dat_display dat_vect_display integeranavol move_datac move_datar realanavol to_char_dat v7d_rounding vol7d_alloc vol7d_alloc_vol vol7d_ana_a vol7d_ana_d vol7d_append vol7d_attr_a vol7d_attr_d vol7d_c_e vol7d_check vol7d_check_vol vol7d_convr vol7d_copy vol7d_delete vol7d_diff_only vol7d_display vol7d_filter vol7d_get_volanaattrb vol7d_get_volanaattrc vol7d_get_volanaattrd vol7d_get_volanaattri vol7d_get_volanaattrr vol7d_get_volanab vol7d_get_volanac vol7d_get_volanad vol7d_get_volanai vol7d_get_volanar vol7d_get_voldatiattrb vol7d_get_voldatiattrc vol7d_get_voldatiattrd vol7d_get_voldatiattri vol7d_get_voldatiattrr vol7d_get_voldatib vol7d_get_voldatic vol7d_get_voldatid vol7d_get_voldatii vol7d_get_voldatir vol7d_init vol7d_level_d vol7d_merge vol7d_network_a vol7d_network_d vol7d_read_from_file vol7d_reform vol7d_set_attr_ind vol7d_smart_sort vol7d_time_d vol7d_timerange_d vol7d_var_a vol7d_var_d vol7d_write_on_file

move_datar() subroutine move_datar ( type(vol7d), intent(inout) v7d, integer, intent(in) indana, integer, intent(in) indtime, integer, intent(in) indlevel, integer, intent(in) indtimerange, integer, intent(in) indnetwork, integer, intent(in) indananew, integer, intent(in) indtimenew, integer, intent(in) indlevelnew, integer, intent(in) indtimerangenew, integer, intent(in) indnetworknew ) Move data for all variables from one coordinate in the real volume to other. Only not missing data will be copyed and all attributes will be moved together. Usefull to colapse data spread in more indices (level or time or ....). After the move is possible to set to missing some descriptor and make a copy with miss=.true. to obtain a new vol7d with less data shape. Parametri [in,out] v7d data in form of character in this object will be moved [in] indnetwork source coordinate of the data [in] indnetworknew destination coordinate of data Definizione alla linea 9273 del file vol7d_class.F90. ! Copyright (C) 2010 ARPA-SIM <urpsim@smr.arpa.emr.it> ! authors: ! Davide Cesari <dcesari@arpa.emr.it> ! Paolo Patruno <ppatruno@arpa.emr.it> ! This program is free software; you can redistribute it and/or ! modify it under the terms of the GNU General Public License as ! published by the Free Software Foundation; either version 2 of ! the License, or (at your option) any later version. ! This program is distributed in the hope that it will be useful, ! but WITHOUT ANY WARRANTY; without even the implied warranty of ! MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the ! GNU General Public License for more details. ! You should have received a copy of the GNU General Public License ! along with this program. If not, see <http://www.gnu.org/licenses/>. #include "config.h" !> \defgroup vol7d Libsim package, vol7d library. !! The libsim vol7d library contains classes for managing pointwise !! data, tipically weather observations, and for their import from a !! Db-All.e database or from a WMO BUFR file. In order to compile and !! link programs using this library, you have to insert the required !! \c USE statements in the program units involved, specify the !! location of module files when compiling (tipically \c !! -I/usr/lib/gfortran/modules or \c -I/usr/lib64/gfortran/modules or !! \c -I/usr/include) and indicate the library name \c -lsim_vol7d !! when linking, assuming that the library has been installed in a !! default location. !> Classe per la gestione di un volume completo di dati osservati. !! Questo modulo definisce gli oggetti e i metodi per gestire !! volumi di dati meteorologici sparsi. !! I volumi definiti sono principalmente di 4 categorie: !! - volumi di anagrafica (vol7d::volanar & c.), hanno 3 dimensioni: !! - anagrafica !! - variabile di anagrafica !! - rete !! - volumi di attributi di anagrafica (vol7d::volanaattrr & c.), hanno 4 dimensioni: !! - anagrafica !! - variabile di anagrafica !! - rete !! - variabile di attributi delle variabili di anagrafica !! - volumi di dati (vol7d::voldatir & c.), hanno 6 dimensioni: !! - anagrafica !! - tempo !! - livello verticale !! - intervallo temporale (timerange) !! - variabile di dati !! - rete !! - volumi di attributi di dati (vol7d::voldatiattrr & c.), hanno 7 dimensioni: !! - anagrafica !! - tempo !! - livello verticale !! - intervallo temporale (timerange) !! - variabile di dati !! - rete !! - variabile di attributi delle variabili di dati !! !! Tutte le variabili sono inoltre disponibil1 in 5 tipi diversi: !! - reale (abbreviato r) !! - doppia precisione (abbreviato d) !! - intero (abbreviato i) !! - byte (abbreviato b) !! - carattere (abbreviato c) !! !! Per ognuna delle dimensioni possibili, incluse le variabili e gli !! attributi con i loro diversi tipi, !! è definito un cosiddetto "vettore di descrittori", con un !! numero di elementi pari all'estensione della dimensione stessa, !! che contiene le informazioni necessarie a descrivere !! gli elementi di quella dimensione. !! In realtà l'utente non dovrà generalmente occuparsi di costruire !! un oggetto vol7d con le proprie mani ma utilizzerà nella maggior parte !! dei casi i metodi di importazione preconfezionati che importano dati da !! DB-All.e (vol7d_dballe_class) o dal DB Oracle del SIM (vol7d_oraclesim_class). !! !! !! Il programma esempio_v7d.f90 contiene un esempio elementare di uso !! della classe vol7d: !! \include esempio_v7d.f90 !! !! \ingroup vol7d MODULE vol7d_class USE kinds USE char_utilities USE datetime_class USE optional_values USE log4fortran USE err_handling USE io_units USE array_utilities USE vol7d_ana_class USE vol7d_timerange_class USE vol7d_level_class USE vol7d_network_class USE vol7d_varvect_class IMPLICIT NONE INTEGER, PARAMETER :: vol7d_maxdim_a = 3, vol7d_maxdim_aa = 4, & vol7d_maxdim_d = 6, vol7d_maxdim_ad = 7 INTEGER, PARAMETER :: vol7d_ana_a=1 !< indice della dimensione "anagrafica" nei volumi di anagrafica, da usare nei metodi vol7d_get_volana* INTEGER, PARAMETER :: vol7d_var_a=2 !< indice della dimensione "variabile" nei volumi di anagrafica, da usare nei metodi vol7d_get_volana* INTEGER, PARAMETER :: vol7d_network_a=3 !< indice della dimensione "rete" nei volumi di anagrafica, da usare nei metodi vol7d_get_volana* INTEGER, PARAMETER :: vol7d_attr_a=4 !< indice della dimensione "attributo" nei volumi di anagrafica, da usare nei metodi vol7d_get_volana* INTEGER, PARAMETER :: vol7d_ana_d=1 !< indice della dimensione "anagrafica" nei volumi di dati, da usare nei metodi vol7d_get_voldati* INTEGER, PARAMETER :: vol7d_time_d=2 !< indice della dimensione "tempo" nei volumi di dati, da usare nei metodi vol7d_get_voldati* INTEGER, PARAMETER :: vol7d_level_d=3 !< indice della dimensione "livello verticale" nei volumi di dati, da usare nei metodi vol7d_get_voldati* INTEGER, PARAMETER :: vol7d_timerange_d=4 !< indice della dimensione "intervallo temporale" nei volumi di dati, da usare nei metodi vol7d_get_voldati* INTEGER, PARAMETER :: vol7d_var_d=5 !< indice della dimensione "variabile" nei volumi di dati, da usare nei metodi vol7d_get_voldati* INTEGER, PARAMETER :: vol7d_network_d=6 !< indice della dimensione "rete" nei volumi di dati, da usare nei metodi vol7d_get_voldati* INTEGER, PARAMETER :: vol7d_attr_d=7 !< indice della dimensione "attributo" nei volumi di dati, da usare nei metodi vol7d_get_voldati* INTEGER, PARAMETER :: vol7d_cdatalen=32 TYPE vol7d_varmap INTEGER :: r, d, i, b, c END TYPE vol7d_varmap !> Definisce un oggetto contenente i volumi anagrafica e dati e tutti !! i descrittori delle loro dimensioni. TYPE vol7d !> vettore descrittore della dimensione anagrafica TYPE(vol7d_ana),POINTER :: ana(:) !> vettore descrittore della dimensione tempo TYPE(datetime),POINTER :: time(:) !> vettore descrittore della dimensione livello verticale TYPE(vol7d_level),POINTER :: level(:) !> vettore descrittore della dimensione intervallo temporale (timerange) TYPE(vol7d_timerange),POINTER :: timerange(:) !> vettore descrittore della dimensione rete TYPE(vol7d_network),POINTER :: network(:) !> vettore descrittore della dimensione variabile di anagrafica TYPE(vol7d_varvect) :: anavar !> vettore descrittore della dimensione attributo delle variabili di anagrafica TYPE(vol7d_varvect) :: anaattr !> vettore descrittore della dimensione variabile di anagrafica che ha tali attributi TYPE(vol7d_varvect) :: anavarattr !> vettore descrittore della dimensione variabile di dati TYPE(vol7d_varvect) :: dativar !> vettore descrittore della dimensione attributo delle variabili di dati TYPE(vol7d_varvect) :: datiattr !> vettore descrittore della dimensione variabile di dati che ha tali attributi TYPE(vol7d_varvect) :: dativarattr !> volume di anagrafica a valori reali REAL,POINTER :: volanar(:,:,:) !> volume di anagrafica a valori a doppia precisione DOUBLE PRECISION,POINTER :: volanad(:,:,:) !> volume di anagrafica a valori interi INTEGER,POINTER :: volanai(:,:,:) !> volume di anagrafica a valori byte INTEGER(kind=int_b),POINTER :: volanab(:,:,:) !> volume di anagrafica a valori carattere CHARACTER(len=vol7d_cdatalen),POINTER :: volanac(:,:,:) !> volume di attributi di anagrafica a valori reali REAL,POINTER :: volanaattrr(:,:,:,:) !> volume di attributi di anagrafica a valori a doppia precisione DOUBLE PRECISION,POINTER :: volanaattrd(:,:,:,:) !> volume di attributi di anagrafica a valori interi INTEGER,POINTER :: volanaattri(:,:,:,:) !> volume di attributi di anagrafica a valori byte INTEGER(kind=int_b),POINTER :: volanaattrb(:,:,:,:) !> volume di attributi di anagrafica a valori carattere CHARACTER(len=vol7d_cdatalen),POINTER :: volanaattrc(:,:,:,:) !> volume di dati a valori reali REAL,POINTER :: voldatir(:,:,:,:,:,:) ! sono i dati !> volume di dati a valori a doppia precisione DOUBLE PRECISION,POINTER :: voldatid(:,:,:,:,:,:) !> volume di dati a valori interi INTEGER,POINTER :: voldatii(:,:,:,:,:,:) !> volume di dati a valori byte INTEGER(kind=int_b),POINTER :: voldatib(:,:,:,:,:,:) !> volume di dati a valori carattere CHARACTER(len=vol7d_cdatalen),POINTER :: voldatic(:,:,:,:,:,:) !> volume di attributi di dati a valori reali REAL,POINTER :: voldatiattrr(:,:,:,:,:,:,:) !> volume di attributi di dati a valori a doppia precisione DOUBLE PRECISION,POINTER :: voldatiattrd(:,:,:,:,:,:,:) !> volume di attributi di dati a valori interi INTEGER,POINTER :: voldatiattri(:,:,:,:,:,:,:) !> volume di attributi di dati a valori byte INTEGER(kind=int_b),POINTER :: voldatiattrb(:,:,:,:,:,:,:) !> volume di attributi di dati a valori carattere CHARACTER(len=vol7d_cdatalen),POINTER :: voldatiattrc(:,:,:,:,:,:,:) !> time definition; 0=time is reference time, 1=time is validity time integer :: time_definition END TYPE vol7d !> Costruttore per la classe vol7d. !! Deve essere richiamato !! per tutti gli oggetti di questo tipo definiti in un programma. INTERFACE init MODULE PROCEDURE vol7d_init END INTERFACE !> Distruttore per la classe vol7d. INTERFACE delete MODULE PROCEDURE vol7d_delete END INTERFACE !> Scrittura su file. INTERFACE export MODULE PROCEDURE vol7d_write_on_file END INTERFACE !> Lettura da file. INTERFACE import MODULE PROCEDURE vol7d_read_from_file END INTERFACE !>Print object INTERFACE display MODULE PROCEDURE vol7d_display, dat_display, dat_vect_display END INTERFACE !>Represent data in a pretty string INTERFACE to_char MODULE PROCEDURE to_char_dat END INTERFACE !>doubleprecision data conversion INTERFACE doubledat MODULE PROCEDURE doubledatd,doubledatr,doubledati,doubledatb,doubledatc END INTERFACE !>real data conversion INTERFACE realdat MODULE PROCEDURE realdatd,realdatr,realdati,realdatb,realdatc END INTERFACE !>integer data conversion INTERFACE integerdat MODULE PROCEDURE integerdatd,integerdatr,integerdati,integerdatb,integerdatc END INTERFACE !>copy object INTERFACE copy MODULE PROCEDURE vol7d_copy END INTERFACE !> Test for a missing volume INTERFACE c_e MODULE PROCEDURE vol7d_c_e END INTERFACE !> Check for problems !! return 0 if all check passed !! print diagnostics with log4f INTERFACE check MODULE PROCEDURE vol7d_check END INTERFACE !> Reduce some dimensions (level and timerage) for semplification (rounding). !! You can use this for simplify and use variables in computation like alchimia !! where fields have to be on the same coordinate !! It return real or character data only: if input is charcter data only it return character otherwise il return !! all the data converted to real. !! examples: !! means in time for short periods and istantaneous values !! 2 meter and surface levels !! If there are data on more then one almost equal levels or timeranges, the first var present (at least one point) !! will be taken (order is by icreasing var index). !! You can use predefined values for classic semplification !! almost_equal_levels and almost_equal_timeranges !! The level or timerange in output will be defined by the first element of level and timerange list INTERFACE rounding MODULE PROCEDURE v7d_rounding END INTERFACE !!$INTERFACE get_volana !!$ MODULE PROCEDURE vol7d_get_volanar, vol7d_get_volanad, vol7d_get_volanai, & !!$ vol7d_get_volanab, vol7d_get_volanac !!$END INTERFACE !!$ !!$INTERFACE get_voldati !!$ MODULE PROCEDURE vol7d_get_voldatir, vol7d_get_voldatid, vol7d_get_voldatii, & !!$ vol7d_get_voldatib, vol7d_get_voldatic !!$END INTERFACE !!$ !!$INTERFACE get_volanaattr !!$ MODULE PROCEDURE vol7d_get_volanaattrr, vol7d_get_volanaattrd, & !!$ vol7d_get_volanaattri, vol7d_get_volanaattrb, vol7d_get_volanaattrc !!$END INTERFACE !!$ !!$INTERFACE get_voldatiattr !!$ MODULE PROCEDURE vol7d_get_voldatiattrr, vol7d_get_voldatiattrd, & !!$ vol7d_get_voldatiattri, vol7d_get_voldatiattrb, vol7d_get_voldatiattrc !!$END INTERFACE PRIVATE vol7d_get_volr, vol7d_get_vold, vol7d_get_voli, vol7d_get_volb, & vol7d_get_volc, & volptr1dr, volptr2dr, volptr3dr, volptr4dr, volptr5dr, volptr6dr, volptr7dr, & volptr1dd, volptr2dd, volptr3dd, volptr4dd, volptr5dd, volptr6dd, volptr7dd, & volptr1di, volptr2di, volptr3di, volptr4di, volptr5di, volptr6di, volptr7di, & volptr1db, volptr2db, volptr3db, volptr4db, volptr5db, volptr6db, volptr7db, & volptr1dc, volptr2dc, volptr3dc, volptr4dc, volptr5dc, volptr6dc, volptr7dc, & vol7d_nullifyr, vol7d_nullifyd, vol7d_nullifyi, vol7d_nullifyb, vol7d_nullifyc, & vol7d_init, vol7d_delete, vol7d_write_on_file, vol7d_read_from_file, & vol7d_check_alloc_ana, vol7d_force_alloc_ana, & vol7d_check_alloc_dati, vol7d_force_alloc_dati, vol7d_force_alloc, & vol7d_display, dat_display, dat_vect_display, & to_char_dat, vol7d_check PRIVATE doubledatd,doubledatr,doubledati,doubledatb,doubledatc PRIVATE vol7d_c_e CONTAINS !> Inizializza un oggetto di tipo vol7d. !! Non riceve alcun parametro tranne l'oggetto stesso. Attenzione, è necessario !! comunque chiamare sempre il costruttore per evitare di avere dei puntatori in !! uno stato indefinito. SUBROUTINE vol7d_init(this,time_definition) TYPE(vol7d),intent(out) :: this !< oggetto da inizializzare INTEGER,INTENT(IN),OPTIONAL :: time_definition !