Helper function that returns names and descriptions of STICS input parameters from a partial name and/or descriptive keywords.
get_param_info(param = NULL, keyword = NULL, stics_version = "latest")Vector of parameter names (or partial names). Optional, if not provided, the function returns information for all parameters
Optional, strings or a vector of to be used for searching in parameters names and definition
Name of the STICS version. Optional, can be used
to search parameters information relative to a specific STICS version.
By default the latest version returned by get_stics_versions_compat()
is used.
A data.frame with information about parameter(s) with columns
name, file, min, max, definition, unit and cultivar
The function understand regex as input.
# Find by parameter name (fuzzy search):
SticsRFiles::get_param_info("alb")
#> name file min max definition unit
#> 14 albedo PARSOL 0.05 0.6 albedo of the bare dry soil SD
#> 15 albedomulchplastique PARTEC 0.05 0.8 albedo of plastic cover SD
#> 16 albedomulchresidus PARAM 0.05 0.8 albedo of plant mulch SD
#> 17 albveg STATION 0.05 0.3 albedo of the vegetation SD
#> cultivar
#> 14 NA
#> 15 NA
#> 16 NA
#> 17 NA
SticsRFiles::get_param_info("alb[e]?")
#> name file min max definition unit
#> 14 albedo PARSOL 0.05 0.6 albedo of the bare dry soil SD
#> 15 albedomulchplastique PARTEC 0.05 0.8 albedo of plastic cover SD
#> 16 albedomulchresidus PARAM 0.05 0.8 albedo of plant mulch SD
#> 17 albveg STATION 0.05 0.3 albedo of the vegetation SD
#> cultivar
#> 14 NA
#> 15 NA
#> 16 NA
#> 17 NA
# Find by keyword (fuzzy search in parameter name and description):
SticsRFiles::get_param_info(keyword = "bdil")
#> name file min max
#> 7 adil PARPLT 1 7
#> 8 adilmax PARPLT 3 10
#> 33 bdil PARPLT 0.01 0.8
#> 34 bdilmax PARPLT 0.01 0.8
#> definition unit
#> 7 parameter of the critical dilution curve [Nplante]=adil MS^(-bdil) %
#> 8 parameter of the maximum dilution curve [Nplante]=adilmax MS^(-bdilmax) %
#> 33 parameter of the critical dilution curve [Nplante]=adil MS^(-bdil) SD
#> 34 parameter of the maximum dilution curve [Nplante]=adilmax MS^(-bdilmax) SD
#> cultivar
#> 7 NA
#> 8 NA
#> 33 NA
#> 34 NA
# Find for a particular version:
SticsRFiles::get_param_info("alb", stics_version = "V9.0")
#> name file min max definition unit
#> 13 albedo PARSOL 0.05 0.6 albedo of the bare dry soil SD
#> 14 albedomulchplastique PARTEC 0.05 0.8 albedo of plastic cover SD
#> 15 albedomulchresidus PARAM 0.05 0.8 albedo of crop mulch SD
#> 16 albveg STATION 0.05 0.3 albedo of the vegetation SD
#> cultivar
#> 13 FALSE
#> 14 FALSE
#> 15 FALSE
#> 16 FALSE
get_param_info()
#> name file min max
#> 1 Name File min max
#> 2 aangst STATION 0 0.9
#> 3 abscission PARPLT 0 1
#> 4 aclim STATION 4 25
#> 5 adens PARPLT -2 0
#> 6 adfol PARPLT -10 10
#> 7 adil PARPLT 1 7
#> 8 adilmax PARPLT 3 10
#> 9 afpf PARPLT 0.01 1
#> 10 afruitpot PARPLT 0.5 20
#> 11 ahres PARAM 0 100
#> 12 akres PARAM -0.2 1
#> 13 aks STATION 0.01 100
#> 14 albedo PARSOL 0.05 0.6
#> 15 albedomulchplastique PARTEC 0.05 0.8
#> 16 albedomulchresidus PARAM 0.05 0.8
#> 17 albveg STATION 0.05 0.3
#> 18 allocfrmax PARPLT 0.05 1
#> 19 alloperirac PARPLT 0.05 1
#> 20 alphaCO2 PARPLT 1 2
#> 21 alphapH PARAM 0.001 0.02
#> 22 alphaphot PARPLT 0 1000
#> 23 alphapt STATION 1 2
#> 24 altinversion STATION 0 2000
#> 25 altisimul STATION 0 2000
#> 26 altistation STATION 0 2000
#> 27 ampfroid PARPLT 1 30
#> 28 anitcoupe PARTEC 0 400
#> 29 argi PARSOL 0 60
#> 30 awb PARAM 0 100
#> 31 bangst STATION 0 1
#> 32 bdens PARPLT 1 200
#> 33 bdil PARPLT 0.01 0.8
#> 34 bdilmax PARPLT 0.01 0.8
#> 35 belong PARPLT 0.005 0.04
#> 36 beta PARAM 1 2
#> 37 bformnappe PARAM 0 1
#> 38 bfpf PARPLT 0 30
#> 39 bhres PARAM -5 2000
#> 40 biorognem PARTEC 0 10
#> 41 bkres PARAM -2 2
#> 42 bks STATION 0 100
#> 43 bwb PARAM -500 0
#> 44 cadencerec PARTEC 1 30
#> 45 cailloux PARSOL 0 100
#> 46 calc PARSOL 0 100
#> 47 capiljour PARSOL 0.1 20
#> 48 celong PARPLT 1 10
#> 49 cfes PARSOL 0.5 4
#> 50 cfpf PARPLT 0.1 100
#> 51 cgrain PARPLT 100 5000
#> 52 cgrainv0 PARPLT 0 1
#> 53 cielclair STATION 0 1
#> 54 cmax_pdenit PARAM 3 40
#> 55 cmin_pdenit PARAM 0 3
#> 56 CNgrainrec PARTEC 0 1
#> 57 CNresmax PARAM 3 300
#> 58 CNresmin PARAM 3 300
#> 59 codabri PARTEC 1 2
#> 60 codadret STATION 1 2
#> 61 codaltitude STATION 1 2
#> 62 codazofruit PARPLT 1 2
#> 63 codazorac PARPLT 1 2
#> 64 codcaleffeuil PARTEC 1 2
#> 65 codcalinflo PARPLT 1 2
#> 66 codcalrogne PARTEC 1 2
#> 67 codcueille PARTEC 1 2
#> 68 code_acti_reserve PARPLT 1 2
#> 69 code_auto_profres PARTEC 1 2
#> 70 code_CsurNsol_dynamic PARAMV6 1 2
#> 71 code_diff_root PARPLT 1 2
#> 72 code_hautfauche_dyn PARTEC 1 2
#> 73 code_hourly_wfps_denit PARAM 1 2
#> 74 code_hourly_wfps_nit PARAM 1 2
#> 75 code_humirac PARAMV6 0 2
#> 76 code_pdenit PARAM 1 2
#> 77 code_ratiodenit PARAM 1 2
#> 78 code_rationit PARAM 1 2
#> 79 code_rootdeposition PARPLT 1 2
#> 80 code_shape PARPLT 1 2
#> 81 code_stress_root PARPLT 1 2
#> 82 code_strip PARTEC 1 100
#> 83 code_tnit PARAM 1 2
#> 84 code_vnit PARAM 1 2
#> 85 code_WangEngel PARPLT 1 2
#> 86 codeactimulch PARAM 1 2
#> 87 codeaumin PARTEC 1 2
#> 88 codebeso PARPLT 1 2
#> 89 codebfroid PARPLT 1 3
#> 90 codecailloux PARSOL 1 2
#> 91 codecalferti PARAMV6 1 2
#> 92 codecalirrig PARTEC 1 2
#> 93 codecaltemp STATION 1 2
#> 94 codeclaircie PARTEC 1 2
#> 95 codeclichange STATION 1 2
#> 96 codedate_irrigauto PARTEC 1 3
#> 97 codedateappH2O PARTEC 1 2
#> 98 codedateappN PARTEC 1 2
#> 99 codedecirecolte PARTEC 1 2
#> 100 codedecisemis PARTEC 1 2
#> 101 codedenit PARSOL 1 2
#> 102 codedisrac PARPLT 1 2
#> 103 codedormance PARPLT 1 3
#> 104 codeDST PARTEC 1 2
#> 105 codeDSTnbcouche PARTEC 1 2
#> 106 codeDSTtass PARTEC 1 2
#> 107 codedyntalle PARPLT 1 2
#> 108 codeetp STATION 1 4
#> 109 codefauche PARTEC 1 2
#> 110 codefente PARSOL 1 2
#> 111 codeffeuil PARTEC 1 2
#> 112 codefixpot PARPLT 1 3
#> 113 codefracappN PARTEC 1 2
#> 114 codefrmur PARAM 1 2
#> 115 codefxn PARAM 1 3
#> 116 codegdh PARPLT 1 2
#> 117 codegdhdeb PARPLT 1 2
#> 118 codegermin PARPLT 1 2
#> 119 codeh2oact PARAM 1 2
#> 120 codehypo PARPLT 1 2
#> 121 codeindetermin PARPLT 1 2
#> 122 codeinitprec PARAM 1 2
#> 123 codeINN PARPLT 1 2
#> 124 codeinnact PARAM 1 2
#> 125 codeintercept PARPLT 1 2
#> 126 codeir PARPLT 1 2
#> 127 codejourdes PARTEC 1 2
#> 128 codelaitr PARPLT 1 2
#> 129 codelegume PARPLT 1 2
#> 130 codemacropor PARSOL 1 2
#> 131 codemicheur PARAM 1 2
#> 132 codeminopt PARAM 1 2
#> 133 codemodfauche PARTEC 1 3
#> 134 codemodlsnow STATION 1 3
#> 135 codemonocot PARPLT 1 2
#> 136 codemontaison PARPLT 1 2
#> 137 codemortalracine PARPLT 1 2
#> 138 codemsfinal PARAM 1 2
#> 139 codenitrif PARSOL 1 2
#> 140 codeNmindec PARAMV6 1 2
#> 141 codeoutscient PARAM 1 2
#> 142 codepaillage PARTEC 1 2
#> 143 codepalissage PARTEC 1 3
#> 144 codeperenne PARPLT 1 2
#> 145 codephot PARPLT 1 2
#> 146 codephot_part PARPLT 1 2
#> 147 codeplante PARPLT 0 0
#> 148 codeplisoleN PARPLT 1 2
#> 149 codepluiepoquet PARAMV6 1 2
#> 150 codeprofmes PARAM 1 2
#> 151 coderacine PARPLT 1 2
#> 152 coderecolteassoc PARTEC 1 2
#> 153 coderemontcap PARSOL 1 2
#> 154 coderes PARTEC 1 21
#> 155 coderes_pature PARAMV6 1 10
#> 156 coderetflo PARPLT 1 2
#> 157 codernet STATION 1 2
#> 158 codesensibilite PARAM 1 2
#> 159 codeseprapport PARAM 1 2
#> 160 codesimul USM/USMXML 0 1
#> 161 codesnow PARAM 1 2
#> 162 codestade PARTEC 1 2
#> 163 codestrphot PARPLT 1 2
#> 164 codesuite USM 0 1
#> 165 codeSWDRH PARAMV6 1 2
#> 166 codesymbiose PARAM 1 2
#> 167 codetaille PARTEC 1 2
#> 168 codetemp PARPLT 1 2
#> 169 codetempfauche PARTEC 1 2
#> 170 codetemprac PARPLT 1 2
#> 171 codetesthumN PARAMV6 1 2
#> 172 codetradtec PARTEC 1 2
#> 173 codetranspitalle PARPLT 1 2
#> 174 codetransrad PARPLT 1 2
#> 175 codetremp PARPLT 1 2
#> 176 codetrosee PARAMV6 1 2
#> 177 codetycailloux PARAM 1 10
#> 178 codetypeng PARAM 1 8
#> 179 codetypres PARAM 1 21
#> 180 codevar PARPLT 0 1
#> 181 codgelflo PARPLT 1 2
#> 182 codgeljuv PARPLT 1 2
#> 183 codgellev PARPLT 1 2
#> 184 codgelveg PARPLT 1 2
#> 185 codhauteff PARTEC 1 2
#> 186 codhnappe PARAM 1 2
#> 187 codlainet PARPLT 1 2
#> 188 codlocferti PARTEC 1 2
#> 189 codlocirrig PARTEC 1 3
#> 190 codoptim USM 0 2
#> 191 codrainage PARSOL 1 2
#> 192 codrecolte PARTEC 1 5
#> 193 codrognage PARTEC 1 2
#> 194 codtrophrac PARPLT 1 3
#> 195 coef_calcul_doseN PARAMV6 1 30
#> 196 coef_calcul_qres PARAMV6 1 10
#> 197 coefamflax PARPLT 1 2
#> 198 coefb PARAM 0.05 0.15
#> 199 coefdevil STATION 0.3 1.2
#> 200 coefdrpmat PARPLT 1 2
#> 201 coefflodrp PARPLT 1 2
#> 202 coeflaxsen PARPLT 1 2
#> 203 coeflevamf PARPLT 1 2
#> 204 coeflevdrp PARPLT 1 2
#> 205 coefmshaut PARPLT 2 50
#> 206 coefracoupe PARPLT 0.001 1
#> 207 coefrnet STATION 0.001 1
#> 208 coefsenlan PARPLT 1 2
#> 209 concirr PARTEC 0 0.2
#> 210 concNnodseuil PARPLT 0 10
#> 211 concNrac0 PARPLT 0 10
#> 212 concNrac100 PARPLT 0 2
#> 213 concrr STATION 0 3
#> 214 concseuil PARSOL 0 0.5
#> 215 contrdamax PARPLT 0 1
#> 216 corecTrosee STATION -5 5
#> 217 couvermulchplastique PARTEC 0 1
#> 218 Crespc PARTEC 0 100
#> 219 Crespc_pature PARAMV6 0 100
#> 220 CroCo PARAM 0 1
#> 221 croirac PARPLT 0 0.5
#> 222 CsurNres PARTEC 4 300
#> 223 CsurNsol0 PARSOL 8 20
#> 224 culturean USM/USMXML 1 2
#> 225 cvent STATION 0.001 1
#> 226 cwb PARAM 5 60
#> 227 dachisel PARTEC 0.8 1.7
#> 228 dacohes PARAM 0.001 1.4
#> 229 DAF PARSOL 0.8 2
#> 230 dalabour PARTEC 0.8 2
#> 231 darecolte PARTEC 0.8 2
#> 232 dasemis PARTEC 0.8 2
#> 233 daseuilbas PARAM 1 1.4
#> 234 daseuilhaut PARAM 1.4 2.5
#> 235 datedeb_irrigauto PARTEC 1 731
#> 236 datedebut USM/USMXML 0 730
#> 237 datefin USM/USMXML 0 730
#> 238 datefin_irrigauto PARTEC 1 731
#> 239 debsenrac PARPLT 0 2000
#> 240 deneng PARAM 0 1
#> 241 densinitial INIT 0 10
#> 242 densitesem PARTEC 0.05 2000
#> 243 deshydbase PARPLT -0.02 0.02
#> 244 dfolbas PARPLT 1 10
#> 245 dfolhaut PARPLT 1 10
#> 246 dfpf PARPLT 0.01 5
#> 247 difN PARAM 0.01 0.1
#> 248 diftherm PARAM 0.001 0.01
#> 249 distdrain PARAM 0 25000
#> 250 DKmax STATION 1 2
#> 251 dlaimax PARPLT 0.000005 0.5
#> 252 dlaimaxbrut PARPLT 0.000005 0.5
#> 253 dlaimin PARPLT 0 1
#> 254 dltamsmaxsen PARPLT 0.01 0.2
#> 255 dltamsminsen PARPLT 0.01 0.2
#> 256 doseI PARTEC 0 500
#> 257 doseirrigmin PARTEC 0 500
#> 258 doseN PARTEC 0 500
#> 259 dosimx PARTEC 10 500
#> 260 dosimxN PARAMV6 5 500
#> 261 dpHvolmax PARAM 0 3
#> 262 draclong PARPLT 1 1000
#> 263 dureefruit PARPLT 10 2000
