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!MNH_LIC Copyright 2023-2023 CNRS, Meteo-France and Universite Paul Sabatier
!MNH_LIC This is part of the Meso-NH software governed by the CeCILL-C licence
!MNH_LIC version 1. See LICENSE, CeCILL-C_V1-en.txt and CeCILL-C_V1-fr.txt
!MNH_LIC for details. version 1.
!-----------------------------------------------------------------
! Original version:
! P. Wautelet: 27/04/2023
! Modifications:
!-----------------------------------------------------------------
MODULE MODD_SENSOR

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USE MODD_PARAMETERS, ONLY: NSENSORNAMELGTMAX, NNEGUNDEF, XNEGUNDEF, XUNDEF

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USE MODD_TYPE_DATE, ONLY: DATE_TIME

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USE MODD_SURF_PAR, ONLY: XUNDEF_SFX => XUNDEF

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IMPLICIT NONE
PRIVATE
PUBLIC :: TSENSOR

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PUBLIC :: TSENSORTIME

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INTEGER, PARAMETER :: NTAG_NCUR = 145
INTEGER, PARAMETER :: NTAG_PACK = 245

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TYPE :: TSENSORTIME

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INTEGER :: N_CUR = 0 ! current step of storage
REAL :: XTSTEP = 60. ! storage time step (default reset later)
TYPE(DATE_TIME), DIMENSION(:), ALLOCATABLE :: TPDATES ! dates(n) (n: recording instants)
CONTAINS
PROCEDURE :: STORESTEP_CHECK_AND_SET

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END TYPE TSENSORTIME

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TYPE, ABSTRACT :: TSENSOR
CHARACTER(LEN=NSENSORNAMELGTMAX) :: CNAME = '' ! Title or name of the sensor
CHARACTER(LEN=NSENSORNAMELGTMAX) :: CTYPE = '' ! Sensor type:
! 'AIRCRAFT' : aircraft
! 'RADIOS' : radiosounding balloon, 'ISODEN' : iso-density balloon, 'CVBALL' : Constant Volume balloon
! 'STATION', 'PROFILER',...
INTEGER :: NID = 0 ! Identification number of the sensor (from 1 to total number,
! separate numbering for separate sensor types)

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INTEGER :: NSTORE_CUR = 0 ! Current store instant
INTEGER :: NSTORE_MAX = -1 ! Maximum number of store instants (negative if arrays not allocated)

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INTEGER :: NBUFFER_FIXSIZE = 43 + 2 * NSENSORNAMELGTMAX ! Memory size required for exchange buffer (fixed part)

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INTEGER :: NBUFFER_VARSIZE = 0 ! Memory size required for exchange buffer (part per store instant)

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LOGICAL :: LFIX ! true if sensor is fix (can not move)
! Current position of sensor
REAL :: XX_CUR = XNEGUNDEF ! x position
REAL :: XY_CUR = XNEGUNDEF ! y position
REAL :: XZ_CUR = XNEGUNDEF ! z position
REAL :: XLAT_CUR = XNEGUNDEF ! latitude
REAL :: XLON_CUR = XNEGUNDEF ! longitude

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! Position in the mesh
INTEGER :: NI_M = NNEGUNDEF ! X position for mass-point axis (between this one and the next one)
INTEGER :: NJ_M = NNEGUNDEF ! Y position for mass-point axis (between this one and the next one)
INTEGER :: NI_U = NNEGUNDEF ! X position for u-point axis (between this one and the next one)
INTEGER :: NJ_V = NNEGUNDEF ! Y position for v-point axis (between this one and the next one)

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INTEGER :: NK00 = NNEGUNDEF ! Z position for ni_m , nj_m
INTEGER :: NK01 = NNEGUNDEF ! Z position for ni_m , nj_m+1
INTEGER :: NK10 = NNEGUNDEF ! Z position for ni_m+1, nj_m
INTEGER :: NK11 = NNEGUNDEF ! Z position for ni_m+1, nj_m+1
INTEGER :: NU00 = NNEGUNDEF ! Z position for ni_u , nj_m
INTEGER :: NU01 = NNEGUNDEF ! Z position for ni_u , nj_m+1
INTEGER :: NU10 = NNEGUNDEF ! Z position for ni_u+1, nj_m
INTEGER :: NU11 = NNEGUNDEF ! Z position for ni_u+1, nj_m+1
INTEGER :: NV00 = NNEGUNDEF ! Z position for ni_m , nj_v
INTEGER :: NV01 = NNEGUNDEF ! Z position for ni_m , nj_v+1
INTEGER :: NV10 = NNEGUNDEF ! Z position for ni_m+1, nj_v
INTEGER :: NV11 = NNEGUNDEF ! Z position for ni_m+1, nj_v+1

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! Coefficient to interpolate values (sensors are usually not exactly on mesh points)
REAL :: XXMCOEF = XUNDEF ! Interpolation coefficient for X (mass-point)
REAL :: XYMCOEF = XUNDEF ! Interpolation coefficient for Y (mass-point)
REAL :: XXUCOEF = XUNDEF ! Interpolation coefficient for X (U-point)
REAL :: XYVCOEF = XUNDEF ! Interpolation coefficient for Y (V-point)

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! Coefficient to interpolate vertically
REAL :: XZCOEF00 = XUNDEF ! Interpolation coefficient in Z direction for ni_m , nj_m
REAL :: XZCOEF01 = XUNDEF ! Interpolation coefficient in Z direction for ni_m , nj_m+1
REAL :: XZCOEF10 = XUNDEF ! Interpolation coefficient in Z direction for ni_m+1, nj_m
REAL :: XZCOEF11 = XUNDEF ! Interpolation coefficient in Z direction for ni_m+1, nj_m+1
REAL :: XUCOEF00 = XUNDEF ! Interpolation coefficient in Z direction for ni_u , nj_m
REAL :: XUCOEF01 = XUNDEF ! Interpolation coefficient in Z direction for ni_u , nj_m+1
REAL :: XUCOEF10 = XUNDEF ! Interpolation coefficient in Z direction for ni_u+1, nj_m
REAL :: XUCOEF11 = XUNDEF ! Interpolation coefficient in Z direction for ni_u+1, nj_m+1
REAL :: XVCOEF00 = XUNDEF ! Interpolation coefficient in Z direction for ni_m , nj_v
REAL :: XVCOEF01 = XUNDEF ! Interpolation coefficient in Z direction for ni_m , nj_v+1
REAL :: XVCOEF10 = XUNDEF ! Interpolation coefficient in Z direction for ni_m+1, nj_v
REAL :: XVCOEF11 = XUNDEF ! Interpolation coefficient in Z direction for ni_m+1, nj_v+1

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! Data records (at recording instants)

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REAL, DIMENSION(:,:), ALLOCATABLE :: XZON ! zonal wind(n)
REAL, DIMENSION(:,:), ALLOCATABLE :: XMER ! meridian wind(n)
REAL, DIMENSION(:,:), ALLOCATABLE :: XW ! w(n) (air vertical speed)
REAL, DIMENSION(:,:), ALLOCATABLE :: XP ! p(n)
REAL, DIMENSION(:,:), ALLOCATABLE :: XTKE ! tke(n)
REAL, DIMENSION(:,:), ALLOCATABLE :: XTH ! th(n)
REAL, DIMENSION(:,:,:), ALLOCATABLE :: XR ! r*(n)
REAL, DIMENSION(:,:,:), ALLOCATABLE :: XSV ! Sv*(n)
REAL, DIMENSION(:), ALLOCATABLE :: XTSRAD ! surface temperature Ts(n)

