1 | ! |
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2 | ! $Header$ |
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3 | ! |
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4 | SUBROUTINE ADVZP(LIMIT,DTZ,W,SM,S0,SSX,SY,SZ |
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5 | . ,SSXX,SSXY,SSXZ,SYY,SYZ,SZZ,ntra ) |
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6 | |
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7 | IMPLICIT NONE |
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8 | |
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9 | CCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCC |
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10 | C C |
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11 | C second-order moments (SOM) advection of tracer in Z direction C |
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12 | C C |
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13 | CCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCC |
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14 | C C |
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15 | C Source : Pascal Simon ( Meteo, CNRM ) C |
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16 | C Adaptation : A.A. (LGGE) C |
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17 | C Derniere Modif : 19/11/95 LAST C |
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18 | C C |
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19 | C sont les arguments d'entree pour le s-pg C |
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20 | C C |
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21 | C argument de sortie du s-pg C |
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22 | C C |
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23 | CCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCC |
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24 | CCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCCC |
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25 | C |
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26 | C Rem : Probleme aux poles il faut reecrire ce cas specifique |
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27 | C Attention au sens de l'indexation |
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28 | C |
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29 | |
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30 | C |
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31 | C parametres principaux du modele |
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32 | C |
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33 | !----------------------------------------------------------------------- |
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34 | ! INCLUDE 'dimensions.h' |
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35 | ! |
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36 | ! dimensions.h contient les dimensions du modele |
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37 | ! ndm est tel que iim=2**ndm |
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38 | !----------------------------------------------------------------------- |
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39 | |
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40 | INTEGER iim,jjm,llm,ndm |
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41 | |
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42 | PARAMETER (iim= 128,jjm=96,llm=64,ndm=1) |
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43 | |
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44 | !----------------------------------------------------------------------- |
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45 | ! |
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46 | ! $Header$ |
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47 | ! |
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48 | ! |
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49 | ! ATTENTION!!!!: ce fichier include est compatible format fixe/format libre |
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50 | ! veillez n'utiliser que des ! pour les commentaires |
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51 | ! et bien positionner les & des lignes de continuation |
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52 | ! (les placer en colonne 6 et en colonne 73) |
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53 | ! |
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54 | ! |
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55 | !----------------------------------------------------------------------- |
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56 | ! INCLUDE 'paramet.h' |
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57 | |
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58 | INTEGER iip1,iip2,iip3,jjp1,llmp1,llmp2,llmm1 |
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59 | INTEGER kftd,ip1jm,ip1jmp1,ip1jmi1,ijp1llm |
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60 | INTEGER ijmllm,mvar |