#> 264 durvieF PARPLT 10 500
#> 265 durviesupmax PARPLT 0 1
#> 266 E STATION 0 0.05
#> 267 eau_mini_decisemis PARTEC 0 40
#> 268 eaures PARTEC 0 99
#> 269 eaures_pature PARAMV6 0 100
#> 270 ecartdrain PARSOL 100 5000
#> 271 efcroijuv PARPLT 1 7
#> 272 efcroirepro PARPLT 1 10
#> 273 efcroiveg PARPLT 1 10
#> 274 effeuil PARTEC 0 1
#> 275 effirr PARTEC 0.2 1
#> 276 efremobil PARPLT 0 1
#> 277 elmax PARPLT 2 40
#> 278 elongation PARPLT 1 2
#> 279 engamm PARAM 0 1
#> 280 engrais PARTEC 1 8
#> 281 engrais_pature PARAMV6 1 8
#> 282 engraiscoupe PARTEC 1 8
#> 283 envfruit PARPLT 0 0.5
#> 284 epc PARSOL 1 1000
#> 285 epd PARSOL 1 50
#> 286 extin PARPLT 0.1 1.5
#> 287 fclim1 USM/USMXML 0 0
#> 288 fclim2 USM/USMXML 0 0
#> 289 fhminsat PARAM 0 1
#> 290 finert PARSOL 0 1
#> 291 finit USM/USMXML 0 0
#> 292 fixmax PARPLT 2 12
#> 293 fixmaxgr PARPLT 0 50
#> 294 fixmaxveg PARPLT 0 50
#> 295 flagecriture PARAM 0 127
#> 296 flai USM/USMXML 0 0
#> 297 fNCbiomin PARAM 0.01 0.1
#> 298 fNmindecmin PARAMV6 0 1
#> 299 fnx PARAM 0.01 1
#> 300 fobs USM/USMXML 0 0
#> 301 forme PARPLT 1 2
#> 302 fplt USM/USMXML 0 0
#> 303 fracN PARTEC 5 100
#> 304 fredkN PARAM 0.1 1
#> 305 fredlN PARAM 0.2 1
#> 306 fredNsup PARAM 0 1
#> 307 fstation USM/USMXML 0 0
#> 308 ftec USM/USMXML 0 0
#> 309 ftemh PARAM 0.05 0.5
#> 310 ftemha PARAM 10 50
#> 311 ftemr PARAM 0.05 0.5
#> 312 ftemra PARAM 5 30
#> 313 GMIN1 PARAM 0 1
#> 314 GMIN2 PARAM 0 0.1
#> 315 GMIN3 PARAM 0 0.1
#> 316 GMIN4 PARAM 0 1
#> 317 GMIN5 PARAM 3 11
#> 318 GMIN6 PARAM 0 1
#> 319 GMIN7 PARAM 5 35
#> 320 gradtn STATION 0.1 3
#> 321 gradtninv STATION 0.1 3
#> 322 gradtx STATION 0.1 3
#> 323 h2ofeuiljaune PARPLT 0.05 1
#> 324 h2ofeuilverte PARPLT 0.5 1
#> 325 h2ofrvert PARPLT 0.1 1
#> 326 h2ograinmax PARTEC 0.05 1
#> 327 h2ograinmin PARTEC 0.05 1
#> 328 h2oreserve PARPLT 0.5 1
#> 329 h2otigestruc PARPLT 0.5 1
#> 330 hautbase PARPLT 0.1 2
#> 331 hautcoupe PARTEC 0.01 0.5
#> 332 hautcoupedefaut PARTEC 0.01 0.5
#> 333 haut_dev_x0 PARPLT 0 5000.0
#> 334 haut_dev_k PARPLT 0 0.05
#> 335 hauteur_threshold PARAM 0.05 1
#> 336 hautmax PARPLT 0.1 5
#> 337 hautmaxtec PARTEC 0.5 3
#> 338 hautrogne PARTEC 0.2 2
#> 339 hcccx PARAM 10 110
#> 340 hccf PARSOL 10 110
#> 341 Hinitf INIT 5 110
#> 342 hminf PARSOL 2 25
#> 343 hminm PARAM 0 1
#> 344 hminn PARAM 0 1
#> 345 hoptm PARAM 0.2 1
#> 346 hoptn PARAM 0.2 1
#> 347 huilerec PARTEC 0.1 1
#> 348 humcapil PARSOL 2 10
#> 349 humirac_decisemis PARTEC 0 1
#> 350 iamf PARTEC 1 731
#> 351 ichsl USM 1 999
#> 352 idebdorm PARPLT 1 999
#> 353 idor java 1 999
#> 354 idrp PARTEC 1 731
#> 355 ifindorm PARPLT 1 999
#> 356 iflo PARTEC 1 731
#> 357 ifwater USM 1 731
#> 358 ilan PARTEC 1 731
#> 359 ilax PARTEC 1 731
#> 360 ilev PARTEC 1 731
#> 361 imat PARTEC 1 731
#> 362 infil PARSOL 0.1 100
#> 363 inflomax PARPLT 0 100
#> 364 infrecouv PARPLT 0 3
#> 365 inilai PARPLT 0 1
#> 366 iniprofil PARAM 1 2
#> 367 inngrain1 PARPLT 0.3 2
#> 368 inngrain2 PARPLT 0.3 2
#> 369 INNimin PARPLT 0 1
#> 370 INNmin PARPLT 0 1
#> 371 innsen PARPLT -2 1
#> 372 innturgmin PARPLT -2 1
#> 373 interrang PARTEC 0 10
#> 374 iplt java 1 731
#> 375 iplt0 PARTEC 1 731
#> 376 irazomax PARPLT 0 1
#> 377 irec PARTEC 1 731
#> 378 irecbutoir PARTEC 1 731
#> 379 irmax PARPLT 0.2 1
#> 380 irrlev PARAM 0 50
#> 381 isen PARTEC 1 731
#> 382 isnu java 1 731
#> 383 iwater USM 1 731
#> 384 julapI PARTEC 1 731
#> 385 julapN PARTEC 1 731
#> 386 juldes PARTEC 1 731
#> 387 juleclair PARTEC 1 731
#> 388 juleffeuil PARTEC 1 731
#> 389 julfauche PARTEC 1 731
#> 390 julouvre2 PARTEC 1 731
#> 391 julouvre3 PARTEC 1 731
#> 392 julres PARTEC 1 731
#> 393 julrogne PARTEC 1 731
#> 394 jultaille PARTEC 1 731
#> 395 jultrav PARTEC 1 731
#> 396 julvernal PARPLT 1 731
#> 397 jvc PARPLT 0 150
#> 398 jvcmini PARPLT 0 20
#> 399 Kamm PARAM 1 100
#> 400 kbio PARAM 0 0.2
#> 401 kcouvmlch PARAM 0 1
#> 402 Kd PARAM 10 500
#> 403 kdesat PARAM 1 20
#> 404 kdisrac PARPLT 0.0002 0.002
#> 405 khaut PARPLT 0.2 2
#> 406 Kmabs1 PARPLT 20 200
#> 407 Kmabs2 PARPLT 4000 40000
#> 408 kmax PARPLT 0.5 4
#> 409 Kmin STATION 1.5 2.5
#> 410 krepracperm PARPLT 0.0001 1
#> 411 krepracseu PARPLT 0.0001 1
#> 412 ksol PARSOL 0.0001 1
#> 413 kstemflow PARPLT 0.1 2
#> 414 ktrou PARPLT 0.1 2
#> 415 lai0 INIT 0 10
#> 416 laicomp PARPLT 0 1
#> 417 laidebeff PARTEC 1 10
#> 418 laieffeuil PARTEC 0.05 10
#> 419 laiplantule PARPLT 0 8
#> 420 lairesiduel PARTEC 0 2
#> 421 largrogne PARTEC 0.1 2
#> 422 largtec PARTEC 0.1 2
#> 423 latitude STATION -90 90
#> 424 locferti PARTEC 0 30
#> 425 locirrig PARTEC 1 30
#> 426 longsperac PARPLT 250 25000
#> 427 lvfront PARPLT 0.02 1
#> 428 lvmax PARPLT 0 5
#> 429 lvopt PARAM 0.2 1
#> 430 magrain0 INIT 0 5
#> 431 maperenne0 INIT 0 30
#> 432 margerogne PARTEC 0.01 1
#> 433 masec0 INIT 0 10
#> 434 masecmeta PARPLT 0.1 1
#> 435 masecNmax PARPLT 0.05 5
#> 436 masecnp0 INIT 0 10
#> 437 masecplantule PARPLT 0.002 4
#> 438 masvolcx PARAM 0.5 5
#> 439 max_pdenit PARAM 0 100
#> 440 maxazorac PARPLT 0.1 5
#> 441 maxtalle PARPLT 0 10000
#> 442 min_pdenit PARAM 0 2
#> 443 minazorac PARPLT 0 5
#> 444 minefnra PARPLT 0 1
#> 445 mouillabil PARPLT 0.05 3
#> 446 mouillabilmulch PARAM 0.05 5
#> 447 mscoupemini PARTEC 1 10
#> 448 msresiduel PARTEC 0 5
#> 449 mulchbat PARSOL 0 2
#> 450 nbans USM 1 100
#> 451 nbcueille PARTEC 1 2
#> 452 nbfeuilplant PARPLT 0 10
#> 453 nbfgellev PARPLT 1 5
#> 454 nbgrmax PARPLT 0 1000000
#> 455 nbgrmin PARPLT 0 10000
#> 456 nbinflo PARPLT 1 1000
#> 457 nbinfloecl PARTEC 0 10
#> 458 nbj_pr_apres_semis PARTEC 1 20
#> 459 nbjgerlim PARPLT 1 50
#> 460 nbjgrain PARPLT 5 40
#> 461 nbjmaxapresrecolte PARTEC 0 90
#> 462 nbjmaxapressemis PARTEC 0 90
#> 463 nbjoursrrversirrig PARAMV6 0 366
#> 464 nbjres PARTEC 0 8
#> 465 nbjseuiltempref PARTEC 1 60
#> 466 nbjtrav PARTEC 0 8
#> 467 nboite PARPLT 1 20
#> 468 nbplantes USM/USMXML 1 2
#> 469 NH3ref STATION 0 10
#> 470 nh4_min PARAM 0 20
#> 471 NH4initf INIT 0 200
#> 472 nlevlim1 PARPLT 1 100
#> 473 nlevlim2 PARPLT 1 100
#> 474 Nmeta PARPLT 0 100
#> 475 Nminres PARTEC 0 30
#> 476 Nminres_pature PARAMV6 0 100
#> 477 NO3initf INIT 0 200
#> 478 nom USM 0 0
#> 479 nomsol USM/USMXML 0 0
#> 480 Norg PARSOL 5.00E-02 0.5
#> 481 Nreserve PARPLT 0 100
#> 482 nrow PARTEC 1 10
#> 483 numsol PARSOL/USM 0 1000
#> 484 nw_height PARPLT 0 1
#> 485 obstarac PARSOL 10 1000
#> 486 ombragetx STATION -5 5
#> 487 option_pature PARAMV6 1 2
#> 488 orgeng PARAM 0 100
#> 489 orientrang PARTEC 0 6.28
#> 490 parazofmorte PARPLT 10 20
#> 491 Parazoper PARPLT 10 50
#> 492 parazorac PARPLT 10 50
#> 493 ParazoTmorte PARPLT 10 250
#> 494 parsurrg PARAM 0.4 0.6
#> 495 par_to_net PARAM 0.5 1
#> 496 patm STATION 800 1200
#> 497 penterui PARSOL 0 5
#> 498 pentinflores PARPLT 0 10
#> 499 pentlaimax PARPLT 0 10
#> 500 pentrecouv PARPLT 0 10
#> 501 pertes_restit_ext PARAMV6 0 1
#> 502 pgrainmaxi PARPLT 0 5
#> 503 pH0 PARSOL 4 9
#> 504 phiv0 STATION 0 0.01
#> 505 pHmaxden PARAM 6 10
#> 506 pHmaxnit PARAM 6 9
#> 507 pHmaxvol PARAM 6 9
#> 508 pHminden PARAM 3 6.5
#> 509 pHminnit PARAM 3 6
#> 510 pHminvol PARAM 3 6
#> 511 phobase PARPLT 0 24
#> 512 phobasesen PARPLT 1 12
#> 513 phosat PARPLT 0 24
#> 514 pHvols PARAM 5 9
#> 515 phyllotherme PARPLT 10 150
#> 516 plNmin PARAM 5 30
#> 517 pluiebat PARSOL 5 100
#> 518 pminruis PARAM 2 50
#> 519 Pns STATION 10 200
#> 520 potgermi PARPLT -4.2 -0.1
#> 521 primingmax PARAM 1 5
#> 522 prof STATION 5 15
#> 523 profdenit PARSOL 10 40
#> 524 profdrain PARSOL 20 200
#> 525 profhum PARSOL 10 150
#> 526 profhumrecolteuse PARTEC 0 100
#> 527 profhumsemoir PARTEC 0 100
#> 528 profimper PARSOL 50 200
#> 529 proflabour PARAM 0 100
#> 530 profmes PARTEC 10 1000
#> 531 profnod PARPLT 10 50
#> 532 profres PARTEC 0 30
#> 533 profsem PARTEC 0 10
#> 534 proftrav PARTEC 0 50
#> 535 proftravmin PARAM 0 100
#> 536 prophumtassrec PARAM 0.8 1.8
#> 537 prophumtasssem PARAM 0.8 1.8
#> 538 propjgermin PARPLT 0 1
#> 539 proprac PARAM 0.05 0.5
#> 540 propracfmax PARPLT 0.51 0.95
#> 541 Propres PARPLT 0 1
#> 542 propresP PARPLT 0 1
#> 543 PropresPN PARPLT 0 1
#> 544 ps0 INIT 10 1000
#> 545 psihucc PARAM -5 -0.1
#> 546 psihumin PARAM -5 -0.1
#> 547 psisto PARPLT 1 25
#> 548 psiturg PARPLT 1 15
#> 549 q0 PARSOL 0 50
#> 550 q10 PARPLT 1.5 3.5
#> 551 qmulchdec PARAM 0 5
#> 552 qmulchruis0 PARAM 0 5
#> 553 QNperenne0 INIT 0 500
#> 554 QNplante0 INIT 0 500
#> 555 QNplantenp0 INIT 0 200
#> 556 QNpltminINN PARAM 0 50
#> 557 qres PARTEC 0 200
#> 558 Qtot_N PARTEC 0 200
#> 559 ra STATION 10 70
#> 560 rapdia PARPLT 1 9.12
#> 561 rapforme PARPLT -5 5
#> 562 rapNmindec PARAMV6 0 0.01
#> 563 rapsenturg PARPLT 0.5 1.5
#> 564 ratiodenit PARAM 0 1
#> 565 ratiodurvieI PARPLT 0 1
#> 566 ratiol PARTEC 0.2 1
#> 567 ratiolN PARAMV6 0.2 1
#> 568 rationit PARAM 0 1
#> 569 ratiosen PARPLT 0 1
#> 570 rayon PARPLT 0.005 0.07
#> 571 rdrain PARAM 1 100
#> 572 remobres PARPLT 0 0.5
#> 573 repracpermax PARPLT 0.1 0.9
#> 574 repracpermin PARPLT 0.1 0.9
#> 575 repracseumax PARPLT 0.1 0.9
#> 576 repracseumin PARPLT 0.1 0.9
#> 577 resk PARTEC 0.05 0.25
#> 578 resplmax PARPLT 0 100
#> 579 ressuite PARTEC 0 0
#> 580 restemp0 INIT 0 15
#> 581 restit PARTEC 1 2
#> 582 resz PARTEC 1 10
#> 583 rsmin PARPLT 20 500
#> 584 RTD PARPLT 0.05 0.8
#> 585 rugochisel PARTEC 0.01 0.2
#> 586 rugolabour PARTEC 0.01 0.2
#> 587 ruisolnu PARSOL 0 1
#> 588 scale_tdenitopt PARAM 10 40
#> 589 scale_tnitopt PARAM 5 30
#> 590 Sdepth0 INIT 0 3
#> 591 Sdry0 INIT 0 300
#> 592 sea PARPLT 0 300
#> 593 sensanox PARPLT 0 1
#> 594 sensiphot PARPLT 0 1
#> 595 sensrsec PARPLT 0 1
#> 596 separateurrapport PARAM 0 0
#> 597 seuilLAIapex PARPLT 0 10
#> 598 seuilmortalle PARPLT 0 10
#> 599 seuilreconspeupl PARPLT 0 4000
#> 600 sigmadistalle PARPLT 0 0.5
#> 601 slamax PARPLT 50 500
#> 602 slamin PARPLT 50 500
#> 603 spfrmax PARPLT 0.7 2
#> 604 spfrmin PARPLT 0 1
#> 605 splaimax PARPLT 0.7 2
#> 606 splaimin PARPLT 0.01 1
#> 607 stade0 INIT 0 0
#> 608 stadebbchamf PARPLT 0 0
#> 609 stadebbchdebdes PARPLT 0 0
#> 610 stadebbchdrp PARPLT 0 0
#> 611 stadebbchfindorm PARPLT 0 0
#> 612 stadebbchflo PARPLT 0 0
#> 613 stadebbchger PARPLT 0 0
#> 614 stadebbchlax PARPLT 0 0
#> 615 stadebbchlev PARPLT 0 0
#> 616 stadebbchmat PARPLT 0 0
#> 617 stadebbchnou PARPLT 0 0
#> 618 stadebbchplt PARPLT 0 0
#> 619 stadebbchrec PARPLT 0 0
#> 620 stadebbchsen PARPLT 0 0
#> 621 stadecoupedf PARTEC 0 0
#> 622 stage_end_irrigauto PARTEC 0 0
#> 623 stage_start_irrigauto PARTEC 0 0
#> 624 stage_const_height PARPLT 0 0
#> 625 stamflax PARPLT 0 6000