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REAL, DIMENSION(:), ALLOCATABLE :: XRHOD_SENSOR ! density of dry air at sensor position

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REAL, DIMENSION(:,:), ALLOCATABLE :: XRHOD ! density of dry air

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REAL, DIMENSION(:,:), ALLOCATABLE :: XCIZ ! Ice concentration
REAL, DIMENSION(:,:), ALLOCATABLE :: XCCZ ! Cloud concentration (LIMA)
REAL, DIMENSION(:,:), ALLOCATABLE :: XCRZ ! Rain concentration (LIMA)

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REAL, DIMENSION(:,:), ALLOCATABLE :: XIWCZ ! ice water content
REAL, DIMENSION(:,:), ALLOCATABLE :: XLWCZ ! liquid water content
REAL, DIMENSION(:,:), ALLOCATABLE :: XCRARE ! cloud radar reflectivity
REAL, DIMENSION(:,:), ALLOCATABLE :: XCRARE_ATT ! attenuated (= more realistic) cloud radar reflectivity

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CONTAINS

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PROCEDURE(TSENSOR_ALLOCATION), DEFERRED :: DATA_ARRAYS_ALLOCATE
PROCEDURE(TSENSOR_DEALLOCATION), DEFERRED :: DATA_ARRAYS_DEALLOCATE

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! Remark: data_arrays_(de)allocate_sensor do not point to data_arrays_(de)allocate to allow other dummy arguments

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PROCEDURE, NON_OVERRIDABLE :: DATA_ARRAYS_ALLOCATE_SENSOR
PROCEDURE, NON_OVERRIDABLE :: DATA_ARRAYS_DEALLOCATE_SENSOR

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PROCEDURE :: COMPUTE_VERTICAL_INTERP_COEFF
PROCEDURE :: INTERP_FROM_MASSPOINT
PROCEDURE :: INTERP_FROM_UPOINT
PROCEDURE :: INTERP_FROM_VPOINT
PROCEDURE :: INTERP_HOR_FROM_MASSPOINT_0D
PROCEDURE :: INTERP_HOR_FROM_UPOINT_0D
PROCEDURE :: INTERP_HOR_FROM_VPOINT_0D
PROCEDURE :: INTERP_HOR_FROM_MASSPOINT_1D
PROCEDURE :: INTERP_HOR_FROM_UPOINT_1D
PROCEDURE :: INTERP_HOR_FROM_VPOINT_1D

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PROCEDURE, NON_OVERRIDABLE :: BUFFER_SIZE_COMPUTE
! 2 procedures pointing to the same one: necessary to allow overload for extended types (limitation of Fortran standard)
PROCEDURE, NON_OVERRIDABLE :: BUFFER_PACK_SENSOR
PROCEDURE :: BUFFER_PACK => BUFFER_PACK_SENSOR
PROCEDURE, NON_OVERRIDABLE :: BUFFER_UNPACK_SENSOR
PROCEDURE :: BUFFER_UNPACK => BUFFER_UNPACK_SENSOR
PROCEDURE, NON_OVERRIDABLE :: BUFFER_SIZE_SEND
PROCEDURE, NON_OVERRIDABLE :: BUFFER_SIZE_RECV
PROCEDURE, NON_OVERRIDABLE :: BUFFER_SEND
PROCEDURE, NON_OVERRIDABLE :: BUFFER_RECV

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PROCEDURE, NON_OVERRIDABLE :: SEND => SENSOR_COMM_SEND
PROCEDURE, NON_OVERRIDABLE :: SEND_DEALLOCATE => SENSOR_COMM_SEND_DEALLOCATE
PROCEDURE, NON_OVERRIDABLE :: RECV_ALLOCATE => SENSOR_COMM_RECV_ALLOCATE

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GENERIC :: INTERP_HOR_FROM_MASSPOINT => INTERP_HOR_FROM_MASSPOINT_0D, INTERP_HOR_FROM_MASSPOINT_1D
GENERIC :: INTERP_HOR_FROM_UPOINT => INTERP_HOR_FROM_UPOINT_0D, INTERP_HOR_FROM_UPOINT_1D
GENERIC :: INTERP_HOR_FROM_VPOINT => INTERP_HOR_FROM_VPOINT_0D, INTERP_HOR_FROM_VPOINT_1D

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END TYPE TSENSOR
ABSTRACT INTERFACE
SUBROUTINE TSENSOR_ALLOCATION( TPSENSOR, KSTORE )
IMPORT TSENSOR
CLASS(TSENSOR), INTENT(INOUT) :: TPSENSOR
INTEGER, OPTIONAL, INTENT(IN) :: KSTORE
END SUBROUTINE
SUBROUTINE TSENSOR_DEALLOCATION( TPSENSOR )
IMPORT TSENSOR
CLASS(TSENSOR), INTENT(INOUT) :: TPSENSOR
END SUBROUTINE
END INTERFACE

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CONTAINS

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! ############################################################################
SUBROUTINE DATA_ARRAYS_ALLOCATE_SENSOR( TPSENSOR, OVERTPROF, KLEVELS, KSTORE )
! ############################################################################
USE MODD_CONF_N, ONLY: NRR
USE MODD_DIM_N, ONLY: NKMAX
USE MODD_NSV, ONLY: NSV
USE MODD_PARAMETERS, ONLY: JPVEXT

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USE MODD_PARAM_N, ONLY: CCLOUD, CRAD, CTURB

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USE MODE_MSG
CLASS(TSENSOR), INTENT(INOUT) :: TPSENSOR
LOGICAL, INTENT(IN) :: OVERTPROF ! vertical profile or not
INTEGER, INTENT(IN) :: KLEVELS ! number of vertical levels
INTEGER, INTENT(IN) :: KSTORE ! number of storage instants
INTEGER :: IKU ! number of vertical levels for profile

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INTEGER :: IVARSIZE ! total allocated size per store

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CALL PRINT_MSG( NVERB_DEBUG, 'GEN', 'Data_arrays_allocate_sensor', 'sensor: ' // TRIM(TPSENSOR%CNAME), OLOCAL = .TRUE. )
IKU = NKMAX + 2 * JPVEXT

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IVARSIZE = 0
IF ( TPSENSOR%NSTORE_MAX >= 0 ) THEN
CALL PRINT_MSG( NVERB_ERROR, 'GEN', 'Data_arrays_allocate_sensor', 'sensor: ' // TRIM(TPSENSOR%CNAME) &
// ' already allocated', OLOCAL = .TRUE. )
RETURN
END IF

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TPSENSOR%NSTORE_MAX = KSTORE

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ALLOCATE( TPSENSOR%XZON (KLEVELS, KSTORE) ) ; IVARSIZE = IVARSIZE + KLEVELS
ALLOCATE( TPSENSOR%XMER (KLEVELS, KSTORE) ) ; IVARSIZE = IVARSIZE + KLEVELS
ALLOCATE( TPSENSOR%XW (KLEVELS, KSTORE) ) ; IVARSIZE = IVARSIZE + KLEVELS
ALLOCATE( TPSENSOR%XP (KLEVELS, KSTORE) ) ; IVARSIZE = IVARSIZE + KLEVELS