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61 | INTEGER jcfil,jcfllm |
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62 | |
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63 | PARAMETER( iip1= iim+1,iip2=iim+2,iip3=iim+3 & |
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64 | & ,jjp1=jjm+1-1/jjm) |
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65 | PARAMETER( llmp1 = llm+1, llmp2 = llm+2, llmm1 = llm-1 ) |
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66 | PARAMETER( kftd = iim/2 -ndm ) |
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67 | PARAMETER( ip1jm = iip1*jjm, ip1jmp1= iip1*jjp1 ) |
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68 | PARAMETER( ip1jmi1= ip1jm - iip1 ) |
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69 | PARAMETER( ijp1llm= ip1jmp1 * llm, ijmllm= ip1jm * llm ) |
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70 | PARAMETER( mvar= ip1jmp1*( 2*llm+1) + ijmllm ) |
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71 | PARAMETER( jcfil=jjm/2+5, jcfllm=jcfil*llm ) |
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72 | |
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73 | !----------------------------------------------------------------------- |
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74 | ! |
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75 | ! $Id: comconst.h 1437 2010-09-30 08:29:10Z emillour $ |
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76 | ! |
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77 | !----------------------------------------------------------------------- |
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78 | ! INCLUDE comconst.h |
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79 | |
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80 | COMMON/comconsti/im,jm,lllm,imp1,jmp1,lllmm1,lllmp1,lcl, & |
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81 | & iflag_top_bound,mode_top_bound |
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82 | COMMON/comconstr/dtvr,daysec, & |
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83 | & pi,dtphys,dtdiss,rad,r,kappa,cotot,unsim,g,omeg & |
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84 | & ,dissip_fac_mid,dissip_fac_up,dissip_deltaz,dissip_hdelta & |
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85 | & ,dissip_pupstart ,tau_top_bound, & |
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86 | & daylen,molmass, ihf |
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87 | COMMON/cpdetvenus/cpp,nu_venus,t0_venus |
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88 | |
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89 | INTEGER im,jm,lllm,imp1,jmp1,lllmm1,lllmp1,lcl |
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90 | REAL dtvr ! dynamical time step (in s) |
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91 | REAL daysec !length (in s) of a standard day |
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92 | REAL pi ! something like 3.14159.... |
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93 | REAL dtphys ! (s) time step for the physics |
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94 | REAL dtdiss ! (s) time step for the dissipation |
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95 | REAL rad ! (m) radius of the planet |
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96 | REAL r ! Reduced Gas constant r=R/mu |
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97 | ! with R=8.31.. J.K-1.mol-1, mu: mol mass of atmosphere (kg/mol) |
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98 | REAL cpp ! Cp |
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99 | REAL kappa ! kappa=R/Cp |
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100 | REAL cotot |
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101 | REAL unsim ! = 1./iim |
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102 | REAL g ! (m/s2) gravity |
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103 | REAL omeg ! (rad/s) rotation rate of the planet |
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104 | ! Dissipation factors, for Earth model: |
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105 | REAL dissip_factz,dissip_zref !dissip_deltaz |
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106 | ! Dissipation factors, for other planets: |
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107 | REAL dissip_fac_mid,dissip_fac_up,dissip_deltaz,dissip_hdelta |
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108 | REAL dissip_pupstart |
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109 | INTEGER iflag_top_bound,mode_top_bound |
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110 | REAL tau_top_bound |
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111 | REAL daylen ! length of solar day, in 'standard' day length |
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112 | REAL molmass ! (g/mol) molar mass of the atmosphere |
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113 | |
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114 | REAL nu_venus,t0_venus ! coeffs needed for Cp(T), Venus atmosphere |