#> 626 stdnofno PARPLT 0 500
#> 627 stdordebour PARPLT 0 20000
#> 628 stdrpdes PARPLT 0 900
#> 629 stdrpmat PARPLT 0 2000
#> 630 stdrpnou PARPLT 0 6000
#> 631 stemflowmax PARPLT 0 1
#> 632 stflodrp PARPLT 0 500
#> 633 stfnofvino PARPLT 0 500
#> 634 stlaxsen PARPLT 0 6000
#> 635 stlevamf PARPLT 0 6000
#> 636 stlevdno PARPLT 0 500
#> 637 stlevdrp PARPLT 0 6000
#> 638 stoprac PARPLT 0 0
#> 639 stpltger PARPLT 0 100
#> 640 stressdev PARPLT 0.1 0.9
#> 641 stsenlan PARPLT 0 6000
#> 642 stubblevegratio PARTEC 0 1
#> 643 sucrerec PARTEC 0.0001 0.5
#> 644 surfapex PARPLT 0 0.0001
#> 645 surfouvre1 PARTEC 0.1 0.8
#> 646 surfouvre2 PARTEC 0.1 0.8
#> 647 surfouvre3 PARTEC 0.1 0.8
#> 648 Swet0 INIT 0 300
#> 649 swfacmin PARPLT 0 1
#> 650 SWrf STATION 0 0.01
#> 651 tauxexportfauche PARTEC 0 1
#> 652 tauxmortresP PARPLT 0 0.5
#> 653 tauxrecouvkmax PARPLT 0.5 2
#> 654 tauxrecouvmax PARPLT 0.5 2
#> 655 tcmax PARPLT 10 50
#> 656 tcmin PARPLT -10 15
#> 657 tcxstop PARPLT 0 100
#> 658 tdebgel PARPLT -5 5
#> 659 tdenitopt_gauss PARAM 0 60
#> 660 tdmax PARPLT 15 40
#> 661 tdmaxdeb PARPLT 0 40
#> 662 tdmin PARPLT -10 15
#> 663 tdmindeb PARPLT 0 40
#> 664 tdoptdeb PARPLT 0 30
#> 665 temax PARPLT 15 40
#> 666 temin PARPLT -10 15
#> 667 tempdeshyd PARPLT 0.0001 0.05
#> 668 tempfauche PARTEC 0 2000
#> 669 tempnod1 PARPLT -10 40
#> 670 tempnod2 PARPLT -10 40
#> 671 tempnod3 PARPLT -10 40
#> 672 tempnod4 PARPLT -10 40
#> 673 teopt PARPLT 10 30
#> 674 teoptbis PARPLT 10 30
#> 675 tfroid PARPLT -5 10
#> 676 tgelflo10 PARPLT -25 0
#> 677 tgelflo90 PARPLT -25 0
#> 678 tgeljuv10 PARPLT -25 0
#> 679 tgeljuv90 PARPLT -25 0
#> 680 tgellev10 PARPLT -25 0
#> 681 tgellev90 PARPLT -25 0
#> 682 tgelveg10 PARPLT -25 0
#> 683 tgelveg90 PARPLT -25 0
#> 684 tgmin PARPLT -10 15
#> 685 tigefeuil PARPLT 0 3
#> 686 tigefeuilcoupe PARPLT 0 3
#> 687 tletale PARPLT -30 -1
#> 688 tmaxremp PARPLT 10 40
#> 689 tmaxseuil STATION -0.5 0.5
#> 690 Tmf STATION 0 1
#> 691 tmin_mineralisation PARAM 0.05 0.5
#> 692 tminremp PARPLT 0 20
#> 693 tminseuil STATION -1 0
#> 694 tnitmax PARAM 30 50
#> 695 tnitmin PARAM -10 20
#> 696 tnitopt PARAM 10 40
#> 697 tnitopt_gauss PARAM 0 50
#> 698 tnitopt2 PARAM 20 45
#> 699 transplastic PARTEC 0.3 0.9
#> 700 trefh PARAM -10 20
#> 701 trefr PARAM -10 20
#> 702 trmax STATION 0.5 1.5
#> 703 tsmax STATION -3 -0.5
#> 704 tustressmin PARPLT 0.3 1
#> 705 typecailloux PARSOL 1 10
#> 706 typsol PARSOL 0 0
#> 707 udlaimax PARPLT 1 3
#> 708 upvttapI PARTEC 0 200
#> 709 upvttapN PARTEC 0 200
#> 710 usm USMXML 0 0
#> 711 Vabs2 PARAM 0.5 5
#> 712 variete PARTEC 1 200
#> 713 vigueurbat PARPLT 0.0001 1
#> 714 vitirazo PARPLT 0.001 0.04
#> 715 vitircarb PARPLT 0.001 0.02
#> 716 vitircarbT PARPLT 0.00005 0.002
#> 717 vitno PARPLT 0.001 0.01
#> 718 vitprophuile PARPLT 0.001 0.01
#> 719 vitpropsucre PARPLT 0.001 0.01
#> 720 vitreconspeupl PARPLT 0 0.1
#> 721 vlaimax PARPLT 1.5 2.5
#> 722 Vmax1 PARPLT 0.0002 0.01
#> 723 Vmax2 PARPLT 0.002 0.1
#> 724 vnitmax PARAM 0 100
#> 725 voleng PARAM 0 1
#> 726 vpotdenit PARSOL 0.3 10
#> 727 wdata1 USM 0 0
#> 728 wdata2 USM 0 0
#> 729 wfpsc PARAM 0.3 1
#> 730 Wh PARAM 0.05 0.14
#> 731 Xorgmax PARAM 100 500
#> 732 y0msrac PARAM 0 5
#> 733 yres PARAM 0.3 0.7
#> 734 z0solnu PARSOL 0.01 0.2
#> 735 zesx PARSOL 10 150
#> 736 zlabour PARPLT 0 100
#> 737 zpente PARPLT 10 200
#> 738 zprlim PARPLT 10 200
#> 739 zr STATION 2 10
#> 740 zrac0 INIT 0 200
#> 741 zracplantule PARPLT 0 200
#> definition
#> 1 Definition
#> 2 coefficient of the Angstrom relationship for extraterrestrial radiation
#> 3 fraction of senescent leaves falling to the soil
#> 4 climatic component to calculate actual soil evaporation (Brisson & Perrier, 1991)
#> 5 Interplant competition parameter
#> 6 parameter determining the leaf density evolution within the chosen shape
#> 7 parameter of the critical dilution curve [Nplante]=adil MS^(-bdil)
#> 8 parameter of the maximum dilution curve [Nplante]=adilmax MS^(-bdilmax)
#> 9 parameter of the logistic function defining sink strength of fruits (indeterminate growth) : relative fruit age at which growth is maximal
#> 10 maximal number of set fruits per inflorescence and per degree day (indeterminate growth)
#> 11 parameter of organic residues humification: hres=1-ahres*CsurNres/(bhres+CsurNres)
#> 12 parameter of organic residues decomposition: kres=akres+bkres/CsurNres
#> 13 parameter of calculation of the energetic loss between the inside and the outside of a greenhouse
#> 14 albedo of the bare dry soil
#> 15 albedo of plastic cover
#> 16 albedo of plant mulch
#> 17 albedo of the vegetation
#> 18 maximal daily allocation to fruits
#> 19 allocation rate of the seed reserves (perisperm) to the rootlet growth
#> 20 coefficient accounting for the modification of radiation use efficiency in case of atmospheric CO2 increase
#> 21 maximal soil pH variation per unit of inorganic N added with slurry
#> 22 parameter of photoperiodic effect on leaf lifespan
#> 23 parameter of Priestley-Taylor formula
#> 24 altitude of inversion of the thermal gradient
#> 25 altitude of simulated site
#> 26 altitude of the input metorological station
#> 27 semi thermal amplitude for vernalising effect
#> 28 amount of mineral N added by fertiliser application at each cut of a forage crop
#> 29 clay content after decarbonation
#> 30 parameter determining C/N ratio of biomass during organic residues decomposition: CsurNbio=awb+bwb/CsurNres
#> 31 coefficient of the Angstrom s relationship for extraterrestrial radiation
#> 32 minimal plant density above which interplant competition starts
#> 33 parameter of the critical dilution curve [Nplante]=adil MS^(-bdil)
#> 34 parameter of the maximum dilution curve [Nplante]=adilmax MS^(-bdilmax)
#> 35 parameter of the curve of coleoptile elongation
#> 36 parameter of increase of maximal transpiration when a water stress occurs
#> 37 coefficient for the water table shape (artificially drained soil)
#> 38 parameter of the logistic curve defining sink strength of fruits (indeterminate growth): maximum growth rate relative to maximum fruit weight
#> 39 parameter of organic residues humification: hres=1-ahres*CsurNres/(bhres+CsurNres)
#> 40 minimal crop biomass removed when topping (automatic calculation)
#> 41 potential rate of decomposition of organic residues: kres=akres+bkres/CsurNres
#> 42 parameter of calculation of the energetic lost between the inside and the outside of a greenhouse
#> 43 parameter determining C/N ratio of biomass during organic residues decomposition: CsurNbio=awb+bwb/CsurNres
#> 44 number of days between two harvests
#> 45 volumetric content of pebbles per soil layer
#> 46 total carbonate content
#> 47 capillary rise upward water flux
#> 48 parameter of the plantlet elongation curve
#> 49 parameter defining the soil contribution to evaporation versus depth
#> 50 parameter of the first potential growth phase of fruit, corresponding to an exponential type function describing the cell division phase
#> 51 slope of the relationship between grain number and growth rate
#> 52 fraction of the maximal number of grains when growth rate is zero
#> 53 fraction of sunny hours allowing the inversion of thermal gradient with altitude
#> 54 Soil organic carbon concentration above which denitrification potential is constant and maximum
#> 55 Soil organic carbon concentration below which denitrification potential is constant and minimum
#> 56 minimal N content of grain at harvest
#> 57 maximum value of C/N ratio of organic residue
#> 58 minimum value of C/N ratio of organic residue
#> 59 option to activate cropping under shelter: 1 = no, 2 = yes
#> 60 option to calculate mountain climate taking into account the orientation: 1 = south, 2 = north
#> 61 option to activate the calculation of the climate in altitude: 1 = no, 2 = yes
#> 62 option to activate the direct effect of N plant status on the fruit/grain number: 1 = no, 2 = yes
#> 63 option to activate the effect of N stress on root partitioning within the soil profile: 1 = yes, 2 = no
#> 64 option to calculate leaf removal by thinning: 1 = proportion of leaf removed (effeuil), 2 = lai minimal (laieffeuil)
#> 65 option to calculate the inflorescences number: 1 = read in param.par, 2 = calculated at the amf stage
#> 66 option to calculate topping: 1 = forced topping, 2 = automatic calculation
#> 67 option to define harvest type: 1 =single harvest (cutting), 2 = multiple harvests (picking)
#> 68 option to activate the simulation of Nitrogen and Carbon reserves: 1 = yes, 2 = no
#> 69 option to define profres: 1 = profres calculated as proftrav *(1-exp(-resk.(proftrav-resz)), 2 = profres read in tec file
#> 70 option to activate the dynamic calculation of CsurNsol: 1 = yes, 2 = no
#> 71 option to activate the simulation of 2 root classes: 1 =yes, 2 = no
#> 72 option to activate dynamic calculation of residual LAI, biomass and N content after cutting: 1 = yes, 2 = no
#> 73 option to activate hourly WFPS calculation for denitrification: 1 = yes, 2 = no
#> 74 option to activate hourly WFPS calculation for nitrification: 1 = yes, 2 = no
#> 75 option to calculate the root growth reduction factor due to soil water content, 0: no effect of soil water content, 1: using a discontinuous function with a threshold at hminf, 2: using a linear function between hminf and hccf
#> 76 option to define the denitrification potential: 1 = read in soil parameter, 2 = calculated from soil organic carbon concentration
#> 77 option to define the N2O/(N2+N2O) ratio of denitrification: 1 = constant, 2 = variable
#> 78 option to define the N2O/(N2+N2O) ratio of nitrification: 1 = constant, 2 = variable
#> 79 code to simulate N demand and allocation to roots and their turn-over during crop growth cycle: 1 = daily deposition, 2 = deposition only at harvest
#> 80 code for plant height computation using LAI (1, default), or using phasic development (2)
#> 81 option to activate the preferential allocation of biomass to roots in case of water or N stress: 1 = yes, 2 = no
#> 82 option to activate the computation of light interception for an intercrop: 1 = yes, 2 = no
#> 83 option to define the temperature function for nitrification: 1 = piecewise linear, 2 = gaussian
#> 84 option to define the nitrification rate dependence on NH4: 1 = first order, 2 = Michaelis-Menten
#> 85 option to activate the effect of temperature on development units for emergence according to Wang et Engel (1998): 1 = yes, 2 = no