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IF ( CTURB == 'TKEL' ) THEN

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ALLOCATE( TPSENSOR%XTKE(KLEVELS, KSTORE) ) ; IVARSIZE = IVARSIZE + KLEVELS

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ELSE
ALLOCATE( TPSENSOR%XTKE(0, 0) )
END IF

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ALLOCATE( TPSENSOR%XTH (KLEVELS, KSTORE) ) ; IVARSIZE = IVARSIZE + KLEVELS
ALLOCATE( TPSENSOR%XR (KLEVELS, KSTORE, NRR) ) ; IVARSIZE = IVARSIZE + KLEVELS * NRR
ALLOCATE( TPSENSOR%XSV (KLEVELS, KSTORE, NSV) ) ; IVARSIZE = IVARSIZE + KLEVELS * NSV

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IF ( CRAD /= 'NONE' ) THEN

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ALLOCATE( TPSENSOR%XTSRAD(KSTORE) ) ; IVARSIZE = IVARSIZE + 1

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ELSE
ALLOCATE( TPSENSOR%XTSRAD(0) )
END IF

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ALLOCATE( TPSENSOR%XRHOD_SENSOR(KSTORE) ) ; IVARSIZE = IVARSIZE + 1

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IF ( OVERTPROF ) THEN

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ALLOCATE( TPSENSOR%XRHOD(IKU, KSTORE) ) ; IVARSIZE = IVARSIZE + IKU

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IF ( CCLOUD == 'LIMA') THEN
ALLOCATE( TPSENSOR%XCIZ (IKU, KSTORE) ) ; IVARSIZE = IVARSIZE + IKU
ALLOCATE( TPSENSOR%XCCZ (IKU, KSTORE) ) ; IVARSIZE = IVARSIZE + IKU
ALLOCATE( TPSENSOR%XCRZ (IKU, KSTORE) ) ; IVARSIZE = IVARSIZE + IKU
ELSE IF ( CCLOUD(1:3) == 'ICE') THEN
ALLOCATE( TPSENSOR%XCIZ (IKU, KSTORE) ) ; IVARSIZE = IVARSIZE + IKU
ALLOCATE( TPSENSOR%XCCZ (0, 0) )
ALLOCATE( TPSENSOR%XCRZ (0, 0) )
ELSE
ALLOCATE( TPSENSOR%XCIZ (0, 0) )
ALLOCATE( TPSENSOR%XCCZ (0, 0) )
ALLOCATE( TPSENSOR%XCRZ (0, 0) )
END IF

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ALLOCATE( TPSENSOR%XIWCZ (IKU, KSTORE) ) ; IVARSIZE = IVARSIZE + IKU
ALLOCATE( TPSENSOR%XLWCZ (IKU, KSTORE) ) ; IVARSIZE = IVARSIZE + IKU
ALLOCATE( TPSENSOR%XCRARE (IKU, KSTORE) ) ; IVARSIZE = IVARSIZE + IKU
ALLOCATE( TPSENSOR%XCRARE_ATT(IKU, KSTORE) ) ; IVARSIZE = IVARSIZE + IKU

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ELSE

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ALLOCATE( TPSENSOR%XRHOD (0, 0) )

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ALLOCATE( TPSENSOR%XCIZ (0, 0) )
ALLOCATE( TPSENSOR%XCCZ (0, 0) )
ALLOCATE( TPSENSOR%XCRZ (0, 0) )

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ALLOCATE( TPSENSOR%XIWCZ (0, 0) )
ALLOCATE( TPSENSOR%XLWCZ (0, 0) )
ALLOCATE( TPSENSOR%XCRARE (0, 0) )
ALLOCATE( TPSENSOR%XCRARE_ATT(0, 0) )
END IF

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TPSENSOR%NBUFFER_VARSIZE = TPSENSOR%NBUFFER_VARSIZE + IVARSIZE

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TPSENSOR%XZON (:,:) = XUNDEF
TPSENSOR%XMER (:,:) = XUNDEF
TPSENSOR%XW (:,:) = XUNDEF
TPSENSOR%XP (:,:) = XUNDEF
TPSENSOR%XTKE (:,:) = XUNDEF
TPSENSOR%XTH (:,:) = XUNDEF
TPSENSOR%XR (:,:,:) = XUNDEF
TPSENSOR%XSV (:,:,:) = XUNDEF
TPSENSOR%XTSRAD (:) = XUNDEF_SFX

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TPSENSOR%XRHOD_SENSOR(:) = XNEGUNDEF
TPSENSOR%XRHOD (:,:) = XNEGUNDEF

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TPSENSOR%XCIZ (:,:) = XUNDEF
TPSENSOR%XCCZ (:,:) = XUNDEF
TPSENSOR%XCRZ (:,:) = XUNDEF

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TPSENSOR%XIWCZ (:,:) = XUNDEF
TPSENSOR%XLWCZ (:,:) = XUNDEF
TPSENSOR%XCRARE (:,:) = XUNDEF
TPSENSOR%XCRARE_ATT(:,:) = XUNDEF
END SUBROUTINE DATA_ARRAYS_ALLOCATE_SENSOR
! ##################################################
SUBROUTINE DATA_ARRAYS_DEALLOCATE_SENSOR( TPSENSOR )
! ##################################################
USE MODE_MSG
CLASS(TSENSOR), INTENT(INOUT) :: TPSENSOR
CALL PRINT_MSG( NVERB_DEBUG, 'GEN', 'Data_arrays_deallocate_sensor', 'sensor: ' // TRIM(TPSENSOR%CNAME), OLOCAL = .TRUE. )

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! nstore_max set to negative value to inform that arrays are not allocated
TPSENSOR%NSTORE_MAX = -1

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DEALLOCATE( TPSENSOR%XZON )
DEALLOCATE( TPSENSOR%XMER )
DEALLOCATE( TPSENSOR%XW )
DEALLOCATE( TPSENSOR%XP )
DEALLOCATE( TPSENSOR%XTKE )
DEALLOCATE( TPSENSOR%XTH )
DEALLOCATE( TPSENSOR%XR )
DEALLOCATE( TPSENSOR%XSV )
DEALLOCATE( TPSENSOR%XTSRAD )

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DEALLOCATE( TPSENSOR%XRHOD_SENSOR )
DEALLOCATE( TPSENSOR%XRHOD )

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DEALLOCATE( TPSENSOR%XCIZ )
DEALLOCATE( TPSENSOR%XCCZ )
DEALLOCATE( TPSENSOR%XCRZ )

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DEALLOCATE( TPSENSOR%XIWCZ )
DEALLOCATE( TPSENSOR%XLWCZ )
DEALLOCATE( TPSENSOR%XCRARE )
DEALLOCATE( TPSENSOR%XCRARE_ATT )
END SUBROUTINE DATA_ARRAYS_DEALLOCATE_SENSOR