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115 | REAL ihf ! (W/m2) intrinsic heat flux for giant planets |
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116 | |
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117 | |
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118 | !----------------------------------------------------------------------- |
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119 | ! |
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120 | ! $Id: comvert.h 1654 2012-09-24 15:07:18Z aslmd $ |
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121 | ! |
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122 | !----------------------------------------------------------------------- |
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123 | ! INCLUDE 'comvert.h' |
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124 | |
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125 | COMMON/comvertr/ap(llm+1),bp(llm+1),presnivs(llm),dpres(llm), & |
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126 | & pa,preff,nivsigs(llm),nivsig(llm+1), & |
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127 | & aps(llm),bps(llm),scaleheight,pseudoalt(llm) |
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128 | |
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129 | common/comverti/disvert_type, pressure_exner |
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130 | |
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131 | real ap ! hybrid pressure contribution at interlayers |
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132 | real bp ! hybrid sigma contribution at interlayer |
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133 | real presnivs ! (reference) pressure at mid-layers |
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134 | real dpres |
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135 | real pa ! reference pressure (Pa) at which hybrid coordinates |
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136 | ! become purely pressure |
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137 | real preff ! reference surface pressure (Pa) |
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138 | real nivsigs |
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139 | real nivsig |
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140 | real aps ! hybrid pressure contribution at mid-layers |
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141 | real bps ! hybrid sigma contribution at mid-layers |
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142 | real scaleheight ! atmospheric (reference) scale height (km) |
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143 | real pseudoalt ! pseudo-altitude of model levels (km), based on presnivs(), |
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144 | ! preff and scaleheight |
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145 | |
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146 | integer disvert_type ! type of vertical discretization: |
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147 | ! 1: Earth (default for planet_type==earth), |
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148 | ! automatic generation |
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149 | ! 2: Planets (default for planet_type!=earth), |
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150 | ! using 'z2sig.def' (or 'esasig.def) file |
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151 | |
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152 | logical pressure_exner |
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153 | ! compute pressure inside layers using Exner function, else use mean |
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154 | ! of pressure values at interfaces |
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155 | |
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156 | !----------------------------------------------------------------------- |
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157 | ! |
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158 | ! $Header$ |
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159 | ! |
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160 | !CDK comgeom |
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161 | COMMON/comgeom/ & |
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162 | & cu(ip1jmp1),cv(ip1jm),unscu2(ip1jmp1),unscv2(ip1jm), & |
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163 | & aire(ip1jmp1),airesurg(ip1jmp1),aireu(ip1jmp1), & |
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164 | & airev(ip1jm),unsaire(ip1jmp1),apoln,apols, & |
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165 | & unsairez(ip1jm),airuscv2(ip1jm),airvscu2(ip1jm), & |
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166 | & aireij1(ip1jmp1),aireij2(ip1jmp1),aireij3(ip1jmp1), & |
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167 | & aireij4(ip1jmp1),alpha1(ip1jmp1),alpha2(ip1jmp1), & |
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168 | & alpha3(ip1jmp1),alpha4(ip1jmp1),alpha1p2(ip1jmp1), & |
