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CSP_IPDMND_OUT.for
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C= CSP_IPDMND_OUT =======================================================
C
C CSP_IPDMND_OUT, Subroutine, O.H. Daza
C-----------------------------------------------------------------------
C Writes variables read from crop or species specific data file.
! Follows the same structure as IPDMND_SC for output.
C
C-----------------------------------------------------------------------
! 11/14/2001 O.H. Daza wrote for the sugarcane model
C 07/26/2004 CHP Removed variables which were not being used
C-----------------------------------------------------------------------
! Called: IPDMND_SC.FOR
C=======================================================================
SUBROUTINE CSP_IPDMND_OUT(
& ECONO, FILECC, FILEIO, !Input
& FINREF, FRLFF, FRLFMX, FRSTMF, NMOBMX, NVSMOB, PROLFF, !Input
& PROLFI, PRORTF, PRORTI, PROSTF, PROSTI, PROSUF, PROSUI, !Input
& RCH2O, RLIG, RLIP, RMIN, RNO3C, RPRO, ROA, SLAMAX, !Input
& SLAMIN, SLAPAR, SLAREF, SLAVAR, SIZELF, SIZREF, TURSLA, !Input
& VSSINK, XLEAF, XSLATM, XVGROW, YLEAF, YSLATM, YSTEM, !Input
& YVREF, XFRRT, YFRRT, XFRSU, YFRSU, GAMMA) !Input
! & ECONO, FILECC, FILEGC, FILEIO, !Input
!-----------------------------------------------------------------------
IMPLICIT NONE
!-----------------------------------------------------------------------
! CHARACTER*3 TYPSDT
CHARACTER*6 ERRKEY
PARAMETER (ERRKEY = 'DEMAND')
CHARACTER*6 SECTION
CHARACTER*6 ECONO ! , ECOTYP
CHARACTER*30 FILEIO
! CHARACTER*80 C80
CHARACTER*92 FILECC ! , FILEGC
! CHARACTER*255 C255
! INTEGER LUNCRP, LUNIO, LUNECO, ERR, LNUM, FOUND, ISECT
C PARAMETER (LUNIO = 21)
INTEGER II, WLUN
REAL FINREF, FRLFF, FRLFMX, FRSTMF, NMOBMX, NVSMOB,
& PROLFF, PROLFI, PRORTF, PRORTI, PROSTF, PROSTI, PROSUI, PROSUF,
& RCH2O, RLIG, RLIP, RMIN, RNO3C, RPRO, ROA,
& SIZELF, SIZREF, SLAMAX, SLAMIN, SLAPAR, SLAREF, SLAVAR, !SLOSUM,
& TURSLA, VSSINK
REAL XVGROW(6), YVREF(6)
REAL XSLATM(10), YSLATM(10)
REAL XLEAF(25), YLEAF(25), YSTEM(25)
! New
INTEGER OpenStatus
REAL GAMMA, XFRRT(4), YFRRT(4), XFRSU(4), YFRSU(4)
! Open file to write results from CSP_IPDMND
CALL GETLUN('WORK.OUT',WLUN)
OPEN(UNIT = WLUN, FILE = "WORK.OUT", STATUS = "UNKNOWN",
& ACTION = "WRITE", POSITION = "APPEND", IOSTAT = OpenStatus)
WRITE(WLUN,'(1X, "")') !chp for portability
WRITE(WLUN,'(1X, "")')
WRITE(WLUN,'(1X,"RESULTS FROM IPDMND_SC.FOR")')
WRITE(WLUN,'(1X,"--------------------------")')
WRITE(WLUN,'(1X, "")')
!-----------------------------------------------------------------------
! OPEN (LUNIO, FILE = FILEIO, STATUS = 'UNKNOWN', IOSTAT=ERR)
! IF (ERR .NE. 0) CALL ERROR(ERRKEY,ERR,FILEIO,0)
!-----------------------------------------------------------------------
C Find and Read Field Section from FILEIO - previously read in IPIBS
! Look for the second section header beginning with '*CULTI'
C-----------------------------------------------------------------------
! LNUM = 1
SECTION = '*CULTI'
! CALL FIND(LUNIO, SECTION, LNUM, FOUND)
! IF (FOUND .EQ. 0) THEN
! CALL ERROR(ERRKEY, 1, FILEIO, LNUM)
! ENDIF
! CALL FIND(LUNIO, SECTION, LNUM, FOUND)
! IF (FOUND .EQ. 0) THEN
! CALL ERROR(ERRKEY, 1, FILEIO, LNUM)
! ELSE
! READ(LUNIO,'(24X,A6,48X,2F6.0)') ECONO, SLAVAR, SIZELF
! ENDIF
! CLOSE (LUNIO)
WRITE(WLUN,'(1X,"*** FILEIO : ",A12)') FILEIO
WRITE(WLUN,'(1X, "")')
WRITE(WLUN,'(1X,"SECTION: ",A6)') SECTION
WRITE(WLUN,'(1X,"ECONO : ",A6)') ECONO
WRITE(WLUN,'(1X,"SLAVAR : ",F6.1)') SLAVAR
WRITE(WLUN,'(1X,"SIZELF : ",F6.1)') SIZELF
!-----------------------------------------------------------------------
! Read in values from input file, which were previously input
! in Subroutine IPCROP.