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! ###########################################################################
FUNCTION STORESTEP_CHECK_AND_SET( TPSENSOR_TIME, KSTORE_ID ) RESULT( OSTORE )
! ###########################################################################
USE MODD_TIME_N, ONLY: TDTCUR
USE MODE_DATETIME
USE MODE_MSG
CLASS(TSENSORTIME), INTENT(INOUT) :: TPSENSOR_TIME
INTEGER, INTENT(OUT) :: KSTORE_ID ! current step of storage
LOGICAL :: OSTORE
OSTORE = .FALSE.
IF ( .NOT.ALLOCATED( TPSENSOR_TIME%TPDATES ) ) &
CALL PRINT_MSG( NVERB_FATAL, 'GEN', 'Storestep_check_and_set', 'tpdates not allocated for tpsensor_time' )
IF ( TPSENSOR_TIME%N_CUR == 0 ) THEN
IF ( SIZE( TPSENSOR_TIME%TPDATES ) < 1 ) &
CALL PRINT_MSG( NVERB_FATAL, 'GEN', 'Storestep_check_and_set', 'tpdates too small' )
! First store
TPSENSOR_TIME%N_CUR = 1
TPSENSOR_TIME%TPDATES(1) = TDTCUR
KSTORE_ID = 1
OSTORE = .TRUE.
ELSE IF ( TPSENSOR_TIME%N_CUR > 0 ) THEN
IF ( TDTCUR - TPSENSOR_TIME%TPDATES(TPSENSOR_TIME%N_CUR) >= TPSENSOR_TIME%XTSTEP - 1.E-6 ) THEN
TPSENSOR_TIME%N_CUR = TPSENSOR_TIME%N_CUR + 1
KSTORE_ID = TPSENSOR_TIME%N_CUR
IF ( KSTORE_ID < 1 .OR. KSTORE_ID > SIZE( TPSENSOR_TIME%TPDATES ) ) THEN
CALL PRINT_MSG( NVERB_ERROR, 'GEN', 'Storestep_check_and_set', 'problem with step of storage' )
KSTORE_ID = -2
ELSE
TPSENSOR_TIME%TPDATES(KSTORE_ID) = TDTCUR
OSTORE = .TRUE.
END IF
ELSE
! Return an invalid step number
! This is not an instant to do a store
KSTORE_ID = -1
END IF
ELSE
CALL PRINT_MSG( NVERB_ERROR, 'GEN', 'Storestep_check_and_set', 'n_cur cannot be negative' )
KSTORE_ID = -3
END IF
END FUNCTION STORESTEP_CHECK_AND_SET