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169 | & alpha1p4(ip1jmp1),alpha2p3(ip1jmp1),alpha3p4(ip1jmp1), & |
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170 | & fext(ip1jm),constang(ip1jmp1),rlatu(jjp1),rlatv(jjm), & |
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171 | & rlonu(iip1),rlonv(iip1),cuvsurcv(ip1jm),cvsurcuv(ip1jm), & |
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172 | & cvusurcu(ip1jmp1),cusurcvu(ip1jmp1),cuvscvgam1(ip1jm), & |
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173 | & cuvscvgam2(ip1jm),cvuscugam1(ip1jmp1), & |
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174 | & cvuscugam2(ip1jmp1),cvscuvgam(ip1jm),cuscvugam(ip1jmp1), & |
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175 | & unsapolnga1,unsapolnga2,unsapolsga1,unsapolsga2, & |
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176 | & unsair_gam1(ip1jmp1),unsair_gam2(ip1jmp1),unsairz_gam(ip1jm), & |
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177 | & aivscu2gam(ip1jm),aiuscv2gam(ip1jm),xprimu(iip1),xprimv(iip1) |
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178 | |
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179 | ! |
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180 | REAL & |
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181 | & cu,cv,unscu2,unscv2,aire,airesurg,aireu,airev,unsaire,apoln ,& |
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182 | & apols,unsairez,airuscv2,airvscu2,aireij1,aireij2,aireij3,aireij4,& |
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183 | & alpha1,alpha2,alpha3,alpha4,alpha1p2,alpha1p4,alpha2p3,alpha3p4 ,& |
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184 | & fext,constang,rlatu,rlatv,rlonu,rlonv,cuvscvgam1,cuvscvgam2 ,& |
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185 | & cvuscugam1,cvuscugam2,cvscuvgam,cuscvugam,unsapolnga1,unsapolnga2& |
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186 | & ,unsapolsga1,unsapolsga2,unsair_gam1,unsair_gam2,unsairz_gam ,& |
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187 | & aivscu2gam ,aiuscv2gam,cuvsurcv,cvsurcuv,cvusurcu,cusurcvu,xprimu& |
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188 | & , xprimv |
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189 | ! |
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190 | C |
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191 | C Arguments : |
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192 | C ---------- |
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193 | C dty : frequence fictive d'appel du transport |
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194 | C parbu,pbarv : flux de masse en x et y en Pa.m2.s-1 |
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195 | c |
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196 | INTEGER lon,lat,niv |
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197 | INTEGER i,j,jv,k,kp,l,lp |
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198 | INTEGER ntra |
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199 | c PARAMETER (ntra = 1) |
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200 | c |
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201 | REAL dtz |
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202 | REAL w ( iip1,jjp1,llm ) |
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203 | c |
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204 | C moments: SM total mass in each grid box |
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205 | C S0 mass of tracer in each grid box |
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206 | C Si 1rst order moment in i direction |
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207 | C |
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208 | REAL SM(iip1,jjp1,llm) |
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209 | + ,S0(iip1,jjp1,llm,ntra) |
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210 | REAL SSX(iip1,jjp1,llm,ntra) |
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211 | + ,SY(iip1,jjp1,llm,ntra) |
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212 | + ,SZ(iip1,jjp1,llm,ntra) |
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213 | + ,SSXX(iip1,jjp1,llm,ntra) |
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214 | + ,SSXY(iip1,jjp1,llm,ntra) |
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215 | + ,SSXZ(iip1,jjp1,llm,ntra) |
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216 | + ,SYY(iip1,jjp1,llm,ntra) |
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217 | + ,SYZ(iip1,jjp1,llm,ntra) |
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218 | + ,SZZ(iip1,jjp1,llm,ntra) |
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219 | C |
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220 | C Local : |
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221 | C ------- |
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222 | C |
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223 | C mass fluxes across the boundaries (UGRI,VGRI,WGRI) |
