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|
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#include "ctrparam.h" |
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|
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! ========================================================== |
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! |
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! COMP1.F: NUMERICALLY INTEGRATING THE NON-SOURCE TERMS OF |
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! THE 2-DIMENSIONAL CLIMATE MODEL |
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! |
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! ---------------------------------------------------------- |
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! |
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! Author of Chemistry Modules: Chien Wang |
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! |
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! ---------------------------------------------------------- |
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! |
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! Revision History: |
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! |
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! When Who What |
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! ---- ---------- ------- |
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! 073100 Chien Wang repack based on CliChem3 and add cpp |
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! |
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! ========================================================== |
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|
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|
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SUBROUTINE COMP1 (UT,VT,TT,PT,QT,U,V,T,P,Q,DT1,NS) 2001. |
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C 2001.5 |
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C NUMERICALLY INTEGRATING THE NON-SOURCE TERMS OF 2002. |
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C THE 2-DIMENSIONAL CLIMATE MODEL 2002.5 |
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C 2003. |
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|
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#if ( defined CPL_CHEM ) |
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! |
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#include "chem_para" |
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#include "chem_com" |
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! |
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#endif |
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|
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#include "BD2G04.COM" 2003.5 |
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|
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COMMON/WORK1/PIT(IM0,JM0),SD(IM0,JM0,LM0-1) 2004. |
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COMMON/WORK3/PHI(IM0,JM0,LM0),SPA(IM0,JM0,LM0) 2004.5 |
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COMMON/WORK4/FD(IM0,JM0),FLUXQ(72),DUMMYS(72),DUMMYN(72) 2005. |
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COMMON/WORK5/DUT(IO0,JM0,LM0),DVT(IO0,JM0,LM0) 2005.5 |
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DIMENSION UT(IM0,JM0,LM0),VT(IM0,JM0,LM0),TT(IM0,JM0,LM0) |
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& ,PT(IM0,JM0), 2006. |
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* QT(IM0,JM0,LM0),PU(IM0,JM0),PV(IM0,JM0),CONV(IM0,JM0,LM0) 2006.5 |
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DIMENSION SINL(JM0),COSL(JM0), 2007. |
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* DXU(JM0),DYU(JM0),DXYU(JM0),PHIS(IO0,JM0),UX(IO0,JM0,2*LM0) 2007.5 |
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EQUIVALENCE (SINL(1),SINP(1)),(COSL(1),COSP(1)), 2008. |
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* (DXU(1),DXV(1)),(DYU(1),DYV(1)),(DXYU(1),DXYV(1)), 2008.5 |
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* (PHIS,FDATA) 2009. |
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EQUIVALENCE (CONV,PIT) 2009.5 |
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c REAL*4 KAPAP1 2010. |
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REAL KAPAP1 |
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COMMON/EPARA/VTH(JM0,LM0),WTH(JM0,LM0),VU(JM0,LM0),VV(JM0,LM0) |
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& ,DQSDT(JM0,LM0) 2010.5 |
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* ,DWV(JM0),PHIT(JM0,LM0),TPRIM2(JM0,LM0),WU(JM0,LM0),CKS,CKN 2011. |
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* ,WQ(JM0,LM0),VQ(JM0,LM0),MRCHT 2011.5 |
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COMMON/INTA/COE1(01,01,01),COE2(01,01,01) 2012. |