!-----------------------------------------------------------------------
! LUNCRP = 10
!-----------------------------------------------------------------------
! OPEN (LUNCRP,FILE = FILECC, STATUS = 'OLD', IOSTAT=ERR)
! IF (ERR .NE. 0) CALL ERROR(ERRKEY,ERR,FILECC,0)
!-----------------------------------------------------------------------
! Find and Read Respiration Section
!-----------------------------------------------------------------------
! LNUM = 1
SECTION = '!*RESP'
! CALL FIND(LUNCRP, SECTION, LNUM, FOUND)
! IF (FOUND .EQ. 0) THEN
! CALL ERROR(ERRKEY, 1, FILECC, LNUM)
! ELSE
! CALL IGNORE(LUNCRP,LNUM,ISECT,C80)
! CALL IGNORE(LUNCRP,LNUM,ISECT,C80)
! READ(C80,'(F6.0)',IOSTAT=ERR) RNO3C
! IF (ERR .NE. 0) CALL ERROR(ERRKEY,ERR,FILECC,LNUM)
! CALL IGNORE(LUNCRP,LNUM,ISECT,C80)
! READ(C80,'(5F6.0)',IOSTAT=ERR) RCH2O,RLIP,RLIG,ROA,RMIN
! IF (ERR .NE. 0) CALL ERROR(ERRKEY,ERR,FILECC,LNUM)
! ENDIF
WRITE(WLUN,'(1X, "")')
WRITE(WLUN,'(1X,"*** FILECC : ",A80)') FILECC
WRITE(WLUN,'(1X, "")')
WRITE(WLUN,'(1X,"SECTION: ",A6)') SECTION
WRITE(WLUN,'(1X,"RNO3C : ",G12.4)') RNO3C
WRITE(WLUN,'(1X,"RPRO : ",G12.3)') RPRO
WRITE(WLUN,'(1X,"RCH2O : ",F6.3)') RCH2O
WRITE(WLUN,'(1X,"RLIP : ",F6.3)') RLIP
WRITE(WLUN,'(1X,"RLIG : ",F6.3)') RLIG
WRITE(WLUN,'(1X,"ROA : ",F6.3)') ROA
WRITE(WLUN,'(1X,"RMIN : ",F6.2)') RMIN
!-----------------------------------------------------------------------
! Find and Read Plant Composition Section
!-----------------------------------------------------------------------
SECTION = '!*PLAN'
! CALL FIND(LUNCRP, SECTION, LNUM, FOUND)
! IF (FOUND .EQ. 0) THEN
! CALL ERROR(ERRKEY, 1, FILECC, LNUM)
! ELSE
! CALL IGNORE(LUNCRP,LNUM,ISECT,C80)
! READ(C80,'(F6.0,6X,2F6.0,6X,F6.0)', IOSTAT=ERR)
! & PROLFI, PROLFF, PROSTI, PROSTF
! IF (ERR .NE. 0) CALL ERROR(ERRKEY,ERR,FILECC,LNUM)
! CALL IGNORE(LUNCRP,LNUM,ISECT,C80)
! READ(C80,'(F6.0,6X,F6.0)', IOSTAT=ERR) PRORTI, PRORTF
! IF (ERR .NE. 0) CALL ERROR(ERRKEY,ERR,FILECC,LNUM)
! CALL IGNORE(LUNCRP,LNUM,ISECT,C80)
! CALL IGNORE(LUNCRP,LNUM,ISECT,C80)
! CALL IGNORE(LUNCRP,LNUM,ISECT,C80)
! CALL IGNORE(LUNCRP,LNUM,ISECT,C80)
! READ(C80,'(24X,F6.0)',IOSTAT=ERR) PLIGSD
! IF (ERR .NE. 0) CALL ERROR(ERRKEY,ERR,FILECC,LNUM)
! CALL IGNORE(LUNCRP,LNUM,ISECT,C80)
! READ(C80,'(24X,F6.0)',IOSTAT=ERR) POASD
! IF (ERR .NE. 0) CALL ERROR(ERRKEY,ERR,FILECC,LNUM)
! CALL IGNORE(LUNCRP,LNUM,ISECT,C80)
! READ(C80,'(24X,F6.0)',IOSTAT=ERR) PMINSD
! IF (ERR .NE. 0) CALL ERROR(ERRKEY,ERR,FILECC,LNUM)
! ENDIF
WRITE(WLUN,'(1X, "")')