< 0=time is reference time; 1=time is validity time; 2=time is validity time, forecast range forced to 0 (default=1) CALL init(this%anavar) CALL init(this%anaattr) CALL init(this%anavarattr) CALL init(this%dativar) CALL init(this%datiattr) CALL init(this%dativarattr) NULLIFY(this%ana, this%time, this%level, this%timerange, this%network) NULLIFY(this%volanar, this%volanaattrr, this%voldatir, this%voldatiattrr) NULLIFY(this%volanad, this%volanaattrd, this%voldatid, this%voldatiattrd) NULLIFY(this%volanai, this%volanaattri, this%voldatii, this%voldatiattri) NULLIFY(this%volanab, this%volanaattrb, this%voldatib, this%voldatiattrb) NULLIFY(this%volanac, this%volanaattrc, this%voldatic, this%voldatiattrc) if(present(time_definition)) then this%time_definition=time_definition else this%time_definition=1 !default to validity time end if END SUBROUTINE vol7d_init !> Distrugge l'oggetto in maniera pulita, liberando l'eventuale memoria !! dinamicamente allocata. Permette di distruggere la sola parte di dati !! mantenendo l'anagrafica. ELEMENTAL SUBROUTINE vol7d_delete(this, dataonly) TYPE(vol7d),intent(inout) :: this !< oggetto da distruggere LOGICAL, INTENT(in), OPTIONAL :: dataonly !< dealloca solo i dati, tenendo l'anagrafica, (default \c .FALSE.) IF (.NOT. optio_log(dataonly)) THEN IF (ASSOCIATED(this%volanar)) DEALLOCATE(this%volanar) IF (ASSOCIATED(this%volanad)) DEALLOCATE(this%volanad) IF (ASSOCIATED(this%volanai)) DEALLOCATE(this%volanai) IF (ASSOCIATED(this%volanab)) DEALLOCATE(this%volanab) IF (ASSOCIATED(this%volanac)) DEALLOCATE(this%volanac) IF (ASSOCIATED(this%volanaattrr)) DEALLOCATE(this%volanaattrr) IF (ASSOCIATED(this%volanaattrd)) DEALLOCATE(this%volanaattrd) IF (ASSOCIATED(this%volanaattri)) DEALLOCATE(this%volanaattri) IF (ASSOCIATED(this%volanaattrb)) DEALLOCATE(this%volanaattrb) IF (ASSOCIATED(this%volanaattrc)) DEALLOCATE(this%volanaattrc) ENDIF IF (ASSOCIATED(this%voldatir)) DEALLOCATE(this%voldatir) IF (ASSOCIATED(this%voldatid)) DEALLOCATE(this%voldatid) IF (ASSOCIATED(this%voldatii)) DEALLOCATE(this%voldatii) IF (ASSOCIATED(this%voldatib)) DEALLOCATE(this%voldatib) IF (ASSOCIATED(this%voldatic)) DEALLOCATE(this%voldatic) IF (ASSOCIATED(this%voldatiattrr)) DEALLOCATE(this%voldatiattrr) IF (ASSOCIATED(this%voldatiattrd)) DEALLOCATE(this%voldatiattrd) IF (ASSOCIATED(this%voldatiattri)) DEALLOCATE(this%voldatiattri) IF (ASSOCIATED(this%voldatiattrb)) DEALLOCATE(this%voldatiattrb) IF (ASSOCIATED(this%voldatiattrc)) DEALLOCATE(this%voldatiattrc) IF (.NOT. optio_log(dataonly)) THEN IF (ASSOCIATED(this%ana)) DEALLOCATE(this%ana) IF (ASSOCIATED(this%network)) DEALLOCATE(this%network) ENDIF IF (ASSOCIATED(this%time)) DEALLOCATE(this%time) IF (ASSOCIATED(this%level)) DEALLOCATE(this%level) IF (ASSOCIATED(this%timerange)) DEALLOCATE(this%timerange) IF (.NOT. optio_log(dataonly)) THEN CALL delete(this%anavar) CALL delete(this%anaattr) CALL delete(this%anavarattr) ENDIF CALL delete(this%dativar) CALL delete(this%datiattr) CALL delete(this%dativarattr) END SUBROUTINE vol7d_delete integer function vol7d_check(this) TYPE(vol7d),intent(in) :: this !< object to check integer :: i,j,k,l,m,n vol7d_check=0 if (associated(this%voldatii)) then do i = 1,size(this%voldatii,1) do j = 1,size(this%voldatii,2) do k = 1,size(this%voldatii,3) do l = 1,size(this%voldatii,4) do m = 1,size(this%voldatii,5) do n = 1,size(this%voldatii,6) if (this%voldatii(i,j,k,l,m,n) /= this%voldatii(i,j,k,l,m,n) ) then CALL l4f_log(l4f_warn,"check: abnormal value at voldatii("& //t2c(i)//","//t2c(j)//","//t2c(k)//","//t2c(l)//","//t2c(m)//","//t2c(n)//",)") vol7d_check=1 end if end do end do end do end do end do end do end if if (associated(this%voldatir)) then do i = 1,size(this%voldatir,1) do j = 1,size(this%voldatir,2) do k = 1,size(this%voldatir,3) do l = 1,size(this%voldatir,4) do m = 1,size(this%voldatir,5) do n = 1,size(this%voldatir,6) if (this%voldatir(i,j,k,l,m,n) /= this%voldatir(i,j,k,l,m,n) ) then CALL l4f_log(l4f_warn,"check: abnormal value at voldatir("& //t2c(i)//","//t2c(j)//","//t2c(k)//","//t2c(l)//","//t2c(m)//","//t2c(n)//",)") vol7d_check=2 end if end do end do end do end do end do end do end if if (associated(this%voldatid)) then do i = 1,size(this%voldatid,1) do j = 1,size(this%voldatid,2) do k = 1,size(this%voldatid,3) do l = 1,size(this%voldatid,4) do m = 1,size(this%voldatid,5) do n = 1,size(this%voldatid,6) if (this%voldatid(i,j,k,l,m,n) /= this%voldatid(i,j,k,l,m,n) ) then CALL l4f_log(l4f_warn,"check: abnormal value at voldatid("& //t2c(i)//","//t2c(j)//","//t2c(k)//","//t2c(l)//","//t2c(m)//","//t2c(n)//",)") vol7d_check=3 end if end do end do end do end do end do end do end if if (associated(this%voldatib)) then do i = 1,size(this%voldatib,1) do j = 1,size(this%voldatib,2) do k = 1,size(this%voldatib,3) do l = 1,size(this%voldatib,4) do m = 1,size(this%voldatib,5) do n = 1,size(this%voldatib,6) if (this%voldatib(i,j,k,l,m,n) /= this%voldatib(i,j,k,l,m,n) ) then CALL l4f_log(l4f_warn,"check: abnormal value at voldatib("& //t2c(i)//","//t2c(j)//","//t2c(k)//","//t2c(l)//","//t2c(m)//","//t2c(n)//",)") vol7d_check=4 end if end do end do end do end do end do end do end if end function vol7d_check !TODO da completare ! aborta se i volumi sono allocati a dimensione 0 !> stampa a video una sintesi del contenuto SUBROUTINE vol7d_display(this) TYPE(vol7d),intent(in) :: this !< oggetto da visualizzare integer :: i REAL :: rdat DOUBLE PRECISION :: ddat INTEGER :: idat INTEGER(kind=int_b) :: bdat CHARACTER(len=vol7d_cdatalen) :: cdat print*,"<<<<<<<<<<<<<<<<<<< vol7d object >>>>>>>>>>>>>>>>>>>>" if (this%time_definition == 0) then print*,"TIME DEFINITION: time is reference time" else if (this%time_definition == 1) then print*,"TIME DEFINITION: time is validity time" else if (this%time_definition == 2) then print*,"TIME DEFINITION: time is validity time, forecast range forced to 0" else print*,"Time definition has a wrong walue:", this%time_definition end if IF (ASSOCIATED(this%network))then print*,"---- network vector ----" print*,"elements=",size(this%network) do i=1, size(this%network) call display(this%network(i)) end do end IF IF (ASSOCIATED(this%ana))then print*,"---- ana vector ----" print*,"elements=",size(this%ana) do i=1, size(this%ana) call display(this%ana(i)) end do end IF IF (ASSOCIATED(this%time))then print*,"---- time vector ----" print*,"elements=",size(this%time) do i=1, size(this%time) call display(this%time(i)) end do end if IF (ASSOCIATED(this%level)) then print*,"---- level vector ----" print*,"elements=",size(this%level) do i =1,size(this%level) call display(this%level(i)) end do end if IF (ASSOCIATED(this%timerange))then print*,"---- timerange vector ----" print*,"elements=",size(this%timerange) do i =1,size(this%timerange) call display(this%timerange(i)) end do end if print*,"---- ana vector ----" print*,"" print*,"->>>>>>>>> anavar -" call display(this%anavar) print*,"" print*,"->>>>>>>>> anaattr -" call display(this%anaattr) print*,"" print*,"->>>>>>>>> anavarattr -" call display(this%anavarattr) print*,"-- ana data section (first point) --" idat=imiss rdat=rmiss ddat=dmiss bdat=ibmiss cdat=cmiss !ntime = MIN(SIZE(this%time),nprint) !ntimerange = MIN(SIZE(this%timerange),nprint) !nlevel = MIN(SIZE(this%level),nprint) !nnetwork = MIN(SIZE(this%network),nprint) !nana = MIN(SIZE(this%ana),nprint) IF (SIZE(this%ana) > 0 .AND. SIZE(this%network) > 0) THEN if (associated(this%volanai)) then do i=1,size(this%anavar%i) idat=this%volanai(1,i,1) if (associated(this%anavar%i)) call display(this%anavar%i(i),idat,rdat,ddat,bdat,cdat) end do end if idat=imiss if (associated(this%volanar)) then do i=1,size(this%anavar%r) rdat=this%volanar(1,i,1) if (associated(this%anavar%r)) call display(this%anavar%r(i),idat,rdat,ddat,bdat,cdat) end do end if rdat=rmiss if (associated(this%volanad)) then do i=1,size(this%anavar%d) ddat=this%volanad(1,i,1) if (associated(this%anavar%d)) call display(this%anavar%d(i),idat,rdat,ddat,bdat,cdat) end do end if ddat=dmiss if (associated(this%volanab)) then do i=1,size(this%anavar%b) bdat=this%volanab(1,i,1) if (associated(this%anavar%b)) call display(this%anavar%b(i),idat,rdat,ddat,bdat,cdat) end do end if bdat=ibmiss if (associated(this%volanac)) then do i=1,size(this%anavar%c) cdat=this%volanac(1,i,1) if (associated(this%anavar%c)) call display(this%anavar%c(i),idat,rdat,ddat,bdat,cdat) end do end if cdat=cmiss ENDIF print*,"---- data vector ----" print*,"" print*,"->>>>>>>>> dativar -" call display(this%dativar) print*,"" print*,"->>>>>>>>> datiattr -" call display(this%datiattr) print*,"" print*,"->>>>>>>>> dativarattr -" call display(this%dativarattr) print*,"-- data data section (first point) --" idat=imiss rdat=rmiss ddat=dmiss bdat=ibmiss cdat=cmiss IF (SIZE(this%ana) > 0 .AND. SIZE(this%network) > 0 .AND. size(this%time) > 0 & .AND. size(this%level) > 0 .AND. size(this%timerange) > 0) THEN if (associated(this%voldatii)) then do i=1,size(this%dativar%i) idat=this%voldatii(1,1,1,1,i,1) if (associated(this%dativar%i)) call display(this%dativar%i(i),idat,rdat,ddat,bdat,cdat) end do end if idat=imiss if (associated(this%voldatir)) then do i=1,size(this%dativar%r) rdat=this%voldatir(1,1,1,1,i,1) if (associated(this%dativar%r)) call display(this%dativar%r(i),idat,rdat,ddat,bdat,cdat) end do end if rdat=rmiss if (associated(this%voldatid)) then do i=1,size(this%dativar%d) ddat=this%voldatid(1,1,1,1,i,1) if (associated(this%dativar%d)) call display(this%dativar%d(i),idat,rdat,ddat,bdat,cdat) end do end if ddat=dmiss if (associated(this%voldatib)) then do i=1,size(this%dativar%b) bdat=this%voldatib(1,1,1,1,i,1) if (associated(this%dativar%b)) call display(this%dativar%b(i),idat,rdat,ddat,bdat,cdat) end do end if bdat=ibmiss if (associated(this%voldatic)) then do i=1,size(this%dativar%c) cdat=this%voldatic(1,1,1,1,i,1) if (associated(this%dativar%c)) call display(this%dativar%c(i),idat,rdat,ddat,bdat,cdat) end do end if cdat=cmiss ENDIF print*,"<<<<<<<<<<<<<<<<<<< END vol7d object >>>>>>>>>>>>>>>>>>>>" END SUBROUTINE vol7d_display !> stampa a video una sintesi del contenuto SUBROUTINE dat_display(this,idat,rdat,ddat,bdat,cdat) TYPE(vol7d_var),intent(in) :: this !< oggetto da visualizzare !> real REAL :: rdat !> double precision DOUBLE PRECISION :: ddat !> integer INTEGER :: idat !> byte INTEGER(kind=int_b) :: bdat !> character CHARACTER(len=*) :: cdat print *, to_char_dat(this,idat,rdat,ddat,bdat,cdat) end SUBROUTINE dat_display !> stampa a video una sintesi del contenuto SUBROUTINE dat_vect_display(this,idat,rdat,ddat,bdat,cdat) TYPE(vol7d_var),intent(in) :: this(:) !< oggetto da visualizzare !> real REAL :: rdat(:) !> double precision DOUBLE PRECISION :: ddat(:) !> integer INTEGER :: idat(:) !> byte INTEGER(kind=int_b) :: bdat(:) !> character CHARACTER(len=*):: cdat(:) integer :: i do i =1,size(this) call display(this(i),idat(i),rdat(i),ddat(i),bdat(i),cdat(i)) end do end SUBROUTINE dat_vect_display FUNCTION to_char_dat(this,idat,rdat,ddat,bdat,cdat) #ifdef HAVE_DBALLE USE dballef #endif TYPE(vol7d_var),INTENT(in) :: this !> real REAL :: rdat !> double precision DOUBLE PRECISION :: ddat !> integer INTEGER :: idat !> byte INTEGER(kind=int_b) :: bdat !> character CHARACTER(len=*) :: cdat CHARACTER(len=80) :: to_char_dat CHARACTER(len=LEN(to_char_dat)) :: to_char_tmp #ifdef HAVE_DBALLE INTEGER :: handle, ier handle = 0 to_char_dat="VALUE: " if (c_e(idat)) to_char_dat=trim(to_char_dat)//" ;int> "//trim(to_char(idat)) if (c_e(rdat)) to_char_dat=trim(to_char_dat)//" ;real> "//trim(to_char(rdat)) if (c_e(ddat)) to_char_dat=trim(to_char_dat)//" ;double> "//trim(to_char(ddat)) if (c_e(bdat)) to_char_dat=trim(to_char_dat)//" ;byte> "//trim(to_char(bdat)) if ( c_e(cdat))then ier = idba_messaggi(handle,"/dev/null", "w", "BUFR") ier = idba_spiegab(handle,this%btable,cdat,to_char_tmp) ier = idba_fatto(handle) to_char_dat=trim(to_char_dat)//" ;char> "//trim(to_char_tmp) endif #else to_char_dat="VALUE: " if (c_e(idat)) to_char_dat=trim(to_char_dat)//" ;int> "//trim(to_char(idat)) if (c_e(rdat)) to_char_dat=trim(to_char_dat)//" ;real> "//trim(to_char(rdat)) if (c_e(ddat)) to_char_dat=trim(to_char_dat)//" ;double> "//trim(to_char(ddat)) if (c_e(bdat)) to_char_dat=trim(to_char_dat)//" ;byte> "//trim(to_char(bdat)) if (c_e(cdat)) to_char_dat=trim(to_char_dat)//" ;char> "//trim(cdat) #endif END FUNCTION to_char_dat !> Tests whether anything has ever been assigned to a vol7d object !! (.TRUE.) or it is as clean as after an init (.FALSE.). FUNCTION vol7d_c_e(this) RESULT(c_e) TYPE(vol7d), INTENT(in) :: this LOGICAL :: c_e c_e = ASSOCIATED(this%ana) .OR. ASSOCIATED(this%time) .OR. & ASSOCIATED(this%level) .OR. ASSOCIATED(this%timerange) .OR. & ASSOCIATED(this%network) .OR. & ASSOCIATED(this%anavar%r) .OR. ASSOCIATED(this%anavar%d) .OR. & ASSOCIATED(this%anavar%i) .OR. ASSOCIATED(this%anavar%b) .OR. & ASSOCIATED(this%anavar%c) .OR. & ASSOCIATED(this%anaattr%r) .OR. ASSOCIATED(this%anaattr%d) .OR. & ASSOCIATED(this%anaattr%i) .OR. ASSOCIATED(this%anaattr%b) .OR. & ASSOCIATED(this%anaattr%c) .OR. & ASSOCIATED(this%dativar%r) .OR. ASSOCIATED(this%dativar%d) .OR. & ASSOCIATED(this%dativar%i) .OR. ASSOCIATED(this%dativar%b) .OR. & ASSOCIATED(this%dativar%c) .OR. & ASSOCIATED(this%datiattr%r) .OR. ASSOCIATED(this%datiattr%d) .OR. & ASSOCIATED(this%datiattr%i) .OR. ASSOCIATED(this%datiattr%b) .OR. & ASSOCIATED(this%datiattr%c) END FUNCTION vol7d_c_e !> Metodo per allocare i descrittori delle 7 dimensioni. !! Riceve un grande numero di parametri opzionali che !! indicano quali descrittori allocare e con quale estensione; !! i descrittori non specificati non vengono toccati. !! Può essere quindi chiamato più volte allocando via via !! descrittori relativi a dimensioni diverse. !! Se un descrittore richiesto è già allocato, viene deallocato !! (perdendone l'eventuale contenuto) e riallocato con l'estensione !! richiesta. !! Per i descrittori relativi a dimensioni che non siano variabili o attributi, !! è possibile specificare l'estensione di una dimensione a 0, !! in tal caso il descrittore viene comunque allocato con lunghezza nulla, !! che è diverso da non allocarlo. Per i descrittori di variabili e attributi !! passare un'estensione 0 equivale a non fornire il parametro. !! Avere uno o più descrittori dimensionati con estensione nulla fa sì !! che anche il volume dati successivamente allocato abbia estensione nulla; !! sebbene ciò appaia inutile, un volume del genere può in realtà servire, !! in associazione ai metodi ::vol7d_merge o ::vol7d_append per estendere !! un volume esistente aggiungendo elementi in alcune dimensioni (quelle !! a estensione non nulla, ovviamente) e mantenendo invariato tutto il resto. !! Per quanto riguarda i descrittori delle dimensioni relative alle !! variabili, la relativa estensione è specificata con la nomenclatura !! \a n&lt;x&gt;&lt;y&gt;&lt;z&gt; dove &lt;x&gt; può valere: !! - \a ana per variabili relative a voumi di anagrafica !! - \a dati per variabili relative a voumi di dati !! !! &lt;y&gt; può valere: !! - \a var per variabili !! - \a attr per attributi !! - \a varattr variabili aventi attributi nei volumi di attributi !! !! &lt;z&gt; può valere: !! - \a r per variabili o attributi a valori reali !! - \a d per variabili o attributi a valori a doppia precisione !! - \a i per variabili o attributi a valori interi !! - \a b per variabili o attributi a valori byte !! - \a c per variabili o attributi a valori carattere !! SUBROUTINE vol7d_alloc(this, nana, ntime, nlevel, ntimerange, nnetwork, & nanavarr, nanavard, nanavari, nanavarb, nanavarc, & nanaattrr, nanaattrd, nanaattri, nanaattrb, nanaattrc, & nanavarattrr, nanavarattrd, nanavarattri, nanavarattrb, nanavarattrc, & ndativarr, ndativard, ndativari, ndativarb, ndativarc, & ndatiattrr, ndatiattrd, ndatiattri, ndatiattrb, ndatiattrc, & ndativarattrr, ndativarattrd, ndativarattri, ndativarattrb, ndativarattrc, & ini) TYPE(vol7d),INTENT(inout) :: this !