1 | SUBROUTINE OPTCV(nmicro,IPRINT) |
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2 | |
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3 | |
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4 | #include "dimensions.h" |
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5 | #include "dimphy.h" |
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6 | #include "microtab.h" |
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7 | #include "clesphys.h" |
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8 | |
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9 | c Argument: |
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10 | c --------- |
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11 | integer nmicro |
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12 | c --------- |
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13 | |
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14 | PARAMETER(NLAYER=llm,NLEVEL=NLAYER+1) |
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15 | PARAMETER (NSPECI=46,NSPC1I=47,NSPECV=24,NSPC1V=25) |
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16 | COMMON /ATM/ Z(NLEVEL),PRESS(NLEVEL),DEN(NLEVEL),TEMP(NLEVEL) |
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17 | |
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18 | COMMON /GASS/ CH4(NLEVEL),XN2(NLEVEL),H2(NLEVEL),AR(NLEVEL) |
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19 | & ,XMU(NLEVEL),GAS1(NLAYER),COLDEN(NLAYER) |
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20 | |
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21 | COMMON /VISGAS/SOLARF(NSPECV),NTERM(NSPECV),PEXPON(NSPECV), |
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22 | & ATERM(4,NSPECV),BTERM(4,NSPECV) |
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23 | |
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24 | COMMON /AERSOL/ RADIUS(NLAYER), XNUMB(NLAYER) |
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25 | & , REALI(NSPECI), XIMGI(NSPECI), REALV(NSPECV), XIMGV(NSPECV) |
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26 | |
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27 | COMMON /CLOUD/ RADCLD(NLAYER), XNCLD(NLAYER) |
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28 | & , RCLDI(NSPECI), XICLDI(NSPECI) |
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29 | & , RCLDV(NSPECV), XICLDV(NSPECV) |
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30 | |
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31 | COMMON /TAUS/ TAUHI(klon,NSPECI), TAUCI(klon,NSPECI) |
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32 | & ,TAUGI(klon,NSPECI), TAURV(klon,NSPECV) |
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33 | & ,TAUHV(klon,NSPECV) ,TAUCV(klon,NSPECV) |
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34 | & ,TAUGV(klon,NSPECV) |
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35 | |
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36 | COMMON /TAUD/ TAUHID(klon,NLAYER,NSPECI) |
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37 | & ,TAUGID(klon,NLAYER,NSPECI) |
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38 | & ,TAUHVD(klon,NLAYER,NSPECV) |
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39 | & ,TAUGVD(klon,NLAYER,NSPECV) |
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40 | |
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41 | COMMON /OPTICV/ DTAUV(klon,NLAYER,NSPECV,4) |
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42 | & ,TAUV(klon,NLEVEL,NSPECV,4) |
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43 | & ,WBARV(klon,NLAYER,NSPECV,4) |
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44 | & ,COSBV(klon,NLAYER,NSPECV,4) |
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45 | |
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46 | COMMON /SPECTV/ BWNV(NSPC1V),WNOV(NSPECV) |
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47 | & ,DWNV(NSPECV),WLNV(NSPECV) |
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48 | |
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49 | COMMON /PLANT/ CSUBP,RSFI,RSFV,F0PI |
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50 | COMMON /ADJUST/ RHCH4,FH2,FHAZE,FHVIS,FHIR,TAUFAC,RCLOUD,FARGON |
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51 | COMMON /CONST/ RGAS,RHOP,PI,SIGMA |
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52 | COMMON /traceurs/qaer(klon,nlayer,nqmx) |
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53 | COMMON /part/ v(nqmx),r(nqmx),vrat,dr(nqmx),dv(nqmx) |
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54 | |
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55 | REAL xv1(klev,NSPECV) |
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56 | REAL xv2(klev,NSPECV) |
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57 | REAL xv3(klev,NSPECV) |
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58 | |
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59 | REAL QF1(nqmx,NSPECV),QF2(nqmx,NSPECV) |
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60 | REAL QF3(nqmx,NSPECV),QF4(nqmx,NSPECV) |
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61 | REAL QM1(nqmx,NSPECV),QM2(nqmx,NSPECV) |
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62 | REAL QM3(nqmx,NSPECV),QM4(nqmx,NSPECV) |
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63 | |
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64 | save qf1,qf2,qf3,qf4,qm1,qm2,qm3,qm4 |
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65 | |
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66 | integer ioptv,iwarning |
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67 | integer ig_ |