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COMMON/SPEC1/ 2012.5 |
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* XA(IM0,JM0),XB(IM0,JM0),YA(IM0,JM0),YB(IM0,JM0),ZA(IM0,JM0) |
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& ,ZB(IM0,JM0) 2013. |
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COMMON/SPEC2/KM,KINC,COEK,C3LAND(IO0,JM0),C3OICE(IO0,JM0) 2013.5 |
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* ,C3LICE(IO0,JM0),WMGE(IO0,JM0),TSSFC(IO0,JM0,4) 2014. |
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LOGICAL SKIPSI,HPRNT,EDDFLX,FIRST,HPRNT1 2014.5 |
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common/PRNT1/NCOMP |
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common/conprn/HPRNT1,JPR,LPR |
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data FIRST /.true./ |
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C 2015. |
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HPRNT=TAU.gt.115.0.and.TAU.lt.125.0 |
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HPRNT=TAU.lt.125.0 |
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HPRNT=.false. |
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NCOMP=NCOMP+1 |
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KBGN=KINC+1 2015.5 |
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KM2=KM*2-1 2016. |
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KM3=KM2 2016.5 |
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INEDDY=1 |
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c ICHK=(1+(NDYN-1)*2)*5 2016.6 |
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ICHK=(1+(NDYN-1)*2)*INEDDY |
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ICHK1=(1+(NDYN-1)*2) |
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IX=IM 2017. |
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IF(KM.EQ.1) IX=1 2017.5 |
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IS=IX 2018. |
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FIS=IS 2018.5 |
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CP=RGAS/KAPA 2019. |
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SHA=RGAS/KAPA 2019.5 |
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KAPAP1=KAPA+1. 2020. |
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JMM2=JM-2 2020.5 |
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NTRACE=0 2021. |
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NTLM=NTRACE*LM 2021.5 |
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NTP1LM=NTLM+LM 2022. |
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NCOMP3=NDYN 2022.5 |
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LMT2=LM+LM 2023. |
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LMM2=LM-2 2023.5 |
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c DTE=NDYN*DT*5 2024. |
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DTE=NDYN*DT*INEDDY |
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MRCHT=MRCHT+IABS(MRCH) 2024.1 |
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DTT2=DT1*2. 2024.5 |
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DT2=DT1/2. 2025. |
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DT4=DT1/4. 2025.5 |
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DT8=DT1/8. 2026. |
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DT12=DT1/12. 2026.5 |
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DT24=DT1/24. 2027. |
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DTCP=DT1/CP 2027.5 |
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DTDLN=DT1*DLON 2028. |
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DTDLN2=DT2*DLON 2028.5 |
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SKIPSI=.TRUE. 2029. |
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FMU=10.E7 2029.5 |
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FXCO=DT4/CP 2030. |
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FXCO1=DT2/CP 2030.5 |
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HLAT=LHE 2031. |
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CLH=HLAT/CP 2031.5 |
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if(FIRST)then |
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print *,' EDDY DIFFUSION is CALCULATED EVERY ',INEDDY,' HOURS' |
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print *,' DTE=',DTE,DTE/3600. |
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print *,' ICHK=',ICHK |
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FIRST=.false. |
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endif |
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DO 5 L=1,LMT2 2032. |
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DO 5 J=1,JM 2032.5 |
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DO 5 I=1,IO 2033. |
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5 UX(I,J,L)=U(1,J,L) 2033.5 |