WRITE(WLUN,'(1X,"SECTION: ",A6)') SECTION
WRITE(WLUN,'(1X,"PROLFI : ",F6.3)') PROLFI
WRITE(WLUN,'(1X,"PROLFF : ",F6.3)') PROLFF
WRITE(WLUN,'(1X,"PROSTI : ",F6.3)') PROSTI
WRITE(WLUN,'(1X,"PROSTF : ",F6.3)') PROSTF
WRITE(WLUN,'(1X,"PRORTI : ",F6.3)') PRORTI
WRITE(WLUN,'(1X,"PRORTF : ",F6.3)') PRORTF
WRITE(WLUN,'(1X,"PROSUI : ",F6.3)') PROSUI
WRITE(WLUN,'(1X,"PROSUF : ",F6.3)') PROSUF
!-----------------------------------------------------------------------
! Find and Read Seed Composition Section
!-----------------------------------------------------------------------
! SECTION = '!*SEED'
! CALL FIND(LUNCRP, SECTION, LNUM, FOUND)
! IF (FOUND .EQ. 0) THEN
! CALL ERROR(ERRKEY, 1, FILECC, LNUM)
! ELSE
! CALL IGNORE(LUNCRP,LNUM,ISECT,C80)
! READ(C80,'(4F6.0)',IOSTAT=ERR) LIPTB, LIPOPT, SLOSUM, CARMIN
! IF (ERR .NE. 0) CALL ERROR(ERRKEY,ERR,FILECC,LNUM)
! SLOSUM = SLOSUM / 100.0
! ENDIF
!-----------------------------------------------------------------------
! Find and Read Carbon and Nitrogen Mining Section
!-----------------------------------------------------------------------
! SECTION = '!*CARB'
! CALL FIND(LUNCRP, SECTION, LNUM, FOUND)
! IF (FOUND .EQ. 0) THEN
! CALL ERROR(ERRKEY, 1, FILECC, LNUM)
! ELSE
! CALL IGNORE(LUNCRP,LNUM,ISECT,C80)
! READ(C80,'(18X,3F6.0)',IOSTAT=ERR) NMOBMX, NVSMOB, NRCVR
! IF (ERR .NE. 0) CALL ERROR(ERRKEY,ERR,FILECC,LNUM)
! ENDIF
SECTION = '!*CARB'
WRITE(WLUN,'(1X, "")')
WRITE(WLUN,'(1X,"SECTION: ",A6)') SECTION
WRITE(WLUN,'(1X,"NMOBMX : ",F6.3)') NMOBMX
WRITE(WLUN,'(1X,"NVSMOB : ",F6.2)') NVSMOB
!-----------------------------------------------------------------------
! Find and Read Vegetative Partitioning Section
!-----------------------------------------------------------------------
SECTION = '!*VEGE'
! CALL FIND(LUNCRP, SECTION, LNUM, FOUND)
! IF (FOUND .EQ. 0) THEN
! CALL ERROR(ERRKEY, 1, FILECC, LNUM)
! ELSE
! CALL IGNORE(LUNCRP,LNUM,ISECT,C80)
! READ(C80,'(8F6.0)',IOSTAT=ERR)(XLEAF(II),II=1,8)
! IF (ERR .NE. 0) CALL ERROR(ERRKEY,ERR,FILECC,LNUM)
! CALL IGNORE(LUNCRP,LNUM,ISECT,C80)
! READ(C80,'(8F6.0)',IOSTAT=ERR)(YLEAF(II),II=1,8)
! IF (ERR .NE. 0) CALL ERROR(ERRKEY,ERR,FILECC,LNUM)
! CALL IGNORE(LUNCRP,LNUM,ISECT,C80)
! READ(C80,'(8F6.0)',IOSTAT=ERR)(YSTEM(II),II=1,8)
! IF (ERR .NE. 0) CALL ERROR(ERRKEY,ERR,FILECC,LNUM)
! CALL IGNORE(LUNCRP,LNUM,ISECT,C80)
! READ(C80,'(12X,2F6.0)',IOSTAT=ERR) FRSTMF, FRLFF
! IF (ERR .NE. 0) CALL ERROR(ERRKEY,ERR,FILECC,LNUM)
! CALL IGNORE(LUNCRP,LNUM,ISECT,C80)