< oggetto di cui allocare i descrittori INTEGER,INTENT(in),OPTIONAL :: nana !< estensione della dimensione anagrafica INTEGER,INTENT(in),OPTIONAL :: ntime !< estensione della dimensione tempo INTEGER,INTENT(in),OPTIONAL :: nlevel !< estensione della dimensione livello varticale INTEGER,INTENT(in),OPTIONAL :: ntimerange !< estensione della dimensione intervallo temporale (timerange) INTEGER,INTENT(in),OPTIONAL :: nnetwork !< estensione della dimensione rete !> estensione delle possibili dimensioni variabile INTEGER,INTENT(in),OPTIONAL :: & nanavarr, nanavard, nanavari, nanavarb, nanavarc, & nanaattrr, nanaattrd, nanaattri, nanaattrb, nanaattrc, & nanavarattrr, nanavarattrd, nanavarattri, nanavarattrb, nanavarattrc, & ndativarr, ndativard, ndativari, ndativarb, ndativarc, & ndatiattrr, ndatiattrd, ndatiattri, ndatiattrb, ndatiattrc, & ndativarattrr, ndativarattrd, ndativarattri, ndativarattrb, ndativarattrc LOGICAL,INTENT(in),OPTIONAL :: ini !< se fornito e vale \c .TRUE., viene chiamato il costruttore, senza parametri opzionali, per ogni elemento di tutti i descrittori allocati, inizializzandolo quindi a valore mancante INTEGER :: i LOGICAL :: linit IF (PRESENT(ini)) THEN linit = ini ELSE linit = .false. ENDIF ! Dimensioni principali IF (PRESENT(nana)) THEN IF (nana >= 0) THEN IF (ASSOCIATED(this%ana)) DEALLOCATE(this%ana) ALLOCATE(this%ana(nana)) IF (linit) THEN DO i = 1, nana CALL init(this%ana(i)) ENDDO ENDIF ENDIF ENDIF IF (PRESENT(ntime)) THEN IF (ntime >= 0) THEN IF (ASSOCIATED(this%time)) DEALLOCATE(this%time) ALLOCATE(this%time(ntime)) IF (linit) THEN DO i = 1, ntime CALL init(this%time(i)) ENDDO ENDIF ENDIF ENDIF IF (PRESENT(nlevel)) THEN IF (nlevel >= 0) THEN IF (ASSOCIATED(this%level)) DEALLOCATE(this%level) ALLOCATE(this%level(nlevel)) IF (linit) THEN DO i = 1, nlevel CALL init(this%level(i)) ENDDO ENDIF ENDIF ENDIF IF (PRESENT(ntimerange)) THEN IF (ntimerange >= 0) THEN IF (ASSOCIATED(this%timerange)) DEALLOCATE(this%timerange) ALLOCATE(this%timerange(ntimerange)) IF (linit) THEN DO i = 1, ntimerange CALL init(this%timerange(i)) ENDDO ENDIF ENDIF ENDIF IF (PRESENT(nnetwork)) THEN IF (nnetwork >= 0) THEN IF (ASSOCIATED(this%network)) DEALLOCATE(this%network) ALLOCATE(this%network(nnetwork)) IF (linit) THEN DO i = 1, nnetwork CALL init(this%network(i)) ENDDO ENDIF ENDIF ENDIF ! Dimensioni dei tipi delle variabili CALL vol7d_varvect_alloc(this%anavar, nanavarr, nanavard, & nanavari, nanavarb, nanavarc, ini) CALL vol7d_varvect_alloc(this%anaattr, nanaattrr, nanaattrd, & nanaattri, nanaattrb, nanaattrc, ini) CALL vol7d_varvect_alloc(this%anavarattr, nanavarattrr, nanavarattrd, & nanavarattri, nanavarattrb, nanavarattrc, ini) CALL vol7d_varvect_alloc(this%dativar, ndativarr, ndativard, & ndativari, ndativarb, ndativarc, ini) CALL vol7d_varvect_alloc(this%datiattr, ndatiattrr, ndatiattrd, & ndatiattri, ndatiattrb, ndatiattrc, ini) CALL vol7d_varvect_alloc(this%dativarattr, ndativarattrr, ndativarattrd, & ndativarattri, ndativarattrb, ndativarattrc, ini) END SUBROUTINE vol7d_alloc FUNCTION vol7d_check_alloc_ana(this) TYPE(vol7d),INTENT(in) :: this LOGICAL :: vol7d_check_alloc_ana vol7d_check_alloc_ana = ASSOCIATED(this%ana) .AND. ASSOCIATED(this%network) END FUNCTION vol7d_check_alloc_ana SUBROUTINE vol7d_force_alloc_ana(this, ini) TYPE(vol7d),INTENT(inout) :: this LOGICAL,INTENT(in),OPTIONAL :: ini ! Alloco i descrittori minimi per avere un volume di anagrafica IF (.NOT. ASSOCIATED(this%ana)) CALL vol7d_alloc(this, nana=1, ini=ini) IF (.NOT. ASSOCIATED(this%network)) CALL vol7d_alloc(this, nnetwork=1, ini=ini) END SUBROUTINE vol7d_force_alloc_ana FUNCTION vol7d_check_alloc_dati(this) TYPE(vol7d),INTENT(in) :: this LOGICAL :: vol7d_check_alloc_dati vol7d_check_alloc_dati = vol7d_check_alloc_ana(this) .AND. & ASSOCIATED(this%time) .AND. ASSOCIATED(this%level) .AND. & ASSOCIATED(this%timerange) END FUNCTION vol7d_check_alloc_dati SUBROUTINE vol7d_force_alloc_dati(this, ini) TYPE(vol7d),INTENT(inout) :: this LOGICAL,INTENT(in),OPTIONAL :: ini ! Alloco i descrittori minimi per avere un volume di dati CALL vol7d_force_alloc_ana(this, ini) IF (.NOT. ASSOCIATED(this%time)) CALL vol7d_alloc(this, ntime=1, ini=ini) IF (.NOT. ASSOCIATED(this%level)) CALL vol7d_alloc(this, nlevel=1, ini=ini) IF (.NOT. ASSOCIATED(this%timerange)) CALL vol7d_alloc(this, ntimerange=1, ini=ini) END SUBROUTINE vol7d_force_alloc_dati SUBROUTINE vol7d_force_alloc(this) TYPE(vol7d),INTENT(inout) :: this ! If anything really not allocated yet, allocate with size 0 IF (.NOT. ASSOCIATED(this%ana)) CALL vol7d_alloc(this, nana=0) IF (.NOT. ASSOCIATED(this%network)) CALL vol7d_alloc(this, nnetwork=0) IF (.NOT. ASSOCIATED(this%time)) CALL vol7d_alloc(this, ntime=0) IF (.NOT. ASSOCIATED(this%level)) CALL vol7d_alloc(this, nlevel=0) IF (.NOT. ASSOCIATED(this%timerange)) CALL vol7d_alloc(this, ntimerange=0) END SUBROUTINE vol7d_force_alloc FUNCTION vol7d_check_vol(this) TYPE(vol7d),INTENT(in) :: this !< oggetto da controllare LOGICAL :: vol7d_check_vol vol7d_check_vol = c_e(this) ! Anagrafica IF (ASSOCIATED(this%anavar%r) .AND. .NOT.ASSOCIATED(this%volanar)) THEN vol7d_check_vol = .false. ENDIF IF (ASSOCIATED(this%anavar%d) .AND. .NOT.ASSOCIATED(this%volanad)) THEN vol7d_check_vol = .false. ENDIF IF (ASSOCIATED(this%anavar%i) .AND. .NOT.ASSOCIATED(this%volanai)) THEN vol7d_check_vol = .false. ENDIF IF (ASSOCIATED(this%anavar%b) .AND. .NOT.ASSOCIATED(this%volanab)) THEN vol7d_check_vol = .false. ENDIF IF (ASSOCIATED(this%anavar%c) .AND. .NOT.ASSOCIATED(this%volanac)) THEN vol7d_check_vol = .false. ENDIF IF (ASSOCIATED(this%anavar%r) .OR. ASSOCIATED(this%anavar%d) .OR. & ASSOCIATED(this%anavar%i) .OR. ASSOCIATED(this%anavar%b) .OR. & ASSOCIATED(this%anavar%c)) THEN vol7d_check_vol = vol7d_check_vol .AND. vol7d_check_alloc_ana(this) ENDIF ! Attributi dell'anagrafica IF (ASSOCIATED(this%anaattr%r) .AND. ASSOCIATED(this%anavarattr%r) .AND. & .NOT.ASSOCIATED(this%volanaattrr)) THEN vol7d_check_vol = .false. ENDIF IF (ASSOCIATED(this%anaattr%d) .AND. ASSOCIATED(this%anavarattr%d) .AND. & .NOT.ASSOCIATED(this%volanaattrd)) THEN vol7d_check_vol = .false. ENDIF IF (ASSOCIATED(this%anaattr%i) .AND. ASSOCIATED(this%anavarattr%i) .AND. & .NOT.ASSOCIATED(this%volanaattri)) THEN vol7d_check_vol = .false. ENDIF IF (ASSOCIATED(this%anaattr%b) .AND. ASSOCIATED(this%anavarattr%b) .AND. & .NOT.ASSOCIATED(this%volanaattrb)) THEN vol7d_check_vol = .false. ENDIF IF (ASSOCIATED(this%anaattr%c) .AND. ASSOCIATED(this%anavarattr%c) .AND. & .NOT.ASSOCIATED(this%volanaattrc)) THEN vol7d_check_vol = .false. ENDIF ! Dati IF (ASSOCIATED(this%dativar%r) .AND. .NOT.ASSOCIATED(this%voldatir)) THEN vol7d_check_vol = .false. ENDIF IF (ASSOCIATED(this%dativar%d) .AND. .NOT.ASSOCIATED(this%voldatid)) THEN vol7d_check_vol = .false. ENDIF IF (ASSOCIATED(this%dativar%i) .AND. .NOT.ASSOCIATED(this%voldatii)) THEN vol7d_check_vol = .false. ENDIF IF (ASSOCIATED(this%dativar%b) .AND. .NOT.ASSOCIATED(this%voldatib)) THEN vol7d_check_vol = .false. ENDIF IF (ASSOCIATED(this%dativar%c) .AND. .NOT.ASSOCIATED(this%voldatic)) THEN vol7d_check_vol = .false. ENDIF ! Attributi dei dati IF (ASSOCIATED(this%datiattr%r) .AND. ASSOCIATED(this%dativarattr%r) .AND. & .NOT.ASSOCIATED(this%voldatiattrr)) THEN vol7d_check_vol = .false. ENDIF IF (ASSOCIATED(this%datiattr%d) .AND. ASSOCIATED(this%dativarattr%d) .AND. & .NOT.ASSOCIATED(this%voldatiattrd)) THEN vol7d_check_vol = .false. ENDIF IF (ASSOCIATED(this%datiattr%i) .AND. ASSOCIATED(this%dativarattr%i) .AND. & .NOT.ASSOCIATED(this%voldatiattri)) THEN vol7d_check_vol = .false. ENDIF IF (ASSOCIATED(this%datiattr%b) .AND. ASSOCIATED(this%dativarattr%b) .AND. & .NOT.ASSOCIATED(this%voldatiattrb)) THEN vol7d_check_vol = .false. ENDIF IF (ASSOCIATED(this%datiattr%c) .AND. ASSOCIATED(this%dativarattr%c) .AND. & .NOT.ASSOCIATED(this%voldatiattrc)) THEN vol7d_check_vol = .false. ENDIF IF (ASSOCIATED(this%dativar%r) .OR. ASSOCIATED(this%dativar%d) .OR. & ASSOCIATED(this%dativar%i) .OR. ASSOCIATED(this%dativar%b) .OR. & ASSOCIATED(this%dativar%c)) THEN vol7d_check_vol = vol7d_check_vol .AND. vol7d_check_alloc_dati(this) ENDIF END FUNCTION vol7d_check_vol !> Metodo per allocare i volumi richiesti di variabili e attributi per !! anagrafica e dati. !! Se alcuni dei descrittori relativi alle dimensioni anagrafica, !! livello verticale, tempo, intervallo temporale (timerange), rete non sono !! stati richiesti preventivamente con la ::vol7d_alloc, essi vengono allocati !! automaticamente da questo metodo !! con estensione di default pari a 1 (non 0!), questo significa, ad esempio, !! che se prevedo di avere soli dati superficiali, cioè ad un solo livello !! verticale, o una sola rete di stazioni, non devo preoccuparmi di !! specificare questa informazione. !! Tra i 20 possibili volumi allocabili !! ((variabili,attributi)*(anagrafica,dati)*(r,d,i,b,c)=20) !! saranno allocati solo quelli per cui è stato precedentemente richiesto il !! corrispondente descrittore variabili/attributi con la ::vol7d_alloc. SUBROUTINE vol7d_alloc_vol(this, ini, inivol) TYPE(vol7d),INTENT(inout) :: this !< oggetto di cui allocare i volumi LOGICAL,INTENT(in),OPTIONAL :: ini !< se fornito e vale \c .TRUE., viene chiamato il costruttore, senza parametri opzionali, per ogni elemento di tutti i descrittori allocati LOGICAL,INTENT(in),OPTIONAL :: inivol !< se fornito e vale \c .TRUE., i volumi allocati saranno inizializzati a valore mancante LOGICAL :: linivol IF (PRESENT(inivol)) THEN linivol = inivol ELSE linivol = .true. ENDIF ! Anagrafica IF (ASSOCIATED(this%anavar%r) .AND. .NOT.ASSOCIATED(this%volanar)) THEN CALL vol7d_force_alloc_ana(this, ini) ALLOCATE(this%volanar(SIZE(this%ana), SIZE(this%anavar%r), SIZE(this%network))) IF (linivol) this%volanar(:,:,:) = rmiss ENDIF IF (ASSOCIATED(this%anavar%d) .AND. .NOT.ASSOCIATED(this%volanad)) THEN CALL vol7d_force_alloc_ana(this, ini) ALLOCATE(this%volanad(SIZE(this%ana), SIZE(this%anavar%d), SIZE(this%network))) IF (linivol) this%volanad(:,:,:) = rdmiss ENDIF IF (ASSOCIATED(this%anavar%i) .AND. .NOT.ASSOCIATED(this%volanai)) THEN CALL vol7d_force_alloc_ana(this, ini) ALLOCATE(this%volanai(SIZE(this%ana), SIZE(this%anavar%i), SIZE(this%network))) IF (linivol) this%volanai(:,:,:) = imiss ENDIF IF (ASSOCIATED(this%anavar%b) .AND. .NOT.ASSOCIATED(this%volanab)) THEN CALL vol7d_force_alloc_ana(this, ini) ALLOCATE(this%volanab(SIZE(this%ana), SIZE(this%anavar%b), SIZE(this%network))) IF (linivol) this%volanab(:,:,:) = ibmiss ENDIF IF (ASSOCIATED(this%anavar%c) .AND. .NOT.ASSOCIATED(this%volanac)) THEN CALL vol7d_force_alloc_ana(this, ini) ALLOCATE(this%volanac(SIZE(this%ana), SIZE(this%anavar%c), SIZE(this%network))) IF (linivol) this%volanac(:,:,:) = cmiss ENDIF ! Attributi dell'anagrafica IF (ASSOCIATED(this%anaattr%r) .AND. ASSOCIATED(this%anavarattr%r) .AND. & .NOT.ASSOCIATED(this%volanaattrr)) THEN CALL vol7d_force_alloc_ana(this, ini) ALLOCATE(this%volanaattrr(SIZE(this%ana), SIZE(this%anavarattr%r), & SIZE(this%network), SIZE(this%anaattr%r))) IF (linivol) this%volanaattrr(:,:,:,:) = rmiss ENDIF IF (ASSOCIATED(this%anaattr%d) .AND. ASSOCIATED(this%anavarattr%d) .AND. & .NOT.ASSOCIATED(this%volanaattrd)) THEN CALL vol7d_force_alloc_ana(this, ini) ALLOCATE(this%volanaattrd(SIZE(this%ana), SIZE(this%anavarattr%d), & SIZE(this%network), SIZE(this%anaattr%d))) IF (linivol) this%volanaattrd(:,:,:,:) = rdmiss ENDIF IF (ASSOCIATED(this%anaattr%i) .AND. ASSOCIATED(this%anavarattr%i) .AND. & .NOT.ASSOCIATED(this%volanaattri)) THEN CALL vol7d_force_alloc_ana(this, ini) ALLOCATE(this%volanaattri(SIZE(this%ana), SIZE(this%anavarattr%i), & SIZE(this%network), SIZE(this%anaattr%i))) IF (linivol) this%volanaattri(:,:,:,:) = imiss ENDIF IF (ASSOCIATED(this%anaattr%b) .AND. ASSOCIATED(this%anavarattr%b) .AND. & .NOT.ASSOCIATED(this%volanaattrb)) THEN CALL vol7d_force_alloc_ana(this, ini) ALLOCATE(this%volanaattrb(SIZE(this%ana), SIZE(this%anavarattr%b), & SIZE(this%network), SIZE(this%anaattr%b))) IF (linivol) this%volanaattrb(:,:,:,:) = ibmiss ENDIF IF (ASSOCIATED(this%anaattr%c) .AND. ASSOCIATED(this%anavarattr%c) .AND. & .NOT.ASSOCIATED(this%volanaattrc)) THEN CALL vol7d_force_alloc_ana(this, ini) ALLOCATE(this%volanaattrc(SIZE(this%ana), SIZE(this%anavarattr%c), & SIZE(this%network), SIZE(this%anaattr%c))) IF (linivol) this%volanaattrc(:,:,:,:) = cmiss ENDIF ! Dati IF (ASSOCIATED(this%dativar%r) .AND. .NOT.ASSOCIATED(this%voldatir)) THEN CALL vol7d_force_alloc_dati(this, ini) ALLOCATE(this%voldatir(SIZE(this%ana), SIZE(this%time), SIZE(this%level), & SIZE(this%timerange), SIZE(this%dativar%r), SIZE(this%network))) IF (linivol) this%voldatir(:,:,:,:,:,:) = rmiss ENDIF IF (ASSOCIATED(this%dativar%d) .AND. .NOT.ASSOCIATED(this%voldatid)) THEN CALL vol7d_force_alloc_dati(this, ini) ALLOCATE(this%voldatid(SIZE(this%ana), SIZE(this%time), SIZE(this%level), & SIZE(this%timerange), SIZE(this%dativar%d), SIZE(this%network))) IF (linivol) this%voldatid(:,:,:,:,:,:) = rdmiss ENDIF IF (ASSOCIATED(this%dativar%i) .AND. .NOT.ASSOCIATED(this%voldatii)) THEN CALL vol7d_force_alloc_dati(this, ini) ALLOCATE(this%voldatii(SIZE(this%ana), SIZE(this%time), SIZE(this%level), & SIZE(this%timerange), SIZE(this%dativar%i), SIZE(this%network))) IF (linivol) this%voldatii(:,:,:,:,:,:) = imiss ENDIF IF (ASSOCIATED(this%dativar%b) .AND. .NOT.ASSOCIATED(this%voldatib)) THEN CALL vol7d_force_alloc_dati(this, ini) ALLOCATE(this%voldatib(SIZE(this%ana), SIZE(this%time), SIZE(this%level), & SIZE(this%timerange), SIZE(this%dativar%b), SIZE(this%network))) IF (linivol) this%voldatib(:,:,:,:,:,:) = ibmiss ENDIF IF (ASSOCIATED(this%dativar%c) .AND. .NOT.ASSOCIATED(this%voldatic)) THEN CALL vol7d_force_alloc_dati(this, ini) ALLOCATE(this%voldatic(SIZE(this%ana), SIZE(this%time), SIZE(this%level), & SIZE(this%timerange), SIZE(this%dativar%c), SIZE(this%network))) IF (linivol) this%voldatic(:,:,:,:,:,:) = cmiss ENDIF ! Attributi dei dati IF (ASSOCIATED(this%datiattr%r) .AND. ASSOCIATED(this%dativarattr%r) .AND. & .NOT.ASSOCIATED(this%voldatiattrr)) THEN CALL vol7d_force_alloc_dati(this, ini) ALLOCATE(this%voldatiattrr(SIZE(this%ana), SIZE(this%time), SIZE(this%level), & SIZE(this%timerange), SIZE(this%dativarattr%r), SIZE(this%network), & SIZE(this%datiattr%r))) IF (linivol) this%voldatiattrr(:,:,:,:,:,:,:) = rmiss ENDIF IF (ASSOCIATED(this%datiattr%d) .AND. ASSOCIATED(this%dativarattr%d) .AND. & .NOT.ASSOCIATED(this%voldatiattrd)) THEN CALL vol7d_force_alloc_dati(this, ini) ALLOCATE(this%voldatiattrd(SIZE(this%ana), SIZE(this%time), SIZE(this%level), & SIZE(this%timerange), SIZE(this%dativarattr%d), SIZE(this%network), & SIZE(this%datiattr%d))) IF (linivol) this%voldatiattrd(:,:,:,:,:,:,:) = rdmiss ENDIF IF (ASSOCIATED(this%datiattr%i) .AND. ASSOCIATED(this%dativarattr%i) .AND. & .NOT.ASSOCIATED(this%voldatiattri)) THEN CALL vol7d_force_alloc_dati(this, ini) ALLOCATE(this%voldatiattri(SIZE(this%ana), SIZE(this%time), SIZE(this%level), & SIZE(this%timerange), SIZE(this%dativarattr%i), SIZE(this%network), & SIZE(this%datiattr%i))) IF (linivol) this%voldatiattri(:,:,:,:,:,:,:) = imiss ENDIF IF (ASSOCIATED(this%datiattr%b) .AND. ASSOCIATED(this%dativarattr%b) .AND. & .NOT.ASSOCIATED(this%voldatiattrb)) THEN CALL vol7d_force_alloc_dati(this, ini) ALLOCATE(this%voldatiattrb(SIZE(this%ana), SIZE(this%time), SIZE(this%level), & SIZE(this%timerange), SIZE(this%dativarattr%b), SIZE(this%network), & SIZE(this%datiattr%b))) IF (linivol) this%voldatiattrb(:,:,:,:,:,:,:) = ibmiss ENDIF IF (ASSOCIATED(this%datiattr%c) .AND. ASSOCIATED(this%dativarattr%c) .AND. & .NOT.ASSOCIATED(this%voldatiattrc)) THEN CALL vol7d_force_alloc_dati(this, ini) ALLOCATE(this%voldatiattrc(SIZE(this%ana), SIZE(this%time), SIZE(this%level), & SIZE(this%timerange), SIZE(this%dativarattr%c), SIZE(this%network), & SIZE(this%datiattr%c))) IF (linivol) this%voldatiattrc(:,:,:,:,:,:,:) = cmiss ENDIF ! Catch-all method CALL vol7d_force_alloc(this) ! Creo gli indici var-attr #ifdef DEBUG CALL l4f_log(l4f_debug,"calling: vol7d_set_attr_ind") #endif CALL vol7d_set_attr_ind(this) END SUBROUTINE vol7d_alloc_vol !