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IF(MODD5K.LT.MRCH) CALL DIAG5F(UX) 2034. |
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C 2034.5 |
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C SCALE THE PROGNOSTIC VARIABLES 2035. |
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C 2035.5 |
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DO 50 J=1,JM 2036. |
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DO 50 I=1,IS 2036.5 |
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50 FD(I,J)=PT(I,J)*DXYP(J) 2037. |
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|
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#if ( defined CPL_CHEM ) |
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! |
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! --- get PAI for chemical advection: |
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! |
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if(mrch.ne.0)goto 6001 |
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do i=1,n2dh |
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p00(i,1)=fd(i,1) |
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! |
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! 092595 |
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! |
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p4chem0(i,1) = pt(i,1) |
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enddo |
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6001 continue |
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! |
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#endif |
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|
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c print *,'From comp1 TAU=',TAU,' MRCH=',MRCH |
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c print '(12f6.1/11f6.1)',(P(1,j),j=1,jm) |
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c print *,' U(jm-1),U(jm),v(jm)' |
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c print '(11f6.1)',(U(1,JM-1,l),l=1,lm) |
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c print '(11f6.1)',(U(1,JM,l),l=1,lm) |
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c print '(11f6.1)',(V(1,JM,l),l=1,lm) |
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c print *,' UT(jm-1),UT(jm),VT(jm)' |
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c print '(11f6.1)',(UT(1,JM-1,l),l=1,lm) |
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c print '(11f6.1)',(UT(1,JM,l),l=1,lm) |
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c print '(11f6.1)',(VT(1,JM,l),l=1,lm) |
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IF(MRCH.EQ.0) GO TO 58 2037.5 |
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DO 57 L=1,NTP1LM 2038. |
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DO 57 J=1,JM 2038.5 |
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DO 57 I=1,IS 2039. |
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57 QT (I,J,L)=QT (I,J,L)*FD(I,J) 2039.5 |
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58 CONTINUE 2040. |
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DO 55 L=1,LM 2040.5 |
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DO 55 J=1,JM 2041. |
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DO 55 I=1,IX 2041.5 |
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55 TT(I,J,L)=TT(I,J,L)*FD(I,J) 2042. |
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DO 56 I=1,IX 2042.5 |
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FD(I,1)=2.*FD(I,1) 2043. |
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56 FD(I,JM)=2.*FD(I,JM) 2043.5 |
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DO 65 J=2,JM 2044. |
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DO 65 I=1,IX 2044.5 |
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FDU=.5*(FD(I,J)+FD(I,J-1)) 2045. |
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DO 65 L=1,LMT2 2045.5 |
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65 UT(I,J,L)=UT(I,J,L)*FDU 2046. |
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DO 66 L=1,LMT2 2046.5 |
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DO 66 J=2,JM 2047. |
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DO 66 I=1,IO 2047.5 |
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66 DUT(I,J,L)=0. 2048. |
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if(HPRNT)then |
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print *,' comp1 1 TAU=',TAU,' MRCH=',MRCH,' J=',JPR,' L=',LPR |
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print *,' after 66' |
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print *,' T(J,L)=',T(1,JPR,LPR),' Q(J,L)=',Q(1,JPR,LPR) |
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print *,' TT(J,L)=',TT(1,JPR,LPR),' QT(J,L)=',QT(1,JPR,LPR) |