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68 | save ioptv,iwarning |
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69 | data ioptv,iwarning/0,0/ |
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70 | |
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71 | C* |
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72 | C* |
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73 | C THIS SUBROUTINE SETS THE OPTICAL CONSTANTS IN THE VISIBLE |
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74 | C IT CALCUALTES FOR EACH LAYER, FOR EACH SPECRAL INTERVAL IN THE VIS |
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75 | C LAYER: WBAR, DTAU, COSBAR |
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76 | C LEVEL: TAU |
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77 | C |
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78 | sum=0. |
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79 | PRINT*,'OPTCV' |
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80 | print*,'ATTENTION, TAU UNIFORME DANS OPTCV' |
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81 | |
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82 | c do nng=2,klon |
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83 | c do i=1,klev |
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84 | c do j=1,nqmx |
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85 | c sum=sum+qaer(nng,i,j)*r(j)**3.*1.3333*3.1415*1000. |
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86 | c enddo |
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87 | c enddo |
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88 | c enddo |
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89 | c print*,sum/(klon-1),'SOMME COLONNE/OPTCV' |
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90 | |
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91 | c open (unit=1,file='xsetupv') |
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92 | c do j=1,nspecv |
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93 | c read(1,*) a |
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94 | c do i=1,klev |
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95 | c read(1,*) xv1(i,j),xv2(i,j),xv3(i,j) |
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96 | c enddo |
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97 | c enddo |
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98 | c close(1) |
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99 | |
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100 | DO 130 K=1,NSPECV |
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101 | C LETS USE THE OPTICAL CONSTANTS FOR THOLIN |
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102 | CALL THOLIN(WLNV(K),TNR,TNI) |
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103 | REALV(K)=TNR |
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104 | XIMGV(K)=TNI*FHVIS |
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105 | C BUT WE NOW USE THE GEOMETRIC ALBEDO FITTED RESULTS |
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106 | C XIMGV(K)=FITEDT(WLNV(K)) |
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107 | C XIMGV(K)=FITEDN(WLNV(K)) |
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108 | C THE CLOUD IS CLEAR IN THE VISIBLE |
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109 | RCLDV(K)=1.27 |
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110 | XICLDV(K)=1.E-7 |
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111 | 130 CONTINUE |
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112 | C |
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113 | c******* DEBUT DES BOUCLES ************************ |
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114 | c PRINT*, 'AEROSOLS EN VISIBLE' |
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115 | |
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116 | DO 101 ig=1,klon !c! BOUCLE SUR GRILLE HORIZONTALE |
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117 | |
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118 | DO 100 K=1,NSPECV !b! BOUCLE SUR LAMBDA |
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119 | |
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120 | C ZERO THE COLUMN OPTICAL DEPTHS OF EACH TYPE |
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121 | C ??FLAG? THE OPTICAL DEPTH OF THE TOP OF THE MODEL |
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122 | C MAY NOT BE ZERO. |
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123 | TAURV(ig,K)=0. |
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124 | TAUHV(ig,K)=0. ! INTEGRATED TAU.......INITIALIZATION. |
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125 | TAUCV(ig,K)=0. ! Rayleigh, Haze, Cloud, Gas |
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126 | TAUGV(ig,K)=0. ! sca, abs, abs , abs |
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127 | |
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128 | DO 100 J=1,NLAYER !a! BOUCLE SUR L"ALTITUDE |
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129 | |
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130 | C #1: HAZE |
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131 | c--------------------------- |
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132 | |
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133 | c CALL THE MIE CODE TO GIVE THE AEROSOL PROPERTIES |
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134 | c USE XFRAC FOR FRACTAL AEROSOLS PROPERTIES AT LAMBDA < 2. um |
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135 | |
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136 | |
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137 | |