#> 86 option to activate the mulch effect at soil surface: 1 = yes, 2 = no
#> 87 option to activate the harvest according to grain/fruit water content: 1 = water content > minimum threshold, 2 = water content < maximum threshold
#> 88 option to calculate water requirements: 1 = k.ETP approach, 2= resistive method
#> 89 option to calculate chilling requirements: 1 = no need, 2 = vernalising days, 3 = development stage
#> 90 option to take into account pebbles in the water and N balances: 1 = yes, 2 = no
#> 91 option to activate the automatic calculation of fertilisation rate: 1 = yes, 2 = no
#> 92 option to activate the automatic calculation of irrigation requirements: 1 = yes, 2 = no
#> 93 option to activate the use of crop temperature for phasic development calculation: 1 = empirical relation, 2 = energy balance
#> 94 option to simulate fruit removal: 1 = no, 2 = yes (for smallest fruits)
#> 95 option to activate climate change: 1 = no, 2 =yes
#> 96 option to activate the beginning and the ending dates in case of automatic irrigation: 1 = dates, 2= crop stages, 3 = nothing
#> 97 option to calculate irrigation dates according to sum of temperatures: 1 = yes, 2 = no
#> 98 option to calculate mineral fertilizer application dates according to sum of temperatures: 1 = yes, 2 = no
#> 99 option to activate moisture and frost effects on harvest decision: 1 = yes, 2 = no
#> 100 option to activate the moisture effect on sowing decision: 1 = yes, 2 = no
#> 101 option to activate the calculation of denitrification model: 1 = yes, 2 = no
#> 102 option to define root profile in soil: 1 = standard root distribution, 2 = root emission proportional to root biomass
#> 103 option to calculate dormancy and chilling requirements: 1 = forcing, 2 = Richardson, 3 = Bidabe
#> 104 option to activate the variations in physical soil conditions due to tillage: 1 = yes, 2 = no
#> 105 option to define the number of compacted soil layers: 1 = one layer, 2 = two layers
#> 106 option to activate the soil compaction at sowing and harvest: 1 = yes, 2 = no
#> 107 option to activate the module simulating tillers dynamics: 1 = yes, 2 = no
#> 108 option to calculate PET: 1 = forced Penman, 2 = calculated Penman, 3= Shuttleworth & Wallace, 4 = Priestley & Taylor
#> 109 option to activate cuts of forage crops: 1 = yes, 2 = no
#> 110 option to activate an additional water compartment for swelling soils: 1 = yes, 2 = no
#> 111 option to activate plant thinning: 1 = no, 2 = yes
#> 112 option to calculate the maximal symbiotic fixation: 1 = fixed value read in the plant file, 2 = depends on growth rate
#> 113 option to activate split applications of N fertiliser: 1 = absolute value, 2 = fraction of total N application
#> 114 option to define the maturity status of the fruits in the variable CHARGEFRUIT: 1 = including ripe fruits (last box N), 2 = excluding ripe fruits (first N-1 boxes)
#> 115 option to define the effect of soil nitrate on N fixation: 1 = no effect, 2 = effect of nitrate amount, 3 = effect of nitrate concentration
#> 116 option to define the time step used for calculating development units: 1 = hourly, 2 = daily
#> 117 option to define the time step used for calculating bud break date: 1 = daily, 2 = hourly growing degrees
#> 118 option to simulate germination: 1 = germination phase, 2 = immediate germination
#> 119 option to activate water stress effect on crop growth: 1 = yes, 2 = no
#> 120 option to simulate plant emergency: 1 = phase of hypocotyl growth (sown crops), 2 = plantation of plantlets
#> 121 option to simulate the type of leaf growth and fruit growth: 1 = determinate, 2 = undeterminate
#> 122 option to activate reset of initial conditions in case of chained simulations: 1 = yes, 2 = no
#> 123 option to compute NNI: 1 = cumulative NNI, 2 = instantaneous NNI
#> 124 option to activate N stress effect on root length growth: 1 = yes, 2 = no
#> 125 option to simulate rainfall interception by leaves: 1 = yes, 2 = no
#> 126 option to calculate the ratio grain weight/total biomass: 1 = proportional to time, 2 = proportional to thermal time
#> 127 option to simulate perennial crops destruction
#> 128 option to calculate the intercepted radiation according to: 1 = LAI, 2 = soil cover
#> 129 option to define if the crop is a legume fixing N: 1 = yes, 2 = no
#> 130 option to activate calculation of water flux in soil macroporosity: 1 = yes, 2 = no
#> 131 option to calculate hourly microclimatic outputs (output file humidite.sti): 1 = yes, 2 = no
#> 132 option to simulate a bare soil with a constant water content: 1 = yes, 2 = no
#> 133 option to define the cutting mode: 1 = automatic calculation depending on phenologic and trophic state, 2 = pre-established calendar in days, 3 = pre-established calendar in degree-days
#> 134 option to calculate snow variables: 1 = unused, 2 = unused, 3 = Snow model 3
#> 135 option to define the type of plant: 1 = monocot, 2 =dicot
#> 136 option to stop the reserve limitation after stem elongation in grassland: 1 = yes, 2 = no
#> 137 option to calculate the mass of dead roots after a cut: 1 = based on masec, 2 = based on masectot
#> 138 option to define if the biomass and yield are conserved after harvest: 1 = yes, 2 = no (values set at 0)
#> 139 option to activate the nitrification model: 1 = yes, 2 = no
#> 140 option to activate the limitation of residues decomposition due lack of mineral N: 1 = yes, 2 = no
#> 141 option to write outputs files with scientific format: 1 = yes, 2 = no
#> 142 option to define soil cover: 1 = no cover, 2 = plastic cover partly covering the soil
#> 143 option to define if the plant is fixed onto a vertical support: 1 = no, 2 =yes
#> 144 option to define the crop perenniality: 1 = annual crop, 2 = perennial crop
#> 145 option to define plant photoperiodism: 1 = yes, 2 = no
#> 146 simulation of the effect of decreasing photoperiod on biomass allocation : 1 = yes, 2 = no
#> 147 option to define the coding name of the plant (3 characters)
#> 148 option to define N requirements at the beginning of the cycle: 1 = dense plant population, 2 = isolated plants
#> 149 option to replace rainfall by irrigation at poquet depth in the case of poquet sowing: 1 = yes, 2 = no
#> 150 option of soil depth for calculating water and N stocks (1 = profmes, 2 = soil depth)
#> 151 option to define the calculation of root growth and extension: 1 = standard profile, 2 = root length density
#> 152 option to harvest intercrop species simultaneously, at the physiological maturity date of the earliest one: 1 = no, 2 = yes
#> 153 option to activate capillary rise: 1 = yes, 2 = no
#> 154 residue type: 1=mature crop, 2=cover crop, 3=Manure, 4=Green compost, 5=Sewage sludge, 6=Vinasse, 7=Horn, 8=vineyard prunings, 9=pig slurry, 10=rhizomes
#> 155 residue type used to simulate bovine feces: 1-10
#> 156 option to activate the effect of water stress on development before the stage DRP (filling of harvested organs): 1 = yes, 2 = no
#> 157 option to calculate net radiation: 1 = Brunt method, 2 = Cellier method
#> 158 option to activate the sensitivity analysis version of the model: 1 = yes, 2 = no
#> 159 option to select the column separator in the rapport.sti output file: 1 = space separator, 2 = separator indicated in the file rapport.sti
#> 160 option to define the type of crop simulation: culture or 0 (LAI calculated by the model), feuille or 1 (LAI forced)
#> 161 option to activate the snow module: 1 = yes, 2 = no
#> 162 option to force one or several development stages: 1 = yes, 2 = no
#> 163 option to activate the photoperiodic stress on lifespan (1 = yes, 2 = no)
#> 164 option to simulate several successive USM: 0 = no, 1 = yes
#> 165 optin to calculate the duration of surface wetness: 1=yes , 2 = no
#> 166 option to calculate symbiotic N fixation: 1 = based on critical dilution curve, 2 = specific calculation of N fixation
#> 167 option to activate pruning: 1 = no, 2 = yes
#> 168 option to calculate thermal time for plant growth: 1 = based on air temperature, 2 = based on crop temperature
#> 169 option to define the reference temperature to compute cutting sum of temperatures: 1 = upvt, 2 = udevair
#> 170 option to calculate thermal time for root growth: 1 = crop temperature, 2 = soil temperature
#> 171 option to define automatic N fertilisation calculation: 1 = based on rainfall, 2 = based on soil water content
#> 172 option to activate the effect of crop structure on radiation transfer: 1 =yes, 2 = no
#> 173 option to choose the ratio used to calculate tiller mortality: 1 = et/etm, 2 = epc2/eopC
#> 174 option to calculate radiation interception: 1 = Beer law, 2 = radiative transfer
#> 175 option to activate heat effect on grain filling: 1 = yes, 2 = no
#> 176 option to calculate hourly dew temperature : 1 = linear interpolation, 2 = sinusoidal interpolation (Debele Bekele et al, 2007)
#> 177 code for pebble type
#> 178 code for fertiliser type
#> 179 code for organic residue
#> 180 code for cultivar name
#> 181 option to activate the frost effect at anthesis: 1 = no, 2 = yes
#> 182 option to activate the frost effect on LAI at the juvenile stage: 1 = no, 2 = yes
#> 183 option to activate the frost effect on plantlet growth: 1 = no, 2 = yes
#> 184 option to activate the frost effect on LAI at adult stage: 1 = no, 2 = yes
#> 185 option to define the height of leaf removal (if the thinning option is activated): 1 = bottom of the canopy, 2 = top of the canopy
#> 186 option to calculate the watertable level : 1 = mean height, 2 = height at the distance distdrain
#> 187 option to calculate the LAI: 1 = net LAI, 2 = difference between gross LAI and senescent LAI
#> 188 option to define localized fertilisation: 1 = at soil surface, 2 = deeper in the soil
#> 189 option to define localized irrigation: 1= above the foliage, 2= below the foliage above the soil, 3 = in the soil
#> 190 option to activate the optimisation code: 0 = no, 1 = optimisation for the main crop, 2 = optimisation for the associated crop
#> 191 option to simulate artificial drainage: 1 = yes, 2 = no
#> 192 option to define harvest strategy: 1 = at physiological maturity, 2 = according to water content, 3 = according to sugar content, 4 = according to nitrogen content, 5 = according to oil content
#> 193 option to activate foliage control by trimming: 1 = no, 2 = yes
#> 194 option to activate a trophic effect on root length growth: 1 = permanent link, 2 = link by thresholds, 3 = no effect