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print *,' V(J,L)=',V(1,JPR,LPR),' V(J,L)=',V(1,JPR,LPR) |
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print *,' VT(J,L)=',VT(1,JPR,LPR),' VT(J,L)=',VT(1,JPR,LPR) |
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print *,' U(J,L)=',U(1,JPR,LPR),' U(J,L)=',U(1,JPR,LPR) |
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print *,' UT(J,L)=',UT(1,JPR,LPR),' UT(J,L)=',UT(1,JPR,LPR) |
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endif |
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C 2048.5 |
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C BEGINNING OF LAYER LOOP 2049. |
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C 2049.5 |
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ccc L=LM 2050. |
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c print *,' before 5934 MRCH=',MRCH |
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c RFDP=2./(P(1,JM-2)*DXYP(JM-2)+P(1,JM-1)*DXYP(JM-1)) |
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c print '(11f6.1)',(UT(1,JM-1,l1)*RFDP,l1=1,lm) |
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c RFDP=2./(2.*P(1,JM)*DXYP(JM)+P(1,JM-1)*DXYP(JM-1)) |
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c print '(11f6.1)',(UT(1,JM,l1)*RFDP,l1=1,lm) |
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c print '(11f6.1)',(VT(1,JM,l1)*RFDP,l1=1,lm) |
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do 5934 l25=1,LM |
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L=LM+1-l25 |
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C 2050.5 |
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C COMPUTATION OF MASS FLUX P,T,PU PRIMARY GRID ROW 2051. |
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C PV,U,V SECONDARY GRID ROW 2051.5 |
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C 2052. |
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2150 CONTINUE 2052.5 |
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DO 2168 J=2,JM 2053. |
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TEMP=DXU(J)*0.5 2053.5 |
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DO 2168 I=1,IX 2054. |
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PV(I,J)=(P(I,J)+P(I,J-1))*V(I,J,L)*TEMP 2054.5 |
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|
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#if ( defined CPL_CHEM ) |
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! |
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! --- get V for chemical advection: |
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! |
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if(mrch.eq.0)then |
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pvv(i,j,l)=v(i,j,l) |
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endif |
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! |
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#endif |
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|
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2168 continue |
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if(HPRNT)then |
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print *,' PV L=',L |
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print *,PV(1,JPR),P(1,JPR),P(1,JPR-1),V(1,JPR,L),TEMP |
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endif |
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C 2055. |
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C HORIZONTAL ADVECTION OF MOISTURE 2055.5 |
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C 2056. |
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IF(MRCH.EQ.0) GO TO 1400 2056.5 |
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DO 1360 K=L,NTP1LM,LM 2057. |
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C**** SOUTH-NORTH ADVECTION OF MOISTURE AND TRACE COMPOUNDS 2057.5 |
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DO 1330 I=1,IS 2058. |
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FLUXQ(I)=DT2*PV(I,2)*(Q (I,2,K)+Q (I,1,K)) 2058.5 |
| 233 |
IF(FLUXQ(I).GT. QT(I,1,K)) FLUXQ(I)= QT(I,1,K) 2059. |
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IF(FLUXQ(I).LT.-.5* QT(I,2,K)) FLUXQ(I)=-.5* QT(I,2,K) 2059.5 |
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1330 QT(I,1,K)= QT(I,1,K)-FLUXQ(I) 2060. |
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DO 1340 J=2,JMM2 2060.5 |
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DO 1340 I=1,IS 2061. |
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FLUX=DT2*PV(I,J+1)*( Q(I,J+1,K)+ Q(I,J,K)) 2061.5 |
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IF(FLUX.GT..5* QT(I,J,K)) FLUX=.5* QT(I,J,K) 2062. |
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IF(FLUX.LT.-.5* QT(I,J+1,K)) FLUX=-.5* QT(I,J+1,K) 2062.5 |
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QT(I,J,K)= QT(I,J,K)+(FLUXQ(I)-FLUX) 2063. |