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138 | |
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139 | c /\ |
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140 | c / \ |
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141 | c / \ |
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142 | c / _O \ |
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143 | c / |/ \ |
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144 | c / / \ \ |
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145 | c / |\ \/\ \ |
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146 | c / || / \ \ |
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147 | c ---------------- |
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148 | c | WARNING | |
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149 | c | SLOW DOWN | |
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150 | c ---------------- |
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151 | |
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152 | |
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153 | |
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154 | |
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155 | c*********** EN TRAVAUX *************************** |
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156 | |
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157 | TAEROS=0. |
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158 | TAEROSCAT=0. |
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159 | CBAR=0. |
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160 | |
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161 | |
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162 | DO inq=1,nmicro !BOUCLE SUR LES nmicro TAILLE D"AEROSOLS |
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163 | |
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164 | |
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165 | IF (R(inq).lt.RF(inq)) THEN ! aerosols spheriques |
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166 | |
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167 | |
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168 | if(ioptv.eq.0.and.J.eq.1) then |
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169 | c CALL XMIE(R(inq)*1.e6,REALV(K),XIMGV(K), |
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170 | c & QEXT,QSCT,QABS,QBAR,WNOV(K)) |
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171 | |
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172 | CALL CMIE(1.E-2/WNOV(K),REALV(K),XIMGV(K),R(inq), |
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173 | & QEXT,QSCT,QABS,QBAR) |
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174 | |
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175 | c print*,'inq=',inq,' QM1=',QM1(inq,K),' QEXT=',QEXT |
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176 | |
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177 | QM1(inq,K)=QEXT |
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178 | QM2(inq,K)=QSCT |
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179 | QM3(inq,K)=QABS |
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180 | QM4(inq,K)=QBAR |
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181 | endif |
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182 | |
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183 | |
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184 | if (microfi.eq.1) then |
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185 | ig_=ig |
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186 | else |
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187 | ig_=12 |
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188 | endif |
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189 | |
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190 | TAEROS=QM1(inq,K)*qaer(ig_,NLAYER+1-J,inq)*1.e-4+TAEROS |
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191 | TAEROSCAT=QM2(inq,K)*qaer(ig_,NLAYER+1-J,inq)*1.e-4+TAEROSCAT |
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192 | CBAR=CBAR+QM4(inq,K)*QM2(inq,K)*qaer(ig_,NLAYER+1-J,inq)*1.e-4 |
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193 | |
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194 | ELSE ! aerosols fractals |
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195 | |
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196 | XMONO=(R(inq)/RF(inq))**3. |
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197 | XRULE=1. |
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198 | |
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199 | if(XMONO.gt.16384./1.5) then |
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200 | XRULE=(XMONO/16384.) |
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201 | XMONO=16384. |
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202 | endif |
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203 | |
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204 | if(ioptv.eq.0.and.J.eq.1) then |
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205 | |
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206 | CALL OPTFRAC(XMONO,10000./WNOV(K) |
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207 | & ,QEXT,QSCT,QABS,QBAR) |
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208 | |
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209 | c CALL CFFFV11(1.e-2/WNOV(K),REALV(K),XIMGV(K),RF(inq),2. |
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210 | c & ,XMONO,QSCT,QEXT,QABS,QBAR) |
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211 | |
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212 | |