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! ##############################################################################################
SUBROUTINE COMPUTE_VERTICAL_INTERP_COEFF( TPSENSOR, HPOS, PALT, PZ, OLOW, OHIGH, ODONOLOWCRASH )
! ##############################################################################################
USE MODD_PARAMETERS, ONLY: JPVEXT
USE MODD_TIME_N, ONLY: TDTCUR
USE MODE_MSG
CLASS(TSENSOR), INTENT(INOUT) :: TPSENSOR
CHARACTER(LEN=*), INTENT(IN) :: HPOS ! Compute interpolation coefficients for Arakawa points ('MASS', 'U' or 'V')
REAL, INTENT(IN) :: PALT ! Altitude to which compute interpolation coefficients
REAL, DIMENSION(:,:,:), INTENT(IN) :: PZ ! Altitudes around point
LOGICAL, INTENT(OUT) :: OLOW ! true if sensor is too low
LOGICAL, INTENT(OUT) :: OHIGH ! true if sensor is too high
LOGICAL, OPTIONAL, INTENT(IN) :: ODONOLOWCRASH ! if true, force position to ground when sensor is below it
INTEGER :: IK00, IK01, IK10, IK11
INTEGER :: IKB, IKE, IKU
INTEGER :: JI, JJ
LOGICAL :: GCHANGE ! set to true if at least an index has been forced to change
LOGICAL :: GDONE ! set to true if coefficient computation has been done
LOGICAL :: GDONOLOWCRASH
REAL :: ZZCOEF00, ZZCOEF01, ZZCOEF10, ZZCOEF11
OLOW = .FALSE.
OHIGH = .FALSE.
GCHANGE = .FALSE.
GDONE = .FALSE.
IKB = 1 + JPVEXT
IKE = SIZE( PZ, 3 ) - JPVEXT
IKU = SIZE( PZ, 3 )
IF ( PRESENT( ODONOLOWCRASH ) ) THEN
GDONOLOWCRASH = ODONOLOWCRASH
ELSE
GDONOLOWCRASH = .FALSE.
END IF
! Interpolation coefficients for the 4 suroundings verticals
! Determine ik?? coefficients depending on the level ordering
! (altitudes can also be based on pressure that decreaze with heigth)
IF ( PZ(1,1,2) > PZ(1,1,1) ) THEN
IK00 = MAX( COUNT (PALT >= PZ(1,1,:)), 1)
IK01 = MAX( COUNT (PALT >= PZ(1,2,:)), 1)
IK10 = MAX( COUNT (PALT >= PZ(2,1,:)), 1)
IK11 = MAX( COUNT (PALT >= PZ(2,2,:)), 1)
ELSE
IK00 = MAX( COUNT (PALT <= PZ(1,1,:)), 1)
IK01 = MAX( COUNT (PALT <= PZ(1,2,:)), 1)
IK10 = MAX( COUNT (PALT <= PZ(2,1,:)), 1)
IK11 = MAX( COUNT (PALT <= PZ(2,2,:)), 1)
END IF
IF ( ANY( [ IK00, IK01, IK10, IK11 ] < IKB ) ) THEN
! Sensor is low (too near the ground or below it)
OLOW = .TRUE.
IF ( GDONOLOWCRASH ) THEN
! Do not allow crash on the ground: set position on the ground if too low
GCHANGE = .TRUE.
!Minimum altitude is on the ground at ikb (no crash if too low)
IK00 = MAX ( IK00, IKB )
IK01 = MAX ( IK01, IKB )
IK10 = MAX ( IK10, IKB )
IK11 = MAX ( IK11, IKB )
ZZCOEF00 = ( PALT - PZ(1,1,IK00) ) / ( PZ(1,1,IK00+1) - PZ(1,1,IK00) )
ZZCOEF01 = ( PALT - PZ(1,2,IK01) ) / ( PZ(1,2,IK01+1) - PZ(1,2,IK01) )
ZZCOEF10 = ( PALT - PZ(2,1,IK10) ) / ( PZ(2,1,IK10+1) - PZ(2,1,IK10) )
ZZCOEF11 = ( PALT - PZ(2,2,IK11) ) / ( PZ(2,2,IK11+1) - PZ(2,2,IK11) )
CMNHMSG(1) = 'sensor ' // TRIM( TPSENSOR%CNAME ) // ' is near the ground'
WRITE( CMNHMSG(2), "( 'at ', I2, '/', I2, '/', I4, ' ', F18.12, 's' )" ) &
TDTCUR%NDAY, TDTCUR%NMONTH, TDTCUR%NYEAR, TDTCUR%XTIME
CALL PRINT_MSG( NVERB_INFO, 'GEN', 'Compute_vertical_interp_coeff', OLOCAL = .TRUE. )
ELSE
CALL PRINT_MSG( NVERB_WARNING, 'GEN', 'Compute_vertical_interp_coeff', &
'sensor ' // TRIM( TPSENSOR%CNAME ) // ' is too low', OLOCAL = .TRUE. )
ZZCOEF00 = XUNDEF
ZZCOEF01 = XUNDEF
ZZCOEF10 = XUNDEF
ZZCOEF11 = XUNDEF
END IF
GDONE = .TRUE.
END IF
! In a separate if (compared to olow detection) to allow olow and ohigh=true simultaneaously (very rare event!)
IF ( ANY( [ IK00, IK01, IK10, IK11 ] >= IKE ) ) THEN
! Sensor is high (above physical domain)
OHIGH = .TRUE.
! Limit ik?? indices to prevent out of bound accesses
IF ( IK00 > IKU-1) THEN
IK00 = IKU-1
GCHANGE = .TRUE.
END IF
IF ( IK01 > IKU-1) THEN
IK01 = IKU-1
GCHANGE = .TRUE.
END IF
IF ( IK10 > IKU-1) THEN
IK10 = IKU-1
GCHANGE = .TRUE.
END IF
IF ( IK11 > IKU-1) THEN
IK11 = IKU-1
GCHANGE = .TRUE.
END IF
CALL PRINT_MSG( NVERB_WARNING, 'GEN', 'Compute_vertical_interp_coeff', &
'sensor ' // TRIM( TPSENSOR%CNAME ) // ' is too high', OLOCAL = .TRUE. )
END IF
IF ( .NOT. GDONE ) THEN
ZZCOEF00 = ( PALT - PZ(1,1,IK00) ) / ( PZ(1,1,IK00+1) - PZ(1,1,IK00) )
ZZCOEF01 = ( PALT - PZ(1,2,IK01) ) / ( PZ(1,2,IK01+1) - PZ(1,2,IK01) )
ZZCOEF10 = ( PALT - PZ(2,1,IK10) ) / ( PZ(2,1,IK10+1) - PZ(2,1,IK10) )
ZZCOEF11 = ( PALT - PZ(2,2,IK11) ) / ( PZ(2,2,IK11+1) - PZ(2,2,IK11) )
END IF
SELECT CASE ( HPOS )
CASE ( 'MASS' )
TPSENSOR%NK00 = IK00
TPSENSOR%NK01 = IK01
TPSENSOR%NK10 = IK10
TPSENSOR%NK11 = IK11
TPSENSOR%XZCOEF00 = ZZCOEF00
TPSENSOR%XZCOEF01 = ZZCOEF01
TPSENSOR%XZCOEF10 = ZZCOEF10
TPSENSOR%XZCOEF11 = ZZCOEF11
CASE ( 'U' )
TPSENSOR%NU00 = IK00
TPSENSOR%NU01 = IK01
TPSENSOR%NU10 = IK10
TPSENSOR%NU11 = IK11
TPSENSOR%XUCOEF00 = ZZCOEF00
TPSENSOR%XUCOEF01 = ZZCOEF01
TPSENSOR%XUCOEF10 = ZZCOEF10
TPSENSOR%XUCOEF11 = ZZCOEF11
CASE ( 'V' )
TPSENSOR%NV00 = IK00
TPSENSOR%NV01 = IK01
TPSENSOR%NV10 = IK10
TPSENSOR%NV11 = IK11
TPSENSOR%XVCOEF00 = ZZCOEF00
TPSENSOR%XVCOEF01 = ZZCOEF01
TPSENSOR%XVCOEF10 = ZZCOEF10
TPSENSOR%XVCOEF11 = ZZCOEF11
CASE DEFAULT
CALL PRINT_MSG( NVERB_ERROR, 'GEN', 'Compute_vertical_interp_coeff', 'invalid hpos', OLOCAL = .TRUE. )
END SELECT
END SUBROUTINE COMPUTE_VERTICAL_INTERP_COEFF
! #######################################################
FUNCTION INTERP_FROM_MASSPOINT( TPSENSOR, PA ) RESULT( PB )
! #######################################################
USE MODE_MSG
CLASS(TSENSOR), INTENT(IN) :: TPSENSOR
REAL, DIMENSION(:,:,:), INTENT(IN) :: PA
REAL :: PB
INTEGER :: JI, JJ
INTEGER :: IK00, IK01, IK10, IK11
REAL :: ZXMCOEF, ZYMCOEF
REAL :: ZZCOEF00, ZZCOEF01, ZZCOEF10, ZZCOEF11
IF ( SIZE( PA, 1 ) == 2 ) THEN
JI = 1
JJ = 1
ELSE
JI = TPSENSOR%NI_M
JJ = TPSENSOR%NJ_M
END IF
IK00 = TPSENSOR%NK00
IK01 = TPSENSOR%NK01
IK10 = TPSENSOR%NK10
IK11 = TPSENSOR%NK11
ZXMCOEF = TPSENSOR%XXMCOEF
ZYMCOEF = TPSENSOR%XYMCOEF
ZZCOEF00 = TPSENSOR%XZCOEF00
ZZCOEF01 = TPSENSOR%XZCOEF01
ZZCOEF10 = TPSENSOR%XZCOEF10
ZZCOEF11 = TPSENSOR%XZCOEF11
IF ( JI >= 1 .AND. JI < SIZE( PA, 1 ) &
.AND. JJ >= 1 .AND. JJ < SIZE( PA, 2 ) &
.AND. ALL( [IK00,IK01,IK10,IK11] >= 1 ) .AND. ALL( [IK00,IK01,IK10,IK11] < SIZE( PA, 3 ) ) ) THEN
PB = (1.-ZXMCOEF) * (1.-ZYMCOEF) * ( (1.-ZZCOEF00) * PA(JI ,JJ ,IK00) + ZZCOEF00 * PA(JI ,JJ ,IK00+1) ) + &
( ZXMCOEF) * (1.-ZYMCOEF) * ( (1.-ZZCOEF10) * PA(JI+1,JJ ,IK10) + ZZCOEF10 * PA(JI+1,JJ ,IK10+1) ) + &
(1.-ZXMCOEF) * ( ZYMCOEF) * ( (1.-ZZCOEF01) * PA(JI ,JJ+1,IK01) + ZZCOEF01 * PA(JI ,JJ+1,IK01+1) ) + &
( ZXMCOEF) * ( ZYMCOEF) * ( (1.-ZZCOEF11) * PA(JI+1,JJ+1,IK11) + ZZCOEF11 * PA(JI+1,JJ+1,IK11+1) )
ELSE
CALL PRINT_MSG( NVERB_ERROR, 'GEN', 'Interp_from_masspoint', 'value can not be interpolated', OLOCAL = .TRUE. )
PB = XUNDEF
END IF
END FUNCTION INTERP_FROM_MASSPOINT
! ######################################################
FUNCTION INTERP_FROM_UPOINT( TPSENSOR, PA ) RESULT( PB )
! ######################################################
USE MODE_MSG
CLASS(TSENSOR), INTENT(IN) :: TPSENSOR
REAL, DIMENSION(:,:,:), INTENT(IN) :: PA
REAL :: PB
INTEGER :: JI, JJ
INTEGER :: IU00, IU01, IU10, IU11
REAL :: ZXUCOEF, ZYUCOEF
REAL :: ZUCOEF00, ZUCOEF01, ZUCOEF10, ZUCOEF11
IF ( SIZE( PA, 1 ) == 2 ) THEN
JI = 1
JJ = 1
ELSE
JI = TPSENSOR%NI_U
JJ = TPSENSOR%NJ_M
END IF
IU00 = TPSENSOR%NU00
IU01 = TPSENSOR%NU01
IU10 = TPSENSOR%NU10
IU11 = TPSENSOR%NU11
ZXUCOEF = TPSENSOR%XXUCOEF
ZYUCOEF = TPSENSOR%XYMCOEF
ZUCOEF00 = TPSENSOR%XUCOEF00
ZUCOEF01 = TPSENSOR%XUCOEF01
ZUCOEF10 = TPSENSOR%XUCOEF10
ZUCOEF11 = TPSENSOR%XUCOEF11
IF ( JI >= 1 .AND. JI < SIZE( PA, 1 ) &
.AND. JJ >= 1 .AND. JJ < SIZE( PA, 2 ) &
.AND. ALL( [IU00,IU01,IU10,IU11] >= 1 ) .AND. ALL( [IU00,IU01,IU10,IU11] < SIZE( PA, 3 ) ) ) THEN
PB = (1.-ZXUCOEF) * (1.-ZYUCOEF) * ( (1.-ZUCOEF00) * PA(JI ,JJ ,IU00) + ZUCOEF00 * PA(JI ,JJ ,IU00+1) ) + &
( ZXUCOEF) * (1.-ZYUCOEF) * ( (1.-ZUCOEF10) * PA(JI+1,JJ ,IU10) + ZUCOEF10 * PA(JI+1,JJ ,IU10+1) ) + &
(1.-ZXUCOEF) * ( ZYUCOEF) * ( (1.-ZUCOEF01) * PA(JI ,JJ+1,IU01) + ZUCOEF01 * PA(JI ,JJ+1,IU01+1) ) + &
( ZXUCOEF) * ( ZYUCOEF) * ( (1.-ZUCOEF11) * PA(JI+1,JJ+1,IU11) + ZUCOEF11 * PA(JI+1,JJ+1,IU11+1) )
ELSE
CALL PRINT_MSG( NVERB_ERROR, 'GEN', 'Interp_from_upoint', 'value can not be interpolated', OLOCAL = .TRUE. )
PB = XUNDEF
END IF
END FUNCTION INTERP_FROM_UPOINT
! ######################################################
FUNCTION INTERP_FROM_VPOINT( TPSENSOR, PA ) RESULT( PB )
! ######################################################
USE MODE_MSG
CLASS(TSENSOR), INTENT(IN) :: TPSENSOR
REAL, DIMENSION(:,:,:), INTENT(IN) :: PA
REAL :: PB
INTEGER :: JI, JJ
INTEGER :: IV00, IV01, IV10, IV11
REAL :: ZXVCOEF, ZYVCOEF
REAL :: ZVCOEF00, ZVCOEF01, ZVCOEF10, ZVCOEF11
IF ( SIZE( PA, 1 ) == 2 ) THEN
JI = 1
JJ = 1
ELSE
JI = TPSENSOR%NI_M
JJ = TPSENSOR%NJ_V
END IF
IV00 = TPSENSOR%NV00
IV01 = TPSENSOR%NV01
IV10 = TPSENSOR%NV10
IV11 = TPSENSOR%NV11
ZXVCOEF = TPSENSOR%XXMCOEF
ZYVCOEF = TPSENSOR%XYVCOEF
ZVCOEF00 = TPSENSOR%XVCOEF00
ZVCOEF01 = TPSENSOR%XVCOEF01
ZVCOEF10 = TPSENSOR%XVCOEF10
ZVCOEF11 = TPSENSOR%XVCOEF11
IF ( JI >= 1 .AND. JI < SIZE( PA, 1 ) &
.AND. JJ >= 1 .AND. JJ < SIZE( PA, 2 ) &
.AND. ALL( [IV00,IV01,IV10,IV11] >= 1 ) .AND. ALL( [IV00,IV01,IV10,IV11] < SIZE( PA, 3 ) ) ) THEN
PB = (1.-ZXVCOEF) * (1.-ZYVCOEF) * ( (1.-ZVCOEF00) * PA(JI ,JJ ,IV00) + ZVCOEF00 * PA(JI ,JJ ,IV00+1) ) + &
( ZXVCOEF) * (1.-ZYVCOEF) * ( (1.-ZVCOEF10) * PA(JI+1,JJ ,IV10) + ZVCOEF10 * PA(JI+1,JJ ,IV10+1) ) + &
(1.-ZXVCOEF) * ( ZYVCOEF) * ( (1.-ZVCOEF01) * PA(JI ,JJ+1,IV01) + ZVCOEF01 * PA(JI ,JJ+1,IV01+1) ) + &
( ZXVCOEF) * ( ZYVCOEF) * ( (1.-ZVCOEF11) * PA(JI+1,JJ+1,IV11) + ZVCOEF11 * PA(JI+1,JJ+1,IV11+1) )
ELSE
CALL PRINT_MSG( NVERB_ERROR, 'GEN', 'Interp_from_vpoint', 'value can not be interpolated', OLOCAL = .TRUE. )
PB = XUNDEF
END IF
END FUNCTION INTERP_FROM_VPOINT