! READ(C80,'(F6.0)',IOSTAT=ERR) FRLFMX
! IF (ERR .NE. 0) CALL ERROR(ERRKEY,ERR,FILECC,LNUM)
! ENDIF
WRITE(WLUN,'(1X, "")')
WRITE(WLUN,'(1X,"SECTION: ",A6)') SECTION
WRITE(WLUN,'(1X,"I : ",8I6)') (II,II=1,8)
WRITE(WLUN,'(1X,"XLEAF : ",8F6.1)') (XLEAF(II),II=1,8)
WRITE(WLUN,'(1X,"YLEAF : ",8F6.2)') (YLEAF(II),II=1,8)
WRITE(WLUN,'(1X,"YSTEM : ",8F6.2)') (YSTEM(II),II=1,8)
WRITE(WLUN,'(1X, "")')
WRITE(WLUN,'(1X,"FRSTMF : ", F6.2)') FRSTMF
WRITE(WLUN,'(1X,"FRLFF : ", F6.2)') FRLFF
WRITE(WLUN,'(1X,"FRLFMX : ", F6.2)') FRLFMX
!-----------------------------------------------------------------------
! Find and Read Leaf Growth Section
!-----------------------------------------------------------------------
SECTION = '!*LEAF'
! CALL FIND(LUNCRP, SECTION, LNUM, FOUND)
! IF (FOUND .EQ. 0) THEN
! CALL ERROR(ERRKEY, 1, FILECC, LNUM)
! ELSE
! CALL IGNORE(LUNCRP,LNUM,ISECT,C80)
! READ(C80,'(4F6.0)', IOSTAT=ERR) FINREF, SLAREF, SIZREF, VSSINK
! IF (ERR .NE. 0) CALL ERROR(ERRKEY,ERR,FILECC,LNUM)
! CALL IGNORE(LUNCRP,LNUM,ISECT,C80)
! READ(C80,'(4F6.0)', IOSTAT=ERR) SLAMAX, SLAMIN, SLAPAR, TURSLA
! IF (ERR .NE. 0) CALL ERROR(ERRKEY,ERR,FILECC,LNUM)
! CALL IGNORE(LUNCRP,LNUM,ISECT,C80)
! READ(C80,'(6F6.0)', IOSTAT=ERR)(XVGROW(II),II=1,6)
! IF (ERR .NE. 0) CALL ERROR(ERRKEY,ERR,FILECC,LNUM)
! CALL IGNORE(LUNCRP,LNUM,ISECT,C80)
! READ(C80,'(6F6.0)', IOSTAT=ERR)(YVREF(II),II=1,6)
! IF (ERR .NE. 0) CALL ERROR(ERRKEY,ERR,FILECC,LNUM)
! CALL IGNORE(LUNCRP,LNUM,ISECT,C80)
! READ(C80,'(5F6.0)', IOSTAT=ERR)(XSLATM(II),II = 1,5)
! IF (ERR .NE. 0) CALL ERROR(ERRKEY,ERR,FILECC,LNUM)
! CALL IGNORE(LUNCRP,LNUM,ISECT,C80)
! READ(C80,'(5F6.0)', IOSTAT=ERR)(YSLATM(II),II = 1,5)
! IF (ERR .NE. 0) CALL ERROR(ERRKEY,ERR,FILECC,LNUM)
! ENDIF
WRITE(WLUN,'(1X, "")')
WRITE(WLUN,'(1X,"SECTION: ",A6)') SECTION
WRITE(WLUN,'(1X,"FINREF : ",F6.1)') FINREF
WRITE(WLUN,'(1X,"SLAREF : ",F6.1)') SLAREF
WRITE(WLUN,'(1X,"SIZREF : ",F6.1)') SIZREF
WRITE(WLUN,'(1X,"VSSINK : ",F6.1)') VSSINK
WRITE(WLUN,'(1X,"SLAMAX : ",F6.1)') SLAMAX
WRITE(WLUN,'(1X,"SLAMIN : ",F6.1)') SLAMIN
WRITE(WLUN,'(1X,"SLAPAR : ",F6.3)') SLAPAR
WRITE(WLUN,'(1X,"TURSLA : ",F6.2)') TURSLA
WRITE(WLUN,'(1X, "")')
WRITE(WLUN,'(1X,"I : ",6I6)') (II,II=1,6)
WRITE(WLUN,'(1X,"XVGROW : ",6F6.1)') (XVGROW(II),II=1,6)
WRITE(WLUN,'(1X,"YVREF : ",6F6.1)') (YVREF(II),II=1,6)
WRITE(WLUN,'(1X, "")')
WRITE(WLUN,'(1X,"I : ",6I6)') (II,II=1,5)
WRITE(WLUN,'(1X,"XSLATM : ",5F6.1)') (XSLATM(II),II = 1,5)
WRITE(WLUN,'(1X,"YSLATM : ",5F6.2)') (YSLATM(II),II = 1,5)
SECTION = '!*ROOT'