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213 | QF1(inq,K)=QEXT*XRULE |
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214 | QF2(inq,K)=QSCT*XRULE |
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215 | QF3(inq,K)=QABS*XRULE |
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216 | QF4(inq,K)=QBAR |
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217 | |
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218 | c print*,'inq=',inq,' QF1=',QF1(inq,K),' QEXT=',QEXT,' XRULE=',XRULE |
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219 | |
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220 | endif |
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221 | |
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222 | |
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223 | if (microfi.eq.1) then |
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224 | ig_=ig |
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225 | else |
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226 | ig_=12 |
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227 | endif |
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228 | |
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229 | TAEROS=QF1(inq,K)*qaer(ig_,NLAYER+1-J,inq)+TAEROS |
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230 | TAEROSCAT=QF2(inq,K)*qaer(ig_,NLAYER+1-J,inq)+TAEROSCAT |
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231 | CBAR=CBAR+QF4(inq,K)*QF2(inq,K)*qaer(ig_,NLAYER+1-J,inq) |
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232 | |
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233 | |
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234 | ENDIF |
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235 | |
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236 | |
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237 | ENDDO ! nmicro |
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238 | |
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239 | |
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240 | CBAR=CBAR/TAEROSCAT |
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241 | |
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242 | DELTAZ=Z(J)-Z(J+1) |
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243 | |
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244 | c -------------------------------------------------------------------- |
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245 | c profil brume Pascal: fit T (sauf tropopause) et albedo |
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246 | c ------------------- |
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247 | if( cutoff.eq.1) then |
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248 | IF(PRESS(J).gt.9.e-3) THEN |
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249 | TAEROS=TAEROSM1*DELTAZ/DELTAZM1*0.85 |
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250 | TAEROSCAT=TAEROSCATM1*DELTAZ/DELTAZM1*0.85 |
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251 | c TAEROS=0. |
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252 | c TAEROSCAT=0. |
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253 | ENDIF |
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254 | |
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255 | IF(PRESS(J).gt.1.e-1) THEN |
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256 | TAEROS=TAEROSM1*DELTAZ/DELTAZM1*1.15 |
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257 | TAEROSCAT=TAEROSCATM1*DELTAZ/DELTAZM1*1.15 |
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258 | c TAEROS=0. |
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259 | c TAEROSCAT=0. |
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260 | ENDIF |
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261 | endif !cutoff=1 |
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262 | |
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263 | c profil brume pour fit T (y compris tropopause), mais ne fit plus albedo... |
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264 | c ----------------------- |
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265 | if( cutoff.eq.2) then |
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266 | IF(PRESS(J).gt.1.e-1) THEN |
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267 | TAEROS=0. |
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268 | TAEROSCAT=0. |
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269 | ENDIF |
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270 | endif !cutoff=2 |
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271 | c -------------------------------------------------------------------- |
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272 | |
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273 | TAEROSM1=TAEROS |
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274 | TAEROSCATM1=TAEROSCAT |
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275 | DELTAZM1=DELTAZ |
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276 | |
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277 | |
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278 | IF (TAEROSCAT.le.0.) CBAR=0. |
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279 | |
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280 | c if(ig.eq.12) then |
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281 | c if(j.eq.1) print*,'NEWK',wlnv(k) |
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282 | c print*,j,TAEROS,xv1(j,k),' ', TAEROSCAT/TAEROS, |
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283 | c & xv2(j,k)/xv1(j,k),' ',CBAR,xv3(j,k) |