> Metodo per creare gli indici che associano le variabili aventi attributo !! alle variabili nei relativi descrittori. !! Ha senso chiamare questo metodo solo dopo che i descrittori delle variabili !! e degli attributi desiderati sono stati allocati ed è stato assegnato un !! valore ai relativi membri btable (vedi vol7d_var_class::vol7d_var), se !! i descrittori non sono stati allocati o assegnati, il metodo non fa niente. SUBROUTINE vol7d_set_attr_ind(this) TYPE(vol7d),INTENT(inout) :: this !< oggetto in cui creare gli indici INTEGER :: i ! real IF (ASSOCIATED(this%dativar%r)) THEN IF (ASSOCIATED(this%dativarattr%r)) THEN DO i = 1, SIZE(this%dativar%r) this%dativar%r(i)%r = & firsttrue(this%dativar%r(i)%btable == this%dativarattr%r(:)%btable) ENDDO ENDIF IF (ASSOCIATED(this%dativarattr%d)) THEN DO i = 1, SIZE(this%dativar%r) this%dativar%r(i)%d = & firsttrue(this%dativar%r(i)%btable == this%dativarattr%d(:)%btable) ENDDO ENDIF IF (ASSOCIATED(this%dativarattr%i)) THEN DO i = 1, SIZE(this%dativar%r) this%dativar%r(i)%i = & firsttrue(this%dativar%r(i)%btable == this%dativarattr%i(:)%btable) ENDDO ENDIF IF (ASSOCIATED(this%dativarattr%b)) THEN DO i = 1, SIZE(this%dativar%r) this%dativar%r(i)%b = & firsttrue(this%dativar%r(i)%btable == this%dativarattr%b(:)%btable) ENDDO ENDIF IF (ASSOCIATED(this%dativarattr%c)) THEN DO i = 1, SIZE(this%dativar%r) this%dativar%r(i)%c = & firsttrue(this%dativar%r(i)%btable == this%dativarattr%c(:)%btable) ENDDO ENDIF ENDIF ! double IF (ASSOCIATED(this%dativar%d)) THEN IF (ASSOCIATED(this%dativarattr%r)) THEN DO i = 1, SIZE(this%dativar%d) this%dativar%d(i)%r = & firsttrue(this%dativar%d(i)%btable == this%dativarattr%r(:)%btable) ENDDO ENDIF IF (ASSOCIATED(this%dativarattr%d)) THEN DO i = 1, SIZE(this%dativar%d) this%dativar%d(i)%d = & firsttrue(this%dativar%d(i)%btable == this%dativarattr%d(:)%btable) ENDDO ENDIF IF (ASSOCIATED(this%dativarattr%i)) THEN DO i = 1, SIZE(this%dativar%d) this%dativar%d(i)%i = & firsttrue(this%dativar%d(i)%btable == this%dativarattr%i(:)%btable) ENDDO ENDIF IF (ASSOCIATED(this%dativarattr%b)) THEN DO i = 1, SIZE(this%dativar%d) this%dativar%d(i)%b = & firsttrue(this%dativar%d(i)%btable == this%dativarattr%b(:)%btable) ENDDO ENDIF IF (ASSOCIATED(this%dativarattr%c)) THEN DO i = 1, SIZE(this%dativar%d) this%dativar%d(i)%c = & firsttrue(this%dativar%d(i)%btable == this%dativarattr%c(:)%btable) ENDDO ENDIF ENDIF ! integer IF (ASSOCIATED(this%dativar%i)) THEN IF (ASSOCIATED(this%dativarattr%r)) THEN DO i = 1, SIZE(this%dativar%i) this%dativar%i(i)%r = & firsttrue(this%dativar%i(i)%btable == this%dativarattr%r(:)%btable) ENDDO ENDIF IF (ASSOCIATED(this%dativarattr%d)) THEN DO i = 1, SIZE(this%dativar%i) this%dativar%i(i)%d = & firsttrue(this%dativar%i(i)%btable == this%dativarattr%d(:)%btable) ENDDO ENDIF IF (ASSOCIATED(this%dativarattr%i)) THEN DO i = 1, SIZE(this%dativar%i) this%dativar%i(i)%i = & firsttrue(this%dativar%i(i)%btable == this%dativarattr%i(:)%btable) ENDDO ENDIF IF (ASSOCIATED(this%dativarattr%b)) THEN DO i = 1, SIZE(this%dativar%i) this%dativar%i(i)%b = & firsttrue(this%dativar%i(i)%btable == this%dativarattr%b(:)%btable) ENDDO ENDIF IF (ASSOCIATED(this%dativarattr%c)) THEN DO i = 1, SIZE(this%dativar%i) this%dativar%i(i)%c = & firsttrue(this%dativar%i(i)%btable == this%dativarattr%c(:)%btable) ENDDO ENDIF ENDIF ! byte IF (ASSOCIATED(this%dativar%b)) THEN IF (ASSOCIATED(this%dativarattr%r)) THEN DO i = 1, SIZE(this%dativar%b) this%dativar%b(i)%r = & firsttrue(this%dativar%b(i)%btable == this%dativarattr%r(:)%btable) ENDDO ENDIF IF (ASSOCIATED(this%dativarattr%d)) THEN DO i = 1, SIZE(this%dativar%b) this%dativar%b(i)%d = & firsttrue(this%dativar%b(i)%btable == this%dativarattr%d(:)%btable) ENDDO ENDIF IF (ASSOCIATED(this%dativarattr%i)) THEN DO i = 1, SIZE(this%dativar%b) this%dativar%b(i)%i = & firsttrue(this%dativar%b(i)%btable == this%dativarattr%i(:)%btable) ENDDO ENDIF IF (ASSOCIATED(this%dativarattr%b)) THEN DO i = 1, SIZE(this%dativar%b) this%dativar%b(i)%b = & firsttrue(this%dativar%b(i)%btable == this%dativarattr%b(:)%btable) ENDDO ENDIF IF (ASSOCIATED(this%dativarattr%c)) THEN DO i = 1, SIZE(this%dativar%b) this%dativar%b(i)%c = & firsttrue(this%dativar%b(i)%btable == this%dativarattr%c(:)%btable) ENDDO ENDIF ENDIF ! character IF (ASSOCIATED(this%dativar%c)) THEN IF (ASSOCIATED(this%dativarattr%r)) THEN DO i = 1, SIZE(this%dativar%c) this%dativar%c(i)%r = & firsttrue(this%dativar%c(i)%btable == this%dativarattr%r(:)%btable) ENDDO ENDIF IF (ASSOCIATED(this%dativarattr%d)) THEN DO i = 1, SIZE(this%dativar%c) this%dativar%c(i)%d = & firsttrue(this%dativar%c(i)%btable == this%dativarattr%d(:)%btable) ENDDO ENDIF IF (ASSOCIATED(this%dativarattr%i)) THEN DO i = 1, SIZE(this%dativar%c) this%dativar%c(i)%i = & firsttrue(this%dativar%c(i)%btable == this%dativarattr%i(:)%btable) ENDDO ENDIF IF (ASSOCIATED(this%dativarattr%b)) THEN DO i = 1, SIZE(this%dativar%c) this%dativar%c(i)%b = & firsttrue(this%dativar%c(i)%btable == this%dativarattr%b(:)%btable) ENDDO ENDIF IF (ASSOCIATED(this%dativarattr%c)) THEN DO i = 1, SIZE(this%dativar%c) this%dativar%c(i)%c = & firsttrue(this%dativar%c(i)%btable == this%dativarattr%c(:)%btable) ENDDO ENDIF ENDIF END SUBROUTINE vol7d_set_attr_ind !> Metodo per fondere 2 oggetti vol7d. !! Il secondo volume viene accodato al primo e poi distrutto, si veda !! quindi la descrizione di ::vol7d_append. Se uno degli oggetti \a !! this o \a that sono vuoti non perde tempo inutile, SUBROUTINE vol7d_merge(this, that, sort, bestdata, & ltimesimple, ltimerangesimple, llevelsimple, lanasimple) TYPE(vol7d),INTENT(INOUT) :: this !< primo oggetto in ingresso, alla fine conterrà il risultato della fusione TYPE(vol7d),INTENT(INOUT) :: that !< secondo oggetto in ingresso, alla fine sarà distrutto LOGICAL,INTENT(IN),OPTIONAL :: sort !< se fornito e uguale a \c .TRUE., i descrittori che supportano un ordinamento (operatori > e/o <) risulteranno ordinati in ordine crescente nell'oggetto finale LOGICAL,INTENT(in),OPTIONAL :: bestdata !< if provided and \a .TRUE. in case of overlapping volumes keep valid data where available, or data from the second volume if both valid LOGICAL,INTENT(IN),OPTIONAL :: ltimesimple, ltimerangesimple, llevelsimple, lanasimple ! experimental, please do not use outside the library now TYPE(vol7d) :: v7d_clean IF (.NOT.c_e(this)) THEN ! speedup this = that CALL init(v7d_clean) that = v7d_clean ! destroy that without deallocating ELSE ! Append that to this and destroy that CALL vol7d_append(this, that, sort, bestdata, & ltimesimple, ltimerangesimple, llevelsimple, lanasimple) CALL delete(that) ENDIF END SUBROUTINE vol7d_merge !> Metodo per accodare un oggetto vol7d ad un altro. !! Si tratta di un metodo molto potente e versatile; !! i descrittori delle dimensioni del volume finale conterranno i valori !! dei corrispondenti descrittori del primo e del secondo volume !! e i volumi di anagrafica e dati conterranno i valori dei due volumi !! ai posti giusti, e valori mancanti per le nuove combinazioni che !! eventualmente si verranno a creare. !! Se i volumi multidimensionali di anagrafica e/o dati dei 2 oggetti !! hanno un'intersezione non nulla, negli elementi comuni il volume finale !! conterrà il corrispondente elemento del \b secondo volume. !! Attenzione che, durante l'esecuzione del metodo, la memoria richiesta è !! pari alla memoria complessiva occupata dai 2 volumi iniziali più !! la memoria complessiva del volume finale, per cui, nel caso di volumi grandi, !! ci potrebbero essere problemi di esaurimento della memoria centrale. !! Se l'oggetto \a that è vuoto non perde tempo inutile, !! !! \todo nel caso di elementi comuni inserire la possibiità (opzionale per !! non penalizzare le prestazioni quando ciò non serve) di effettuare una scelta !! più ragionata dell'elemento da tenere, almeno controllando i dati mancanti !! se non le flag di qualità !! !! \todo "rateizzare" l'allocazione dei volumi per ridurre l'occupazione di !! memoria nel caso siano allocati contemporaneamente volumi di variabili e !! di attributi o più volumi di tipi diversi !! !! \todo il parametro \a that è dichiarato \a INOUT perché la vol7d_alloc_vol !! può modificarlo, bisognerebbe implementare una vol7d_check_vol che restituisca !! errore anziché usare la vol7d_alloc_vol. SUBROUTINE vol7d_append(this, that, sort, bestdata, & ltimesimple, ltimerangesimple, llevelsimple, lanasimple, lnetworksimple) TYPE(vol7d),INTENT(INOUT) :: this !< primo oggetto in ingresso, a cui sarà accodato il secondo TYPE(vol7d),INTENT(IN) :: that !< secondo oggetto in ingresso, non viene modificato dal metodo LOGICAL,INTENT(IN),OPTIONAL :: sort !< se fornito e uguale a \c .TRUE., i descrittori che supportano un ordinamento (operatori > e/o <) risulteranno ordinati in ordine crescente nell'oggetto finale ! experimental, please do not use outside the library now, they force the use ! of a simplified mapping algorithm which is valid only whene the dimension ! content is the same in both volumes , or when one of them is empty LOGICAL,INTENT(in),OPTIONAL :: bestdata !< if provided and \a .TRUE. in case of overlapping volumes keep valid data where available, or data from the second volume if both valid LOGICAL,INTENT(IN),OPTIONAL :: ltimesimple, ltimerangesimple, llevelsimple, lanasimple, lnetworksimple TYPE(vol7d) :: v7dtmp LOGICAL :: lsort, lbestdata INTEGER,POINTER :: remapt1(:), remapt2(:), remaptr1(:), remaptr2(:), & remapl1(:), remapl2(:), remapa1(:), remapa2(:), remapn1(:), remapn2(:) IF (.NOT.c_e(that)) RETURN ! speedup, nothing to do IF (.NOT.vol7d_check_vol(that)) RETURN ! be safe IF (.NOT.c_e(this)) THEN ! this case is like a vol7d_copy, more efficient to copy? CALL vol7d_copy(that, this, sort=sort) RETURN ENDIF IF (this%time_definition /= that%time_definition) THEN CALL l4f_log(l4f_fatal, & 'in vol7d_append, cannot append volumes with different & &time definition') CALL raise_fatal_error() ENDIF ! Completo l'allocazione per avere volumi a norma CALL vol7d_alloc_vol(this) CALL init(v7dtmp, time_definition=this%time_definition) CALL optio(sort, lsort) CALL optio(bestdata, lbestdata) ! Calcolo le mappature tra volumi vecchi e volume nuovo ! I puntatori remap* vengono tutti o allocati o nullificati IF (optio_log(ltimesimple)) THEN CALL vol7d_remap2simple_datetime(this%time, that%time, v7dtmp%time, & lsort, remapt1, remapt2) ELSE CALL vol7d_remap2_datetime(this%time, that%time, v7dtmp%time, & lsort, remapt1, remapt2) ENDIF IF (optio_log(ltimerangesimple)) THEN CALL vol7d_remap2simple_vol7d_timerange(this%timerange, that%timerange, & v7dtmp%timerange, lsort, remaptr1, remaptr2) ELSE CALL vol7d_remap2_vol7d_timerange(this%timerange, that%timerange, & v7dtmp%timerange, lsort, remaptr1, remaptr2) ENDIF IF (optio_log(llevelsimple)) THEN CALL vol7d_remap2simple_vol7d_level(this%level, that%level, v7dtmp%level, & lsort, remapl1, remapl2) ELSE CALL vol7d_remap2_vol7d_level(this%level, that%level, v7dtmp%level, & lsort, remapl1, remapl2) ENDIF IF (optio_log(lanasimple)) THEN CALL vol7d_remap2simple_vol7d_ana(this%ana, that%ana, v7dtmp%ana, & .false., remapa1, remapa2) ELSE CALL vol7d_remap2_vol7d_ana(this%ana, that%ana, v7dtmp%ana, & .false., remapa1, remapa2) ENDIF IF (optio_log(lnetworksimple)) THEN CALL vol7d_remap2simple_vol7d_network(this%network, that%network, v7dtmp%network, & .false., remapn1, remapn2) ELSE CALL vol7d_remap2_vol7d_network(this%network, that%network, v7dtmp%network, & .false., remapn1, remapn2) ENDIF ! Faccio la fusione fisica dei volumi CALL vol7d_merge_finalr(this, that, v7dtmp, & remapa1, remapa2, remapt1, remapt2, remapl1, remapl2, & remaptr1, remaptr2, remapn1, remapn2, lbestdata) CALL vol7d_merge_finald(this, that, v7dtmp, & remapa1, remapa2, remapt1, remapt2, remapl1, remapl2, & remaptr1, remaptr2, remapn1, remapn2, lbestdata) CALL vol7d_merge_finali(this, that, v7dtmp, & remapa1, remapa2, remapt1, remapt2, remapl1, remapl2, & remaptr1, remaptr2, remapn1, remapn2, lbestdata) CALL vol7d_merge_finalb(this, that, v7dtmp, & remapa1, remapa2, remapt1, remapt2, remapl1, remapl2, & remaptr1, remaptr2, remapn1, remapn2, lbestdata) CALL vol7d_merge_finalc(this, that, v7dtmp, & remapa1, remapa2, remapt1, remapt2, remapl1, remapl2, & remaptr1, remaptr2, remapn1, remapn2, lbestdata) ! Dealloco i vettori di rimappatura IF (ASSOCIATED(remapt1)) DEALLOCATE(remapt1) IF (ASSOCIATED(remapt2)) DEALLOCATE(remapt2) IF (ASSOCIATED(remaptr1)) DEALLOCATE(remaptr1) IF (ASSOCIATED(remaptr2)) DEALLOCATE(remaptr2) IF (ASSOCIATED(remapl1)) DEALLOCATE(remapl1) IF (ASSOCIATED(remapl2)) DEALLOCATE(remapl2) IF (ASSOCIATED(remapa1)) DEALLOCATE(remapa1) IF (ASSOCIATED(remapa2)) DEALLOCATE(remapa2) IF (ASSOCIATED(remapn1)) DEALLOCATE(remapn1) IF (ASSOCIATED(remapn2)) DEALLOCATE(remapn2) ! Distruggo il vecchio volume e assegno il nuovo a this CALL delete(this) this = v7dtmp ! Ricreo gli indici var-attr CALL vol7d_set_attr_ind(this) END SUBROUTINE vol7d_append !> Metodo per creare una copia completa e indipendente di un oggetto vol7d. !! Questo metodo crea un duplicato di tutti i membri di un oggetto vol7d, !! con la possibilità di rielaborarlo durante la copia. Se l'oggetto da copiare !! è vuoto non perde tempo inutile. !! Attenzione, il codice: !! \code !! USE vol7d_class !! TYPE(vol7d) :: vol1, vol2 !! CALL init(vol1) !! CALL init(vol2) !! ... ! riempio vol1 !! vol2 = vol1 !! \endcode !! fa una cosa diversa rispetto a: !! \code !! USE vol7d_class !! TYPE(vol7d) :: vol1, vol2 !! CALL init(vol1) !! CALL init(vol2) !! ... ! riempio vol1 !! CALL vol7d_copy(vol1, vol2) !! \endcode !! nel primo caso, infatti, l'operatore di assegnazione copia solo i componenti !! statici di \a vol1 nei corrispondenti elementi di \a vol2, mentre i componenti che !! sono allocati dinamicamente (cioè quelli che in ::vol7d hanno l'attributo !! \c POINTER, in pratica quasi tutti) non vengono duplicati, ma per essi vol2 !! conterrà un puntatore al corrispondente elemento a cui già punta vol1, e quindi !! eventuali cambiamenti al contenuto di uno dei due oggetti influenzerà il !! contenuto dell'altro; nel secondo caso, invece, vol1 e vol2 sono, dopo la !! vol7d_copy, 2 istanze !! completamente indipendenti, ma uguali tra loro per contenuto, della classe !! vol7d, e quindi hanno vita indipendente. SUBROUTINE vol7d_copy(this, that, sort, unique, miss, & lsort_time, lsort_timerange, lsort_level, & ltime, ltimerange, llevel, lana, lnetwork, & lanavarr, lanavard, lanavari, lanavarb, lanavarc, & lanaattrr, lanaattrd, lanaattri, lanaattrb, lanaattrc, & lanavarattrr, lanavarattrd, lanavarattri, lanavarattrb, lanavarattrc, & ldativarr, ldativard, ldativari, ldativarb, ldativarc, & ldatiattrr, ldatiattrd, ldatiattri, ldatiattrb, ldatiattrc, & ldativarattrr, ldativarattrd, ldativarattri, ldativarattrb, ldativarattrc) TYPE(vol7d),INTENT(IN) :: this !