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224 | C mass fluxes in kg |
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225 | C declaration : |
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226 | C |
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227 | REAL WGRI(iip1,jjp1,0:llm) |
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228 | |
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229 | C Rem : UGRI et VGRI ne sont pas utilises dans |
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230 | C cette subroutine ( advection en z uniquement ) |
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231 | C Rem 2 :le dimensionnement de VGRI depend de celui de pbarv |
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232 | C attention a celui de WGRI |
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233 | C |
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234 | C the moments F are similarly defined and used as temporary |
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235 | C storage for portions of the grid boxes in transit |
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236 | C |
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237 | C the moments Fij are used as temporary storage for |
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238 | C portions of the grid boxes in transit at the current level |
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239 | C |
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240 | C work arrays |
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241 | C |
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242 | C |
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243 | REAL F0(iim,llm,ntra),FM(iim,llm) |
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244 | REAL FX(iim,llm,ntra),FY(iim,llm,ntra) |
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245 | REAL FZ(iim,llm,ntra) |
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246 | REAL FXX(iim,llm,ntra),FXY(iim,llm,ntra) |
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247 | REAL FXZ(iim,llm,ntra),FYY(iim,llm,ntra) |
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248 | REAL FYZ(iim,llm,ntra),FZZ(iim,llm,ntra) |
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249 | REAL S00(ntra) |
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250 | REAL SM0 ! Just temporal variable |
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251 | C |
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252 | C work arrays |
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253 | C |
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254 | REAL ALF(iim),ALF1(iim) |
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255 | REAL ALFQ(iim),ALF1Q(iim) |
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256 | REAL ALF2(iim),ALF3(iim) |
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257 | REAL ALF4(iim) |
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258 | REAL TEMPTM ! Just temporal variable |
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259 | REAL SLPMAX,S1MAX,S1NEW,S2NEW |
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260 | c |
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261 | REAL sqi,sqf |
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262 | LOGICAL LIMIT |
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263 | |
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264 | lon = iim ! rem : Il est possible qu'un pbl. arrive ici |
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265 | lat = jjp1 ! a cause des dim. differentes entre les |
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266 | niv = llm ! tab. S et VGRI |
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267 | |
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268 | c----------------------------------------------------------------- |
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269 | C *** Test : diag de la qtite totale de traceur dans |
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270 | C l'atmosphere avant l'advection en Y |
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271 | c |
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272 | sqi = 0. |
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273 | sqf = 0. |
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274 | c |
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275 | DO l = 1,llm |
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276 | DO j = 1,jjp1 |
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277 | DO i = 1,iim |
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278 | sqi = sqi + S0(i,j,l,ntra) |
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279 | END DO |
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280 | END DO |
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281 | END DO |
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282 | PRINT*,'---------- DIAG DANS ADVZP - ENTREE --------' |
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283 | PRINT*,'sqi=',sqi |
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284 | |