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284 | c print*,' ' |
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285 | c endif |
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286 | |
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287 | |
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288 | c print*,'HERE; MCKAY AEROSOLS VIS' |
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289 | |
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290 | c TAEROSCAT=xv2(j,k) |
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291 | c TAEROS=xv1(j,k) |
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292 | c CBAR=xv3(j,k) |
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293 | |
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294 | c if (ig.eq.1) then |
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295 | c if (k.eq.NSPECV/2) then |
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296 | c print*,'@VI',K,J,TAEROS,TAEROSCAT,CBAR |
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297 | c print*,'@ ',K,J,QF1(1,K),QF2(1,K),qaer(12,NLAYER+1-J,1) |
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298 | c print*,'@ ',K,J,QF1(3,K),QF2(3,K),qaer(12,NLAYER+1-J,3) |
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299 | c print*,'@ ',K,J,QF1(5,K),QF2(5,K),qaer(12,NLAYER+1-J,5) |
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300 | c print*,'@ ',K,J,QF1(7,K),QF2(7,K),qaer(12,NLAYER+1-J,7) |
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301 | c print*,'@ ',K,J,QF1(9,K),QF2(9,K),qaer(12,NLAYER+1-J,9) |
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302 | c print* |
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303 | c endif |
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304 | c endif |
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305 | |
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306 | |
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307 | |
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308 | c*********** EN TRAVAUX *************************** |
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309 | |
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310 | C #2: RAYLEIGH |
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311 | c------------------------------- |
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312 | |
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313 | C RAYLEIGH SCATTERING STRAIGHT FROM HANSEN AND TRAVIS...SEE NOTES |
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314 | C RATIOED BY THE LAYER COLUMN NUMBER TO THE TOTAL |
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315 | C COLUMN NUMBER ON EARTH. CM-2 |
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316 | C THIS IS THE SCATTERING BY THE ATMOSPHERE |
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317 | |
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318 | TAURAY=(COLDEN(J)*28.9/(XMU(J)*1013.25))* |
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319 | &(.008569/WLNV(K)**4)*(1.+.0113/WLNV(K)**2+.00013/WLNV(K)**4) |
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320 | |
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321 | c PRINT*,WLNV(K) |
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322 | c COLX=0. |
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323 | c COLP=0. |
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324 | c COLT=0. |
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325 | c DO IU=1,NLAYER |
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326 | c COLP=COLDEN(IU)*1.e+1*1.35+COLP |
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327 | c TAURAY=(COLDEN(IU)*28.9/(XMU(IU)*1013.25))* |
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328 | c & (.008569/WLNV(K)**4)*(1.+.0113/WLNV(K)**2 |
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329 | c & +.00013/WLNV(K)**4) |
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330 | c COLT=COLT+TAURAY |
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331 | c COLX=COLDEN(IU)*1.e+1/(1.E5*28./22.4E3)*1.e-1*0.0933e-1+COLX |
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332 | c | |
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333 | c | |
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334 | c g/cm2->kg/m2 | m2/kg |
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335 | c Print*,IU, tauray, |
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336 | c & COLDEN(IU)*1.e+1/(1.E5*28./22.4E3)*1.e-1*0.543e-1 |
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337 | c ENDDO |
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338 | c PRINT*,COLP,' PRESSURE AT GROUND;' |
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339 | c PRINT*,COLX,' TAU_GAS AT GROUND;' |
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340 | c print*,colt,colx,' COLT, COLX' |
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341 | c STOP |
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342 | |
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343 | c DZ=Z(J)-Z(J+1) |
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344 | c PRINT*, Z(J),WLNV(K), |
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345 | c &(28.9/(XMU(J)*1013.25))*(.008569/WLNV(K)**4)* |
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346 | c &(1.+.0113/WLNV(K)**2+.00013/WLNV(K)**4) |
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347 | c & ,COLDEN(J)/DZ/100000., |
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348 | c &(28.9/(XMU(J)*1013.25))*(.008569/WLNV(K)**4)* |
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349 | c &(1.+.0113/WLNV(K)**2+.00013/WLNV(K)**4) |