WRITE(WLUN,'(1X, "")')
WRITE(WLUN,'(1X,"SECTION: ",A6)') SECTION
WRITE(WLUN,'(1X,"I : ",4I6)') (II,II=1,4)
WRITE(WLUN,'(1X,"XFRRT : ",4F6.2)') (XFRRT(II),II=1,4)
WRITE(WLUN,'(1X,"YFRRT : ",4F6.2)') (YFRRT(II),II=1,4)
SECTION = '!*SUGA'
WRITE(WLUN,'(1X, "")')
WRITE(WLUN,'(1X,"SECTION: ",A6)') SECTION
WRITE(WLUN,'(1X,"I : ",4I6)') (II,II=1,4)
WRITE(WLUN,'(1X,"XFRSU : ",4F6.2)') (XFRSU(II),II=1,4)
WRITE(WLUN,'(1X,"YFRSU : ",4F6.2)') (YFRSU(II),II=1,4)
WRITE(WLUN,'(1X, "")')
WRITE(WLUN,'(1X,"GAMMA : ",F6.2)') GAMMA
!-----------------------------------------------------------------------
! Find and Read Seed and Shell Growth Section
!-----------------------------------------------------------------------
! SECTION = '!*SEED'
! CALL FIND(LUNCRP, SECTION, LNUM, FOUND)
! IF (FOUND .EQ. 0) THEN
! CALL ERROR(ERRKEY, 1, FILECC, LNUM)
! ELSE
! CALL IGNORE(LUNCRP,LNUM,ISECT,C80)
! READ(C80,'(6X,F6.0)',IOSTAT=ERR) SRMAX
! IF (ERR .NE. 0) CALL ERROR(ERRKEY,ERR,FILECC,LNUM)
! CALL IGNORE(LUNCRP,LNUM,ISECT,C80)
! READ(C80,'(6X,2F6.0)',IOSTAT=ERR) XFRMAX, SHLAG
! IF (ERR .NE. 0) CALL ERROR(ERRKEY,ERR,FILECC,LNUM)
! CALL IGNORE(LUNCRP,LNUM,ISECT,C80)
! CALL IGNORE(LUNCRP,LNUM,ISECT,C80)
! READ(C80,'(4(1X,F5.2),3X,A3)',IOSTAT=ERR)
! & (FNSDT(II),II=1,4), TYPSDT
! IF (ERR .NE. 0) CALL ERROR(ERRKEY,ERR,FILECC,LNUM)
! CALL IGNORE(LUNCRP,LNUM,ISECT,C80)
! READ(C80,'(6F6.0)',IOSTAT=ERR)(XXFTEM(II),II = 1,6)
! IF (ERR .NE. 0) CALL ERROR(ERRKEY,ERR,FILECC,LNUM)
! CALL IGNORE(LUNCRP,LNUM,ISECT,C80)
! READ(C80,'(6F6.0)',IOSTAT=ERR)(YXFTEM(II),II = 1,6)
! IF (ERR .NE. 0) CALL ERROR(ERRKEY,ERR,FILECC,LNUM)
! DO I=1,5
! CALL IGNORE(LUNCRP,LNUM,ISECT,C80)
! ENDDO
! READ(C80,'(4F6.0)',IOSTAT=ERR)(XTRFAC(II),II = 1,4)
! IF (ERR .NE. 0) CALL ERROR(ERRKEY,ERR,FILECC,LNUM)
! CALL IGNORE(LUNCRP,LNUM,ISECT,C80)
! READ(C80,'(4F6.0)',IOSTAT=ERR)(YTRFAC(II),II = 1,4)
! IF (ERR .NE. 0) CALL ERROR(ERRKEY,ERR,FILECC,LNUM)
! ENDIF
!-----------------------------------------------------------------------
! CLOSE(LUNCRP)
C-----------------------------------------------------------------------
C Read Ecotype Parameter File
C-----------------------------------------------------------------------
! LUNECO = 10
!-----------------------------------------------------------------------
! OPEN (LUNECO,FILE = FILEGC,STATUS = 'OLD',IOSTAT=ERR)
! ISECT = 2
! DO I=1,200
! CALL IGNORE(LUNECO, LNUM, ISECT, C255)
! IF (ERR .NE. 0) CALL ERROR(ERRKEY,ERR,FILEGC,0)
! IF ((ISECT .EQ. 1) .AND. (C255(1:1) .NE. ' ') .AND.