< oggetto origine TYPE(vol7d),INTENT(INOUT) :: that !< oggetto destinazione LOGICAL,INTENT(IN),OPTIONAL :: sort !< if present and \a .TRUE., sort all the sortable dimensions LOGICAL,INTENT(IN),OPTIONAL :: unique !< se fornito e uguale a \c .TRUE., gli eventuali elementi duplicati nei descrittori dell'oggetto iniziale verranno collassati in un unico elemento (con eventuale perdita dei dati relativi agli elementi duplicati) LOGICAL,INTENT(IN),OPTIONAL :: miss !< se fornito e uguale a \c .TRUE., gli eventuali elementi dei descrittori uguali al corrispondente valore mancante verranno eliminati dall'oggetto riformato LOGICAL,INTENT(IN),OPTIONAL :: lsort_time !< if present and \a .TRUE., sort only time dimension (alternative to \a sort ) LOGICAL,INTENT(IN),OPTIONAL :: lsort_timerange !< if present and \a .TRUE., sort only timerange dimension (alternative to \a sort ) LOGICAL,INTENT(IN),OPTIONAL :: lsort_level !< if present and \a .TRUE., sort only level dimension (alternative to \a sort ) !> se fornito, deve essere un vettore logico della stessa lunghezza di !! this%time indicante quali elementi della dimensione \a time !! mantenere (valori \c .TRUE.) e quali scartare (valori \c .FALSE.) !! nel volume copiato; in alternativa può essere un vettore di !! lunghezza 1, in tal caso, se \c .FALSE. , equivale a scartare tutti !! gli elementi (utile principalmente per le variabili); è compatibile !! col parametro \a miss LOGICAL,INTENT(IN),OPTIONAL :: ltime(:) !> come il precedente per la dimensione \a timerange LOGICAL,INTENT(IN),OPTIONAL :: ltimerange(:) !> come il precedente per la dimensione \a level LOGICAL,INTENT(IN),OPTIONAL :: llevel(:) !> come il precedente per la dimensione \a ana LOGICAL,INTENT(IN),OPTIONAL :: lana(:) !> come il precedente per la dimensione \a network LOGICAL,INTENT(IN),OPTIONAL :: lnetwork(:) !> come il precedente per tutte le possibili dimensioni variabile LOGICAL,INTENT(in),OPTIONAL :: & lanavarr(:), lanavard(:), lanavari(:), lanavarb(:), lanavarc(:), & lanaattrr(:), lanaattrd(:), lanaattri(:), lanaattrb(:), lanaattrc(:), & lanavarattrr(:), lanavarattrd(:), lanavarattri(:), lanavarattrb(:), lanavarattrc(:), & ldativarr(:), ldativard(:), ldativari(:), ldativarb(:), ldativarc(:), & ldatiattrr(:), ldatiattrd(:), ldatiattri(:), ldatiattrb(:), ldatiattrc(:), & ldativarattrr(:), ldativarattrd(:), ldativarattri(:), ldativarattrb(:), ldativarattrc(:) LOGICAL :: lsort, lunique, lmiss INTEGER,POINTER :: remapt(:), remaptr(:), remapl(:), remapa(:), remapn(:) CALL init(that) IF (.NOT.c_e(this)) RETURN ! speedup, nothing to do IF (.NOT.vol7d_check_vol(this)) RETURN ! be safe CALL optio(sort, lsort) CALL optio(unique, lunique) CALL optio(miss, lmiss) ! Calcolo le mappature tra volume vecchio e volume nuovo ! I puntatori remap* vengono tutti o allocati o nullificati CALL vol7d_remap1_datetime(this%time, that%time, & lsort.OR.optio_log(lsort_time), lunique, lmiss, remapt, ltime) CALL vol7d_remap1_vol7d_timerange(this%timerange, that%timerange, & lsort.OR.optio_log(lsort_timerange), lunique, lmiss, remaptr, ltimerange) CALL vol7d_remap1_vol7d_level(this%level, that%level, & lsort.OR.optio_log(lsort_level), lunique, lmiss, remapl, llevel) CALL vol7d_remap1_vol7d_ana(this%ana, that%ana, & lsort, lunique, lmiss, remapa, lana) CALL vol7d_remap1_vol7d_network(this%network, that%network, & lsort, lunique, lmiss, remapn, lnetwork) ! lanavari, lanavarb, lanavarc, & ! lanaattri, lanaattrb, lanaattrc, & ! lanavarattri, lanavarattrb, lanavarattrc, & ! ldativari, ldativarb, ldativarc, & ! ldatiattri, ldatiattrb, ldatiattrc, & ! ldativarattri, ldativarattrb, ldativarattrc ! Faccio la riforma fisica dei volumi CALL vol7d_reform_finalr(this, that, & remapa, remapt, remapl, remaptr, remapn, lsort, lunique, lmiss, & lanavarr, lanaattrr, lanavarattrr, ldativarr, ldatiattrr, ldativarattrr) CALL vol7d_reform_finald(this, that, & remapa, remapt, remapl, remaptr, remapn, lsort, lunique, lmiss, & lanavard, lanaattrd, lanavarattrd, ldativard, ldatiattrd, ldativarattrd) CALL vol7d_reform_finali(this, that, & remapa, remapt, remapl, remaptr, remapn, lsort, lunique, lmiss, & lanavari, lanaattri, lanavarattri, ldativari, ldatiattri, ldativarattri) CALL vol7d_reform_finalb(this, that, & remapa, remapt, remapl, remaptr, remapn, lsort, lunique, lmiss, & lanavarb, lanaattrb, lanavarattrb, ldativarb, ldatiattrb, ldativarattrb) CALL vol7d_reform_finalc(this, that, & remapa, remapt, remapl, remaptr, remapn, lsort, lunique, lmiss, & lanavarc, lanaattrc, lanavarattrc, ldativarc, ldatiattrc, ldativarattrc) ! Dealloco i vettori di rimappatura IF (ASSOCIATED(remapt)) DEALLOCATE(remapt) IF (ASSOCIATED(remaptr)) DEALLOCATE(remaptr) IF (ASSOCIATED(remapl)) DEALLOCATE(remapl) IF (ASSOCIATED(remapa)) DEALLOCATE(remapa) IF (ASSOCIATED(remapn)) DEALLOCATE(remapn) ! Ricreo gli indici var-attr CALL vol7d_set_attr_ind(that) that%time_definition = this%time_definition END SUBROUTINE vol7d_copy !> Metodo per riformare in varie maniere un oggetto vol7d. !! Equivale ad una copia (vedi ::vol7d_copy) !! seguita dalla distruzione del volume iniziale e alla !! sua riassegnazione al volume copiato. Ha senso se almeno uno dei parametri !! \a sort, \a uniq o \a miss è fornito uguale a \c .TRUE., altrimenti !! è solo una perdita di tempo. !! Può essere utile, ad esempio, per eliminare stazioni !! o istanti temporali indesiderati, basta assegnare il loro corrispondente !! elemento del descrittore a valore mancante e chiamare vol7d_reform !! con miss=.TRUE. . SUBROUTINE vol7d_reform(this, sort, unique, miss, & lsort_time, lsort_timerange, lsort_level, & ltime, ltimerange, llevel, lana, lnetwork, & lanavarr, lanavard, lanavari, lanavarb, lanavarc, & lanaattrr, lanaattrd, lanaattri, lanaattrb, lanaattrc, & lanavarattrr, lanavarattrd, lanavarattri, lanavarattrb, lanavarattrc, & ldativarr, ldativard, ldativari, ldativarb, ldativarc, & ldatiattrr, ldatiattrd, ldatiattri, ldatiattrb, ldatiattrc, & ldativarattrr, ldativarattrd, ldativarattri, ldativarattrb, ldativarattrc& ,purgeana) TYPE(vol7d),INTENT(INOUT) :: this !< oggetto da riformare LOGICAL,INTENT(IN),OPTIONAL :: sort !< if present and \a .TRUE., sort all the sortable dimensions LOGICAL,INTENT(IN),OPTIONAL :: unique !< se fornito e uguale a \c .TRUE., gli eventuali elementi duplicati nei descrittori dell'oggetto iniziale verranno collassati in un unico elemento (con eventuale perdita dei dati relativi agli elementi duplicati) LOGICAL,INTENT(IN),OPTIONAL :: miss !< se fornito e uguale a \c .TRUE., gli eventuali elementi dei descrittori uguali al corrispondente valore mancante verranno eliminati dall'oggetto riformato LOGICAL,INTENT(IN),OPTIONAL :: lsort_time !< if present and \a .TRUE., sort only time dimension (alternative to \a sort ) LOGICAL,INTENT(IN),OPTIONAL :: lsort_timerange !< if present and \a .TRUE., sort only timerange dimension (alternative to \a sort ) LOGICAL,INTENT(IN),OPTIONAL :: lsort_level !< if present and \a .TRUE., sort only level dimension (alternative to \a sort ) !> se fornito, deve essere un vettore logico della stessa lunghezza di !! this%time indicante quali elementi della dimensione \a time !! mantenere (valori \c .TRUE.) e quali scartare (valori \c .FALSE.) !! nel volume copiato; in alternativa può essere un vettore di !! lunghezza 1, in tal caso, se \c .FALSE. , equivale a scartare tutti !! gli elementi (utile principalmente per le variabili); è compatibile !! col parametro \a miss LOGICAL,INTENT(IN),OPTIONAL :: ltime(:) LOGICAL,INTENT(IN),OPTIONAL :: ltimerange(:) !< come il precedente per la dimensione \a timerange LOGICAL,INTENT(IN),OPTIONAL :: llevel(:) !< come il precedente per la dimensione \a level LOGICAL,INTENT(IN),OPTIONAL :: lana(:) !< come il precedente per la dimensione \a ana LOGICAL,INTENT(IN),OPTIONAL :: lnetwork(:) !< come il precedente per la dimensione \a network !> come il precedente per tutte le possibili dimensioni variabile LOGICAL,INTENT(in),OPTIONAL :: & lanavarr(:), lanavard(:), lanavari(:), lanavarb(:), lanavarc(:), & lanaattrr(:), lanaattrd(:), lanaattri(:), lanaattrb(:), lanaattrc(:), & lanavarattrr(:), lanavarattrd(:), lanavarattri(:), lanavarattrb(:), lanavarattrc(:), & ldativarr(:), ldativard(:), ldativari(:), ldativarb(:), ldativarc(:), & ldatiattrr(:), ldatiattrd(:), ldatiattri(:), ldatiattrb(:), ldatiattrc(:), & ldativarattrr(:), ldativarattrd(:), ldativarattri(:), ldativarattrb(:), ldativarattrc(:) LOGICAL,INTENT(IN),OPTIONAL :: purgeana !< if true remove ana with all data missing TYPE(vol7d) :: v7dtmp logical,allocatable :: llana(:) integer :: i CALL vol7d_copy(this, v7dtmp, sort, unique, miss, & lsort_time, lsort_timerange, lsort_level, & ltime, ltimerange, llevel, lana, lnetwork, & lanavarr, lanavard, lanavari, lanavarb, lanavarc, & lanaattrr, lanaattrd, lanaattri, lanaattrb, lanaattrc, & lanavarattrr, lanavarattrd, lanavarattri, lanavarattrb, lanavarattrc, & ldativarr, ldativard, ldativari, ldativarb, ldativarc, & ldatiattrr, ldatiattrd, ldatiattri, ldatiattrb, ldatiattrc, & ldativarattrr, ldativarattrd, ldativarattri, ldativarattrb, ldativarattrc) ! destroy old volume CALL delete(this) if (optio_log(purgeana)) then allocate(llana(size(v7dtmp%ana))) llana =.false. do i =1,size(v7dtmp%ana) if (associated(v7dtmp%voldatii)) llana(i)= llana(i) .or. any(c_e(v7dtmp%voldatii(i,:,:,:,:,:))) if (associated(v7dtmp%voldatir)) llana(i)= llana(i) .or. any(c_e(v7dtmp%voldatir(i,:,:,:,:,:))) if (associated(v7dtmp%voldatid)) llana(i)= llana(i) .or. any(c_e(v7dtmp%voldatid(i,:,:,:,:,:))) if (associated(v7dtmp%voldatib)) llana(i)= llana(i) .or. any(c_e(v7dtmp%voldatib(i,:,:,:,:,:))) if (associated(v7dtmp%voldatic)) llana(i)= llana(i) .or. any(c_e(v7dtmp%voldatic(i,:,:,:,:,:))) end do CALL vol7d_copy(v7dtmp, this,lana=llana) CALL delete(v7dtmp) deallocate(llana) else this=v7dtmp end if END SUBROUTINE vol7d_reform !> Sorts the sortable dimensions in the volume \a this only when necessary. !! Most of the times, the time, timerange and level dimensions in a !! vol7d object are correctly sorted; on the other side many methods !! strictly rely on this fact in order to work correctly. This method !! performs a quick check and sorts the required dimensions only if !! they are not sorted in ascending order yet, improving safety !! without impairing much performance. SUBROUTINE vol7d_smart_sort(this, lsort_time, lsort_timerange, lsort_level) TYPE(vol7d),INTENT(INOUT) :: this !< object to be sorted LOGICAL,OPTIONAL,INTENT(in) :: lsort_time !< if present and \a .TRUE., sort time dimension if it is not sorted in ascending order LOGICAL,OPTIONAL,INTENT(in) :: lsort_timerange !< if present and \a .TRUE., sort timerange dimension if it is not sorted in ascending order LOGICAL,OPTIONAL,INTENT(in) :: lsort_level !< if present and \a .TRUE., sort vertical level dimension if it is not sorted in ascending order INTEGER :: i LOGICAL :: to_be_sorted to_be_sorted = .false. CALL vol7d_alloc_vol(this) ! usual safety check IF (optio_log(lsort_time)) THEN DO i = 2, SIZE(this%time) IF (this%time(i) < this%time(i-1)) THEN to_be_sorted = .true. EXIT ENDIF ENDDO ENDIF IF (optio_log(lsort_timerange)) THEN DO i = 2, SIZE(this%timerange) IF (this%timerange(i) < this%timerange(i-1)) THEN to_be_sorted = .true. EXIT ENDIF ENDDO ENDIF IF (optio_log(lsort_level)) THEN DO i = 2, SIZE(this%level) IF (this%level(i) < this%level(i-1)) THEN to_be_sorted = .true. EXIT ENDIF ENDDO ENDIF IF (to_be_sorted) CALL vol7d_reform(this, & lsort_time=lsort_time, lsort_timerange=lsort_timerange, lsort_level=lsort_level ) END SUBROUTINE vol7d_smart_sort !> Filter the contents of a volume keeping only desired data. !! This subroutine filters a vol7d object by keeping only a subset of !! the data contained. It can keep only times within a specified !! interval, only station networks contained in a list and only !! specified station or data variables. If a filter parameter is not !! provided, no filtering will take place according to that criterion. !! The volume is reallocated keeping only the desired data. SUBROUTINE vol7d_filter(this, avl, vl, nl, s_d, e_d) TYPE(vol7d),INTENT(inout) :: this !< volume to be filtered CHARACTER(len=*),INTENT(in),OPTIONAL :: avl(:) !< list of station variables to be kept, if not provided or of zero length, all variables are kept CHARACTER(len=*),INTENT(in),OPTIONAL :: vl(:) !< list of data variables to be kept, if not provided or of zero length, all variables are kept TYPE(vol7d_network),OPTIONAL :: nl(:) !< list of station networks to be kept, if not provided or of zero length, all networks are kept TYPE(datetime),INTENT(in),OPTIONAL :: s_d !< initial time interval for time filtering, if not provided or equal to missing data no lower limit is imposed TYPE(datetime),INTENT(in),OPTIONAL :: e_d !< final time interval for time filtering, if not provided or equal to missing data no upper limit is imposed INTEGER :: i IF (PRESENT(avl)) THEN IF (SIZE(avl) > 0) THEN IF (ASSOCIATED(this%anavar%r)) THEN DO i = 1, SIZE(this%anavar%r) IF (all(this%anavar%r(i)%btable /= avl)) this%anavar%r(i) = vol7d_var_miss ENDDO ENDIF IF (ASSOCIATED(this%anavar%i)) THEN DO i = 1, SIZE(this%anavar%i) IF (all(this%anavar%i(i)%btable /= avl)) this%anavar%i(i) = vol7d_var_miss ENDDO ENDIF IF (ASSOCIATED(this%anavar%b)) THEN DO i = 1, SIZE(this%anavar%b) IF (all(this%anavar%b(i)%btable /= avl)) this%anavar%b(i) = vol7d_var_miss ENDDO ENDIF IF (ASSOCIATED(this%anavar%d)) THEN DO i = 1, SIZE(this%anavar%d) IF (all(this%anavar%d(i)%btable /= avl)) this%anavar%d(i) = vol7d_var_miss ENDDO ENDIF IF (ASSOCIATED(this%anavar%c)) THEN DO i = 1, SIZE(this%anavar%c) IF (all(this%anavar%c(i)%btable /= avl)) this%anavar%c(i) = vol7d_var_miss ENDDO ENDIF ENDIF ENDIF IF (PRESENT(vl)) THEN IF (size(vl) > 0) THEN IF (ASSOCIATED(this%dativar%r)) THEN DO i = 1, SIZE(this%dativar%r) IF (all(this%dativar%r(i)%btable /= vl)) this%dativar%r(i) = vol7d_var_miss ENDDO ENDIF IF (ASSOCIATED(this%dativar%i)) THEN DO i = 1, SIZE(this%dativar%i) IF (all(this%dativar%i(i)%btable /= vl)) this%dativar%i(i) = vol7d_var_miss ENDDO ENDIF IF (ASSOCIATED(this%dativar%b)) THEN DO i = 1, SIZE(this%dativar%b) IF (all(this%dativar%b(i)%btable /= vl)) this%dativar%b(i) = vol7d_var_miss ENDDO ENDIF IF (ASSOCIATED(this%dativar%d)) THEN DO i = 1, SIZE(this%dativar%d) IF (all(this%dativar%d(i)%btable /= vl)) this%dativar%d(i) = vol7d_var_miss ENDDO ENDIF IF (ASSOCIATED(this%dativar%c)) THEN DO i = 1, SIZE(this%dativar%c) IF (all(this%dativar%c(i)%btable /= vl)) this%dativar%c(i) = vol7d_var_miss ENDDO ENDIF IF (ASSOCIATED(this%dativar%c)) THEN DO i = 1, SIZE(this%dativar%c) IF (all(this%dativar%c(i)%btable /= vl)) this%dativar%c(i) = vol7d_var_miss ENDDO ENDIF ENDIF ENDIF IF (PRESENT(nl)) THEN IF (SIZE(nl) > 0) THEN DO i = 1, SIZE(this%network) IF (all(this%network(i) /= nl)) this%network(i) = vol7d_network_miss ENDDO ENDIF ENDIF IF (PRESENT(s_d)) THEN IF (c_e(s_d)) THEN WHERE (this%time < s_d) this%time = datetime_miss END WHERE ENDIF ENDIF IF (PRESENT(e_d)) THEN IF (c_e(e_d)) THEN WHERE (this%time > e_d) this%time = datetime_miss END WHERE ENDIF ENDIF CALL vol7d_reform(this, miss=.true.) END SUBROUTINE vol7d_filter !