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! ################################################################
FUNCTION INTERP_HOR_FROM_MASSPOINT_0D( TPSENSOR, PA ) RESULT( PB )
! ################################################################
USE MODD_CONF, ONLY: L1D
USE MODD_PARAMETERS, ONLY: XUNDEF
USE MODE_MSG
IMPLICIT NONE
CLASS(TSENSOR), INTENT(IN) :: TPSENSOR
REAL, DIMENSION(:,:), INTENT(IN) :: PA
REAL :: PB
REAL, DIMENSION(1) :: ZB
ZB = INTERP_HOR_FROM_MASSPOINT_1D( TPSENSOR, RESHAPE( PA, [ SIZE(PA,1), SIZE(PA,2), 1 ] ) )
PB = ZB(1)
END FUNCTION INTERP_HOR_FROM_MASSPOINT_0D
! #############################################################
FUNCTION INTERP_HOR_FROM_UPOINT_0D( TPSENSOR, PA ) RESULT( PB )
! #############################################################
USE MODD_CONF, ONLY: L1D
USE MODE_MSG
IMPLICIT NONE
CLASS(TSENSOR), INTENT(IN) :: TPSENSOR
REAL, DIMENSION(:,:), INTENT(IN) :: PA
REAL :: PB
REAL, DIMENSION(1) :: ZB
ZB = INTERP_HOR_FROM_UPOINT_1D( TPSENSOR, RESHAPE( PA, [ SIZE(PA,1), SIZE(PA,2), 1 ] ) )
PB = ZB(1)
END FUNCTION INTERP_HOR_FROM_UPOINT_0D
! #############################################################
FUNCTION INTERP_HOR_FROM_VPOINT_0D( TPSENSOR, PA ) RESULT( PB )
! #############################################################

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USE MODD_CONF, ONLY: L1D
USE MODE_MSG

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IMPLICIT NONE
CLASS(TSENSOR), INTENT(IN) :: TPSENSOR
REAL, DIMENSION(:,:), INTENT(IN) :: PA
REAL :: PB
REAL, DIMENSION(1) :: ZB
ZB = INTERP_HOR_FROM_VPOINT_1D( TPSENSOR, RESHAPE( PA, [ SIZE(PA,1), SIZE(PA,2), 1 ] ) )
PB = ZB(1)
END FUNCTION INTERP_HOR_FROM_VPOINT_0D
! ################################################################
FUNCTION INTERP_HOR_FROM_MASSPOINT_1D( TPSENSOR, PA ) RESULT( PB )
! ################################################################
USE MODD_CONF, ONLY: L1D
USE MODE_MSG
CLASS(TSENSOR), INTENT(IN) :: TPSENSOR
REAL, DIMENSION(:,:,:), INTENT(IN) :: PA
REAL, DIMENSION( SIZE( PA, 3 ) ) :: PB