#> 195 crop N concentration below which there is no N return to the soil through animal urine
#> 196 crop N concentration used to calculate animal feces from animal grass dry matter intake
#> 197 multiplier coefficient applied to the thermal time requirement between stages AMF and LAX
#> 198 parameter defining the radiation saturation effect on biomass conversion efficiency
#> 199 multiplier coefficient of the outdoor radiation to calculate PET inside of a greenhouse
#> 200 multiplier coefficient applied to the thermal time requirement between stages DRP and MAT
#> 201 multiplier coefficient applied to the thermal time requirement between stages FLO and DRP
#> 202 multiplier coefficient applied to the thermal time requirement between stages LAX and SEN
#> 203 multiplier coefficient applied to the thermal time requirement between stages LEV and AMF
#> 204 multiplier coefficient applied to the thermal time requirement between stages LEV and DRP
#> 205 ratio of crop biomass to useful cutting height of crops
#> 206 proportion of roots dying after a cut of a forage crop
#> 207 coefficient applied to the (outdoor) net radiation to calculate the net radiation under a greenhouse
#> 208 multiplier coefficient applied to the thermal time requirement between stages SEN and LAN
#> 209 concentration of mineral N (NH4+NO3-N) in irrigation water
#> 210 maximal concentration of mineral N in soil for nodule onset
#> 211 nitrate-N concentration (if codefxN=3) or nitrate-N amount (if codefxN=2) above which N fixation is totally inhibited
#> 212 nitrate-N concentration (if codefxN=3) or nitrate-N amount (if codefxN=2) below which N fixation is maximum
#> 213 concentration of mineral N (NH4+NO3-N) in the rain
#> 214 minimum concentration of NO3-N in soil (unavailable for leaching and for uptake)
#> 215 maximal reduction factor applied to root growth rate due to soil strengthness (high bulk density)
#> 216 temperature to substract to Tmin to estimate dew point temperature (in case of missing air humidity data)
#> 217 fraction of soil covered by the plastic mulch
#> 218 C content in organic residue (DW)
#> 219 C content in animal feces (FW)
#> 220 fraction of organic residue which is decomposable
#> 221 elongation rate of the root apex
#> 222 C/N ratio of residue
#> 223 Initial C to N ratio of soil humus
#> 224 number of calendar years involved in the crop cycle (1 = 1 year e.g. for spring crops, 2 = two years, e.g. for winter crops)
#> 225 parameter of the climate calculation under shelter
#> 226 minimum ratio C/N of microbial biomass decomposing organic residues
#> 227 bulk density of soil after soil tillage (Chisel)
#> 228 bulk density of soil below which root growth is reduced due to a lack of soil cohesion
#> 229 bulk density of fine earth fraction in each soil layer
#> 230 bulk density of soil after full inversion tillage (plough)
#> 231 bulk density of soil after harvest
#> 232 bulk density of soil after sowing
#> 233 bulk density of soil above which root growth is maximal
#> 234 bulk density of soil above which root growth becomes impossible
#> 235 starting date of automatic irrigations
#> 236 starting date of simulation
#> 237 ending date of simulation
#> 238 ending date of automatic irrigations
#> 239 thermal time units defining the beginning of root senescence (root life time)
#> 240 maximal fraction of the mineral fertilizer that can be denitrified (used if codedenit is not activated)
#> 241 initial root density in each of the five soil layers
#> 242 plant sowing density
#> 243 rate of change of water content in fruits (FW) vs thermal time (>0 or <0)
#> 244 minimal foliar density within the considered shape
#> 245 maximal foliar density within the considered shape
#> 246 parameter of the first potential growth phase of fruit, corresponding to an exponential type function describing the cell division phase
#> 247 diffusion coefficient of nitrate in soil at field capacity
#> 248 soil thermal diffusivity
#> 249 distance between mole drains
#> 250 difference between the maximum and the minimum melting rates for snow
#> 251 maximum rate of net daily increase of LAI
#> 252 maximum rate of gross daily increase of LAI
#> 253 accelerating parameter for the lai growth rate
#> 254 growth rate above which there is no more photoperiodic effect on senescence
#> 255 growth rate below which the photoperiodic effect on senescence is maximal
#> 256 daily amount of irrigation water
#> 257 minimal amount of daily irrigation
#> 258 daily amount of N added through fertilizers
#> 259 maximum amount of irrigation water applied daily (mode automatic irrigation)
#> 260 maximum amount of fertiliser N applied daily (mode automatic fertilisation)
#> 261 maximal pH increase following the application of slurry
#> 262 maximum rate of root length production per plant
#> 263 duration of the fruit between onset and physiological maturity
#> 264 maximal lifespan of an adult leaf expressed in summation of Q10=2 (2**(T-Tbase))
#> 265 relative additional lifespan due to N excess in plant (INN > 1)
#> 266 snow compaction parameter
#> 267 minimum amount of rainfall required to start sowing (when codedecisemis is activated)
#> 268 water content of organic residue (FW)
#> 269 water content of animal feces deposited on soil during grazing (FW)
#> 270 distance between mole drains
#> 271 maximum radiation use efficiency during the juvenile phase (LEV-AMF)
#> 272 maximum radiation use efficiency during the grain filling phase (DRP-MAT)
#> 273 maximum radiation use efficiency during the vegetative stage (AMF-DRP)
#> 274 fraction of leaf removed by plant thinning
#> 275 irrigation efficiency
#> 276 Efficiency of use of carbohydrates in storage organs of perennials
#> 277 maximum elongation of the coleoptile in darkness condition
#> 278 plant elongation factor for the shaded component of a dominated plant: more elongation when > 1.0 compared to reference in sole crop
#> 279 fraction of ammonium in the N fertilizer
#> 280 fertilizer type (1=ammonium nitrate, 2=UAN solution, 3=urea, 4=anhydrous ammonia, 5=ammonium sulfate, 6=ammonium phosphate, 7=calcium nitrate, 8= fixed efficiency fertiliser)
#> 281 fertilizer type used to mimic urine excretion (1=ammonium nitrate, 2=UAN solution, 3=urea, 4=anhydrous ammonia, 5=ammonium sulfate, 6=ammonium phosphate, 7=calcium nitrate, 8= fixed efficiency fertiliser)
#> 282 fertilizer type (1=ammonium nitrate, 2=UAN solution, 3=urea, 4=anhydrous ammonia, 5=ammonium sulfate, 6=ammonium phosphate, 7=calcium nitrate, 8= fixed efficiency fertiliser)
#> 283 fraction of envelop in grainmaxi
#> 284 thickness of each soil layer
#> 285 thickness of mixing cells in each soil layer ( = 2 * dispersion length)
#> 286 extinction coefficient of photosynthetic active radiation in the canopy
#> 287 name of the first climate file
#> 288 name of the second climate file
#> 289 relative soil mineralisation rate at water saturation
#> 290 initial fraction of inert pool in the soil organic pool (= stable SON/ total SON)
#> 291 name of the initialisation file
#> 292 maximal N symbiotic fixation rate
#> 293 maximal N symbiotic fixation rate per unit of grain growth rate
#> 294 maximal N symbiotic fixation rate per unit of vegetative growth rate
#> 295 option for writing the output files (1 = mod_history.sti, 2=daily outputs,4= report outputs, 8=balance outputs,16 = profile outputs, 32= debug outputs, 64 = screen outputs) sum them to have several types of outputs
#> 296 name of the LAI file
#> 297 minimal value for the ratio N/C of the microbial biomass when N limits decomposition
#> 298 minimal fraction of mineral N available for residues decomposition (if codeNmindec is activated)
#> 299 maximum fraction of NH4 nitrified each day (first order model)
#> 300 name of the observed file
#> 301 option to define the shape of leaf density profile: 1 = rectangle, 2 = triangle
#> 302 name of the plant file
#> 303 proportion of fertiliser N applied at each application
#> 304 reduction factor of decomposition rate of organic residues when mineral N is limiting
#> 305 reduction factor of decomposition rate of microbial biomass when mineral N is limiting
#> 306 additional reduction factor of residues decomposition rate when mineral N is highly limiting
#> 307 name of the weather station file
#> 308 name of the technical file
#> 309 parameter (1/2) of the temperature function on humus decomposition rate
#> 310 parameter (2/2) of the temperature function on humus decomposition rate
#> 311 parameter (1/2) of the temperature function on decomposition rate of organic residues
#> 312 parameter (2/2) of the temperature function on decomposition rate of organic residues
#> 313 parameter (1/7) of the new mineralization function (Clivot et al, 2017), mineralization rate constant
#> 314 parameter (2/7) of the new mineralization function (Clivot et al, 2017), clay content factor
#> 315 parameter (3/7) of the new mineralization function (Clivot et al, 2017), CaCO3 content factor
#> 316 parameter (4/7) of the new mineralization function (Clivot et al, 2017), pH factor 1
#> 317 parameter (5/7) of the new mineralization function (Clivot et al, 2017), pH factor 2
#> 318 parameter (6/7) of the new mineralization function (Clivot et al, 2017), C/N soil factor 1
#> 319 parameter (7/7) of the new mineralization function (Clivot et al, 2017), C/N soil factor 2
#> 320 thermal gradient in altitude for minimal temperatures
#> 321 thermal gradient in altitude for minimal temperatures under the inversion level
#> 322 thermal gradient in altitude for maximal temperatures
#> 323 water content of yellow leaves (FW)
#> 324 water content of green leaves (FW)
#> 325 water content of fruits before the beginning of dehydration (FW)
#> 326 maximal water content of fruits at harvest (FW)
#> 327 minimal water content of fruits at harvest (FW)
#> 328 water content of crop reserve (FW)
#> 329 water content of structural stem part (FW)
#> 330 basal height of crop
#> 331 cut height for forage crops (calendar fixed)
#> 332 cut height for forage crops (calendar calculated)
#> 333 Inflexion point parameter for the height~phasic development relationship
#> 334 Logistic growth rate parameter for the height~phasic development relationship
#> 335 height difference between crops in intercrop below which we consider the canopies mixed (homogeneous). Used in radiative transfer option as a fallback to Beer-Lambert.