! & (C255(1:1) .NE. '*')) THEN
! READ (C255,'(A6,66X,F6.0,30X,3F6.0)',IOSTAT=ERR)
! & ECOTYP, LNGSH, THRESH, SDPRO, SDLIP
! IF (ERR .NE. 0) CALL ERROR(ERRKEY,ERR,FILEGC,LNUM)
! IF (ECOTYP .EQ. ECONO) THEN
! EXIT
! ENDIF
! ELSE IF (ISECT .EQ. 0) THEN
! IF (ECONO .EQ. 'DFAULT') CALL ERROR(ERRKEY,3,FILEGC,LNUM)
! ECONO = 'DFAULT'
! REWIND(LUNECO)
! ENDIF
! ENDDO
! CLOSE (LUNECO)
WRITE(WLUN,'(1X, "")')
WRITE(WLUN,'(1X,"END RESULTS FROM IPDMND_SC_OUT.FOR")')
! CLOSE (WLUN)
!-----------------------------------------------------------------------
! RETURN
!-----------------------------------------------------------------------
END ! SUBROUTINE IPDMND_SC_OUT
!=======================================================================
! Variable definitions for DEMAND and IPDMND
!-----------------------------------------------------------------------
! AGRLF Mass of CH2O required for new leaf growth (g[CH2O] / g[leaf])
! AGRRT Mass of CH2O required for new root growth (g[CH2O] / g[root])
! AGRSTM Mass of CH2O required for new stem growth (g[CH2O] / g[stem])
! AGRVG Mass of CH2O required for vegetative tissue growth including
! stoichiometry and respiration (g[CH2O] / g[tissue])
! AGRVG2 Total mass of CH2O required for vegetative tissue growth
! (g[CH2O] / g[tissue])
! CDMTOT Total CH2O demand (g[CH2O] / m2 / d)
! CDMVEG Carbon demand for vegetative growth (g[CH2O] / m2 / d)
! CNOLD Available CH2O after reproductive growth (g[CH2O] / m2 / d)
! CROP Crop identification code
! DAS Days after start of simulation (days)
! DRPP Photoperiod days which occur in a real day
! (photoperiod days / day)
! ECONO Ecotype code - used to match ECOTYP in .ECO file
! ECOTYP Ecotype code for this simulation
! F Specific leaf area of new leaf tissue growth, including N
! (cm2[leaf] / g[leaf])
! FFVEG Specific leaf area of new leaf tissue growth (interim value)
! (cm2[leaf] / g[leaf])
! FILECC Path plus filename for species file (*.spe)
! FILEGC Pathname plus filename for ECO file
! FILEIO Filename for INP file (e.g., IBSNAT35.INP)
! FINREF Specific leaf area (SLA) of leaves of standard crop cultivar
! when plants emerge (cm2[leaf] / g[leaf])
! FNINL Maximum fraction of N for growing leaf tissue (g[N] / g[leaf])
! FNINR Maximum fraction of N for growing root tissue (g[N] / g[root])
! FNINS Maximum fraction of N for growing stem tissue (g[N] / g[stem])
! FRLF Fraction of vegetative tissue growth that goes to leaves on a
! day (g[leaf] / g[veg])
! FRLFF Fraction of daily increase in vegetative weight which goes to
! leaves after the day on which the maximum number of V-stages
! occurs (NDVSTG). (g[leaf] / g[veg])
! FRLFMX Maximum leaf partitioning (g[leaf] / g[veg])
! FRRT Fraction of vegetative tissue growth that goes to roots on a
! day (g[root] / g[veg])
! FRSTM Fraction of vegetative tissue growth that goes to stems on a
! day (g[stem] / g[veg])
! FRSTMF Fraction of daily dry weight increase in vegetative plant parts
! which goes to stems after the day on which the maximum number
! of V-stages occurs (NDVSTG). (g[stem] / g[veg])
! FVEG Specific leaf area prior to computing effects of temperature,
! PAR, water stress (cm2[leaf] / g[leaf])
! GAINNW Leaf area added (prior to VSSINK) (cm2[leaf] / m2[ground])
! GAINWT Leaf weight added (prior to VSSINK and after NDLEAF)
! (g[leaf] / m2[ground])
! GROMAX Maximum leaf area which can be added per plant between
! emergence and day of simulation as a function of V-stage on