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INTEGER :: JI, JJ, JK
IF ( SIZE( PA, 1 ) == 2 ) THEN
JI = 1
JJ = 1
ELSE IF ( L1D ) THEN
JI = 2
JJ = 2
ELSE
JI = TPSENSOR%NI_M
JJ = TPSENSOR%NJ_M
END IF
IF ( JI >= 1 .AND. JI < SIZE( PA, 1 ) &
.AND. JJ >= 1 .AND. JJ < SIZE( PA, 2 ) ) THEN
DO JK = 1, SIZE( PA, 3 )
IF ( PA(JI, JJ, JK) /= XUNDEF .AND. PA(JI+1, JJ, JK) /= XUNDEF .AND. &
PA(JI, JJ+1, JK) /= XUNDEF .AND. PA(JI+1, JJ+1, JK) /= XUNDEF ) THEN
PB(JK) = (1.-TPSENSOR%XXMCOEF) * (1.-TPSENSOR%XYMCOEF) * PA(JI, JJ, JK) + &
( TPSENSOR%XXMCOEF) * (1.-TPSENSOR%XYMCOEF) * PA(JI+1, JJ, JK) + &
(1.-TPSENSOR%XXMCOEF) * ( TPSENSOR%XYMCOEF) * PA(JI, JJ+1, JK) + &
( TPSENSOR%XXMCOEF) * ( TPSENSOR%XYMCOEF) * PA(JI+1, JJ+1, JK)
ELSE
PB(JK) = XUNDEF
END IF
END DO
ELSE

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CALL PRINT_MSG( NVERB_ERROR, 'GEN', 'Interp_hor_from_masspoint', 'value can not be interpolated', OLOCAL = .TRUE. )
PB(:) = XUNDEF
END IF
END FUNCTION INTERP_HOR_FROM_MASSPOINT_1D
! #############################################################
FUNCTION INTERP_HOR_FROM_UPOINT_1D( TPSENSOR, PA ) RESULT( PB )
! #############################################################
USE MODD_CONF, ONLY: L1D
USE MODE_MSG
IMPLICIT NONE
CLASS(TSENSOR), INTENT(IN) :: TPSENSOR
REAL, DIMENSION(:,:,:), INTENT(IN) :: PA
REAL, DIMENSION( SIZE( PA, 3 ) ) :: PB
INTEGER :: JI, JJ
IF ( SIZE( PA, 1 ) == 2 ) THEN
JI = 1
JJ = 1
ELSE IF ( L1D ) THEN
JI = 2
JJ = 2
ELSE
JI = TPSENSOR%NI_U
JJ = TPSENSOR%NJ_M
END IF
IF ( JI >= 1 .AND. JI < SIZE( PA, 1 ) &
.AND. JJ >= 1 .AND. JJ < SIZE( PA, 2 ) ) THEN
PB(:) = (1.-TPSENSOR%XXUCOEF) * (1.-TPSENSOR%XYMCOEF) * PA(JI, JJ, :) + &
( TPSENSOR%XXUCOEF) * (1.-TPSENSOR%XYMCOEF) * PA(JI+1, JJ, :) + &
(1.-TPSENSOR%XXUCOEF) * ( TPSENSOR%XYMCOEF) * PA(JI, JJ+1, :) + &
( TPSENSOR%XXUCOEF) * ( TPSENSOR%XYMCOEF) * PA(JI+1, JJ+1, :)
ELSE
CALL PRINT_MSG( NVERB_ERROR, 'GEN', 'Interp_hor_from_upoint', 'value can not be interpolated', OLOCAL = .TRUE. )
PB(:) = XUNDEF
END IF
END FUNCTION INTERP_HOR_FROM_UPOINT_1D
! #############################################################
FUNCTION INTERP_HOR_FROM_VPOINT_1D( TPSENSOR, PA ) RESULT( PB )
! #############################################################
USE MODD_CONF, ONLY: L1D
USE MODE_MSG
IMPLICIT NONE
CLASS(TSENSOR), INTENT(IN) :: TPSENSOR
REAL, DIMENSION(:,:,:), INTENT(IN) :: PA
REAL, DIMENSION( SIZE( PA, 3 ) ) :: PB
INTEGER :: JI, JJ
IF ( SIZE( PA, 1 ) == 2 ) THEN
JI = 1
JJ = 1
ELSE IF ( L1D ) THEN
JI = 2
JJ = 2
ELSE
JI = TPSENSOR%NI_M
JJ = TPSENSOR%NJ_V
END IF
IF ( JI >= 1 .AND. JI < SIZE( PA, 1 ) &
.AND. JJ >= 1 .AND. JJ < SIZE( PA, 2 ) ) THEN
PB(:) = (1.-TPSENSOR%XXMCOEF) * (1.-TPSENSOR%XYVCOEF) * PA(JI, JJ, :) + &
( TPSENSOR%XXMCOEF) * (1.-TPSENSOR%XYVCOEF) * PA(JI+1, JJ, :) + &
(1.-TPSENSOR%XXMCOEF) * ( TPSENSOR%XYVCOEF) * PA(JI, JJ+1, :) + &
( TPSENSOR%XXMCOEF) * ( TPSENSOR%XYVCOEF) * PA(JI+1, JJ+1, :)
ELSE
CALL PRINT_MSG( NVERB_ERROR, 'GEN', 'Interp_hor_from_vpoint', 'value can not be interpolated', OLOCAL = .TRUE. )

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PB(:) = XUNDEF
END IF

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END FUNCTION INTERP_HOR_FROM_VPOINT_1D

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! ######################################################################
FUNCTION BUFFER_SIZE_COMPUTE( TPSENSOR, KSTORE_CURRENT ) RESULT( KSIZE )
! ######################################################################
USE MODE_MSG
CLASS(TSENSOR), INTENT(IN) :: TPSENSOR
INTEGER, OPTIONAL, INTENT(IN) :: KSTORE_CURRENT ! Current number of stored instants
INTEGER :: KSIZE
INTEGER :: ISTORES
IF ( PRESENT( KSTORE_CURRENT ) ) THEN
ISTORES = KSTORE_CURRENT
IF ( ISTORES > TPSENSOR%NSTORE_MAX ) THEN
CALL PRINT_MSG( NVERB_ERROR, 'GEN', 'Buffer_size_compute', 'sensor: ' // TRIM(TPSENSOR%CNAME) &
// ': kstore_current>nstore_max', OLOCAL = .TRUE. )
ISTORES = TPSENSOR%NSTORE_MAX
END IF
ELSE
ISTORES = TPSENSOR%NSTORE_MAX
END IF
KSIZE = TPSENSOR%NBUFFER_FIXSIZE + ISTORES * TPSENSOR%NBUFFER_VARSIZE
END FUNCTION BUFFER_SIZE_COMPUTE
! ######################################################################
SUBROUTINE BUFFER_PACK_SENSOR( TPSENSOR, PBUFFER, KPOS, KSTORE_CURRENT )
! ######################################################################
USE MODD_CONF_N, ONLY: NRR
USE MODD_DIM_N, ONLY: NKMAX
USE MODD_NSV, ONLY: NSV
USE MODD_PARAMETERS, ONLY: JPVEXT