#> 336 maximum height of crop
#> 337 maximal height of the plant allowed by the management
#> 338 cutting height for trimmed plants
#> 339 gravimetric water content at field capacity of each type of pebble (dry soil)
#> 340 gravimetric water content at field capacity of each soil layer (in fine earth, dry soil)
#> 341 initial gravimetric water content of each soil layer (in fine earth, dry soil)
#> 342 gravimetric water content at wilting point of each soil layer (in fine earth, dry soil)
#> 343 relative water content (fraction of field capacity) below which mineralisation rate is nil
#> 344 relative water content (fraction of field capacity) below which nitrification rate is nil
#> 345 relative water content (fraction of field capacity) above which mineralisation rate is maximum
#> 346 relative water content (fraction of field capacity) above which nitrification rate is maximum
#> 347 minimal oil content of fruits at harvest (FW)
#> 348 threshold of soil gravimetric water content under which capillary rise occurs (dry soil)
#> 349 relative soil moisture threshold above which sowing is possible (0 = no sensitivity to drought, 1 = highly sensitive)
#> 350 forced day for AMF stage (999 = not forced)
#> 351 soil number in the param.soil file
#> 352 day of the dormancy entrance
#> 353 day of the dormancy entrance
#> 354 forced day for DRP stage (999 = not forced)
#> 355 day of dormancy break
#> 356 forced day for FLO stage (999 = not forced)
#> 357 end of simulation as cumulative julian day (>365 spans into next year)
#> 358 forced day for LAN stage (999 = not forced)
#> 359 forced day for LAX stage (999 = not forced)
#> 360 forced day for LEV stage (999 = not forced)
#> 361 forced day for MAT stage (999 = not forced)
#> 362 infiltrability rate at the base of each soil layer (if codemacropor = 1)
#> 363 maximal number of inflorescences per plant
#> 364 ulai at the stage AMF (maximal rate of leaf growth)
#> 365 initial value of lai for cotyledons
#> 366 option of smoothing out the initial mineral N and water profiles (spline function): 2 = no, 1 = yes
#> 367 NNI below which net absorption of N during grain filling is maximal
#> 368 NNI above which net absorption of N during grain filling is nil
#> 369 INNI (instantaneous NNI) corresponding to INNmin
#> 370 minimum value of NNI possible for the crop
#> 371 parameter of the N stress function active on senescence (INNsenes)
#> 372 parameter of the N stress function active on leaf expansion (INNLAI)
#> 373 width of the crop interrow
#> 374 date of sowing
#> 375 date of sowing
#> 376 Maximum nitrogen harvest index
#> 377 forced day for REC stage (999 = not forced)
#> 378 latest date of harvest (imposed if the crop cycle is not finished at this date)
#> 379 maximum harvest index
#> 380 amount of irrigation applied automatically on the sowing day to allow germination when the model calculates irrigation
#> 381 forced day for SEN stage (999 = not forced)
#> 382 date when the soil is bare
#> 383 starting day of the simulation
#> 384 date(s) of irrigation
#> 385 date(s) of fertilizer application
#> 386 day of perennial crop destruction
#> 387 day of fruits removal
#> 388 day of leaf removal
#> 389 date(s) of each cut for forage crops
#> 390 day (1/2) of opening the shelter
#> 391 day (2/2) of opening the shelter
#> 392 date(s) of organic residue addition to soil
#> 393 day of plant trimming
#> 394 day of pruning
#> 395 date(s) of soil tillage
#> 396 day of initiation of vernalisation in perennial crops (between 1 and 365)
#> 397 number of vernalising days or dormancy units
#> 398 minimum number of vernalising days
#> 399 affinity constant for NH4 in nitrification (if Michaelis_Menten formalism is used)
#> 400 potential decay rate of microbial biomass decomposing organic residues
#> 401 extinction coefficient connecting the soil cover to the amount of plant mulch
#> 402 Affinity constant for nitrate in denitrification
#> 403 rate constant of de-saturation
#> 404 rate constant defining root length distribution throughout the profile
#> 405 extinction coefficient connecting LAI to crop height
#> 406 affinity constant of N uptake by roots for the fast uptake system
#> 407 affinity constant of N uptake by roots for the low uptake system
#> 408 maximum crop coefficient for water requirements (= MET/PET)
#> 409 minimum snow melting rate on 21 December
#> 410 parameter of biomass root partitioning : evolution of the ratio root/total (permanent trophic link)
#> 411 parameter of biomass root partitioning : evolution of the ratio root/total (trophic link by thresholds)
#> 412 soil hydraulic conductivity in the vicinity of mole drains
#> 413 extinction coefficient connecting LAI to stemflow
#> 414 extinction coefficient of PAR through the crop (used in the radiative transfer module)
#> 415 initial leaf area index
#> 416 LAI above which competition between plants starts
#> 417 LAI at the beginning of leaf removal
#> 418 LAI removed from the crop at day juleffeuil
#> 419 LAI of plantlet at the plantation
#> 420 residual LAI after each cut of forage crop
#> 421 trimmed width
#> 422 technical width
#> 423 latitude of the site
#> 424 soil depth at which fertiliser is applied
#> 425 soil depth at which irrigation is applied
#> 426 specific root length
#> 427 root density at the root apex
#> 428 maximum root length density in the top soil (used to calculate root mass)
#> 429 root length density (RLD) above which water and N uptake are maximum and independent of RLD
#> 430 initial grain dry weight
#> 431 initial value of biomass of storage organs in perennial crops
#> 432 topping occurs when plant height exceeds (hautrogne+margerogne) when automatic trimming is activated
#> 433 initial plant biomass (if the option to simulate N and C reserves is not activated)
#> 434 biomass of the plantlet supposed to be composed of metabolic N
#> 435 aerial biomass above which N dilution occurs (critical and maximal curves)
#> 436 initial aerial biomass
#> 437 initial shoot biomass of plantlet
#> 438 bulk density of each type of pebble
#> 439 maximal value of the denitrification potential (if code_pdenit = 2)
#> 440 mineral N concentration in soil above which root growth is maximum
#> 441 maximum tillers density per soil area
#> 442 minimal value of the denitrification potential (if code_pdenit = 2)
#> 443 mineral N concentration in soil below which root growth is reduced
#> 444 reduction factor on root growth when soil mineral N is limiting (< minazorac)
#> 445 maximum wettability of leaves
#> 446 maximum wettability of crop mulch
#> 447 minimum value of aerial biomass required to make a cut of forage crop
#> 448 residual aerial biomass after a cut of a forage crop
#> 449 mulch depth at which a crust occurs (a value must be given but if in the plt.xml the vigueurbat parameter is equal to 1 then the parameter is inactive)
#> 450 number of years for a simulation
#> 451 number of fruit harvests during the crop cycle: 1 = one harvest, 2 = several harvests
#> 452 leaf number per plant when planting
#> 453 leaf number at the end of the juvenile phase (frost sensitivity)
#> 454 maximum number of fruits per surface area
#> 455 minimum number of fruits per surface area
#> 456 imposed number of inflorescences per plant
#> 457 number of inflorescences or fruits removed at fruit removal
#> 458 number of days used to calculate rainfall requirement to start sowing (if codedecisemis is activated)
#> 459 maximum number of days after grain imbibition allowing full germination
#> 460 number of days used to compute the number of viable grains
#> 461 maximum number of days allowed for harvest (if the soil compaction option is activated)
#> 462 maximum number of days allowed for sowing (if the soil compaction option is activated)
#> 463 number of days during which rainfall is replaced by irrigation in the soil after a sowing poquet
#> 464 number of residue additions
#> 465 number of days without frost for sowing (if sowing decision option is activated)
#> 466 number of tillage operations
#> 467 number of boxes or age classes of fruits used to calculate fruit growth for undeterminate crops
#> 468 number of simulated plants
#> 469 NH3 concentration in the atmosphere
#> 470 minimum (fixed ?) NH4 concentration found in soil
#> 471 initial amount of NH4-N in each of the soil layers (in fine earth)
#> 472 number of days after germination after which plant emergence is reduced
#> 473 number of days after germination after which plant emergence is impossible
#> 474 proportion of metabolic N in the plantlet
#> 475 proportion of mineral N content in organic residues (FW)
#> 476 proportion of N mineral content in animal feces (FW)
#> 477 initial amount of NO3-N in each of the soil layers (in fine earth)
#> 478 name of the USM
#> 479 name of the soil
#> 480 soil organic N content in the first soil layer (constant down to the depth profhum, dry soil)
#> 481 maximal proportion of N in plant reserves (difference between the maximal and critical dilution curves)
#> 482 number of plant rows in a strip (if code_strip is activated)
#> 483 soil number
#> 484 Importance of the N & W stress effect on plant heigth.
#> 485 soil depth at which root growth is stopped due to physical constraints
#> 486 change in air temperature in the northern hillslope of mountains (activated if codadret=2)
#> 487 option to activate grazing in pastures: 1 = yes, 2 = no
#> 488 maximal amount of fertilizer N that can be immobilized in the soil (fraction for type 8)
#> 489 direction of crop rows (relative to north)
#> 490 C/N ratio of dead leaves when crop NNI = 1
#> 491 C/N ratio of perennial organs when crop NNI = 1
#> 492 C/N ratio of roots when crop NNI = 1
#> 493 C/N ratio of dead stems when crop NNI = 1
#> 494 fraction of photosynthetically active radiation in global radiation (PAR/RG)
#> 495 Coefficient to compute plant net radiation from absorbed PAR
#> 496 atmospheric pressure
#> 497 runoff coefficient taking into account the plant mulch
#> 498 parameter used to calculate the inflorescences number
#> 499 parameter of the logistic curve of LAI growth
#> 500 parameter of the logistic curve of soil cover rate
#> 501 fraction of animal feces and urine not returned in grazed paddocks (e.g. in resting area, milking parlour, housing and paths/roads)
#> 502 maximum grain weight (at 0% water content)
#> 503 Initial soil pH (water solution)
#> 504 parameter allowing the calculation of the climate under shelter
#> 505 pH beyond which the N2O molar fraction in the denitrification process is minimum (<= ratiodenit)
#> 506 soil pH above which nitrification rate is maximum
#> 507 soil pH above which NH3 volatilisation derived from fertiliser is maximum
#> 508 pH below which the N2O molar fraction in the denitrification process is maximum (100% )
#> 509 soil pH below which nitrification is nil
#> 510 soil pH below which NH3 volatilisation derived from fertiliser is nil
#> 511 basal photoperiod
#> 512 photoperiod under which the photoperiodic stress affects the lifespan of leaves
#> 513 saturating photoperiod
#> 514 parameter used to calculate the variation of soil pH after the addition of slurry
#> 515 thermal duration between the apparition of two successive leaves on the main stem
#> 516 minimal amount of rain required to start an automatic N fertilisation
#> 517 minimal amount of rain required to create a soil crust (a value must be given but if in the plt.xml the vigueurbat parameter is equal to 1 then the parameter is inactive)
#> 518 minimal amount of rain required to produce runoff
#> 519 density of the new snow
#> 520 soil water potential below which seed imbibition is impeded
#> 521 maximum priming ratio (relative to SOM decomposition rate)
#> 522 snow cover threshold for snow insulation
#> 523 soil depth at which denitrification is active (if codedenit is activated)
#> 524 depth of mole drains
#> 525 maximum soil depth with an active biological activity
#> 526 soil depth at which moisture is considered to allow harvesting (if soil compaction is activated)
#> 527 soil depth at which moisture is considered to allow sowing (if soil compaction is activated)
#> 528 upper depth of the impermeable layer (from the soil surface)
#> 529 minimal soil depth for ploughing (if soil compaction is activated)
#> 530 depth of measurement of the soil water reserve
#> 531 maximum depth at which N2 fixation by legume crops is possible
#> 532 upper depth of organic residue incorporation
#> 533 depth of sowing
#> 534 maximum depth affected by soil tillage
#> 535 minimal soil depth for chisel tillage (if soil compaction is activated)