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285 | c----------------------------------------------------------------- |
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286 | C Interface : adaptation nouveau modele |
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287 | C ------------------------------------- |
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288 | C |
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289 | C Conversion des flux de masses en kg |
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290 | |
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291 | DO 500 l = 1,llm |
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292 | DO 500 j = 1,jjp1 |
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293 | DO 500 i = 1,iip1 |
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294 | wgri (i,j,llm+1-l) = w (i,j,l) |
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295 | 500 CONTINUE |
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296 | do j=1,jjp1 |
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297 | do i=1,iip1 |
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298 | wgri(i,j,0)=0. |
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299 | enddo |
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300 | enddo |
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301 | c |
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302 | cAA rem : Je ne suis pas sur du signe |
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303 | cAA Je ne suis pas sur pour le 0:llm |
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304 | c |
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305 | c----------------------------------------------------------------- |
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306 | C---------------------- START HERE ------------------------------- |
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307 | C |
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308 | C boucle sur les latitudes |
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309 | C |
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310 | DO 1 K=1,LAT |
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311 | C |
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312 | C place limits on appropriate moments before transport |
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313 | C (if flux-limiting is to be applied) |
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314 | C |
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315 | IF(.NOT.LIMIT) GO TO 101 |
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316 | C |
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317 | DO 10 JV=1,NTRA |
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318 | DO 10 L=1,NIV |
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319 | DO 100 I=1,LON |
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320 | IF(S0(I,K,L,JV).GT.0.) THEN |
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321 | SLPMAX=S0(I,K,L,JV) |
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322 | S1MAX =1.5*SLPMAX |
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323 | S1NEW =AMIN1(S1MAX,AMAX1(-S1MAX,SZ(I,K,L,JV))) |
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324 | S2NEW =AMIN1( 2.*SLPMAX-ABS(S1NEW)/3. , |
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325 | + AMAX1(ABS(S1NEW)-SLPMAX,SZZ(I,K,L,JV)) ) |
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326 | SZ (I,K,L,JV)=S1NEW |
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327 | SZZ(I,K,L,JV)=S2NEW |
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328 | SSXZ(I,K,L,JV)=AMIN1(SLPMAX,AMAX1(-SLPMAX,SSXZ(I,K,L,JV))) |
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329 | SYZ(I,K,L,JV)=AMIN1(SLPMAX,AMAX1(-SLPMAX,SYZ(I,K,L,JV))) |
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330 | ELSE |
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331 | SZ (I,K,L,JV)=0. |
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332 | SZZ(I,K,L,JV)=0. |
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333 | SSXZ(I,K,L,JV)=0. |
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334 | SYZ(I,K,L,JV)=0. |
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335 | ENDIF |
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336 | 100 CONTINUE |
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337 | 10 CONTINUE |
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338 | C |
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339 | 101 CONTINUE |
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340 | C |
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341 | C boucle sur les niveaux intercouches de 1 a NIV-1 |
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342 | C (flux nul au sommet L=0 et a la base L=NIV) |
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343 | C |
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344 | C calculate flux and moments between adjacent boxes |
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345 | C (flux from LP to L if WGRI(L).lt.0, from L to LP if WGRI(L).gt.0) |