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1340 FLUXQ(I)=FLUX 2063.5 |
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DO 1350 I=1,IS 2064. |
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FLUX=DT2*PV(I,JM)*( Q(I,JM,K)+ Q(I,JMM1,K)) 2064.5 |
| 245 |
IF(FLUX.GT..5* QT(I,JMM1,K)) FLUX=.5* QT(I,JMM1,K) 2065. |
| 246 |
IF(FLUX.LT.- QT(I,JM,K)) FLUX=- QT(I,JM,K) 2065.5 |
| 247 |
QT(I,JMM1,K)= QT(I,JMM1,K)+(FLUXQ(I)-FLUX) 2066. |
| 248 |
1350 QT(I,JM,K)= QT(I,JM,K)+FLUX 2066.5 |
| 249 |
1360 CONTINUE 2067. |
| 250 |
1400 CONTINUE 2067.5 |
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C 2068. |
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C HORIZONTAL ADVECTION OF HEAT 2068.5 |
| 253 |
C 2069. |
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DO 2215 J=2,JM 2069.5 |
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DO 2215 I=1,IX 2070. |
| 256 |
FLUX=DT2*PV(I,J) 2070.5 |
| 257 |
FLUXT=FLUX*(T(I,J,L)+T(I,J-1,L)) 2071. |
| 258 |
TT(I,J,L)=TT(I,J,L)+FLUXT 2071.5 |
| 259 |
2215 TT(I,J-1,L)=TT(I,J-1,L)-FLUXT 2072. |
| 260 |
C 2072.5 |
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C MERIDIONAL ADVECTION OF U AND V-MOMENTUM 2073. |
| 262 |
C 2073.5 |
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DO 2336 J=2,JMM1 2074. |
| 264 |
DO 2336 I=1,IX 2074.5 |
| 265 |
FLUX=DT4*(PV(I,J)+PV(I,J+1)) 2075. |
| 266 |
FLUXU=FLUX*(U(I,J,L)+U(I,J+1,L)) 2075.5 |
| 267 |
C*** CONTRIBUTION BY SYMMETRIC INSTABILITY 2076. |
| 268 |
IF (MRCH.EQ.0.OR.SKIPSI) GO TO 2335 2076.5 |
| 269 |
DUDY=(U(I,J+1,L)*COSV(J+1)-U(I,J,L)*COSV(J))/ 2077. |
| 270 |
* (DYP(J)*COSP(J)) 2077.5 |
| 271 |
FTEMP=F(J)/DXYP(J) 2078. |
| 272 |
CRI=FTEMP*(FTEMP-DUDY) 2078.5 |
| 273 |
IF (CRI.GE.0.) GO TO 2335 2079. |
| 274 |
FLUXDI=-DT1*FMU*P(I,J)*DUDY*DXP(J) 2079.5 |
| 275 |
FLUXU=FLUXU+FLUXDI 2080. |
| 276 |
2335 CONTINUE 2080.5 |
| 277 |
UT(I,J+1,L)=UT(I,J+1,L)+FLUXU 2081. |
| 278 |
UT(I,J,L)=UT(I,J,L)-FLUXU 2081.5 |
| 279 |
FLUXV=FLUX*(V(I,J,L)+V(I,J+1,L)) 2082. |
| 280 |
VT(I,J+1,L)=VT(I,J+1,L)+FLUXV 2082.5 |
| 281 |
VT(I,J,L)=VT(I,J,L)-FLUXV 2083. |
| 282 |
if(HPRNT.and.J.eq.JPR.and.L.eq.LPR)then |
| 283 |
print *,' before 2336 c',' J=',J,' L=',L |
| 284 |
print *,'U(I,J+1,L)=',U(I,J+1,L),' U(I,J,L)=',U(I,J,L) |
| 285 |
print *,' DUDY=',DUDY,' F(J)=',F(J),' CRI=',CRI |
| 286 |
print *,'V(I,J,L)=',V(I,J,L),' V(I,J+1,L)=',V(I,J+1,L) |
| 287 |
print *,' PV(I,J)=',PV(I,J),' PV(I,J+1)=',PV(I,J+1) |
| 288 |
print *,' FLUX=',FLUX,' FLUXV=',FLUXV |
| 289 |
print *,' FLUXU=',FLUXU,' FLUXDI=',FLUXDI |
| 290 |
endif |
| 291 |
2336 continue |
| 292 |
if(l25.eq.-LM)then |
| 293 |
print *,' after 2336' |
| 294 |
RFDP=2./(P(1,JM-2)*DXYP(JM-2)+P(1,JM-1)*DXYP(JM-1)) |
| 295 |
print '(11f6.1)',(UT(1,JM-1,l1)*RFDP,l1=1,lm) |
| 296 |
RFDP=2./(2.*P(1,JM)*DXYP(JM)+P(1,JM-1)*DXYP(JM-1)) |
| 297 |
print '(11f6.1)',(UT(1,JM,l1)*RFDP,l1=1,lm) |
| 298 |
print '(11f6.1)',(VT(1,JM,l1)*RFDP,l1=1,lm) |
| 299 |
endif |
| 300 |
if(HPRNT)then |
| 301 |
print *,' comp1 1 TAU=',TAU,' MRCH=',MRCH |
| 302 |
print *,' after 2336' |
| 303 |
print *,' T(J,L)=',T(1,JPR,LPR),' Q(J,L)=',Q(1,JPR,LPR) |
| 304 |
print *,' TT(J,L)=',TT(1,JPR,LPR),' QT(J,L)=',QT(1,JPR,LPR) |
| 305 |
print *,' V(J,L)=',V(1,JPR,LPR),' V(J,L)=',V(1,JPR,LPR) |
| 306 |
print *,' VT(J,L)=',VT(1,JPR,LPR),' VT(J,L)=',VT(1,JPR,LPR) |
| 307 |
print *,' U(J,L)=',U(1,JPR,LPR),' U(J,L)=',U(1,JPR,LPR) |
| 308 |
print *,' UT(J,L)=',UT(1,JPR,LPR),' UT(J,L)=',UT(1,JPR,LPR) |
| 309 |
endif |
| 310 |
C DO 2337 J=2,JMM1 2083.1 |
| 311 |
C2337 IF(L.EQ.8) WRITE(6,2339) J,MRCH,V(1,J,8),VT(1,J,8),U(1,J,8), 2083.2 |
| 312 |
C * UT(1,J,8) 2083.21 |
| 313 |
2339 FORMAT(1X,'AFTER M ADV---V VT U UT',2I3,4E11.3) 2083.3 |
| 314 |
C 2083.5 |
| 315 |
C COMPUTE MASS CONVERGENCE 2084. |
| 316 |
C 2084.5 |
| 317 |
DSIGL=DSIG(L) 2085. |
| 318 |
PVS=PV(1,2) 2085.5 |
| 319 |
PVN=PV(1,JM) 2086. |
| 320 |
C |
| 321 |
DO 2400 J=2,JMM1 2086.5 |
| 322 |
DO 2400 I=1,IX 2087. |
| 323 |
2400 CONV(I,J,L)=(PV(I,J)-PV(I,J+1))*DSIGL 2087.5 |
| 324 |
CONV(1,1,L)=-PVS*DSIGL 2088. |
| 325 |
CONV(1,JM,L)=PVN*DSIGL 2088.5 |
| 326 |
if(HPRNT)then |
| 327 |
print *,' PV 3 L=',L,' JPR=',JPR |
| 328 |
print *,PV(1,JPR),PV(1,JPR+1),DSIGL,CONV(1,JPR,L) |
| 329 |
print *,DSIG(1),CONV(1,1,1) |
| 330 |
endif |
| 331 |
C |
| 332 |
c2409 L=L-1 2089. |
| 333 |
c IF(L.GE.1) GO TO 2150 2089.5 |
| 334 |
5934 continue |
| 335 |
if(HPRNT)then |
| 336 |
print *,' comp1 2 TAU=',TAU,' MRCH=',MRCH |
| 337 |
print *,' T(J,L)=',T(1,JPR,LPR),' Q(J,L)=',Q(1,JPR,LPR) |
| 338 |
print *,' TT(J,L)=',TT(1,JPR,LPR),' QT(J,L)=',QT(1,JPR,LPR) |
| 339 |
print *,' PV(1,J) PV(1,J+1) PIT(1,J)' |
| 340 |
print *,PV(1,JPR),PV(1,JPR+1),PIT(1,JPR) |
| 341 |
print *,' CONV(1,JPR,L)' |
| 342 |
print *,(CONV(1,JPR,L),L=1,LM) |
| 343 |
endif |
| 344 |
C 2090. |
| 345 |
C END OF LAYER LOOP 2090.5 |
| 346 |
C 2091. |
| 347 |
C COMPUTE PRESSURE TENDENCY AND SIGMA DOT 2091.5 |
| 348 |