#> 536 soil moisture content (fraction of field capacity) above which compaction may occur and delay harvest
#> 537 soil moisture content (fraction of field capacity) above which compaction may occur and delay sowing
#> 538 minimal fraction of the duration nbjgerlim when the temperature is higher than the temperature threshold Tdmax
#> 539 ratio of root mass to aerial mass at harvest
#> 540 fraction of fine roots emitted in the layer 0-1 cm (in length, maximum value over the root profile)
#> 541 maximal fraction of the biomass reserves that can be mobilized from aerial organs in all crops
#> 542 maximal fraction of the biomass reserves that can be mobilized from storage organs in perennials
#> 543 maximal fraction of the N reserves that can be mobilized from storage organs in perennials
#> 544 initial density of the snow cover
#> 545 soil water potential corresponding to field capacity
#> 546 soil water potential corresponding to wilting point
#> 547 potential of stomatal closing (absolute value)
#> 548 potential of the beginning of decrease of the cellular extension (absolute value)
#> 549 cumulative soil evaporation above which evaporation rate is decreased
#> 550 Q10 used for the dormancy break calculation
#> 551 maximal amount of decomposable mulch
#> 552 amount of mulch above which runoff is suppressed
#> 553 initial value of nitrogen amount in storage organs in perennial crops
#> 554 initial N amount in the plant (if the option to simulate N and C reserves is not activated)
#> 555 initial N amount in non-perennial organs of the plant
#> 556 minimal amount of N in the plant required to compute INN
#> 557 mass of organic residues added to soil (fresh weight)
#> 558 total amount of mineral N fertilizer applications
#> 559 aerodynamic resistance (used in volatilization module with the PET approach)
#> 560 ratio of coarse roots diameter to fine roots diameter
#> 561 ratio of thickness to width of the crop shape (negative when the base of the form < top)
#> 562 slope of the linear relationship between the fraction of mineral N available for residue decomposition and the amount of C in decomposing residues
#> 563 threshold soil water content active to simulate water senescence stress as a proportion of the turgor stress
#> 564 fraction of N2O emitted per unit of N denitrified
#> 565 life span of early leaves expressed as a fraction of the life span of the last leaves emitted DURVIEF
#> 566 water stress index below which irrigation is started in automatic mode (0 in manual mode)
#> 567 nitrogen stress index below which fertilisation is started in automatic mode (0 in manual mode)
#> 568 fraction of N2O emitted per unit of N nitrified
#> 569 fraction of senescent biomass (relative to total biomass)
#> 570 average radius of the roots
#> 571 radius of the mole drains
#> 572 fraction of daily remobilisable C reserves
#> 573 maximum root biomass relative to total biomass (permanent trophic link)
#> 574 minimum root biomass relative to total biomass (permanent trophic link)
#> 575 maximum root biomass relative to total biomass (trophic link by thresholds)
#> 576 minimum root biomass relative to total biomass (trophic link by thresholds)
#> 577 parameter 1/2 used to calculate profres (if code_auto_profres = 1): profres = proftrav *(1-exp(-resk.(proftrav-resz))
#> 578 maximal reserve of biomass
#> 579 type of crop residue: roots / whole_crop / straw+roots / stubble+roots / prunings
#> 580 initial biomass of metabolic reserves in the perennial organs
#> 581 option of restitution in case of pasture yes (1), no (2)
#> 582 parameter 2/2 used to calculate profres (if code_auto_profres = 1): profres = proftrav *(1-exp(-resk.(proftrav-resz))
#> 583 minimal stomatal resistance of leaves
#> 584 root tissue density
#> 585 roughness length of bare soil after chisel tillage (if soil compaction is activated)
#> 586 roughness length of bare soil after mouldboard ploughing (if soil compaction is activated)
#> 587 fraction of runoff (relative to total rainfall) in a bare soil
#> 588 parameter related to the range of optimum temperature for denitrification
#> 589 parameter related to the range of optimum temperature for nitrification
#> 590 initial snow cover depth
#> 591 initial water in solid state in the snow cover
#> 592 specific area of fruit envelops
#> 593 index of anoxia sensitivity (0 = insensitive, 1 = highly sensitive)
#> 594 index of photoperiod sensitivity (1 = insensitive, 0 = highly sensitive)
#> 595 index of root sensitivity to drought (1 = insensitive, 0 = highly sensitive)
#> 596 column separator in rapport.sti file
#> 597 maximal value of LAI+LAIapex when LAIapex is > 0
#> 598 relative transpiration threshold to calculate tiller mortality
#> 599 tiller density below which the entire population will not be regenerated
#> 600 parameter used for calculating tiller mortality (gamma law)
#> 601 maximum SLA (specific leaf area) of green leaves
#> 602 minimum SLA (specific leaf area) of green leaves
#> 603 maximal sources/sinks value allowing the trophic stress calculation for fruit onset
#> 604 minimal sources/sinks value allowing the trophic stress calculation for fruit onset
#> 605 maximal sources/sinks value allowing the trophic stress calculation for leaf growing
#> 606 minimal value of ratio sources/sinks for the leaf growth
#> 607 crop stage at the beginning of simulation
#> 608 equivalent stage in BBCH-scale (amf= maximum acceleration of leaf growth, end of juvenile phase)
#> 609 equivalent stage in BBCH-scale (debdes= date of onset of water dynamics in harvested organs)
#> 610 equivalent stage in BBCH-scale (drp = starting date of filling of harvested organs)
#> 611 equivalent stage in BBCH-scale (end of dormancy)
#> 612 equivalent stage in BBCH-scale (flowering)
#> 613 equivalent stage in BBCH-scale (germination)
#> 614 equivalent stage in BBCH-scale (lax = maximum leaf area index, end of leaf growth )
#> 615 equivalent stage in BBCH-scale (emergence)
#> 616 equivalent stage in BBCH-scale (maturity)
#> 617 equivalent stage in BBCH-scale (fruit set)
#> 618 equivalent stage in BBCH-scale (sowing)
#> 619 equivalent stage in BBCH-scale (harvest)
#> 620 equivalent stage in BBCH-scale (senescence)
#> 621 stage of automatic cut for forage crops
#> 622 phenological stage for ending automatic irrigations (plt, ger, lev, amf, lax, drp ,flo, sen, rec, mat, debdorm, findorm)
#> 623 phenological stage for starting automatic irrigations (plt, ger, lev, amf, lax, drp ,flo, sen, rec, mat, debdorm, findorm)
#> 624 Stage at which the plant height remains constant (lax, sen, flo, drp, mat, rec, and no for nothing)
#> 625 cumulative thermal time between the stages AMF (maximum acceleration of leaf growth, end of juvenile phase) and LAX (maximum leaf area index, end of leaf growth )
#> 626 cumulative thermal time between the beginning and the end of nodulation
#> 627 cumulative thermal time between the dormancy break and the bud break
#> 628 cumulative thermal time between the DRP stage (starting date of filling of harvested organs) and DEBDES (date of onset of water dynamics in harvested organs)
#> 629 cumulative thermal time between the stages DRP (starting date of filling of harvested organs) and MAT (maturity)
#> 630 cumulative thermal time between the stages DRP (starting date of filling of harvested organs) and NOU (end of setting)
#> 631 maximal fraction of rainfall flowing down along the stems
#> 632 cumulative thermal time between FLO (anthesis) and DRP (starting date of filling of harvested organs) (only for indication)
#> 633 cumulative thermal time between the end of the nodulation and the end of the nodule life
#> 634 cumulative thermal time between the stages LAX (maximum leaf area index, end of leaf growth ) and SEN (beginning of leaf senescence)
#> 635 cumulative thermal time between the stages LEV (emergence) and AMF (maximum acceleration of leaf growth, end of juvenile phase)
#> 636 cumulative thermal time between emergence and the beginning of nodulation
#> 637 cumulative thermal time between the stages LEV (emergence) and DRP (starting date of filling of harvested organs)
#> 638 stage when root growth stops (LAX= maximum leaf area index, end of leaf growth or SEN=beginning of leaf senescence)
#> 639 cumulative thermal time allowing germination
#> 640 maximum phasic delay allowed due to stresses
#> 641 cumulative thermal time between the stages SEN (beginning of leaf senescence) and LAN
#> 642 fraction of unharvested biomass stubble to vegetative biomass at harvest
#> 643 minimal sugar concentration at harvest (fresh matter)
#> 644 equivalent surface of a transpiring apex
#> 645 relative area of the shelter opened the first day of opening
#> 646 relative area of the shelter opened the second day of opening
#> 647 relative area of the shelter opened the third day of opening
#> 648 initial water in liquid state in the snow cover
#> 649 minimal value for drought stress index (turfac, swfac, senfac)
#> 650 degree day temperature index for snow refreezing
#> 651 fraction of cut which is exported
#> 652 mortality rate of perennial organs
#> 653 soil cover rate corresponding to the maximal crop coefficient for water requirement (plant surface / soil surface)
#> 654 maximal soil cover rate (plant surface / soil surface)
#> 655 maximum temperature at which growth ceases
#> 656 minimum temperature at which growth ceases
#> 657 temperature beyond which foliar growth stops
#> 658 temperature below which frost affects plant growth
#> 659 optimum temperature for denitrification
#> 660 maximum temperature above which development stops
#> 661 maximal temperature for hourly calculation of phasic duration between dormancy and bud breaks
#> 662 minimum temperature below which development stops
#> 663 minimal thermal threshold for hourly calculation of phasic duration between dormancy and bud breaks
#> 664 optimal temperature for calculation of phasic duration between dormancy and bud breaks
#> 665 maximal temperature above which plant growth stops
#> 666 minimum temperature for development
#> 667 increase in fruit dehydration rate due to the increase in crop temperature (Tcult-Tair)
#> 668 cumulative thermal time between two cuts of forage crops
#> 669 temperature parameter (1/4) used to calculate N fixation by legumes
#> 670 temperature parameter (2/4) used to calculate N fixation by legumes
#> 671 temperature parameter (3/4) used to calculate N fixation by legumes
#> 672 temperature parameter (4/4) used to calculate N fixation by legumes
#> 673 optimal temperature (1/2) for plant growth
#> 674 optimal temperature (2/2) for plant growth
#> 675 optimal temperature for vernalisation
#> 676 temperature resulting in 10% of frost damages on flowers and fruits
#> 677 temperature resulting in 90% of frost damages on flowers and fruits
#> 678 temperature resulting in 10% of frost damage on LAI (juvenile stage)
#> 679 temperature resulting in 90% of frost damage on LAI (juvenile stage)
#> 680 temperature resulting in 10% of frost damages on plantlet
#> 681 temperature resulting in 90% of frost damages on plantlet
#> 682 temperature resulting in 10% of frost damage on LAI (adult stage)
#> 683 temperature resulting in 90% of frost damage on LAI (adult stage)
#> 684 minimum temperature below which emergence is stopped
#> 685 ratio stem (structural part)/leaf
#> 686 ratio stem (structural part)/leaf on the cutting day
#> 687 lethal temperature for the plant
#> 688 maximal temperature above which grain filling stops
#> 689 maximum temperature when snow cover is higher than prof
#> 690 threshold temperature for snow melting
#> 691 minimal temperature for decomposition of humified organic matter
#> 692 minimal temperature below which grain filling stops
#> 693 minimum temperature when snow cover is higher than prof
#> 694 maximal temperature above which nitrification stops
#> 695 minimal temperature below which nitrification stops
#> 696 optimal temperature (1/2) for nitrification
#> 697 optimal temperature (1/2) for nitrification
#> 698 optimal temperature (2/2) for nitrification
#> 699 transmission coefficient of the plastic shelter
#> 700 reference temperature for decomposition of humified organic matter
#> 701 reference temperature for decomposition of organic residues
#> 702 maximum air temperature (tmax) above which all precipitation is assumed to be rain
#> 703 maximum air temperature (tmax) below which all precipitation is assumed to be snow
#> 704 water stress index (min(turfac,inns)) below which there is an extra LAI senescence