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350 | c & *COLDEN(J)/DZ/100000. |
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351 | |
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352 | |
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353 | |
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354 | C #3: CLOUD |
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355 | c---------------------------- |
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356 | |
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357 | C NEXT COMPUTE TAU CLOUD |
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358 | |
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359 | TAUCLD=0.0 |
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360 | c XNCLD(J)=0. |
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361 | IF ( XNCLD(J) .GT. 0. .and .taufac.gt.0.) THEN |
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362 | CALL XMIE(RADCLD(J),RCLDV(K),XICLDV(K), |
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363 | & QEXTC,QSCTC,QABSC,CBARC,WNOV(K)) |
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364 | TAUCLD=QEXTC*XNCLD(J) |
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365 | ENDIF |
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366 | C |
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367 | TAURV(ig,K)=TAURV(ig,K)+TAURAY |
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368 | TAUGVD(ig,J,K)=TAURV(ig,K) |
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369 | |
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370 | TAUHV(ig,K)=TAUHV(ig,K)+TAEROS ! INTEGRATED Quant. |
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371 | TAUHVD(ig,J,K)=TAUHV(ig,K) |
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372 | |
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373 | TAUCV(ig,K)=TAUCV(ig,K)+TAUCLD |
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374 | |
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375 | C #4: TAUGAS |
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376 | C---------------------------- |
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377 | |
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378 | C LOOP OVER THE NTERMS |
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379 | C THIS IS THE ABSORPTION BY THE ATMOSPHERE (METHANE) |
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380 | |
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381 | |
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382 | DO 909 NT=1,NTERM(K) |
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383 | TAUGAS=COLDEN(J)*GAS1(J)*BTERM(NT,K)* |
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384 | & ( (PRESS(J+1) + PRESS(J))*.5 )**PEXPON(K) |
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385 | |
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386 | |
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387 | C COMPUTE THE AVERAGE COSBAR AND WBAR |
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388 | C&& |
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389 | |
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390 | c CBAR=MIN(1.0,1.05*CBAR) ! THE HAZE FORWARD SCATTERING 5%(WHY?) |
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391 | COSBV(ig,J,K,NT)=(CBAR*TAEROSCAT + CBARC*TAUCLD) |
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392 | & /(TAEROSCAT+TAUCLD+TAURAY) !CBAR_RAY=0. |
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393 | c print*,'CBV',J,K,NT,CBAR,TAEROSCAT,CBARC,TAUCLD |
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394 | |
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395 | DTAUV(ig,J,K,NT)=TAUGAS+TAEROS+TAURAY+TAUCLD !TOTAL TAU_EXT |
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396 | TAUGV(ig,K)=TAUGV(ig,K)+TAUGAS*ATERM(NT,K) !TAU_ABS_METH INTEG. |
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397 | |
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398 | C WE LET W RAYLEIGH BE .999 OR W=1 WHEN ONLY RAYLEIGH=PROBLEM FOR TRID |
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399 | c WE HAVE ASSUMED ABOVE THAT COSBAR FOR RAYLEIGH IS ZERO. |
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400 | c if (ig.eq.1) then |
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401 | c if (k.eq.NSPECV/2) then |
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402 | c print*,'@VI',K,J,DTAUV(ig,J,K,1),TAUGAS,TAEROS,TAUCLD |
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403 | c endif |
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404 | c endif |
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405 | |
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406 | |
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407 | c***************** ECHANGE |
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408 | c WBARV(J,K,NT)=(QSCT*XNUMB(J)+TAURAY*0.9999999 + QSCTC*XNCLD(J) ) |
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409 | c**************** |
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410 | WBARV(ig,J,K,NT)=(TAEROSCAT+TAURAY*0.9999999 + QSCTC*XNCLD(J) ) |
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411 | c WBARV(ig,J,K,NT)=(TAEROSCAT+TAURAY*0.9999999 ) |
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412 | & /(TAUGAS+TAEROS+TAURAY+TAUCLD) |
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413 | c**************** |
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414 | IF((TAEROS+TAUCLD+TAURAY+TAUCLD).le.0.) WBARV(ig,J,K,NT)=0. |
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415 | IF((TAEROS+TAUCLD+TAURAY).le.0.) COSBV(ig,J,K,NT)=0. |
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416 | |