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346 | C 1- create temporary moments/masses for partial boxes in transit |
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347 | C 2- reajusts moments remaining in the box |
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348 | C |
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349 | DO 11 L=1,NIV-1 |
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350 | LP=L+1 |
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351 | C |
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352 | DO 110 I=1,LON |
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353 | C |
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354 | IF(WGRI(I,K,L).LT.0.) THEN |
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355 | FM(I,L)=-WGRI(I,K,L)*DTZ |
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356 | ALF(I)=FM(I,L)/SM(I,K,LP) |
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357 | SM(I,K,LP)=SM(I,K,LP)-FM(I,L) |
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358 | ELSE |
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359 | FM(I,L)=WGRI(I,K,L)*DTZ |
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360 | ALF(I)=FM(I,L)/SM(I,K,L) |
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361 | SM(I,K,L)=SM(I,K,L)-FM(I,L) |
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362 | ENDIF |
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363 | C |
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364 | ALFQ (I)=ALF(I)*ALF(I) |
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365 | ALF1 (I)=1.-ALF(I) |
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366 | ALF1Q(I)=ALF1(I)*ALF1(I) |
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367 | ALF2 (I)=ALF1(I)-ALF(I) |
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368 | ALF3 (I)=ALF(I)*ALFQ(I) |
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369 | ALF4 (I)=ALF1(I)*ALF1Q(I) |
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370 | C |
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371 | 110 CONTINUE |
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372 | C |
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373 | DO 111 JV=1,NTRA |
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374 | DO 1110 I=1,LON |
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375 | C |
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376 | IF(WGRI(I,K,L).LT.0.) THEN |
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377 | C |
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378 | F0 (I,L,JV)=ALF (I)* ( S0(I,K,LP,JV)-ALF1(I)* |
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379 | + ( SZ(I,K,LP,JV)-ALF2(I)*SZZ(I,K,LP,JV) ) ) |
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380 | FZ (I,L,JV)=ALFQ(I)*(SZ(I,K,LP,JV)-3.*ALF1(I)*SZZ(I,K,LP,JV)) |
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381 | FZZ(I,L,JV)=ALF3(I)*SZZ(I,K,LP,JV) |
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382 | FXZ(I,L,JV)=ALFQ(I)*SSXZ(I,K,LP,JV) |
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383 | FYZ(I,L,JV)=ALFQ(I)*SYZ(I,K,LP,JV) |
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384 | FX (I,L,JV)=ALF (I)*(SSX(I,K,LP,JV)-ALF1(I)*SSXZ(I,K,LP,JV)) |
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385 | FY (I,L,JV)=ALF (I)*(SY(I,K,LP,JV)-ALF1(I)*SYZ(I,K,LP,JV)) |
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386 | FXX(I,L,JV)=ALF (I)*SSXX(I,K,LP,JV) |
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387 | FXY(I,L,JV)=ALF (I)*SSXY(I,K,LP,JV) |
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388 | FYY(I,L,JV)=ALF (I)*SYY(I,K,LP,JV) |
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389 | C |
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390 | S0 (I,K,LP,JV)=S0 (I,K,LP,JV)-F0 (I,L,JV) |
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391 | SZ (I,K,LP,JV)=ALF1Q(I) |
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392 | + *(SZ(I,K,LP,JV)+3.*ALF(I)*SZZ(I,K,LP,JV)) |
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393 | SZZ(I,K,LP,JV)=ALF4 (I)*SZZ(I,K,LP,JV) |
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394 | SSXZ(I,K,LP,JV)=ALF1Q(I)*SSXZ(I,K,LP,JV) |
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395 | SYZ(I,K,LP,JV)=ALF1Q(I)*SYZ(I,K,LP,JV) |
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396 | SSX (I,K,LP,JV)=SSX (I,K,LP,JV)-FX (I,L,JV) |
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397 | SY (I,K,LP,JV)=SY (I,K,LP,JV)-FY (I,L,JV) |
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398 | SSXX(I,K,LP,JV)=SSXX(I,K,LP,JV)-FXX(I,L,JV) |
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399 | SSXY(I,K,LP,JV)=SSXY(I,K,LP,JV)-FXY(I,L,JV) |
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400 | SYY(I,K,LP,JV)=SYY(I,K,LP,JV)-FYY(I,L,JV) |
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401 | C |
---|
402 | ELSE |
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403 | C |
---|
404 | F0 (I,L,JV)=ALF (I)*(S0(I,K,L,JV) |
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405 | + +ALF1(I) * (SZ(I,K,L,JV)+ALF2(I)*SZZ(I,K,L,JV)) ) |