C 2092. |
| 349 |
C PIT(I,J)=CONV(I,J,1) 2092.5 |
| 350 |
DO 2420 LX=1,LMM1 2093. |
| 351 |
L=LM+1-LX 2093.5 |
| 352 |
DO 2420 J=1,JM 2094. |
| 353 |
DO 2420 I=1,IS 2094.5 |
| 354 |
2420 PIT(I,J)=PIT(I,J)+CONV(I,J,L) 2095. |
| 355 |
DO 2430 J=1,JM 2095.5 |
| 356 |
DO 2430 I=1,IS 2096. |
| 357 |
2430 SD(I,J,LMM1)=CONV(I,J,LM)-DSIG(LM)*PIT(I,J) 2096.5 |
| 358 |
DO 2440 LX=2,LMM1 2097. |
| 359 |
L=LM-LX 2097.5 |
| 360 |
DO 2440 J=1,JM 2098. |
| 361 |
DO 2440 I=1,IS 2098.5 |
| 362 |
2440 SD(I,J,L)=SD(I,J,L+1)+CONV(I,J,L+1)-DSIG(L+1)*PIT(I,J) 2099. |
| 363 |
|
| 364 |
#if ( defined CPL_CHEM ) |
| 365 |
! |
| 366 |
! --- get Omiga for chemical advection: |
| 367 |
! |
| 368 |
if(mrch.ne.0)goto 6009 |
| 369 |
do 6008 i=1,nlon |
| 370 |
do 6008 k=1,nlev |
| 371 |
do 6008 j=1,nlat |
| 372 |
pww(i,j,k)=sd(i,j,k)/p00(i,j) |
| 373 |
6008 continue |
| 374 |
|
| 375 |
6009 continue |
| 376 |
! |
| 377 |
#endif |
| 378 |
|
| 379 |
if(HPRNT)then |
| 380 |
j=jm |
| 381 |
print *,' comp 21 J=',J,' L=',L |
| 382 |
print *,' PIT(1,J)=',PIT(1,J) |
| 383 |
print *,' SD ',(SD(1,J,L),l=1,lm-1) |
| 384 |
print *,' CONV(1,J,L)' |
| 385 |
print *,(CONV(1,J,L),L=1,LM) |
| 386 |
endif |
| 387 |
C 2099.5 |
| 388 |
C COMPUTE THE NEW SURFACE PRESSURE 2100. |
| 389 |
C 2100.5 |
| 390 |
DO 2450 J=1,JM 2101. |
| 391 |
DO 2450 I=1,IS 2101.5 |
| 392 |
PTNEW=PT(I,J)+DT1*PIT(I,J)/DXYP(J) 2102. |
| 393 |
IF(PTNEW.LE.1150..AND.PTNEW.GT.400.) GO TO 2450 2102.5 |
| 394 |
4563 CONTINUE |
| 395 |
print *,' TAU=',TAU |
| 396 |
WRITE(6,901) I,J,MRCH,P(I,J),PTNEW,(FDATA(1,J,K),K=1,22), 2103. |
| 397 |
* (V(1,J,L),L=1,LM),(V(1,J+1,L),L=1,LM), 2103.1 |
| 398 |
* (T(1,J,L),L=1,LM),(Q(1,J,L),L=1,LM) 2103.2 |
| 399 |
901 FORMAT(' PRESSURE DIAGNOSTIC I,J,MRCH,P,PT=',3I5,2F10.1/, 2103.5 |
| 400 |
* 2(1X,11F10.2/),4(1X,11E11.3/)) |
| 401 |
c * 2(1X,11F10.2/),4(10X,9E11.3/)) 2103.6 |
| 402 |
stop |
| 403 |
2450 PT(I,J)=PTNEW 2104. |
| 404 |
C 2104.5 |
| 405 |
C VERTICAL ADVECTION OF MOMENTUM 2105. |
| 406 |
C 2105.5 |
| 407 |
c print *,' before 2480' |
| 408 |
c RFDP=2./(P(1,JM-2)*DXYP(JM-2)+P(1,JM-1)*DXYP(JM-1)) |
| 409 |
c print '(11f6.1)',(UT(1,JM-1,l1)*RFDP,l1=1,lm) |
| 410 |
c RFDP=2./(2.*P(1,JM)*DXYP(JM)+P(1,JM-1)*DXYP(JM-1)) |
| 411 |
c print '(11f6.1)',(UT(1,JM,l1)*RFDP,l1=1,lm) |
| 412 |
c print '(11f6.1)',(VT(1,JM,l1)*RFDP,l1=1,lm) |
| 413 |
DO 2480 L=1,LMM1 2106. |
| 414 |
LP1=L+1 2106.5 |
| 415 |
WTS=2. 2107. |
| 416 |
WTN=1. 2107.5 |
| 417 |
DO 2480 J=2,JM 2108. |
| 418 |
IF(J.EQ.JM) WTN=2. 2108.5 |
| 419 |
DO 2470 I=1,IX 2109. |
| 420 |
SDU=DT4*(SD(I,J,L)*WTN+SD(I,J-1,L)*WTS) 2109.5 |
| 421 |
SDUDN=SDU/DSIG(L) 2110. |
| 422 |
SDUUP=SDU/DSIG(LP1) 2110.5 |
| 423 |
TEMU=U(I,J,L)+U(I,J,LP1) 2111. |
| 424 |
TEMV=V(I,J,L)+V(I,J,LP1) 2111.5 |
| 425 |
UT(I,J,L)=UT(I,J,L)+SDUDN*TEMU 2112. |
| 426 |
UT(I,J,LP1)=UT(I,J,LP1)-SDUUP*TEMU 2112.5 |
| 427 |
VT(I,J,L)=VT(I,J,L)+SDUDN*TEMV 2113. |
| 428 |
2470 VT(I,J,LP1)=VT(I,J,LP1)-SDUUP*TEMV 2113.5 |
| 429 |
2480 WTS=1. 2114. |
| 430 |
c print *,' after 2480' |
| 431 |
c RFDP=2./(P(1,JM-2)*DXYP(JM-2)+P(1,JM-1)*DXYP(JM-1)) |
| 432 |
c print '(11f6.1)',(UT(1,JM-1,l1)*RFDP,l1=1,lm) |
| 433 |
c RFDP=2./(2.*P(1,JM)*DXYP(JM)+P(1,JM-1)*DXYP(JM-1)) |
| 434 |
c print '(11f6.1)',(UT(1,JM,l1)*RFDP,l1=1,lm) |
| 435 |
c print '(11f6.1)',(VT(1,JM,l1)*RFDP,l1=1,lm) |
| 436 |
if(HPRNT)then |
| 437 |
print *,' comp1 1 TAU=',TAU,' MRCH=',MRCH |
| 438 |
print *,' after 2480' |
| 439 |
print *,' T(J,L)=',T(1,JPR,LPR),' Q(J,L)=',Q(1,JPR,LPR) |
| 440 |
print *,' TT(J,L)=',TT(1,JPR,LPR),' QT(J,L)=',QT(1,JPR,LPR) |
| 441 |
print *,' V(J,L)=',V(1,JPR,LPR),' V(J,L)=',V(1,JPR,LPR) |
| 442 |
print *,' VT(J,L)=',VT(1,JPR,LPR),' VT(J,L)=',VT(1,JPR,LPR) |
| 443 |
print *,' U(J,L)=',U(1,JPR,LPR),' U(J,L)=',U(1,JPR,LPR) |
| 444 |
print *,' UT(J,L)=',UT(1,JPR,LPR),' UT(J,L)=',UT(1,JPR,LPR) |
| 445 |
endif |
| 446 |
C DO 2481 J=2,JMM1 2114.1 |
| 447 |
C2481 WRITE(6,2482) J,MRCH,V(1,J,8),VT(1,J,8),U(1,J,8),UT(1,J,8), 2114.2 |
| 448 |
C * SD(1,J,8) 2114.21 |
| 449 |
2482 FORMAT(1X,'AFTER V ADV---V VT U UT SD',2I3,5E11.3) 2114.3 |
| 450 |
IF(MODD5K.LT.MRCH) CALL DIAG5A(4,MRCH) 2114.5 |
| 451 |
C IF(MRCH.GT.0) CALL DIAG9D (1,DT1,U,V) 2115. |
| 452 |
C 2115.5 |
| 453 |
C VERTICAL ADVECTION OF MOISTURE 2116. |
| 454 |
C 2116.5 |
| 455 |
IF(MRCH.EQ.0) GO TO 1800 2117. |
| 456 |
DO 1730 L=1,LMM1 2117.5 |
| 457 |
LP1=L+1 2118. |
| 458 |
DO 1710 J=1,JM 2118.5 |
| 459 |
DO 1710 I=1,IS 2119. |
| 460 |
FLUX=DT1*SD(I,J,L)*2.* Q(I,J,L)* Q(I,J,LP1)/( Q(I,J,L)+ 2119.5 |
| 461 |
* Q(I,J,LP1)+1.E-20) 2120. |
| 462 |
IF(FLUX.GT..5* QT(I,J,LP1)*DSIG(LP1)) FLUX=.5* QT(I,J,LP1)* 2120.5 |
| 463 |
* DSIG(LP1) 2121. |
| 464 |
IF(FLUX.LT.-.5* QT(I,J,L)*DSIG(L)) FLUX=-.5* QT(I,J,L)*DSIG(L) 2121.5 |
| 465 |
QT(I,J,L)= QT(I,J,L)+FLUX/DSIG(L) 2122. |
| 466 |
1710 QT(I,J,LP1)= QT(I,J,LP1)-FLUX/DSIG(LP1) 2122.5 |
| 467 |
1730 CONTINUE 2123. |
| 468 |
1800 CONTINUE 2123.5 |