> Metodo per convertire i volumi di dati di un oggetto vol7d in dati !! reali dove possibile. L'oggetto convertito è una copia completa !! dell'originale che può essere quindi distrutto dopo la chiamata. !! Per i dati di anagrafica, al momento sono convertiti solo !! i dati CHARACTER se è passato \a anaconv=.TRUE. !! Gli attributi non sono toccati. SUBROUTINE vol7d_convr(this, that, anaconv) TYPE(vol7d),INTENT(IN) :: this !< oggetto origine TYPE(vol7d),INTENT(INOUT) :: that !< oggetto convertito LOGICAL,OPTIONAL,INTENT(in) :: anaconv !< converti anche anagrafica INTEGER :: i LOGICAL :: fv(1)=(/.false./), tv(1)=(/.true./), acp(1), acn(1) TYPE(vol7d) :: v7d_tmp IF (optio_log(anaconv)) THEN acp=fv acn=tv ELSE acp=tv acn=fv ENDIF ! Volume con solo i dati reali e tutti gli attributi ! l'anagrafica e` copiata interamente se necessario CALL vol7d_copy(this, that, & lanavarr=tv, lanavard=acp, lanavari=acp, lanavarb=acp, lanavarc=acp, & ldativarr=tv, ldativard=fv, ldativari=fv, ldativarb=fv, ldativarc=fv) ! Volume solo di dati double CALL vol7d_copy(this, v7d_tmp, & lanavarr=fv, lanavard=acn, lanavari=fv, lanavarb=fv, lanavarc=fv, & lanaattrr=fv, lanaattrd=fv, lanaattri=fv, lanaattrb=fv, lanaattrc=fv, & lanavarattrr=fv, lanavarattrd=fv, lanavarattri=fv, lanavarattrb=fv, lanavarattrc=fv, & ldativarr=fv, ldativard=tv, ldativari=fv, ldativarb=fv, ldativarc=fv, & ldatiattrr=fv, ldatiattrd=fv, ldatiattri=fv, ldatiattrb=fv, ldatiattrc=fv, & ldativarattrr=fv, ldativarattrd=fv, ldativarattri=fv, ldativarattrb=fv, ldativarattrc=fv) ! converto a dati reali IF (ASSOCIATED(v7d_tmp%anavar%d) .OR. ASSOCIATED(v7d_tmp%dativar%d)) THEN IF (ASSOCIATED(v7d_tmp%anavar%d)) THEN ! alloco i dati reali e vi trasferisco i double ALLOCATE(v7d_tmp%volanar(SIZE(v7d_tmp%volanad, 1), SIZE(v7d_tmp%volanad, 2), & SIZE(v7d_tmp%volanad, 3))) DO i = 1, SIZE(v7d_tmp%anavar%d) v7d_tmp%volanar(:,i,:) = & realdat(v7d_tmp%volanad(:,i,:), v7d_tmp%anavar%d(i)) ENDDO DEALLOCATE(v7d_tmp%volanad) ! trasferisco le variabili v7d_tmp%anavar%r => v7d_tmp%anavar%d NULLIFY(v7d_tmp%anavar%d) ENDIF IF (ASSOCIATED(v7d_tmp%dativar%d)) THEN ! alloco i dati reali e vi trasferisco i double ALLOCATE(v7d_tmp%voldatir(SIZE(v7d_tmp%voldatid, 1), SIZE(v7d_tmp%voldatid, 2), & SIZE(v7d_tmp%voldatid, 3), SIZE(v7d_tmp%voldatid, 4), SIZE(v7d_tmp%voldatid, 5), & SIZE(v7d_tmp%voldatid, 6))) DO i = 1, SIZE(v7d_tmp%dativar%d) v7d_tmp%voldatir(:,:,:,:,i,:) = & realdat(v7d_tmp%voldatid(:,:,:,:,i,:), v7d_tmp%dativar%d(i)) ENDDO DEALLOCATE(v7d_tmp%voldatid) ! trasferisco le variabili v7d_tmp%dativar%r => v7d_tmp%dativar%d NULLIFY(v7d_tmp%dativar%d) ENDIF ! fondo con il volume definitivo CALL vol7d_merge(that, v7d_tmp) ELSE CALL delete(v7d_tmp) ENDIF ! Volume solo di dati interi CALL vol7d_copy(this, v7d_tmp, & lanavarr=fv, lanavard=fv, lanavari=acn, lanavarb=fv, lanavarc=fv, & lanaattrr=fv, lanaattrd=fv, lanaattri=fv, lanaattrb=fv, lanaattrc=fv, & lanavarattrr=fv, lanavarattrd=fv, lanavarattri=fv, lanavarattrb=fv, lanavarattrc=fv, & ldativarr=fv, ldativard=fv, ldativari=tv, ldativarb=fv, ldativarc=fv, & ldatiattrr=fv, ldatiattrd=fv, ldatiattri=fv, ldatiattrb=fv, ldatiattrc=fv, & ldativarattrr=fv, ldativarattrd=fv, ldativarattri=fv, ldativarattrb=fv, ldativarattrc=fv) ! converto a dati reali IF (ASSOCIATED(v7d_tmp%anavar%i) .OR. ASSOCIATED(v7d_tmp%dativar%i)) THEN IF (ASSOCIATED(v7d_tmp%anavar%i)) THEN ! alloco i dati reali e vi trasferisco gli interi ALLOCATE(v7d_tmp%volanar(SIZE(v7d_tmp%volanai, 1), SIZE(v7d_tmp%volanai, 2), & SIZE(v7d_tmp%volanai, 3))) DO i = 1, SIZE(v7d_tmp%anavar%i) v7d_tmp%volanar(:,i,:) = & realdat(v7d_tmp%volanai(:,i,:), v7d_tmp%anavar%i(i)) ENDDO DEALLOCATE(v7d_tmp%volanai) ! trasferisco le variabili v7d_tmp%anavar%r => v7d_tmp%anavar%i NULLIFY(v7d_tmp%anavar%i) ENDIF IF (ASSOCIATED(v7d_tmp%dativar%i)) THEN ! alloco i dati reali e vi trasferisco gli interi ALLOCATE(v7d_tmp%voldatir(SIZE(v7d_tmp%voldatii, 1), SIZE(v7d_tmp%voldatii, 2), & SIZE(v7d_tmp%voldatii, 3), SIZE(v7d_tmp%voldatii, 4), SIZE(v7d_tmp%voldatii, 5), & SIZE(v7d_tmp%voldatii, 6))) DO i = 1, SIZE(v7d_tmp%dativar%i) v7d_tmp%voldatir(:,:,:,:,i,:) = & realdat(v7d_tmp%voldatii(:,:,:,:,i,:), v7d_tmp%dativar%i(i)) ENDDO DEALLOCATE(v7d_tmp%voldatii) ! trasferisco le variabili v7d_tmp%dativar%r => v7d_tmp%dativar%i NULLIFY(v7d_tmp%dativar%i) ENDIF ! fondo con il volume definitivo CALL vol7d_merge(that, v7d_tmp) ELSE CALL delete(v7d_tmp) ENDIF ! Volume solo di dati byte CALL vol7d_copy(this, v7d_tmp, & lanavarr=fv, lanavard=fv, lanavari=fv, lanavarb=acn, lanavarc=fv, & lanaattrr=fv, lanaattrd=fv, lanaattri=fv, lanaattrb=fv, lanaattrc=fv, & lanavarattrr=fv, lanavarattrd=fv, lanavarattri=fv, lanavarattrb=fv, lanavarattrc=fv, & ldativarr=fv, ldativard=fv, ldativari=fv, ldativarb=tv, ldativarc=fv, & ldatiattrr=fv, ldatiattrd=fv, ldatiattri=fv, ldatiattrb=fv, ldatiattrc=fv, & ldativarattrr=fv, ldativarattrd=fv, ldativarattri=fv, ldativarattrb=fv, ldativarattrc=fv) ! converto a dati reali IF (ASSOCIATED(v7d_tmp%anavar%b) .OR. ASSOCIATED(v7d_tmp%dativar%b)) THEN IF (ASSOCIATED(v7d_tmp%anavar%b)) THEN ! alloco i dati reali e vi trasferisco i byte ALLOCATE(v7d_tmp%volanar(SIZE(v7d_tmp%volanab, 1), SIZE(v7d_tmp%volanab, 2), & SIZE(v7d_tmp%volanab, 3))) DO i = 1, SIZE(v7d_tmp%anavar%b) v7d_tmp%volanar(:,i,:) = & realdat(v7d_tmp%volanab(:,i,:), v7d_tmp%anavar%b(i)) ENDDO DEALLOCATE(v7d_tmp%volanab) ! trasferisco le variabili v7d_tmp%anavar%r => v7d_tmp%anavar%b NULLIFY(v7d_tmp%anavar%b) ENDIF IF (ASSOCIATED(v7d_tmp%dativar%b)) THEN ! alloco i dati reali e vi trasferisco i byte ALLOCATE(v7d_tmp%voldatir(SIZE(v7d_tmp%voldatib, 1), SIZE(v7d_tmp%voldatib, 2), & SIZE(v7d_tmp%voldatib, 3), SIZE(v7d_tmp%voldatib, 4), SIZE(v7d_tmp%voldatib, 5), & SIZE(v7d_tmp%voldatib, 6))) DO i = 1, SIZE(v7d_tmp%dativar%b) v7d_tmp%voldatir(:,:,:,:,i,:) = & realdat(v7d_tmp%voldatib(:,:,:,:,i,:), v7d_tmp%dativar%b(i)) ENDDO DEALLOCATE(v7d_tmp%voldatib) ! trasferisco le variabili v7d_tmp%dativar%r => v7d_tmp%dativar%b NULLIFY(v7d_tmp%dativar%b) ENDIF ! fondo con il volume definitivo CALL vol7d_merge(that, v7d_tmp) ELSE CALL delete(v7d_tmp) ENDIF ! Volume solo di dati character CALL vol7d_copy(this, v7d_tmp, & lanavarr=fv, lanavard=fv, lanavari=fv, lanavarb=fv, lanavarc=acn, & lanaattrr=fv, lanaattrd=fv, lanaattri=fv, lanaattrb=fv, lanaattrc=fv, & lanavarattrr=fv, lanavarattrd=fv, lanavarattri=fv, lanavarattrb=fv, lanavarattrc=fv, & ldativarr=fv, ldativard=fv, ldativari=fv, ldativarb=fv, ldativarc=tv, & ldatiattrr=fv, ldatiattrd=fv, ldatiattri=fv, ldatiattrb=fv, ldatiattrc=fv, & ldativarattrr=fv, ldativarattrd=fv, ldativarattri=fv, ldativarattrb=fv, ldativarattrc=fv) ! converto a dati reali IF (ASSOCIATED(v7d_tmp%anavar%c) .OR. ASSOCIATED(v7d_tmp%dativar%c)) THEN IF (ASSOCIATED(v7d_tmp%anavar%c)) THEN ! alloco i dati reali e vi trasferisco i character ALLOCATE(v7d_tmp%volanar(SIZE(v7d_tmp%volanac, 1), SIZE(v7d_tmp%volanac, 2), & SIZE(v7d_tmp%volanac, 3))) DO i = 1, SIZE(v7d_tmp%anavar%c) v7d_tmp%volanar(:,i,:) = & realdat(v7d_tmp%volanac(:,i,:), v7d_tmp%anavar%c(i)) ENDDO DEALLOCATE(v7d_tmp%volanac) ! trasferisco le variabili v7d_tmp%anavar%r => v7d_tmp%anavar%c NULLIFY(v7d_tmp%anavar%c) ENDIF IF (ASSOCIATED(v7d_tmp%dativar%c)) THEN ! alloco i dati reali e vi trasferisco i character ALLOCATE(v7d_tmp%voldatir(SIZE(v7d_tmp%voldatic, 1), SIZE(v7d_tmp%voldatic, 2), & SIZE(v7d_tmp%voldatic, 3), SIZE(v7d_tmp%voldatic, 4), SIZE(v7d_tmp%voldatic, 5), & SIZE(v7d_tmp%voldatic, 6))) DO i = 1, SIZE(v7d_tmp%dativar%c) v7d_tmp%voldatir(:,:,:,:,i,:) = & realdat(v7d_tmp%voldatic(:,:,:,:,i,:), v7d_tmp%dativar%c(i)) ENDDO DEALLOCATE(v7d_tmp%voldatic) ! trasferisco le variabili v7d_tmp%dativar%r => v7d_tmp%dativar%c NULLIFY(v7d_tmp%dativar%c) ENDIF ! fondo con il volume definitivo CALL vol7d_merge(that, v7d_tmp) ELSE CALL delete(v7d_tmp) ENDIF END SUBROUTINE vol7d_convr !> Metodo per ottenere solo le differenze tra due oggetti vol7d. !! Il primo volume viene confrontato col secondo; nel secondo volume ovunque !! i dati confrontati siano coincidenti viene impostato valore mancante. SUBROUTINE vol7d_diff_only (this, that, data_only,ana) TYPE(vol7d),INTENT(IN) :: this !< primo volume da confrontare TYPE(vol7d),INTENT(OUT) :: that !< secondo volume da confrontare in cui eliminare i dati coincidenti logical , optional, intent(in) :: data_only !< attiva l'elaborazione dei soli dati e non dell'anagrafica (default: .false.) logical , optional, intent(in) :: ana !< attiva l'elaborazione dell'anagrafica (coordinate e ident) (default: .false.) logical :: ldata_only,lana IF (PRESENT(data_only)) THEN ldata_only = data_only ELSE ldata_only = .false. ENDIF IF (PRESENT(ana)) THEN lana = ana ELSE lana = .false. ENDIF #undef VOL7D_POLY_ARRAY #define VOL7D_POLY_ARRAY voldati #include "vol7d_class_diff.F90" #undef VOL7D_POLY_ARRAY #define VOL7D_POLY_ARRAY voldatiattr #include "vol7d_class_diff.F90" #undef VOL7D_POLY_ARRAY if ( .not. ldata_only) then #define VOL7D_POLY_ARRAY volana #include "vol7d_class_diff.F90" #undef VOL7D_POLY_ARRAY #define VOL7D_POLY_ARRAY volanaattr #include "vol7d_class_diff.F90" #undef VOL7D_POLY_ARRAY if(lana)then where ( this%ana == that%ana ) that%ana = vol7d_ana_miss end where end if end if END SUBROUTINE vol7d_diff_only ! Creo le routine da ripetere per i vari tipi di dati di v7d ! tramite un template e il preprocessore #undef VOL7D_POLY_TYPE #undef VOL7D_POLY_TYPES #define VOL7D_POLY_TYPE REAL #define VOL7D_POLY_TYPES r #include "vol7d_class_type_templ.F90" #undef VOL7D_POLY_TYPE #undef VOL7D_POLY_TYPES #define VOL7D_POLY_TYPE DOUBLE PRECISION #define VOL7D_POLY_TYPES d #include "vol7d_class_type_templ.F90" #undef VOL7D_POLY_TYPE #undef VOL7D_POLY_TYPES #define VOL7D_POLY_TYPE INTEGER #define VOL7D_POLY_TYPES i #include "vol7d_class_type_templ.F90" #undef VOL7D_POLY_TYPE #undef VOL7D_POLY_TYPES #define VOL7D_POLY_TYPE INTEGER(kind=int_b) #define VOL7D_POLY_TYPES b #include "vol7d_class_type_templ.F90" #undef VOL7D_POLY_TYPE #undef VOL7D_POLY_TYPES #define VOL7D_POLY_TYPE CHARACTER(len=vol7d_cdatalen) #define VOL7D_POLY_TYPES c #include "vol7d_class_type_templ.F90" ! Creo le routine da ripetere per i vari descrittori di dimensioni di v7d ! tramite un template e il preprocessore #define VOL7D_SORT #undef VOL7D_NO_ZERO_ALLOC #undef VOL7D_POLY_TYPE #define VOL7D_POLY_TYPE datetime #include "vol7d_class_desc_templ.F90" #undef VOL7D_POLY_TYPE #define VOL7D_POLY_TYPE vol7d_timerange #include "vol7d_class_desc_templ.F90" #undef VOL7D_POLY_TYPE #define VOL7D_POLY_TYPE vol7d_level #include "vol7d_class_desc_templ.F90" #undef VOL7D_SORT #undef VOL7D_POLY_TYPE #define VOL7D_POLY_TYPE vol7d_network #include "vol7d_class_desc_templ.F90" #undef VOL7D_POLY_TYPE #define VOL7D_POLY_TYPE vol7d_ana #include "vol7d_class_desc_templ.F90" #define VOL7D_NO_ZERO_ALLOC #undef VOL7D_POLY_TYPE #define VOL7D_POLY_TYPE vol7d_var #include "vol7d_class_desc_templ.F90" !>\brief Scrittura su file di un volume Vol7d. !! Scrittura su file unformatted di un intero volume Vol7d. !! Il volume viene serializzato e scritto su file. !! Il file puo' essere aperto opzionalmente dall'utente. Si possono passare !! opzionalmente unità e nome del file altrimenti assegnati internamente a dei default; se assegnati internamente !! tali parametri saranno in output. !! Se non viene fornito il nome file viene utilizzato un file di default con nome pari al nome del programma in !! esecuzione con postfisso ".v7d". !! Come parametro opzionale c'è la description che insieme alla data corrente viene inserita nell'header del file. subroutine vol7d_write_on_file (this,unit,description,filename,filename_auto) TYPE(vol7d),INTENT(IN) :: this !< volume vol7d da scrivere integer,optional,intent(inout) :: unit !< unità su cui scrivere; se passata =0 ritorna il valore rielaborato (default =rielaborato internamente con getlun ) character(len=*),intent(in),optional :: filename !< nome del file su cui scrivere character(len=*),intent(out),optional :: filename_auto !< nome del file generato se "filename" è omesso character(len=*),INTENT(IN),optional :: description !< descrizione del volume integer :: lunit character(len=254) :: ldescription,arg,lfilename integer :: nana, ntime, ntimerange, nlevel, nnetwork, & ndativarr, ndativari, ndativarb, ndativard, ndativarc,& ndatiattrr, ndatiattri, ndatiattrb, ndatiattrd, ndatiattrc,& ndativarattrr, ndativarattri, ndativarattrb, ndativarattrd, ndativarattrc,& nanavarr, nanavari, nanavarb, nanavard, nanavarc,& nanaattrr, nanaattri, nanaattrb, nanaattrd, nanaattrc,& nanavarattrr, nanavarattri, nanavarattrb, nanavarattrd, nanavarattrc !integer :: im,id,iy integer :: tarray(8) logical :: opened,exist nana=0 ntime=0 ntimerange=0 nlevel=0 nnetwork=0 ndativarr=0 ndativari=0 ndativarb=0 ndativard=0 ndativarc=0 ndatiattrr=0 ndatiattri=0 ndatiattrb=0 ndatiattrd=0 ndatiattrc=0 ndativarattrr=0 ndativarattri=0 ndativarattrb=0 ndativarattrd=0 ndativarattrc=0 nanavarr=0 nanavari=0 nanavarb=0 nanavard=0 nanavarc=0 nanaattrr=0 nanaattri=0 nanaattrb=0 nanaattrd=0 nanaattrc=0 nanavarattrr=0 nanavarattri=0 nanavarattrb=0 nanavarattrd=0 nanavarattrc=0 !call idate(im,id,iy) call date_and_time(values=tarray) call getarg(0,arg) if (present(description))then ldescription=description else ldescription="Vol7d generated by: "//trim(arg) end if if (.not. present(unit))then lunit=getunit() else if (unit==0)then lunit=getunit() unit=lunit else lunit=unit end if end if lfilename=trim(arg)//".v7d" if (index(arg,'/',back=.true.) > 0) lfilename=lfilename(index(arg,'/',back=.true.)+1 : ) if (present(filename))then if (filename /= "")then lfilename=filename end if end if if (present(filename_auto))filename_auto=lfilename inquire(unit=lunit,opened=opened) if (.not. opened) then ! inquire(file=lfilename, EXIST=exist) ! IF (exist) THEN ! CALL l4f_log(L4F_FATAL, & ! 