---|
406 | FZ (I,L,JV)=ALFQ(I)*(SZ(I,K,L,JV)+3.*ALF1(I)*SZZ(I,K,L,JV)) |
---|
407 | FZZ(I,L,JV)=ALF3(I)*SZZ(I,K,L,JV) |
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408 | FXZ(I,L,JV)=ALFQ(I)*SSXZ(I,K,L,JV) |
---|
409 | FYZ(I,L,JV)=ALFQ(I)*SYZ(I,K,L,JV) |
---|
410 | FX (I,L,JV)=ALF (I)*(SSX(I,K,L,JV)+ALF1(I)*SSXZ(I,K,L,JV)) |
---|
411 | FY (I,L,JV)=ALF (I)*(SY(I,K,L,JV)+ALF1(I)*SYZ(I,K,L,JV)) |
---|
412 | FXX(I,L,JV)=ALF (I)*SSXX(I,K,L,JV) |
---|
413 | FXY(I,L,JV)=ALF (I)*SSXY(I,K,L,JV) |
---|
414 | FYY(I,L,JV)=ALF (I)*SYY(I,K,L,JV) |
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415 | C |
---|
416 | S0 (I,K,L,JV)=S0 (I,K,L,JV)-F0(I,L,JV) |
---|
417 | SZ (I,K,L,JV)=ALF1Q(I)*(SZ(I,K,L,JV)-3.*ALF(I)*SZZ(I,K,L,JV)) |
---|
418 | SZZ(I,K,L,JV)=ALF4 (I)*SZZ(I,K,L,JV) |
---|
419 | SSXZ(I,K,L,JV)=ALF1Q(I)*SSXZ(I,K,L,JV) |
---|
420 | SYZ(I,K,L,JV)=ALF1Q(I)*SYZ(I,K,L,JV) |
---|
421 | SSX (I,K,L,JV)=SSX (I,K,L,JV)-FX (I,L,JV) |
---|
422 | SY (I,K,L,JV)=SY (I,K,L,JV)-FY (I,L,JV) |
---|
423 | SSXX(I,K,L,JV)=SSXX(I,K,L,JV)-FXX(I,L,JV) |
---|
424 | SSXY(I,K,L,JV)=SSXY(I,K,L,JV)-FXY(I,L,JV) |
---|
425 | SYY(I,K,L,JV)=SYY(I,K,L,JV)-FYY(I,L,JV) |
---|
426 | C |
---|
427 | ENDIF |
---|
428 | C |
---|
429 | 1110 CONTINUE |
---|
430 | 111 CONTINUE |
---|
431 | C |
---|
432 | 11 CONTINUE |
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433 | C |
---|
434 | C puts the temporary moments Fi into appropriate neighboring boxes |
---|
435 | C |
---|
436 | DO 12 L=1,NIV-1 |
---|
437 | LP=L+1 |
---|
438 | C |
---|
439 | DO 120 I=1,LON |
---|
440 | C |
---|
441 | IF(WGRI(I,K,L).LT.0.) THEN |
---|
442 | SM(I,K,L)=SM(I,K,L)+FM(I,L) |
---|
443 | ALF(I)=FM(I,L)/SM(I,K,L) |
---|
444 | ELSE |
---|
445 | SM(I,K,LP)=SM(I,K,LP)+FM(I,L) |
---|
446 | ALF(I)=FM(I,L)/SM(I,K,LP) |
---|
447 | ENDIF |
---|
448 | C |
---|
449 | ALF1(I)=1.-ALF(I) |
---|
450 | ALFQ(I)=ALF(I)*ALF(I) |
---|
451 | ALF1Q(I)=ALF1(I)*ALF1(I) |
---|
452 | ALF2(I)=ALF(I)*ALF1(I) |
---|
453 | ALF3(I)=ALF1(I)-ALF(I) |
---|
454 | C |
---|
455 | 120 CONTINUE |
---|
456 | C |
---|
457 | DO 121 JV=1,NTRA |
---|
458 | DO 1210 I=1,LON |
---|
459 | C |
---|
460 | IF(WGRI(I,K,L).LT.0.) THEN |
---|
461 | C |
---|
462 | TEMPTM=-ALF(I)*S0(I,K,L,JV)+ALF1(I)*F0(I,L,JV) |
---|
463 | S0 (I,K,L,JV)=S0(I,K,L,JV)+F0(I,L,JV) |
---|
464 | SZZ(I,K,L,JV)=ALFQ(I)*FZZ(I,L,JV)+ALF1Q(I)*SZZ(I,K,L,JV) |
---|
465 | + +5.*( ALF2(I)*(FZ(I,L,JV)-SZ(I,K,L,JV))+ALF3(I)*TEMPTM ) |
---|
466 | SZ (I,K,L,JV)=ALF (I)*FZ (I,L,JV)+ALF1 (I)*SZ (I,K,L,JV) |
---|
467 | + +3.*TEMPTM |
---|
468 | SSXZ(I,K,L,JV)=ALF (I)*FXZ(I,L,JV)+ALF1 (I)*SSXZ(I,K,L,JV) |
---|
469 | + +3.*(ALF1(I)*FX (I,L,JV)-ALF (I)*SSX (I,K,L,JV)) |
---|
470 | SYZ(I,K,L,JV)=ALF (I)*FYZ(I,L,JV)+ALF1 (I)*SYZ(I,K,L,JV) |
---|
471 | + +3.*(ALF1(I)*FY (I,L,JV)-ALF (I)*SY (I,K,L,JV)) |
---|
472 | SSX (I,K,L,JV)=SSX (I,K,L,JV)+FX (I,L,JV) |
---|
473 | SY (I,K,L,JV)=SY (I,K,L,JV)+FY (I,L,JV) |
---|
474 | SSXX(I,K,L,JV)=SSXX(I,K,L,JV)+FXX(I,L,JV) |
---|
475 | SSXY(I,K,L,JV)=SSXY(I,K,L,JV)+FXY(I,L,JV) |
---|
476 | SYY(I,K,L,JV)=SYY(I,K,L,JV)+FYY(I,L,JV) |
---|
477 | C |
---|
478 | ELSE |
---|
479 | C |
---|
480 | TEMPTM=ALF(I)*S0(I,K,LP,JV)-ALF1(I)*F0(I,L,JV) |
---|
481 | S0 (I,K,LP,JV)=S0(I,K,LP,JV)+F0(I,L,JV) |
---|
482 | SZZ(I,K,LP,JV)=ALFQ(I)*FZZ(I,L,JV)+ALF1Q(I)*SZZ(I,K,LP,JV) |
---|
483 | + +5.*( ALF2(I)*(SZ(I,K,LP,JV)-FZ(I,L,JV))-ALF3(I)*TEMPTM ) |
---|
484 | SZ (I,K,LP,JV)=ALF (I)*FZ(I,L,JV)+ALF1(I)*SZ(I,K,LP,JV) |
---|
485 | + +3.*TEMPTM |
---|
486 | SSXZ(I,K,LP,JV)=ALF(I)*FXZ(I,L,JV)+ALF1(I)*SSXZ(I,K,LP,JV) |
---|
487 | + +3.*(ALF(I)*SSX(I,K,LP,JV)-ALF1(I)*FX(I,L,JV)) |
---|
488 | SYZ(I,K,LP,JV)=ALF(I)*FYZ(I,L,JV)+ALF1(I)*SYZ(I,K,LP,JV) |
---|
489 | + +3.*(ALF(I)*SY(I,K,LP,JV)-ALF1(I)*FY(I,L,JV)) |
---|
490 | SSX (I,K,LP,JV)=SSX (I,K,LP,JV)+FX (I,L,JV) |
---|
491 | SY (I,K,LP,JV)=SY (I,K,LP,JV)+FY (I,L,JV) |
---|
492 | SSXX(I,K,LP,JV)=SSXX(I,K,LP,JV)+FXX(I,L,JV) |
---|
493 | SSXY(I,K,LP,JV)=SSXY(I,K,LP,JV)+FXY(I,L,JV) |
---|
494 | SYY(I,K,LP,JV)=SYY(I,K,LP,JV)+FYY(I,L,JV) |
---|
495 | C |
---|
496 | ENDIF |
---|
497 | C |
---|
498 | 1210 CONTINUE |
---|
499 | 121 CONTINUE |
---|
500 | C |
---|
501 | 12 CONTINUE |
---|
502 | C |
---|
503 | C fin de la boucle principale sur les latitudes |
---|
504 | C |
---|
505 | 1 CONTINUE |
---|
506 | C |
---|
507 | DO l = 1,llm |
---|
508 | DO j = 1,jjp1 |
---|
509 | SM(iip1,j,l) = SM(1,j,l) |
---|
510 | S0(iip1,j,l,ntra) = S0(1,j,l,ntra) |
---|
511 | SSX(iip1,j,l,ntra) = SSX(1,j,l,ntra) |
---|
512 | SY(iip1,j,l,ntra) = SY(1,j,l,ntra) |
---|
513 | SZ(iip1,j,l,ntra) = SZ(1,j,l,ntra) |
---|
514 | ENDDO |
---|
515 | ENDDO |
---|
516 | c C------------------------------------------------------------- |
---|
517 | C *** Test : diag de la qqtite totale de tarceur |
---|
518 | C dans l'atmosphere avant l'advection en z |
---|
519 | DO l = 1,llm |
---|
520 | DO j = 1,jjp1 |
---|
521 | DO i = 1,iim |
---|
522 | sqf = sqf + S0(i,j,l,ntra) |
---|
523 | ENDDO |
---|
524 | ENDDO |
---|
525 | ENDDO |
---|
526 | PRINT*,'-------- DIAG DANS ADVZ - SORTIE ---------' |
---|
527 | PRINT*,'sqf=', sqf |
---|
528 | |
---|
529 | RETURN |
---|
530 | END |
---|