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417 | c print*,'WBV',J,K,NT,TAEROSCAT,TAURAY,QSCTC*XNCLD(J) |
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418 | c print*,'WBV',J,K,NT,TAEROS,TAUGAS,TAURAY,TAUCLD |
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419 | c print*,Z(j),J,K,NT,TAUV(1,j,K,NT),WBARV(1,j,K,NT),COSBV(1,j,K,NT) |
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420 | |
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421 | 909 CONTINUE |
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422 | TAUGVD(ig,J,K)=TAUGVD(ig,J,K)+TAUGV(ig,K) |
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423 | 100 CONTINUE |
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424 | ioptv=1 |
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425 | 101 CONTINUE |
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426 | c HERE END OF THE LOOPS ******* |
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427 | c****************************** |
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428 | |
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429 | DO 102 ig=1,klon |
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430 | |
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431 | C TOTAL EXTINCTION OPTICAL DEPTHS |
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432 | DO 119 K=1,NSPECV |
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433 | C LOOP OVER NTERMS |
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434 | DO 119 NT=1,NTERM(K) |
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435 | TAUV(ig,1,K,NT)=0.0 |
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436 | DO 119 J=1,NLAYER |
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437 | TAUV(ig,J+1,K,NT)=TAUV(ig,J,K,NT)+DTAUV(ig,J,K,NT) |
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438 | 119 CONTINUE |
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439 | |
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440 | c print*,'SETUP' |
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441 | c do i=1,NSPECV |
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442 | c print*,WLNV(i) |
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443 | c do j=1,NLAYER+1 |
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444 | c print*,Z(j),TAUV(1,j,i,1),WBARV(1,j,i,1),COSBV(1,j,i,1) |
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445 | c enddo |
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446 | c enddo |
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447 | c |
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448 | c IF (IPRINT .GT. 1) THEN |
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449 | c NT=1 |
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450 | c IF (2 .GT. 1) THEN |
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451 | c WRITE (6,120) |
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452 | c 120 FORMAT(///' OPTICAL CONSTANTS IN THE VISIBLE (@EQUATOR) ') |
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453 | c WRITE(6,*) 'latitude:',ig |
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454 | c DO 200 K=1,NSPECV |
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455 | c WRITE (6,190) |
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456 | c WRITE (6,210)K,WLNV(K),WNOV(K),BWNV(K) |
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457 | c & ,BWNV(K)+DWNV(K),DWNV(K) |
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458 | c WRITE (6,230)REALV(K),XIMGV(K) |
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459 | c DO 195 J=1,NLAYER,NLAYER |
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460 | C RECALCULATE FOR PRINT OUT ONLY, ONLY FIRST NTERM AT ig=12 (EQUATOR) |
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461 | c WRITE (6,220)XNUMB(J), WBARV(ig,J,K,NT),COSBV(ig,J,K,NT) |
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462 | c & ,DTAUV(ig,J,K,NT),TAUV(ig,J,K,NT) |
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463 | c 195 CONTINUE |
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464 | c WRITE (6,240) TAUV(IG,NLEVEL,K,NT) |
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465 | c 200 CONTINUE |
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466 | c END IF |
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467 | 102 CONTINUE |
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468 | 210 FORMAT(1X,I3,F10.3,F10.2,F10.2,'-',F8.2,F10.3) |
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469 | 190 FORMAT(1X//' SNUM MICRONS WAVENU INTERVAL DELTA-WN') |
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470 | 230 FORMAT(1X,'NREAL(LAYER)= ',1PE10.3,' NIMG(LAYER)= ',E10.3/ |
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471 | &' #AEROSOLS WBAR COSBAR DTAU TAU' |
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472 | & ,9X,'RAY GAS AEROSOL') |
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473 | 220 FORMAT(8(1X,F9.3)) |
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474 | 240 FORMAT(41X,F9.3) |
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475 | |
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476 | print*,"TAUV(1400,:,10,2)=",TAUV(1400,:,10,2) |
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477 | print*,"DTAUV(1400,:,10,2)=",DTAUV(1400,:,10,2) |
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478 | c ioptv=1 |
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479 | PRINT*, 'FIN OPTCV' |
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480 | stop |
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481 | RETURN |
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482 | END |
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