| 469 |
C 2124. |
| 470 |
C CORIOLIS FORCE 2124.5 |
| 471 |
c print *,' before 3130' |
| 472 |
c RFDP=2./(P(1,JM-2)*DXYP(JM-2)+P(1,JM-1)*DXYP(JM-1)) |
| 473 |
c print '(11f6.1)',(UT(1,JM-1,l1)*RFDP,l1=1,lm) |
| 474 |
c RFDP=2./(2.*P(1,JM)*DXYP(JM)+P(1,JM-1)*DXYP(JM-1)) |
| 475 |
c print '(11f6.1)',(UT(1,JM,l1)*RFDP,l1=1,lm) |
| 476 |
c print '(11f6.1)',(VT(1,JM,l1)*RFDP,l1=1,lm) |
| 477 |
C 2125. |
| 478 |
DO 3100 I=1,IX 2125.5 |
| 479 |
FD(I,1)=0. 2126. |
| 480 |
3100 FD(I,JM)=0. 2126.5 |
| 481 |
DO 3130 L=1,LM 2127. |
| 482 |
DO 3110 J=2,JMM1 2127.5 |
| 483 |
DO 3110 I=1,IX 2128. |
| 484 |
3110 FD(I,J)=F(J) +0.5*(U(I,J,L)+U(I,J+1,L))*(DXU(J)-DXU(J+1)) 2128.5 |
| 485 |
DO 3115 J=2,JM 2129. |
| 486 |
DO 3115 I=1,IX 2129.5 |
| 487 |
PU(I,J)=DT4*(P(I,J)+P(I,J-1))*(FD(I,J)+FD(I,J-1)) 2130. |
| 488 |
3115 CONTINUE 2132. |
| 489 |
DO 3120 J=2,JM 2132.5 |
| 490 |
DO 3120 I=1,IX 2133. |
| 491 |
UT(I,J,L)=UT(I,J,L)+ V(I,J,L)*PU(I,J) 2133.5 |
| 492 |
3120 VT(I,J,L)=VT(I,J,L)- U(I,J,L)*PU(I,J) 2134. |
| 493 |
3130 CONTINUE 2134.5 |
| 494 |
c print *,' after 3130' |
| 495 |
c RFDP=2./(P(1,JM-2)*DXYP(JM-2)+P(1,JM-1)*DXYP(JM-1)) |
| 496 |
c print '(11f6.1)',(UT(1,JM-1,l1)*RFDP,l1=1,lm) |
| 497 |
c RFDP=2./(2.*P(1,JM)*DXYP(JM)+P(1,JM-1)*DXYP(JM-1)) |
| 498 |
c print '(11f6.1)',(UT(1,JM,l1)*RFDP,l1=1,lm) |
| 499 |
c print '(11f6.1)',(VT(1,JM,l1)*RFDP,l1=1,lm) |
| 500 |
if(HPRNT)then |
| 501 |
print *,' comp1 1 TAU=',TAU,' MRCH=',MRCH |
| 502 |
print *,' after 3130' |
| 503 |
print *,' T(J,L)=',T(1,JPR,LPR),' Q(J,L)=',Q(1,JPR,LPR) |
| 504 |
print *,' TT(J,L)=',TT(1,JPR,LPR),' QT(J,L)=',QT(1,JPR,LPR) |
| 505 |
print *,' V(J,L)=',V(1,JPR,LPR),' V(J,L)=',V(1,JPR,LPR) |
| 506 |
print *,' VT(J,L)=',VT(1,JPR,LPR),' VT(J,L)=',VT(1,JPR,LPR) |
| 507 |
print *,' U(J,L)=',U(1,JPR,LPR),' U(J,L)=',U(1,JPR,LPR) |
| 508 |
print *,' UT(J,L)=',UT(1,JPR,LPR),' UT(J,L)=',UT(1,JPR,LPR) |
| 509 |
endif |
| 510 |
C DO 3131 J=2,JMM1 2134.6 |
| 511 |
C3131 WRITE (6,3132) J,MRCH,V(1,J,8),VT(1,J,8),U(1,J,8),UT(1,J,8) 2134.7 |
| 512 |
3132 FORMAT(1X,'AFTER COR---V VT U UT',2I3,4E11.3) 2134.8 |
| 513 |
IF(MODD5K.LT.MRCH) CALL DIAG5A(5,MRCH) 2135. |
| 514 |
C IF(MRCH.GT.0) CALL DIAG9D (2,DT1,U,V) 2135.5 |
| 515 |
C 2136. |
| 516 |
C COMPUTE SPA, PHI AND VERTICAL ADVECTION OF POTENTIAL TEMPERATURE 2136.5 |
| 517 |
C 2137. |
| 518 |
DO 3070 J=1,JM 2137.5 |
| 519 |
DO 3070 I=1,IX 2138. |
| 520 |
SUM1=0. 2138.5 |
| 521 |
SUM2=0. 2139. |
| 522 |
SP=P(I,J) 2139.5 |
| 523 |
PDN=SIG(1)*SP+PTOP 2140. |
| 524 |
PKDN=EXPBYK(PDN) 2140.5 |
| 525 |
FLUXDN=0. 2141. |
| 526 |
DO 3040 L=1,LMM1 2141.5 |
| 527 |
LP1=L+1 2142. |
| 528 |
SPA(I,J,L)=RGAS*SP*SIG(L)*T(I,J,L)*PKDN/PDN 2142.5 |
| 529 |
SUM1=SUM1+SPA(I,J,L)*DSIG(L) 2143. |
| 530 |
PUP=SIG(LP1)*SP+PTOP 2143.5 |
| 531 |
PKUP=EXPBYK(PUP) 2144. |
| 532 |
THETA=0.5*(T(I,J,LP1)+T(I,J,L)) 2144.5 |
| 533 |
FLUX=DT1*SD(I,J,L)*THETA 2145. |
| 534 |
TT(I,J,L)=TT(I,J,L)+(FLUX-FLUXDN)/DSIG(L) 2145.5 |
| 535 |
FLUXDN=FLUX 2146. |
| 536 |
PHI(I,J,LP1)=CP*THETA*(PKDN-PKUP) 2146.5 |
| 537 |
PDN=PUP 2147. |
| 538 |
PKDN=PKUP 2147.5 |
| 539 |
3040 SUM2=SUM2+SIGE(LP1)*PHI(I,J,LP1) 2148. |
| 540 |
SPA(I,J,LM)=SIG(LM)*SP*RGAS*T(I,J,LM)*PKDN/PDN 2148.5 |
| 541 |
SUM1=SUM1+SPA(I,J,LM)*DSIG(LM) 2149. |
| 542 |
TT(I,J,LM)=TT(I,J,LM)-FLUXDN/DSIG(LM) 2149.5 |
| 543 |
3050 PHI(I,J,1)=PHIS(I,J)+SUM1-SUM2 2150. |
| 544 |
DO 3070 L=2,LM 2150.5 |
| 545 |
3070 PHI(I,J,L)=PHI(I,J,L)+PHI(I,J,L-1) 2151. |
| 546 |
if(HPRNT)then |
| 547 |
print *,' comp1 3 TAU=',TAU,' MRCH=',MRCH |
| 548 |
print *,' T(J,L)=',T(1,JPR,LPR),' Q(J,L)=',Q(1,JPR,LPR) |
| 549 |
print *,' TT(J,L)=',TT(1,JPR,LPR),' QT(J,L)=',QT(1,JPR,LPR) |
| 550 |
endif |
| 551 |
C |
| 552 |
C 2151.5 |
| 553 |
DO 3340 L=1,LM 2152. |
| 554 |
C 2152.5 |
| 555 |
C PRESSURE GRADIENT FORCE 2153. |
| 556 |
C 2153.5 |
| 557 |
C NORTH-SOUTH DERIVATIVE AFFECTS THE V-MOMENTUM 2154. |
| 558 |
C 2154.5 |
| 559 |
DO 3236 J=2,JM 2155. |
| 560 |
DO 3236 I=1,IX 2155.5 |
| 561 |
FLUX=DT2*((P(I,J)+P(I,J-1))*(PHI(I,J,L)-PHI(I,J-1,L))+ 2156. |
| 562 |
* (SPA(I,J,L)+SPA(I,J-1,L))*(P(I,J)-P(I,J-1)))*DXU(J) 2156.5 |
| 563 |
3236 VT(I,J,L)=VT(I,J,L)-FLUX 2157. |
| 564 |
3340 CONTINUE 2157.5 |
| 565 |
if(HPRNT)then |
| 566 |
print *,' after 3340' |
| 567 |
print *,' comp1 1 TAU=',TAU,' MRCH=',MRCH |
| 568 |
print *,' T(J,L)=',T(1,JPR,LPR),' Q(J,L)=',Q(1,JPR,LPR) |
| 569 |
print *,' TT(J,L)=',TT(1,JPR,LPR),' QT(J,L)=',QT(1,JPR,LPR) |
| 570 |
print *,' V(J,L)=',V(1,JPR,LPR),' V(J,L)=',V(1,JPR,LPR) |
| 571 |
print *,' VT(J,L)=',VT(1,JPR,LPR),' VT(J,L)=',VT(1,JPR,LPR) |
| 572 |
print *,' U(J,L)=',U(1,JPR,LPR),' U(J,L)=',U(1,JPR,LPR) |
| 573 |
print *,' UT(J,L)=',UT(1,JPR,LPR),' UT(J,L)=',UT(1,JPR,LPR) |
| 574 |
endif |
| 575 |
C DO 3341 J=2,JMM1 2157.6 |
| 576 |
C3341 WRITE(6,3342) J,MRCH,P(1,J),VT(1,J,8),UT(1,J,8),PHI(1,J,8), 2157.7 |
| 577 |
C * SPA(1,J,8) 2157.71 |
| 578 |
3342 FORMAT(1X,'AFTER P GRAD---P VT UT PHI SPA',2I3,5E11.3) 2157.8 |