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USE MODD_PARAM_N, ONLY: CCLOUD, CRAD, CTURB

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USE MODE_MSG
CLASS(TSENSOR), INTENT(IN) :: TPSENSOR
REAL, DIMENSION(:), INTENT(INOUT) :: PBUFFER ! Buffer to pack
INTEGER, INTENT(INOUT) :: KPOS ! Position in the buffer
INTEGER, OPTIONAL, INTENT(IN) :: KSTORE_CURRENT ! Current number of stored instants
INTEGER :: IKU ! number of vertical levels for profile
INTEGER :: ILEVELS
INTEGER :: ISTORES
INTEGER :: ILVST ! =ilevels*istores
INTEGER :: JI
IKU = NKMAX + 2 * JPVEXT
ILEVELS = SIZE( TPSENSOR%XZON, 1 )
IF ( PRESENT( KSTORE_CURRENT ) ) THEN
ISTORES = KSTORE_CURRENT
IF ( ISTORES > TPSENSOR%NSTORE_MAX ) THEN
CALL PRINT_MSG( NVERB_ERROR, 'GEN', 'Buffer_pack_sensor', 'sensor: ' // TRIM(TPSENSOR%CNAME) &
// ': kstore_current>nstore_max', OLOCAL = .TRUE. )
ISTORES = TPSENSOR%NSTORE_MAX
END IF
ELSE
ISTORES = TPSENSOR%NSTORE_MAX
END IF
IF ( KPOS /= 1 ) &
CALL PRINT_MSG( NVERB_WARNING, 'GEN', 'Buffer_pack_sensor', 'sensor: ' // TRIM(TPSENSOR%CNAME) &
// ': initial position of buffer not at its beginning', OLOCAL = .TRUE. )
ILVST = ILEVELS * ISTORES
! Convert title characters to integers
DO JI = 1, LEN( TPSENSOR%CNAME )
PBUFFER(KPOS) = ICHAR( TPSENSOR%CNAME(JI:JI) )
KPOS = KPOS + 1
END DO
DO JI = 1, LEN( TPSENSOR%CTYPE )
PBUFFER(KPOS) = ICHAR( TPSENSOR%CTYPE(JI:JI) )
KPOS = KPOS + 1
END DO

WAUTELET Philippe
committed
PBUFFER(KPOS) = TPSENSOR%NID ; KPOS = KPOS + 1
PBUFFER(KPOS) = TPSENSOR%NSTORE_CUR ; KPOS = KPOS + 1

WAUTELET Philippe
committed
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PBUFFER(KPOS) = TPSENSOR%NSTORE_MAX ; KPOS = KPOS + 1
PBUFFER(KPOS) = TPSENSOR%NBUFFER_FIXSIZE ; KPOS = KPOS + 1
PBUFFER(KPOS) = TPSENSOR%NBUFFER_VARSIZE ; KPOS = KPOS + 1
IF ( TPSENSOR%LFIX ) THEN
PBUFFER(KPOS) = 1.D0
ELSE
PBUFFER(KPOS) = 0.D0
END IF
KPOS = KPOS + 1
PBUFFER(KPOS) = TPSENSOR%XX_CUR ; KPOS = KPOS + 1
PBUFFER(KPOS) = TPSENSOR%XY_CUR ; KPOS = KPOS + 1
PBUFFER(KPOS) = TPSENSOR%XZ_CUR ; KPOS = KPOS + 1
PBUFFER(KPOS) = TPSENSOR%XLAT_CUR ; KPOS = KPOS + 1
PBUFFER(KPOS) = TPSENSOR%XLON_CUR ; KPOS = KPOS + 1
PBUFFER(KPOS) = TPSENSOR%NI_M ; KPOS = KPOS + 1
PBUFFER(KPOS) = TPSENSOR%NJ_M ; KPOS = KPOS + 1
PBUFFER(KPOS) = TPSENSOR%NI_U ; KPOS = KPOS + 1
PBUFFER(KPOS) = TPSENSOR%NJ_V ; KPOS = KPOS + 1
PBUFFER(KPOS) = TPSENSOR%NK00 ; KPOS = KPOS + 1
PBUFFER(KPOS) = TPSENSOR%NK01 ; KPOS = KPOS + 1
PBUFFER(KPOS) = TPSENSOR%NK10 ; KPOS = KPOS + 1
PBUFFER(KPOS) = TPSENSOR%NK11 ; KPOS = KPOS + 1
PBUFFER(KPOS) = TPSENSOR%NU00 ; KPOS = KPOS + 1
PBUFFER(KPOS) = TPSENSOR%NU01 ; KPOS = KPOS + 1
PBUFFER(KPOS) = TPSENSOR%NU10 ; KPOS = KPOS + 1
PBUFFER(KPOS) = TPSENSOR%NU11 ; KPOS = KPOS + 1
PBUFFER(KPOS) = TPSENSOR%NV00 ; KPOS = KPOS + 1
PBUFFER(KPOS) = TPSENSOR%NV01 ; KPOS = KPOS + 1
PBUFFER(KPOS) = TPSENSOR%NV10 ; KPOS = KPOS + 1
PBUFFER(KPOS) = TPSENSOR%NV11 ; KPOS = KPOS + 1
PBUFFER(KPOS) = TPSENSOR%XXMCOEF ; KPOS = KPOS + 1
PBUFFER(KPOS) = TPSENSOR%XYMCOEF ; KPOS = KPOS + 1
PBUFFER(KPOS) = TPSENSOR%XXUCOEF ; KPOS = KPOS + 1
PBUFFER(KPOS) = TPSENSOR%XYVCOEF ; KPOS = KPOS + 1
PBUFFER(KPOS) = TPSENSOR%XZCOEF00 ; KPOS = KPOS + 1
PBUFFER(KPOS) = TPSENSOR%XZCOEF01 ; KPOS = KPOS + 1
PBUFFER(KPOS) = TPSENSOR%XZCOEF10 ; KPOS = KPOS + 1
PBUFFER(KPOS) = TPSENSOR%XZCOEF11 ; KPOS = KPOS + 1
PBUFFER(KPOS) = TPSENSOR%XUCOEF00 ; KPOS = KPOS + 1
PBUFFER(KPOS) = TPSENSOR%XUCOEF01 ; KPOS = KPOS + 1
PBUFFER(KPOS) = TPSENSOR%XUCOEF10 ; KPOS = KPOS + 1
PBUFFER(KPOS) = TPSENSOR%XUCOEF11 ; KPOS = KPOS + 1
PBUFFER(KPOS) = TPSENSOR%XVCOEF00 ; KPOS = KPOS + 1
PBUFFER(KPOS) = TPSENSOR%XVCOEF01 ; KPOS = KPOS + 1
PBUFFER(KPOS) = TPSENSOR%XVCOEF10 ; KPOS = KPOS + 1
PBUFFER(KPOS) = TPSENSOR%XVCOEF11 ; KPOS = KPOS + 1