! day of simulation (cm2[leaf] / plant)
! GROYES Maximum leaf area which could have been added per plant between
! emergence and yesterday as a function of V-stage
! (cm2[leaf] / plant)
! LUNCRP Logical unit number for FILEC (*.spe file)
! LUNECO Logical unit number for FILEE (*.eco file)
! LUNIO Logical unit number for FILEIO
! NDMNEW Total N demand for new growth (g[N] / m2 / d)
! NDMOLD N demand for old tissue (g[N] / m2 / d)
! NDMTOT Total N demand (g[N] / m2 / d)
! NDMVEG N required for vegetative growth if all PGAVL is used as
! computed (g[N] / m2 / d)
! NMINEP Potential N mobilization from storage (g[N] / m2 / d)
! NMOBMX Maximum fraction of N which can be mobilized in a day
! NMOBR Stage-dependent potential N mining rate expressed as a
! fraction of the maximum rate (NMOBMX)
! NSTRES Nitrogen stress factor (1=no stress, 0=max stress)
! NVEG0 Day of emergence (days)
! NVSMOB Relative rate of N mining during vegetative stage to that in
! reproductive stage
! NVSTL N content in leaves (fraction)
! NVSTR N content in roots (fraction)
! NVSTS N content in stems (fraction)
! PAR Daily photosynthetically active radiation or photon flux
! density (moles[quanta]/m2-d)
! PARSLA Effect of PAR on specific leaf area
! PCNL Percentage of N in leaf tissue (100 g[N] / g[leaf])
! PCNRT Percent N in root tissue (100 g[N] / g[root])
! PCNST Percent N in stem tissue (100 g[N] / g[stem])
! PGAVL Total available CH2O available for growth & respiration
! (g[CH2O] / m2)
! PLTPOP Plant population (# plants / m2)
! PROLFF Minimum leaf protein composition after N mining
! ( g[protein] / g[leaf])
! PROLFI Maximum protein composition in leaves during growth with
! luxurious supply of N (g[protein] / g[leaf tissue])
! PRORTF Minimum root protein composition after N mining
! ( g[protein] / g[root])
! PRORTI Maximum protein composition in roots during growth with
! luxurious supply of N (g[protein] / g[root])
! PROSTF Minimum stem protein composition after N mining
! (g[protein] / g[stem])
! PROSTI Maximum protein composition in stems during growth with
! luxurious supply of N (g[protein] / g[stem])
! RCH2O Respiration required for synthesizing CH2O structure
! (g[CH2O] / g[tissue])
! RLIG Respiration required for synthesizing lignin structure
! (g[CH2O] / g[lignin])
! RLIP Respiration required for synthesizing lipid structure
! (g[CH2O] / g[lipid])
! RMIN Respiration required for synthesizing mineral structure
! (g[CH2O] / g[mineral])
! RNO3C Respiration required for reducing NO3 to protein
! (g[CH2O] / g[protein])
! ROA Respiration required for synthesizing organic acids
! (g[CH2O] / g[product])
! RPROAV Respiration required for protein synthesis, average based on
! sources of N (g[CH2O] / g[protein])
! RTWT Dry mass of root tissue, including C and N
! (g[root] / m2[ground])
! SIZELF The size of a normal upper node leaf (nodes 8 - 10) used to
! adjust leaf area expansion during sink-limited phase of
! vegetative growth, i.e., prior to VSSINK nodes on the main stem
! (cm2/leaf)
! SIZRAT Ratio of upper node normal leaf size for given variety to that
! for standard cultivar, used to adjust table of maximum leaf
! area vs. V-stage
! SIZREF The size of a normal upper node leaf (nodes 8 - 10) of
! standard cultivar. (cm2 / leaf)
! SLAMAX The maximum specific leaf area (SLA) for new leaves when grown
! under low (nearly zero) radiation but optimum water and
! temperature for the standard cultivar. (cm2 / g)