'in vol7d_write_on_file, file exists, cannot open file '//TRIM(lfilename)) ! CALL raise_fatal_error() ! ENDIF OPEN(unit=lunit, file=lfilename, form='UNFORMATTED', access='STREAM') CALL l4f_log(l4f_info, 'opened: '//trim(lfilename)) end if if (associated(this%ana)) nana=size(this%ana) if (associated(this%time)) ntime=size(this%time) if (associated(this%timerange)) ntimerange=size(this%timerange) if (associated(this%level)) nlevel=size(this%level) if (associated(this%network)) nnetwork=size(this%network) if (associated(this%dativar%r)) ndativarr=size(this%dativar%r) if (associated(this%dativar%i)) ndativari=size(this%dativar%i) if (associated(this%dativar%b)) ndativarb=size(this%dativar%b) if (associated(this%dativar%d)) ndativard=size(this%dativar%d) if (associated(this%dativar%c)) ndativarc=size(this%dativar%c) if (associated(this%datiattr%r)) ndatiattrr=size(this%datiattr%r) if (associated(this%datiattr%i)) ndatiattri=size(this%datiattr%i) if (associated(this%datiattr%b)) ndatiattrb=size(this%datiattr%b) if (associated(this%datiattr%d)) ndatiattrd=size(this%datiattr%d) if (associated(this%datiattr%c)) ndatiattrc=size(this%datiattr%c) if (associated(this%dativarattr%r)) ndativarattrr=size(this%dativarattr%r) if (associated(this%dativarattr%i)) ndativarattri=size(this%dativarattr%i) if (associated(this%dativarattr%b)) ndativarattrb=size(this%dativarattr%b) if (associated(this%dativarattr%d)) ndativarattrd=size(this%dativarattr%d) if (associated(this%dativarattr%c)) ndativarattrc=size(this%dativarattr%c) if (associated(this%anavar%r)) nanavarr=size(this%anavar%r) if (associated(this%anavar%i)) nanavari=size(this%anavar%i) if (associated(this%anavar%b)) nanavarb=size(this%anavar%b) if (associated(this%anavar%d)) nanavard=size(this%anavar%d) if (associated(this%anavar%c)) nanavarc=size(this%anavar%c) if (associated(this%anaattr%r)) nanaattrr=size(this%anaattr%r) if (associated(this%anaattr%i)) nanaattri=size(this%anaattr%i) if (associated(this%anaattr%b)) nanaattrb=size(this%anaattr%b) if (associated(this%anaattr%d)) nanaattrd=size(this%anaattr%d) if (associated(this%anaattr%c)) nanaattrc=size(this%anaattr%c) if (associated(this%anavarattr%r)) nanavarattrr=size(this%anavarattr%r) if (associated(this%anavarattr%i)) nanavarattri=size(this%anavarattr%i) if (associated(this%anavarattr%b)) nanavarattrb=size(this%anavarattr%b) if (associated(this%anavarattr%d)) nanavarattrd=size(this%anavarattr%d) if (associated(this%anavarattr%c)) nanavarattrc=size(this%anavarattr%c) write(unit=lunit)ldescription write(unit=lunit)tarray write(unit=lunit)& nana, ntime, ntimerange, nlevel, nnetwork, & ndativarr, ndativari, ndativarb, ndativard, ndativarc,& ndatiattrr, ndatiattri, ndatiattrb, ndatiattrd, ndatiattrc,& ndativarattrr, ndativarattri, ndativarattrb, ndativarattrd, ndativarattrc,& nanavarr, nanavari, nanavarb, nanavard, nanavarc,& nanaattrr, nanaattri, nanaattrb, nanaattrd, nanaattrc,& nanavarattrr, nanavarattri, nanavarattrb, nanavarattrd, nanavarattrc, & this%time_definition !write(unit=lunit)this !! prime 5 dimensioni if (associated(this%ana)) call write_unit(this%ana, lunit) if (associated(this%time)) call write_unit(this%time, lunit) if (associated(this%level)) write(unit=lunit)this%level if (associated(this%timerange)) write(unit=lunit)this%timerange if (associated(this%network)) write(unit=lunit)this%network !! 6a dimensione: variabile dell'anagrafica e dei dati !! con relativi attributi e in 5 tipi diversi if (associated(this%anavar%r)) write(unit=lunit)this%anavar%r if (associated(this%anavar%i)) write(unit=lunit)this%anavar%i if (associated(this%anavar%b)) write(unit=lunit)this%anavar%b if (associated(this%anavar%d)) write(unit=lunit)this%anavar%d if (associated(this%anavar%c)) write(unit=lunit)this%anavar%c if (associated(this%anaattr%r)) write(unit=lunit)this%anaattr%r if (associated(this%anaattr%i)) write(unit=lunit)this%anaattr%i if (associated(this%anaattr%b)) write(unit=lunit)this%anaattr%b if (associated(this%anaattr%d)) write(unit=lunit)this%anaattr%d if (associated(this%anaattr%c)) write(unit=lunit)this%anaattr%c if (associated(this%anavarattr%r)) write(unit=lunit)this%anavarattr%r if (associated(this%anavarattr%i)) write(unit=lunit)this%anavarattr%i if (associated(this%anavarattr%b)) write(unit=lunit)this%anavarattr%b if (associated(this%anavarattr%d)) write(unit=lunit)this%anavarattr%d if (associated(this%anavarattr%c)) write(unit=lunit)this%anavarattr%c if (associated(this%dativar%r)) write(unit=lunit)this%dativar%r if (associated(this%dativar%i)) write(unit=lunit)this%dativar%i if (associated(this%dativar%b)) write(unit=lunit)this%dativar%b if (associated(this%dativar%d)) write(unit=lunit)this%dativar%d if (associated(this%dativar%c)) write(unit=lunit)this%dativar%c if (associated(this%datiattr%r)) write(unit=lunit)this%datiattr%r if (associated(this%datiattr%i)) write(unit=lunit)this%datiattr%i if (associated(this%datiattr%b)) write(unit=lunit)this%datiattr%b if (associated(this%datiattr%d)) write(unit=lunit)this%datiattr%d if (associated(this%datiattr%c)) write(unit=lunit)this%datiattr%c if (associated(this%dativarattr%r)) write(unit=lunit)this%dativarattr%r if (associated(this%dativarattr%i)) write(unit=lunit)this%dativarattr%i if (associated(this%dativarattr%b)) write(unit=lunit)this%dativarattr%b if (associated(this%dativarattr%d)) write(unit=lunit)this%dativarattr%d if (associated(this%dativarattr%c)) write(unit=lunit)this%dativarattr%c !! Volumi di valori e attributi per anagrafica e dati if (associated(this%volanar)) write(unit=lunit)this%volanar if (associated(this%volanaattrr)) write(unit=lunit)this%volanaattrr if (associated(this%voldatir)) write(unit=lunit)this%voldatir if (associated(this%voldatiattrr)) write(unit=lunit)this%voldatiattrr if (associated(this%volanai)) write(unit=lunit)this%volanai if (associated(this%volanaattri)) write(unit=lunit)this%volanaattri if (associated(this%voldatii)) write(unit=lunit)this%voldatii if (associated(this%voldatiattri)) write(unit=lunit)this%voldatiattri if (associated(this%volanab)) write(unit=lunit)this%volanab if (associated(this%volanaattrb)) write(unit=lunit)this%volanaattrb if (associated(this%voldatib)) write(unit=lunit)this%voldatib if (associated(this%voldatiattrb)) write(unit=lunit)this%voldatiattrb if (associated(this%volanad)) write(unit=lunit)this%volanad if (associated(this%volanaattrd)) write(unit=lunit)this%volanaattrd if (associated(this%voldatid)) write(unit=lunit)this%voldatid if (associated(this%voldatiattrd)) write(unit=lunit)this%voldatiattrd if (associated(this%volanac)) write(unit=lunit)this%volanac if (associated(this%volanaattrc)) write(unit=lunit)this%volanaattrc if (associated(this%voldatic)) write(unit=lunit)this%voldatic if (associated(this%voldatiattrc)) write(unit=lunit)this%voldatiattrc if (.not. present(unit)) close(unit=lunit) end subroutine vol7d_write_on_file !>\brief Lettura da file di un volume Vol7d. !! Lettura da file unformatted di un intero volume Vol7d. !! Questa subroutine comprende vol7d_alloc e vol7d_alloc_vol. !! Il file puo' essere aperto opzionalmente dall'utente. Si possono passare !! opzionalmente unità e nome del file altrimenti assegnati internamente a dei default; se assegnati internamente !! tali parametri saranno in output. subroutine vol7d_read_from_file (this,unit,filename,description,tarray,filename_auto) TYPE(vol7d),INTENT(OUT) :: this !< Volume vol7d da leggere integer,intent(inout),optional :: unit !< unità su cui è stato aperto un file; se =0 rielaborato internamente (default = elaborato internamente con getunit) character(len=*),INTENT(in),optional :: filename !< nome del file eventualmente da aprire (default = (nome dell'eseguibile)//.v7d ) character(len=*),intent(out),optional :: filename_auto !< nome del file generato se "filename" è omesso character(len=*),INTENT(out),optional :: description !< descrizione del volume letto integer,intent(out),optional :: tarray(8) !< vettore come definito da "date_and_time" della data di scrittura del volume integer :: nana, ntime, ntimerange, nlevel, nnetwork, & ndativarr, ndativari, ndativarb, ndativard, ndativarc,& ndatiattrr, ndatiattri, ndatiattrb, ndatiattrd, ndatiattrc,& ndativarattrr, ndativarattri, ndativarattrb, ndativarattrd, ndativarattrc,& nanavarr, nanavari, nanavarb, nanavard, nanavarc,& nanaattrr, nanaattri, nanaattrb, nanaattrd, nanaattrc,& nanavarattrr, nanavarattri, nanavarattrb, nanavarattrd, nanavarattrc character(len=254) :: ldescription,lfilename,arg integer :: ltarray(8),lunit,ios logical :: opened,exist call getarg(0,arg) if (.not. present(unit))then lunit=getunit() else if (unit==0)then lunit=getunit() unit=lunit else lunit=unit end if end if lfilename=trim(arg)//".v7d" if (index(arg,'/',back=.true.) > 0) lfilename=lfilename(index(arg,'/',back=.true.)+1 : ) if (present(filename))then if (filename /= "")then lfilename=filename end if end if if (present(filename_auto))filename_auto=lfilename inquire(unit=lunit,opened=opened) IF (.NOT. opened) THEN inquire(file=lfilename,exist=exist) IF (.NOT.exist) THEN CALL l4f_log(l4f_fatal, & 'in vol7d_read_from_file, file does not exists, cannot open') CALL raise_fatal_error() ENDIF OPEN(unit=lunit, file=lfilename, form='UNFORMATTED', access='STREAM', & status='OLD', action='READ') CALL l4f_log(l4f_info, 'opened: '//trim(lfilename)) end if call init(this) read(unit=lunit,iostat=ios)ldescription if (ios < 0) then ! A negative value indicates that the End of File or End of Record call vol7d_alloc (this) call vol7d_alloc_vol (this) if (present(description))description=ldescription if (present(tarray))tarray=ltarray if (.not. present(unit)) close(unit=lunit) end if read(unit=lunit)ltarray CALL l4f_log(l4f_info, 'Reading vol7d from file') CALL l4f_log(l4f_info, 'description: '//trim(ldescription)) CALL l4f_log(l4f_info, 'written on '//trim(to_char(ltarray(1)))//' '// & trim(to_char(ltarray(2)))//' '//trim(to_char(ltarray(3)))) if (present(description))description=ldescription if (present(tarray))tarray=ltarray read(unit=lunit)& nana, ntime, ntimerange, nlevel, nnetwork, & ndativarr, ndativari, ndativarb, ndativard, ndativarc,& ndatiattrr, ndatiattri, ndatiattrb, ndatiattrd, ndatiattrc,& ndativarattrr, ndativarattri, ndativarattrb, ndativarattrd, ndativarattrc,& nanavarr, nanavari, nanavarb, nanavard, nanavarc,& nanaattrr, nanaattri, nanaattrb, nanaattrd, nanaattrc,& nanavarattrr, nanavarattri, nanavarattrb, nanavarattrd, nanavarattrc, & this%time_definition call vol7d_alloc (this, & nana=nana, ntime=ntime, ntimerange=ntimerange, nlevel=nlevel, nnetwork=nnetwork,& ndativarr=ndativarr, ndativari=ndativari, ndativarb=ndativarb,& ndativard=ndativard, ndativarc=ndativarc,& ndatiattrr=ndatiattrr, ndatiattri=ndatiattri, ndatiattrb=ndatiattrb,& ndatiattrd=ndatiattrd, ndatiattrc=ndatiattrc,& ndativarattrr=ndativarattrr, ndativarattri=ndativarattri, ndativarattrb=ndativarattrb, & ndativarattrd=ndativarattrd, ndativarattrc=ndativarattrc,& nanavarr=nanavarr, nanavari=nanavari, nanavarb=nanavarb, & nanavard=nanavard, nanavarc=nanavarc,& nanaattrr=nanaattrr, nanaattri=nanaattri, nanaattrb=nanaattrb,& nanaattrd=nanaattrd, nanaattrc=nanaattrc,& nanavarattrr=nanavarattrr, nanavarattri=nanavarattri, nanavarattrb=nanavarattrb, & nanavarattrd=nanavarattrd, nanavarattrc=nanavarattrc) if (associated(this%ana)) call read_unit(this%ana, lunit) if (associated(this%time)) call read_unit(this%time, lunit) if (associated(this%level)) read(unit=lunit)this%level if (associated(this%timerange)) read(unit=lunit)this%timerange if (associated(this%network)) read(unit=lunit)this%network if (associated(this%anavar%r)) read(unit=lunit)this%anavar%r if (associated(this%anavar%i)) read(unit=lunit)this%anavar%i if (associated(this%anavar%b)) read(unit=lunit)this%anavar%b if (associated(this%anavar%d)) read(unit=lunit)this%anavar%d if (associated(this%anavar%c)) read(unit=lunit)this%anavar%c if (associated(this%anaattr%r)) read(unit=lunit)this%anaattr%r if (associated(this%anaattr%i)) read(unit=lunit)this%anaattr%i if (associated(this%anaattr%b)) read(unit=lunit)this%anaattr%b if (associated(this%anaattr%d)) read(unit=lunit)this%anaattr%d if (associated(this%anaattr%c)) read(unit=lunit)this%anaattr%c if (associated(this%anavarattr%r)) read(unit=lunit)this%anavarattr%r if (associated(this%anavarattr%i)) read(unit=lunit)this%anavarattr%i if (associated(this%anavarattr%b)) read(unit=lunit)this%anavarattr%b if (associated(this%anavarattr%d)) read(unit=lunit)this%anavarattr%d if (associated(this%anavarattr%c)) read(unit=lunit)this%anavarattr%c if (associated(this%dativar%r)) read(unit=lunit)this%dativar%r if (associated(this%dativar%i)) read(unit=lunit)this%dativar%i if (associated(this%dativar%b)) read(unit=lunit)this%dativar%b if (associated(this%dativar%d)) read(unit=lunit)this%dativar%d if (associated(this%dativar%c)) read(unit=lunit)this%dativar%c if (associated(this%datiattr%r)) read(unit=lunit)this%datiattr%r if (associated(this%datiattr%i)) read(unit=lunit)this%datiattr%i if (associated(this%datiattr%b)) read(unit=lunit)this%datiattr%b if (associated(this%datiattr%d)) read(unit=lunit)this%datiattr%d if (associated(this%datiattr%c)) read(unit=lunit)this%datiattr%c if (associated(this%dativarattr%r)) read(unit=lunit)this%dativarattr%r if (associated(this%dativarattr%i)) read(unit=lunit)this%dativarattr%i if (associated(this%dativarattr%b)) read(unit=lunit)this%dativarattr%b if (associated(this%dativarattr%d)) read(unit=lunit)this%dativarattr%d if (associated(this%dativarattr%c)) read(unit=lunit)this%dativarattr%c call vol7d_alloc_vol (this) !! Volumi di valori e attributi per anagrafica e dati if (associated(this%volanar)) read(unit=lunit)this%volanar if (associated(this%volanaattrr)) read(unit=lunit)this%volanaattrr if (associated(this%voldatir)) read(unit=lunit)this%voldatir if (associated(this%voldatiattrr)) read(unit=lunit)this%voldatiattrr if (associated(this%volanai)) read(unit=lunit)this%volanai if (associated(this%volanaattri)) read(unit=lunit)this%volanaattri if (associated(this%voldatii)) read(unit=lunit)this%voldatii if (associated(this%voldatiattri)) read(unit=lunit)this%voldatiattri if (associated(this%volanab)) read(unit=lunit)this%volanab if (associated(this%volanaattrb)) read(unit=lunit)this%volanaattrb if (associated(this%voldatib)) read(unit=lunit)this%voldatib if (associated(this%voldatiattrb)) read(unit=lunit)this%voldatiattrb if (associated(this%volanad)) read(unit=lunit)this%volanad if (associated(this%volanaattrd)) read(unit=lunit)this%volanaattrd if (associated(this%voldatid)) read(unit=lunit)this%voldatid if (associated(this%voldatiattrd)) read(unit=lunit)this%voldatiattrd if (associated(this%volanac)) read(unit=lunit)this%volanac if (associated(this%volanaattrc)) read(unit=lunit)this%volanaattrc if (associated(this%voldatic)) read(unit=lunit)this%voldatic if (associated(this%voldatiattrc)) read(unit=lunit)this%voldatiattrc if (.not. present(unit)) close(unit=lunit) end subroutine vol7d_read_from_file ! to double precision elemental doubleprecision function doubledatd(voldat,var) doubleprecision,intent(in) :: voldat type(vol7d_var),intent(in) :: var doubledatd=voldat end function doubledatd elemental doubleprecision function doubledatr(voldat,var) real,intent(in) :: voldat type(vol7d_var),intent(in) :: var if (c_e(voldat))then doubledatr=dble(voldat) else doubledatr=dmiss end if end function doubledatr elemental doubleprecision function doubledati(voldat,var) integer,intent(in) :: voldat type(vol7d_var),intent(in) :: var if (c_e(voldat)) then if (c_e(var%scalefactor))then doubledati=dble(voldat)/10.d0**var%scalefactor else doubledati=dble(voldat) endif else doubledati=dmiss end if end function doubledati elemental doubleprecision function doubledatb(voldat,var) integer(kind=int_b),intent(in) :: voldat type(vol7d_var),intent(in) :: var if (c_e(voldat)) then if (c_e(var%scalefactor))then doubledatb=dble(voldat)/10.d0**var%scalefactor else doubledatb=dble(voldat) endif else doubledatb=dmiss end if end function doubledatb elemental doubleprecision function doubledatc(voldat,var) CHARACTER(len=vol7d_cdatalen),intent(in) :: voldat type(vol7d_var),intent(in) :: var doubledatc = c2d(voldat) if (c_e(doubledatc) .and. c_e(var%scalefactor))then doubledatc=doubledatc/10.d0**var%scalefactor end if end function doubledatc ! to integer elemental integer function integerdatd(voldat,var) doubleprecision,intent(in) :: voldat type(vol7d_var),intent(in) :: var if (c_e(voldat))then if (c_e(var%scalefactor)) then integerdatd=nint(voldat*10d0**var%scalefactor) else integerdatd=nint(voldat) endif else integerdatd=imiss end if end function integerdatd elemental integer function integerdatr(voldat,var) real,intent(in) :: voldat type(vol7d_var),intent(in) :: var if (c_e(voldat))then if (c_e(var%scalefactor)) then integerdatr=nint(voldat*10d0**var%scalefactor) else integerdatr=nint(voldat) endif else integerdatr=imiss end if end function integerdatr elemental integer function integerdati(voldat,var) integer,intent(in) :: voldat type(vol7d_var),intent(in) :: var integerdati=voldat end function integerdati elemental integer function integerdatb(voldat,var) integer(kind=int_b),intent(in) :: voldat type(vol7d_var),intent(in) :: var if (c_e(voldat))then integerdatb=voldat else integerdatb=imiss end if end function integerdatb elemental integer function integerdatc(voldat,var) CHARACTER(len=vol7d_cdatalen),intent(in) :: voldat type(vol7d_var),intent(in) :: var integerdatc=c2i(voldat) end function integerdatc ! to real elemental real function realdatd(voldat,var) doubleprecision,intent(in) :: voldat type(vol7d_var),intent(in) :: var if (c_e(voldat))then realdatd=real(voldat) else realdatd=rmiss end if end function realdatd elemental real function realdatr(voldat,var) real,intent(in) :: voldat type(vol7d_var),intent(in) :: var realdatr=voldat end function realdatr elemental real function realdati(voldat,var) integer,intent(in) :: voldat type(vol7d_var),intent(in) :: var if (c_e(voldat)) then if (c_e(var%scalefactor))then realdati=float(voldat)/10.