| 579 |
IF(MODD5K.LT.MRCH) CALL DIAG5A(6,MRCH) 2158. |
| 580 |
C IF(MRCH.GT.0) CALL DIAG9D (3,DT1,U,V) 2158.5 |
| 581 |
C 2159. |
| 582 |
C END OF THE PRESSURE GRADIENT FORCE LAYER LOOP 2159.5 |
| 583 |
C 2160. |
| 584 |
C CALL EDDY PARA. ROUTINE IF REQUIRED 2160.5 |
| 585 |
C 2161. |
| 586 |
C IF (MRCH.NE.0) CALL EDDYPA (UT,VT,TT,PT,QT,U,V,T,P,Q,DT1) 2161.5 |
| 587 |
MODEDY=MOD(MRCHT,ICHK) 2161.6 |
| 588 |
MODTVR=MOD(MRCHT,ICHK1) |
| 589 |
|
| 590 |
#if ( defined CPL_CHEM ) |
| 591 |
! |
| 592 |
! --- Get time parameter for eddy calculation: |
| 593 |
! |
| 594 |
meddy1=0 |
| 595 |
|
| 596 |
IF (MODEDY.EQ.0.AND.MRCH.NE.0) THEN |
| 597 |
|
| 598 |
meddy1=1 |
| 599 |
! |
| 600 |
#else |
| 601 |
IF (MODEDY.EQ.0.AND.MRCH.NE.0) THEN |
| 602 |
#endif |
| 603 |
|
| 604 |
EDDFLX=.false. |
| 605 |
IF (MODEDY.eq.0)EDDFLX=.true. |
| 606 |
EDDFLX=.true. |
| 607 |
if(HPRNT)then |
| 608 |
print *,' before eddypa' |
| 609 |
print *,' comp1 1 TAU=',TAU,' MRCH=',MRCH |
| 610 |
print *,' JPR=',jpr,' LPR=',lpr |
| 611 |
print *,' T=',T(1,JPR,LPR),' Q=',Q(1,JPR,LPR) |
| 612 |
print *,' TT=',TT(1,JPR,LPR),' QT=',QT(1,JPR,LPR) |
| 613 |
print *,' V(J,L)=',V(1,JPR,LPR)/FD(1,J) |
| 614 |
print *,' VT(J,L)=',VT(1,JPR,LPR),' VT(J,L)=',VT(1,JPR,LPR) |
| 615 |
print *,' U(J,L)=',U(1,JPR,LPR),' U(J,L)=',U(1,JPR,LPR) |
| 616 |
print *,' UT(J,L)=',UT(1,JPR,LPR),' UT(J,L)=',UT(1,JPR,LPR) |
| 617 |
print *,' U(13,1),U(13,2)' |
| 618 |
print *,' U(J,L)=',U(1,13,1),' U(J,L)=',U(1,13,2) |
| 619 |
endif |
| 620 |
! print *,' call eddypa TAU=',TAU |
| 621 |
! print *,' comp1 MRCHT=',MRCHT,' MRCH=',MRCH |
| 622 |
c RFDU=2./(2.*P(1,JM)*DXYP(JM)+P(1,JM-1)*DXYP(JM-1)) |
| 623 |
c print *,(VT(1,J,1),J=1,Jm) |
| 624 |
CALL EDDYPA (UT,VT,TT,PT,QT,U,V,T,P,Q,DTE,EDDFLX) |
| 625 |
c print *,' after eddypa' |
| 626 |
c print *,(VT(1,J,1),J=1,Jm) |
| 627 |
if(HPRNT)then |
| 628 |
print *,' after eddypa' |
| 629 |
print *,' comp1 1 TAU=',TAU,' MRCH=',MRCH |
| 630 |
print *,' T=',T(1,JPR,LPR),' Q=',Q(1,JPR,LPR) |
| 631 |
print *,' TT=',TT(1,JPR,LPR),' QT=',QT(1,JPR,LPR) |
| 632 |
print *,' V(J,L)=',V(1,JPR,LPR)/FD(1,J) |
| 633 |
print *,' VT(J,L)=',VT(1,JPR,LPR),' VT(J,L)=',VT(1,JPR,LPR) |
| 634 |
print *,' U(J,L)=',U(1,JPR,LPR),' U(J,L)=',U(1,JPR,LPR) |
| 635 |
print *,' UT(J,L)=',UT(1,JPR,LPR),' UT(J,L)=',UT(1,JPR,LPR) |
| 636 |
endif |
| 637 |
END IF |
| 638 |
C |
| 639 |
C 2162. |
| 640 |
C UNDO SCALING FOR MOISTURE AND TRACE COMPOUNDS 2162.5 |
| 641 |
C 2163. |
| 642 |
DO 1910 J=1,JM 2163.5 |
| 643 |
DO 1910 I=1,IM 2164. |
| 644 |
1910 FD(I,J)=PT(I,J)*DXYP(J) 2164.5 |
| 645 |
|
| 646 |
#if ( defined CPL_CHEM ) |
| 647 |
! |
| 648 |
! --- get PAI for chemical advection (mass remapping): |
| 649 |
! |
| 650 |
if(mrch.ne.2)goto 6003 |
| 651 |
do i=1,n2dh |
| 652 |
p11(i,1)=fd(i,1) |
| 653 |
! |
| 654 |
! 092595 |
| 655 |
! |
| 656 |
p4chem1(i,1) = pt(i,1) |
| 657 |
enddo |
| 658 |
6003 continue |
| 659 |
! |
| 660 |
#endif |
| 661 |
|
| 662 |
IF(MRCH.EQ.0) GO TO 2000 2165. |
| 663 |
DO 1940 L=1,NTP1LM 2165.5 |
| 664 |
DO 1928 J=1,JM 2166. |
| 665 |
DO 1928 I=1,IM 2166.5 |
| 666 |
1928 QT(I,J,L)= QT(I,J,L)/FD(I,J) 2167. |
| 667 |
1940 CONTINUE 2167.5 |
| 668 |
2000 CONTINUE 2168. |
| 669 |
C 2168.5 |
| 670 |
C UNDO SCALING FOR TEMPERATURE AND WINDS 2169. |
| 671 |
C 2169.5 |
| 672 |
DO 3510 L=1,LM 2170. |
| 673 |
DO 3512 J=1,JM 2170.5 |
| 674 |
DO 3512 I=1,IM 2171. |
| 675 |
3512 TT(I,J,L)=TT(I,J,L)/FD(I,J) 2171.5 |
| 676 |
DO 3513 J=1,JM 2172. |
| 677 |
DO 3513 I=1,IX 2172.5 |
| 678 |
c IF(TT(I,J,L).LT.20..OR.TT(I,J,L).GT.120.) 2173. |
| 679 |
IF(TT(I,J,L).LT.20..OR.TT(I,J,L).GT.130.) then |
| 680 |
WRITE(6,902) I,J,L,MRCH,T(I,J,L),TT(I,J,L),P(I,J),PT(I,J) 2173.5 |
| 681 |
stop |
| 682 |
endif |
| 683 |
902 FORMAT(' POTENTIAL TEMPERATURE DIAGNOSTIC I,J,L,MRCH,T,TT,P,PT2174. |
| 684 |
* =',4I4,4F8.1) 2174.5 |
| 685 |
3513 CONTINUE 2175. |
| 686 |
3510 CONTINUE 2175.5 |
| 687 |
DO 3520 I=1,IM 2176. |
| 688 |
FD(I,1)=2.*FD(I,1) 2176.5 |
| 689 |
3520 FD(I,JM)=2.*FD(I,JM) 2177. |
| 690 |
DO 3542 J=2,JM 2177.5 |
| 691 |
DO 3542 I=1,IM 2178. |
| 692 |
RFDU=2./(FD(I,J)+FD(I,J-1)) 2178.5 |
| 693 |
DO 3542 L=1,LMT2 2179. |
| 694 |
3542 UT(I,J,L)=UT(I,J,L)*RFDU 2179.5 |
| 695 |
if(HPRNT)then |
| 696 |
print *,' after 3542' |
| 697 |
print *,' comp1 1 TAU=',TAU,' MRCH=',MRCH |
| 698 |
print *,' T(J,L)=',T(1,JPR,LPR),' Q(J,L)=',Q(1,JPR,LPR) |
| 699 |
print *,' TT(J,L)=',TT(1,JPR,LPR),' QT(J,L)=',QT(1,JPR,LPR) |
| 700 |
print *,' V(J,L)=',V(1,JPR,LPR),' V(J,L)=',V(1,JPR,LPR) |
| 701 |
print *,' VT(J,L)=',VT(1,JPR,LPR),' VT(J,L)=',VT(1,JPR,LPR) |
| 702 |
print *,' U(J,L)=',U(1,JPR,LPR),' U(J,L)=',U(1,JPR,LPR) |
| 703 |
print *,' UT(J,L)=',UT(1,JPR,LPR),' UT(J,L)=',UT(1,JPR,LPR) |
| 704 |
endif |
| 705 |
c print '(12f6.1/11f6.1)',(PT(1,j),j=1,jm) |
| 706 |
RETURN 2180. |
| 707 |
END 2180.5 |
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