP,TS) 3
REAL, INTENT(IN) :: CAP,AKS,DELT,S,R,H,LE,TSLEND,TSP
REAL, INTENT(OUT) :: TS
REAL :: C1,C2
C2=24.*3600./2./3.14159
C1=SQRT(0.5*C2*CAP*AKS)
TS = TSP + DELT*( (S+R-H-LE)/C1 -(TSP-TSLEND)/C2 )
END SUBROUTINE force_restore
!===========================================================================
!
! bisection (not used)
!
!==============================================================================
SUBROUTINE bisection (docs) (TSP,PS,S,EPS,RX,SIG,RHO,CP,CH,UA,QA,TA,EL,BET,AKS,TSL,DZ,TS)
REAL, INTENT(IN) :: TSP,PS,S,EPS,RX,SIG,RHO,CP,CH,UA,QA,TA,EL,BET,AKS,TSL,DZ
REAL, INTENT(OUT) :: TS
REAL :: ES,QS0,R,H,ELE,G0,F1,F
TS1 = TSP - 5.
TS2 = TSP + 5.
DO ITERATION = 1,22
ES=6.11*EXP( (2.5*10.**6./461.51)*(TS1-273.15)/(273.15*TS1) )
QS0=0.622*ES/(PS-0.378*ES)
R=EPS*(RX-SIG*(TS1**4.)/60.)
H=RHO*CP*CH*UA*(TS1-TA)*100.
ELE=RHO*EL*CH*UA*BET*(QS0-QA)*100.
G0=AKS*(TS1-TSL)/(DZ/2.)
F1= S + R - H - ELE - G0
TS=0.5*(TS1+TS2)
ES=6.11*EXP( (2.5*10.**6./461.51)*(TS-273.15)/(273.15*TS) )
QS0=0.622*ES/(PS-0.378*ES)
R=EPS*(RX-SIG*(TS**4.)/60.)
H=RHO*CP*CH*UA*(TS-TA)*100.
ELE=RHO*EL*CH*UA*BET*(QS0-QA)*100.
G0=AKS*(TS-TSL)/(DZ/2.)
F = S + R - H - ELE - G0
IF (F1*F > 0.0) THEN
TS1=TS
ELSE
TS2=TS
END IF
END DO
RETURN
END SUBROUTINE bisection
!===========================================================================
END MODULE module_sf_urban