**var%scalefactor else realdati=float(voldat) endif else realdati=rmiss end if end function realdati elemental real function realdatb(voldat,var) integer(kind=int_b),intent(in) :: voldat type(vol7d_var),intent(in) :: var if (c_e(voldat)) then if (c_e(var%scalefactor))then realdatb=float(voldat)/10**var%scalefactor else realdatb=float(voldat) endif else realdatb=rmiss end if end function realdatb elemental real function realdatc(voldat,var) CHARACTER(len=vol7d_cdatalen),intent(in) :: voldat type(vol7d_var),intent(in) :: var realdatc=c2r(voldat) if (c_e(realdatc) .and. c_e(var%scalefactor))then realdatc=realdatc/10.**var%scalefactor end if end function realdatc !> Return an ana volume of a requested variable as real data. !! It returns a 2-d array of the proper shape (ana x network) for the !! ana variable requested, converted to real type. If the conversion !! fails or if the variable is not contained in the ana volume, !! missing data are returned. FUNCTION realanavol(this, var) RESULT(vol) TYPE(vol7d),INTENT(in) :: this !< the \a vol7d object to query, the method \a vol7d_alloc_vol must have been called for it otherwise progam may abort TYPE(vol7d_var),INTENT(in) :: var !< the ana variable to be returned REAL :: vol(SIZE(this%ana),size(this%network)) CHARACTER(len=1) :: dtype INTEGER :: indvar dtype = cmiss indvar = index(this%anavar, var, type=dtype) IF (indvar > 0) THEN SELECT CASE (dtype) CASE("d") vol = realdat(this%volanad(:,indvar,:), var) CASE("r") vol = this%volanar(:,indvar,:) CASE("i") vol = realdat(this%volanai(:,indvar,:), var) CASE("b") vol = realdat(this%volanab(:,indvar,:), var) CASE("c") vol = realdat(this%volanac(:,indvar,:), var) CASE default vol = rmiss END SELECT ELSE vol = rmiss ENDIF END FUNCTION realanavol !> Return an ana volume of a requested variable as integer data. !! It returns a 2-d array of the proper shape (ana x network) for the !! ana variable requested, converted to integer type. If the conversion !! fails or if the variable is not contained in the ana volume, !! missing data are returned. FUNCTION integeranavol(this, var) RESULT(vol) TYPE(vol7d),INTENT(in) :: this !< the \a vol7d object to query, the method \a vol7d_alloc_vol must have been called for it otherwise progam may abort TYPE(vol7d_var),INTENT(in) :: var !< the ana variable to be returned INTEGER :: vol(SIZE(this%ana),size(this%network)) CHARACTER(len=1) :: dtype INTEGER :: indvar dtype = cmiss indvar = index(this%anavar, var, type=dtype) IF (indvar > 0) THEN SELECT CASE (dtype) CASE("d") vol = integerdat(this%volanad(:,indvar,:), var) CASE("r") vol = integerdat(this%volanar(:,indvar,:), var) CASE("i") vol = this%volanai(:,indvar,:) CASE("b") vol = integerdat(this%volanab(:,indvar,:), var) CASE("c") vol = integerdat(this%volanac(:,indvar,:), var) CASE default vol = imiss END SELECT ELSE vol = imiss ENDIF END FUNCTION integeranavol !> Move data for all variables from one coordinate in the character volume to other. !! Only not missing data will be copyed and all attributes will be moved together. !! Usefull to colapse data spread in more indices (level or time or ....). !! After the move is possible to set to missing some descriptor and make a copy with miss=.true. !! to obtain a new vol7d with less data shape. subroutine move_datac (v7d,& indana,indtime,indlevel,indtimerange,indnetwork,& indananew,indtimenew,indlevelnew,indtimerangenew,indnetworknew) TYPE(vol7d),intent(inout) :: v7d !< data in form of character in this object will be moved integer,intent(in) :: indana,indtime,indlevel,indtimerange,indnetwork !< source coordinate of the data integer,intent(in) :: indananew,indtimenew,indlevelnew,indtimerangenew,indnetworknew !< destination coordinate of data integer :: inddativar,inddativarattr do inddativar=1,size(v7d%dativar%c) if (c_e(v7d%voldatic(indana,indtime,indlevel,indtimerange,inddativar,indnetwork)) .and. & .not. c_e(v7d%voldatic(indananew,indtimenew,indlevelnew,indtimerangenew,inddativar,indnetworknew))& ) then ! dati v7d%voldatic & (indananew,indtimenew,indlevelnew,indtimerangenew,inddativar,indnetworknew) = & v7d%voldatic & (indana,indtime,indlevel,indtimerange,inddativar,indnetwork) ! attributi if (associated (v7d%dativarattr%i)) then inddativarattr = index(v7d%dativarattr%i,v7d%dativar%c(inddativar)) if (inddativarattr > 0 ) then v7d%voldatiattri & (indananew,indtimenew,indlevelnew,indtimerangenew,inddativarattr,indnetworknew,:) = & v7d%voldatiattri & (indana,indtime,indlevel,indtimerange,inddativarattr,indnetwork,:) end if end if if (associated (v7d%dativarattr%r)) then inddativarattr = index(v7d%dativarattr%r,v7d%dativar%c(inddativar)) if (inddativarattr > 0 ) then v7d%voldatiattrr & (indananew,indtimenew,indlevelnew,indtimerangenew,inddativarattr,indnetworknew,:) = & v7d%voldatiattrr & (indana,indtime,indlevel,indtimerange,inddativarattr,indnetwork,:) end if end if if (associated (v7d%dativarattr%d)) then inddativarattr = index(v7d%dativarattr%d,v7d%dativar%c(inddativar)) if (inddativarattr > 0 ) then v7d%voldatiattrd & (indananew,indtimenew,indlevelnew,indtimerangenew,inddativarattr,indnetworknew,:) = & v7d%voldatiattrd & (indana,indtime,indlevel,indtimerange,inddativarattr,indnetwork,:) end if end if if (associated (v7d%dativarattr%b)) then inddativarattr = index(v7d%dativarattr%b,v7d%dativar%c(inddativar)) if (inddativarattr > 0 ) then v7d%voldatiattrb & (indananew,indtimenew,indlevelnew,indtimerangenew,inddativarattr,indnetworknew,:) = & v7d%voldatiattrb & (indana,indtime,indlevel,indtimerange,inddativarattr,indnetwork,:) end if end if if (associated (v7d%dativarattr%c)) then inddativarattr = index(v7d%dativarattr%c,v7d%dativar%c(inddativar)) if (inddativarattr > 0 ) then v7d%voldatiattrc & (indananew,indtimenew,indlevelnew,indtimerangenew,inddativarattr,indnetworknew,:) = & v7d%voldatiattrc & (indana,indtime,indlevel,indtimerange,inddativarattr,indnetwork,:) end if end if end if end do end subroutine move_datac !> Move data for all variables from one coordinate in the real volume to other. !! Only not missing data will be copyed and all attributes will be moved together. !! Usefull to colapse data spread in more indices (level or time or ....). !! After the move is possible to set to missing some descriptor and make a copy with miss=.true. !! to obtain a new vol7d with less data shape. subroutine move_datar (v7d,& indana,indtime,indlevel,indtimerange,indnetwork,& indananew,indtimenew,indlevelnew,indtimerangenew,indnetworknew) TYPE(vol7d),intent(inout) :: v7d !< data in form of character in this object will be moved integer,intent(in) :: indana,indtime,indlevel,indtimerange,indnetwork !< source coordinate of the data integer,intent(in) :: indananew,indtimenew,indlevelnew,indtimerangenew,indnetworknew !< destination coordinate of data integer :: inddativar,inddativarattr do inddativar=1,size(v7d%dativar%r) if (c_e(v7d%voldatir(indana,indtime,indlevel,indtimerange,inddativar,indnetwork)) .and. & .not. c_e(v7d%voldatir(indananew,indtimenew,indlevelnew,indtimerangenew,inddativar,indnetworknew))& ) then ! dati v7d%voldatir & (indananew,indtimenew,indlevelnew,indtimerangenew,inddativar,indnetworknew) = & v7d%voldatir & (indana,indtime,indlevel,indtimerange,inddativar,indnetwork) ! attributi if (associated (v7d%dativarattr%i)) then inddativarattr = index(v7d%dativarattr%i,v7d%dativar%r(inddativar)) if (inddativarattr > 0 ) then v7d%voldatiattri & (indananew,indtimenew,indlevelnew,indtimerangenew,inddativarattr,indnetworknew,:) = & v7d%voldatiattri & (indana,indtime,indlevel,indtimerange,inddativarattr,indnetwork,:) end if end if if (associated (v7d%dativarattr%r)) then inddativarattr = index(v7d%dativarattr%r,v7d%dativar%r(inddativar)) if (inddativarattr > 0 ) then v7d%voldatiattrr & (indananew,indtimenew,indlevelnew,indtimerangenew,inddativarattr,indnetworknew,:) = & v7d%voldatiattrr & (indana,indtime,indlevel,indtimerange,inddativarattr,indnetwork,:) end if end if if (associated (v7d%dativarattr%d)) then inddativarattr = index(v7d%dativarattr%d,v7d%dativar%r(inddativar)) if (inddativarattr > 0 ) then v7d%voldatiattrd & (indananew,indtimenew,indlevelnew,indtimerangenew,inddativarattr,indnetworknew,:) = & v7d%voldatiattrd & (indana,indtime,indlevel,indtimerange,inddativarattr,indnetwork,:) end if end if if (associated (v7d%dativarattr%b)) then inddativarattr = index(v7d%dativarattr%b,v7d%dativar%r(inddativar)) if (inddativarattr > 0 ) then v7d%voldatiattrb & (indananew,indtimenew,indlevelnew,indtimerangenew,inddativarattr,indnetworknew,:) = & v7d%voldatiattrb & (indana,indtime,indlevel,indtimerange,inddativarattr,indnetwork,:) end if end if if (associated (v7d%dativarattr%c)) then inddativarattr = index(v7d%dativarattr%c,v7d%dativar%r(inddativar)) if (inddativarattr > 0 ) then v7d%voldatiattrc & (indananew,indtimenew,indlevelnew,indtimerangenew,inddativarattr,indnetworknew,:) = & v7d%voldatiattrc & (indana,indtime,indlevel,indtimerange,inddativarattr,indnetwork,:) end if end if end if end do end subroutine move_datar !> Reduce some dimensions (level and timerage) for semplification (rounding). !! You can use this for simplify and use variables in computation like alchimia !! where fields have to be on the same coordinate !! It return real or character data only: if input is charcter data only it return character otherwise il return !! all the data converted to real. !! examples: !! means in time for short periods and istantaneous values !! 2 meter and surface levels !! If there are data on more then one almost equal levels or timeranges, the first var present (at least one point) !! will be taken (order is by icreasing var index). !! You can use predefined values for classic semplification !! almost_equal_levels and almost_equal_timeranges !! The level or timerange in output will be defined by the first element of level and timerange list subroutine v7d_rounding(v7din,v7dout,level,timerange,nostatproc) type(vol7d),intent(inout) :: v7din !< input volume type(vol7d),intent(out) :: v7dout !> output volume type(vol7d_level),intent(in),optional :: level(:) !< almost equal level list type(vol7d_timerange),intent(in),optional :: timerange(:) !< almost equal timerange list !logical,intent(in),optional :: merge !< if there are data on more then one almost equal levels or timeranges !! will be merged POINT BY POINT with priority for the fird data found ordered by icreasing var index logical,intent(in),optional :: nostatproc !< do not take in account statistical processing code in timerange and P2 integer :: nana,nlevel,ntime,ntimerange,nnetwork,nbin integer :: iana,ilevel,itimerange,indl,indt,itime,inetwork type(vol7d_level) :: roundlevel(size(v7din%level)) type(vol7d_timerange) :: roundtimerange(size(v7din%timerange)) type(vol7d) :: v7d_tmp nbin=0 if (associated(v7din%dativar%r)) nbin = nbin + size(v7din%dativar%r) if (associated(v7din%dativar%i)) nbin = nbin + size(v7din%dativar%i) if (associated(v7din%dativar%d)) nbin = nbin + size(v7din%dativar%d) if (associated(v7din%dativar%b)) nbin = nbin + size(v7din%dativar%b) call init(v7d_tmp) roundlevel=v7din%level if (present(level))then do ilevel = 1, size(v7din%level) if ((any(v7din%level(ilevel) .almosteq. level))) then roundlevel(ilevel)=level(1) end if end do end if roundtimerange=v7din%timerange if (present(timerange))then do itimerange = 1, size(v7din%timerange) if ((any(v7din%timerange(itimerange) .almosteq. timerange))) then roundtimerange(itimerange)=timerange(1) end if end do end if !set istantaneous values everywere !preserve p1 for forecast time if (optio_log(nostatproc)) then roundtimerange(:)%timerange=254 roundtimerange(:)%p2=0 end if nana=size(v7din%ana) nlevel=count_distinct(roundlevel,back=.true.) ntime=size(v7din%time) ntimerange=count_distinct(roundtimerange,back=.true.) nnetwork=size(v7din%network) call init(v7d_tmp) if (nbin == 0) then call copy(v7din,v7d_tmp) else call vol7d_convr(v7din,v7d_tmp) end if v7d_tmp%level=roundlevel v7d_tmp%timerange=roundtimerange do ilevel=1, size(v7d_tmp%level) indl=index(v7d_tmp%level,roundlevel(ilevel)) do itimerange=1,size(v7d_tmp%timerange) indt=index(v7d_tmp%timerange,roundtimerange(itimerange)) if (indl /= ilevel .or. indt /= itimerange) then do iana=1, nana do itime=1,ntime do inetwork=1,nnetwork if (nbin > 0) then call move_datar (v7d_tmp,& iana,itime,ilevel,itimerange,inetwork,& iana,itime,indl,indt,inetwork) else call move_datac (v7d_tmp,& iana,itime,ilevel,itimerange,inetwork,& iana,itime,indl,indt,inetwork) end if end do end do end do end if end do end do ! set to missing level and time > nlevel do ilevel=nlevel+1,size(v7d_tmp%level) call init (v7d_tmp%level(ilevel)) end do do itimerange=ntimerange+1,size(v7d_tmp%timerange) call init (v7d_tmp%timerange(itimerange)) end do !copy with remove CALL copy(v7d_tmp,v7dout,miss=.true.,lsort_timerange=.true.,lsort_level=.true.) CALL delete(v7d_tmp) !call display(v7dout) end subroutine v7d_rounding END MODULE vol7d_class !>\example esempio_qc_convert.f90 !!\brief Programma esempio semplice per la scrittura su file di un volume vol7d !! !!Programma che scrive su file un volume vol7d letto da una serie di file ASCII. !!Questo programma scrive i dati del clima che poi verranno letti da modqccli !>\example esempio_v7ddballe_move_and_collapse.f90 !!\brief ! Example program to reduce to one the dimensions of levels and time without loss of data