! SLAMIN The minimum specific leaf area (SLA) for new leaves when grown
! under infinitely high radiation, optimum water and
! temperature for the standard cultivar. (cm2 / g)
! SLAMN Minimum specific leaf area for new leaves when grown under high
! radiation and optimum water and temperature conditions (cm2 / g)
! SLAMX Maximum specific leaf area for new leaves when grown under low
! radiation, but optimum water and temperature conditions
! (cm2 / g)
! SLAPAR Coefficient in exponential equation to reduce SLA as PAR
! increases (leaf curvature)
! SLAREF Specific leaf area (SLA) for new leaves during peak vegetative
! growth for the standard cultivar. (cm2/g)
! SLAVAR Specific leaf area (SLA) for new leaves during peak vegetative
! growth for cultivar I, modified by environmental factor (cm2/g)
! STMWT Dry mass of stem tissue, including C and N
! (g[stem] / m2[ground)
! SUMTEM Factor which affects protein composition based on average
! temperature.
! TAVG Average daily temperature (°C)
! TDUMX Photo-thermal time that occurs in a real day based on early
! reproductive development temperature function
! (photo-thermal days / day)
! TPHFAC Reduction in specific leaf area due to daytime temperature
! being less than optimal (0-1)
! TURADD Water stress factor (TURFAC) effect on reproductive growth and
! pod addition. Stress is defined to INCREASE growth and
! addition.
! TURFAC Water stress factor for expansion (0 - 1)
! TURFSL Factor which applies water stress to specific leaf area of new
! leaf tissue growth
! TURSLA Water stress effects on leaf area expansion
! VSSINK Vegetative stage beyond which sink-limited leaf area expansion
! can no longer limit photosynthesis or leaf area growth.
! VSTAGE Number of nodes on main stem of plant
! WCRLF Mass of CH2O reserves in leaves (g[leaf CH2O] / m2[ground])
! WCRRT Mass of CH2O reserves in roots (g[root CH2O] / m2[ground])
! WCRST Mass of CH2O reserves in stems (g[stem CH2O] / m2[ground])
! WNRLF N available for mobilization from leaves above lower limit of
! mining (g[N] / m2)
! WNRRT N available for mobilization from roots above lower limit of
! mining (g[N] / m2)
! WNRST N available for mobilization from stems above lower limit of
! mining (g[N] / m2)
! WTLF Dry mass of leaf tissue including C and N
! (g[leaf] / m2[ground])
! XLEAF(I) V-stage at which partitioning to leaves is YLEAF(I).
! (leaf nodes)
! XSLATM(I) Temperature values for function that reduces specific leaf area
! (SLA) (°C)
! XVGROW(I) V-stage at which maximum leaf area growth per plant since
! emergence is YVGROW(I). (# leaf nodes)
! XX Difference between partitioning fraction to stems at beginning
! bloom (R1) and at the day on which the maximum number of
! V-stages occurs (NDLEAF)
! YLEAF(I) Partitioning fraction to leaves at V-stage XLEAF(I)
! ( g[leaf] / g[veg. plant])
! YRDOY Current day of simulation (YYDDD)
! YRSIM Start of simulation date (YYDDD)
! YSLATM(I) Array which describes the effect of temperature on specific
! leaf area
! YSTEM(I) Partitioning factor for stem growth at V-stage XSTEM(I)
! (g[stem] / g[veg. plant])
! YVGROW(I) Maximum leaf area grown per plant at V-stage XVGROW(I)
! (cm2 / plant)
! YVREF(I) Maximum leaf area grown per plant at V-stage XVGROW(I), for
! reference cultivar. (cm2 / plant)
!-----------------------------------------------------------------------
! END SUBROUTINE DEMAND
!=======================================================================