#> 705 Pebbles type: 1 = Beauce limestone1, 2 = Beauce limestone, 3 = Lutetian limestone, 4 = Lutetian Brackish marl and limestone, 5 = morainic gravels, 6 = unweathered flint, sandstone or granite, 7 = weathered granite, 8 = Jurassic limestone 9 = Pebbles from Magneraud
#> 706 soil type
#> 707 ulai from which the rate of leaf growth decreases
#> 708 thermal time from emergence (UPVT units) driving irrigation
#> 709 thermal time from emergence (UPVT units) driving fertilization
#> 710 name of the USM
#> 711 N uptake rate at which fertilizer loss is divided by 2
#> 712 cultivar number corresponding to the cultivar name in the plant file
#> 713 plant vigor index allowing to emerge through a soil crust
#> 714 rate of increase of the N harvest index vs time
#> 715 rate of increase of the C harvest index vs time
#> 716 rate of increase of the C harvest index vs thermal time
#> 717 rate of increase of the potential biological fixation rate after nodule onset, per unit of thermal time
#> 718 rate of increase of oil harvest index vs time
#> 719 rate of increase of sugar harvest index vs time
#> 720 rate of regeneration of the tiller population
#> 721 ulai at the inflexion point of the function DELTAI=f(ULAI)
#> 722 maximum specific N uptake rate with the low affinity transport system
#> 723 maximum specific N uptake rate with the high affinity transport system
#> 724 maximum nitrification rate (if Michaelis-Menten formalism is used)
#> 725 maximal fraction of mineral fertilizer that can be volatilized
#> 726 potential rate of denitrification for the whole denitrifying layer
#> 727 name of the first climate file
#> 728 name of the last climate file
#> 729 WFPS (Water filled porosity space) threshold above which denitrification occurs
#> 730 N/C ratio of soil humus
#> 731 maximal amount of N immobilised in soil derived from the mineral fertilizer
#> 732 minimal amount of root mass at harvest (when aerial biomass is nil)
#> 733 Carbon assimilation yield by the microbial biomass during crop residues decomposition
#> 734 roughness length of bare soil
#> 735 maximal soil depth affected by soil evaporation
#> 736 depth of ploughing (reference profile)
#> 737 depth at which root density is 50% of the surface root density (reference profile)
#> 738 maximum depth of the root profile (reference profile)
#> 739 reference height of meteorological data measurement
#> 740 initial depth of root apex of the crop
#> 741 initial depth of root apex of the plantlet
#> unit cultivar
#> 1 Unit NA
#> 2 SD NA
#> 3 SD NA
#> 4 mm NA
#> 5 SD NA
#> 6 m-1 NA
#> 7 % NA
#> 8 % NA
#> 9 SD NA
#> 10 fruits.inflorescence-1.degree_d-1 NA
#> 11 SD NA
#> 12 d-1 NA
#> 13 W.m-2.K-1 NA
#> 14 SD NA
#> 15 SD NA
#> 16 SD NA
#> 17 SD NA
#> 18 SD NA
#> 19 SD NA
#> 20 SD NA
#> 21 kg-1.ha NA
#> 22 SD NA
#> 23 SD NA
#> 24 m NA
#> 25 m NA
#> 26 m NA
#> 27 degree_C NA
#> 28 kg.ha-1 NA
#> 29 % NA
#> 30 g.g-1 NA
#> 31 SD NA
#> 32 m-2 NA
#> 33 SD NA
#> 34 SD NA
#> 35 degree_d-1 NA
#> 36 SD NA
#> 37 SD NA
#> 38 SD NA
#> 39 g.g-1 NA
#> 40 t.ha-1 NA
#> 41 g.g-1 NA
#> 42 W.m-2.K-1 NA
#> 43 g.g-1 NA
#> 44 d NA
#> 45 % NA
#> 46 % NA
#> 47 mm.d-1 NA
#> 48 SD NA
#> 49 SD NA
#> 50 SD NA
#> 51 t-1.m2.d NA
#> 52 SD NA
#> 53 SD NA
#> 54 g.kg-1 NA
#> 55 g.kg-1 NA
#> 56 g.g-1 NA
#> 57 g.g-1 NA
#> 58 g.g-1 NA
#> 59 code 1/2 NA
#> 60 code 1/2 NA
#> 61 code 1/2 NA
#> 62 code 1/2 NA
#> 63 code 1/2 NA
#> 64 code 1/2 NA
#> 65 code 1/2 NA
#> 66 code 1/2 NA
#> 67 code 1/2 NA
#> 68 code 1/2 NA
#> 69 code 1/2 NA
#> 70 code 1/2 NA
#> 71 code 1/2 NA
#> 72 code 1/2 NA
#> 73 code 1/2 NA
#> 74 code 1/2 NA
#> 75 SD NA
#> 76 code 1/2 NA
#> 77 code 1/2 NA
#> 78 code 1/2 NA
#> 79 code 1/2 NA
#> 80 code 1/2 NA
#> 81 code 1/2 NA
#> 82 code 1/2 NA
#> 83 code 1/2 NA
#> 84 code 1/2 NA
#> 85 code 1/2 NA
#> 86 code 1/2 NA
#> 87 code 1/2 NA
#> 88 code 1/2 NA
#> 89 code 1/2/3 NA
#> 90 code 1/2 NA
#> 91 code 1/2 NA
#> 92 code 1/2 NA
#> 93 code 1/2 NA
#> 94 code 1/2 NA
#> 95 code 1/2 NA
#> 96 code 1/2/3 NA
#> 97 code 1/2 NA
#> 98 code 1/2 NA
#> 99 code 1/2 NA
#> 100 code 1/2 NA
#> 101 code 1/2 NA
#> 102 code 1/2 NA
#> 103 code 1/2/3 NA
#> 104 code 1/2 NA
#> 105 code 1/2 NA
#> 106 code 1/2 NA
#> 107 code 1/2 NA
#> 108 code 1/2/3/4 NA
#> 109 code 1/2 NA
#> 110 code 1/2 NA
#> 111 code 1/2 NA
#> 112 code 1/2 NA
#> 113 code 1/2 NA
#> 114 code 1/2 NA
#> 115 code 1/2/3 NA
#> 116 code 1/2 NA
#> 117 code 1/2 NA
#> 118 code 1/2 NA
#> 119 code 1/2 NA
#> 120 code 1/2 NA
#> 121 code 1/2 NA
#> 122 code 1/2 NA
#> 123 code 1/2 NA
#> 124 code 1/2 NA
#> 125 code 1/2 NA
#> 126 code 1/2 NA
#> 127 code 1/2 NA
#> 128 code 1/2 NA
#> 129 code 1/2 NA
#> 130 code 1/2 NA
#> 131 code 1/2 NA
#> 132 code 1/2 NA
#> 133 code 1/2/3 NA
#> 134 code 1/2/3 NA
#> 135 code 1/2 NA
#> 136 code 1/2 NA
#> 137 code 1/2 NA
#> 138 code 1/2 NA
#> 139 code 1/2 NA
#> 140 code 1/2 NA
#> 141 code 1/2 NA
#> 142 code 1/2 NA
#> 143 code 1/2 NA
#> 144 code 1/2 NA
#> 145 code1/2 NA
#> 146 code1/2 NA
#> 147 SD NA
#> 148 code 1/2 NA
#> 149 code 1/2 NA
#> 150 code 1/2 NA
#> 151 code 1/2 NA
#> 152 code 1/2 NA
#> 153 code 1/2 NA
#> 154 code 1 to 10 NA
#> 155 code 1 to 10 NA
#> 156 code 1/2 NA
#> 157 code 1/2 NA
#> 158 code 1/2 NA
#> 159 code 1/2 NA
#> 160 SD / code 0/1 NA
#> 161 code 1/2 NA
#> 162 code 1/2 NA
#> 163 code 1/2 NA
#> 164 code 0/1 NA
#> 165 code 1/2 NA
#> 166 code 1/2 NA
#> 167 code 1/2 NA
#> 168 code 1/2 NA
#> 169 code 1/2 NA
#> 170 code 1/2 NA
#> 171 code 1/2 NA
#> 172 code 1/2 NA
#> 173 code 1/2 NA
#> 174 code 1/2 NA
#> 175 code 1/2 NA
#> 176 code 1/2 NA
#> 177 code 1 to 10 NA
#> 178 code 1 to 8 NA
#> 179 code 1 to 10 NA
#> 180 SD NA
#> 181 code 1/2 NA
#> 182 code 1/2 NA
#> 183 code 1/2 NA
#> 184 code 1/2 NA
#> 185 code 1/2 NA
#> 186 code 1/2 NA
#> 187 code 1/2 NA
#> 188 code 1/2 NA
#> 189 code 1/2/3 NA
#> 190 code 0/1/2 NA
#> 191 code 1/2 NA
#> 192 code 1 to 5 NA
#> 193 code 1/2 NA
#> 194 code 1/2/3 NA
#> 195 g.kg-1 NA
#> 196 g.kg-1 NA
#> 197 SD NA
#> 198 g.MJ-1 NA
#> 199 SD NA
#> 200 SD NA
#> 201 SD NA
#> 202 SD NA
#> 203 SD NA
#> 204 SD NA
#> 205 t.ha-1.m-1 NA
#> 206 SD NA
#> 207 SD NA
#> 208 SD NA
#> 209 kg.ha-1 mm-1 NA
#> 210 kg.ha-1.mm-1 NA
#> 211 kg.ha-1.mm-1 or kg.ha-1.cm-1 NA
#> 212 kg.ha-1.mm-1 or kg.ha-1.cm-1 NA
#> 213 kg.ha-1 mm-1 NA
#> 214 kg.ha-1 mm-1 NA
#> 215 SD NA
#> 216 degree_C NA
#> 217 SD NA
#> 218 % NA
#> 219 % NA
#> 220 SD NA
#> 221 cm.degree_d-1 NA
#> 222 g.g-1 NA
#> 223 g.g-1 NA
#> 224 SD NA
#> 225 SD NA
#> 226 g.g-1 NA
#> 227 g.cm-3 NA
#> 228 g.cm-3 NA
#> 229 g.cm-3 NA
#> 230 g.cm-3 NA
#> 231 g.cm-3 NA
#> 232 g.cm-3 NA
#> 233 g.cm-3 NA
#> 234 g.cm-3 NA
#> 235 julian_d NA
#> 236 julian_d NA
#> 237 julian_d NA
#> 238 julian_d NA
#> 239 degree_d NA
#> 240 SD NA
#> 241 cm.cm-3 NA
#> 242 plant.m-2 NA
#> 243 g.g-1.degree_d-1 NA
#> 244 m2.m-3 NA
#> 245 m2.m-3 NA
#> 246 SD NA
#> 247 cm2.d-1 NA
#> 248 cm2.s-1 NA
#> 249 cm NA
#> 250 mm.degree_C-1.d-1 NA
#> 251 m2.degree_d-1 NA
#> 252 m2.degree_d-1 NA
#> 253 SD NA
#> 254 t.ha-1.d-1 NA
#> 255 t.ha-1.d-1 NA
#> 256 mm.d-1 NA
#> 257 mm.d-1 NA
#> 258 kg.ha-1.d-1 NA
#> 259 mm.d-1 NA
#> 260 kg.ha-1.d-1 NA
#> 261 SD NA
#> 262 cm.plant-1.degree_d-1 NA
#> 263 degree_d NA
#> 264 SD NA
#> 265 SD NA
#> 266 mm.mm-1.d-1 NA
#> 267 mm NA
#> 268 % NA
#> 269 % NA
#> 270 cm NA
#> 271 g.MJ-1 NA
#> 272 g.MJ-1 NA
#> 273 g.MJ-1 NA
#> 274 SD NA
#> 275 SD NA
#> 276 SD NA
#> 277 cm NA
#> 278 SD NA
#> 279 SD NA
#> 280 SD NA
#> 281 SD NA
#> 282 SD NA
#> 283 SD NA
#> 284 cm NA
#> 285 cm NA
#> 286 SD NA
#> 287 SD NA
#> 288 SD NA
#> 289 SD NA
#> 290 SD NA
#> 291 SD NA
#> 292 kg.ha-1.d-1 NA
#> 293 kg.t-1 NA
#> 294 kg.t-1 NA
#> 295 SD NA
#> 296 SD NA
#> 297 g.g-1 NA
#> 298 SD NA
#> 299 SD NA
#> 300 SD NA
#> 301 code 1/2 NA
#> 302 SD NA
#> 303 % NA
#> 304 SD NA
#> 305 SD NA
#> 306 SD NA
#> 307 SD NA
#> 308 SD NA
#> 309 degree_K-1 NA
#> 310 SD NA
#> 311 degree_K-1 NA
#> 312 SD NA
#> 313 d-1 NA
#> 314 %-1 NA
#> 315 %-1 NA
#> 316 pH-1 NA
#> 317 pH NA
#> 318 g.g-1 NA
#> 319 g.g-1 NA
#> 320 degree_C.100m-1 NA
#> 321 degree_C.100m-1 NA
#> 322 degree_C.100m-1 NA
#> 323 g.g-1 NA
#> 324 g.g-1 NA
#> 325 g.g-1 NA
#> 326 g.g-1 NA
#> 327 g.g-1 NA
#> 328 g.g-1 NA
#> 329 g.g-1 NA
#> 330 m NA
#> 331 m NA
#> 332 m NA
#> 333 SD NA
#> 334 SD NA
#> 335 m NA
#> 336 m NA
#> 337 m NA
#> 338 m NA
#> 339 % NA
#> 340 % NA
#> 341 % NA
#> 342 % NA
#> 343 SD NA
#> 344 SD NA
#> 345 SD NA
#> 346 SD NA
#> 347 g.g-1 NA
#> 348 % NA
#> 349 SD NA
#> 350 julian_d NA
#> 351 SD NA
#> 352 julian_d NA
#> 353 julian_d NA
#> 354 julian_d NA
#> 355 julian_d NA
#> 356 julian_d NA
#> 357 julian_d NA
#> 358 julian_d NA
#> 359 julian_d NA
#> 360 julian_d NA
#> 361 julian_d NA
#> 362 mm.d-1 NA
#> 363 SD NA
#> 364 SD NA
#> 365 m2.m-2 NA
#> 366 SD NA
#> 367 SD NA
#> 368 SD NA
#> 369 SD NA
#> 370 SD NA
#> 371 SD NA
#> 372 SD NA
#> 373 m NA
#> 374 julian_d NA
#> 375 julian_d NA
#> 376 SD NA
#> 377 julian_d NA
#> 378 julian_d NA
#> 379 SD NA
#> 380 mm NA
#> 381 julian_d NA
#> 382 julian_d NA
#> 383 julian_d NA
#> 384 julian_d NA
#> 385 julian_d NA
#> 386 julian_d NA
#> 387 julian_d NA
#> 388 julian_d NA
#> 389 julian_d NA
#> 390 julian_d NA
#> 391 julian_d NA
#> 392 julian_d NA
#> 393 julian_d NA
#> 394 julian_d NA
#> 395 julian_d NA
#> 396 julian_d NA
#> 397 d NA
#> 398 d NA
#> 399 mg.L-1 NA
#> 400 d-1 NA
#> 401 SD NA
#> 402 mg.L-1 NA
#> 403 d-1 NA
#> 404 cm-2 NA
#> 405 SD NA
#> 406 micromole.L-1 NA
#> 407 micromole.L-1 NA
#> 408 SD NA
#> 409 mm.degree_C-1.d-1 NA
#> 410 SD NA
#> 411 SD NA
#> 412 SD NA
#> 413 SD NA
#> 414 SD NA
#> 415 m2.m-2 NA
#> 416 m2.m-2 NA
#> 417 m2.m-2 NA
#> 418 m2.m-2 NA
#> 419 m2.m-2 NA
#> 420 m2.m-2 NA
#> 421 m NA
#> 422 m NA
#> 423 degree NA
#> 424 cm NA
#> 425 cm NA
#> 426 cm.g-1 NA
#> 427 cm.cm-3 NA
#> 428 cm.cm-3 NA
#> 429 cm.cm-3 NA
#> 430 g.m-2 NA
#> 431 t.ha-1 NA
#> 432 m NA
#> 433 t.ha-1 NA
#> 434 t.ha-1 NA
#> 435 t.ha-1 NA
#> 436 t.ha-1 NA
#> 437 t.ha-1 NA
#> 438 g.cm-3 NA
#> 439 kg.ha-1.cm-1.d-1 NA
#> 440 kg.ha-1.cm-1 NA
#> 441 tiller.m-2 NA
#> 442 kg.ha-1.cm-1.d-1 NA
#> 443 kg.ha-1.cm-1 NA
#> 444 SD NA
#> 445 mm.m-2 NA
#> 446 mm.t-1.ha NA
#> 447 t.ha-1 NA
#> 448 t.ha-1 NA
#> 449 cm NA
#> 450 years NA
#> 451 code 1/2 NA
#> 452 leaf.plant-1 NA
#> 453 leaf.plant-1 NA
#> 454 m-2 NA
#> 455 m-2 NA
#> 456 inflorescence.plant-1 NA
#> 457 number.plant-1 NA
#> 458 d NA
#> 459 d NA
#> 460 d NA
#> 461 d NA
#> 462 d NA
#> 463 d NA
#> 464 SD NA
#> 465 d NA
#> 466 SD NA
#> 467 SD NA
#> 468 SD NA
#> 469 microgram.m-3 NA
#> 470 mg.kg-1 NA
#> 471 kg.ha-1 NA
#> 472 d NA
#> 473 d NA
#> 474 % NA
#> 475 % NA
#> 476 % NA
#> 477 kg.ha-1 NA
#> 478 SD NA
#> 479 SD NA
#> 480 % NA
#> 481 % NA
#> 482 SD NA
#> 483 SD NA
#> 484 SD NA
#> 485 cm NA
#> 486 degree_C NA
#> 487 code 1/2 NA
#> 488 kg.ha-1 NA
#> 489 rad NA
#> 490 g.g-1 NA
#> 491 g.g-1 NA
#> 492 g.g-1 NA
#> 493 g.g-1 NA
#> 494 SD NA
#> 495 SD NA
#> 496 hPa NA
#> 497 SD NA
#> 498 kg-1 NA
#> 499 SD NA
#> 500 SD NA
#> 501 SD NA
#> 502 g NA
#> 503 pH NA
#> 504 SD NA
#> 505 pH NA
#> 506 pH NA
#> 507 pH NA
#> 508 pH NA
#> 509 pH NA
#> 510 pH NA
#> 511 hours NA
#> 512 hours NA
#> 513 hours NA
#> 514 pH NA
#> 515 degree_d NA
#> 516 mm.d-1 NA
#> 517 mm.d-1 NA
#> 518 mm.d-1 NA
#> 519 kg.m-3 NA
#> 520 MPa NA
#> 521 SD NA
#> 522 cm NA
#> 523 cm NA
#> 524 cm NA
#> 525 cm NA
#> 526 cm NA
#> 527 cm NA
#> 528 cm NA
#> 529 cm NA
#> 530 cm NA
#> 531 cm NA
#> 532 cm NA
#> 533 cm NA
#> 534 cm NA
#> 535 cm NA
#> 536 SD NA
#> 537 SD NA
#> 538 % NA
#> 539 SD NA
#> 540 SD NA
#> 541 SD NA
#> 542 SD NA
#> 543 SD NA
#> 544 kg.m-3 NA
#> 545 MPa NA
#> 546 MPa NA
#> 547 bars NA
#> 548 bars NA
#> 549 mm NA
#> 550 SD NA
#> 551 t.ha-1 NA
#> 552 t.ha-1 NA
#> 553 kg.ha-1 NA
#> 554 kg.ha-1 NA
#> 555 kg.ha-1 NA
#> 556 kg.ha-1 NA
#> 557 t.ha-1 NA
#> 558 kg.ha-1 NA
#> 559 s.m-1 NA
#> 560 SD NA
#> 561 SD NA
#> 562 g.g-1 NA
#> 563 SD NA
#> 564 SD NA
#> 565 SD NA
#> 566 SD NA
#> 567 SD NA
#> 568 SD NA
#> 569 SD NA
#> 570 cm NA
#> 571 cm NA
#> 572 d-1 NA
#> 573 SD NA
#> 574 SD NA
#> 575 SD NA
#> 576 SD NA
#> 577 cm-1 NA
#> 578 t.ha-1 NA
#> 579 SD NA
#> 580 t.ha-1 NA
#> 581 code 1/2 NA
#> 582 cm NA
#> 583 s.m-1 NA
#> 584 g.cm-3 NA
#> 585 m NA
#> 586 m NA
#> 587 SD NA
#> 588 SD NA
#> 589 SD NA
#> 590 m NA
#> 591 mm NA
#> 592 cm2.g-1 NA
#> 593 SD NA
#> 594 SD NA
#> 595 SD NA
#> 596 SD NA
#> 597 m2.m-2 NA
#> 598 mm.d-1 NA
#> 599 m-2 NA
#> 600 SD NA
#> 601 cm2.g-1 NA
#> 602 cm2.g-1 NA
#> 603 SD NA
#> 604 SD NA
#> 605 SD NA
#> 606 SD NA
#> 607 SD NA
#> 608 SD NA
#> 609 SD NA
#> 610 SD NA
#> 611 SD NA
#> 612 SD NA
#> 613 SD NA
#> 614 SD NA
#> 615 SD NA
#> 616 SD NA
#> 617 SD NA
#> 618 SD NA
#> 619 SD NA
#> 620 SD NA
#> 621 SD NA
#> 622 SD NA
#> 623 SD NA
#> 624 SD NA
#> 625 degree_d NA
#> 626 degree_d NA
#> 627 degree_d NA
#> 628 degree_d NA
#> 629 degree_d NA
#> 630 degree_d NA
#> 631 SD NA
#> 632 degree_d NA
#> 633 degree_d NA
#> 634 degree_d NA
#> 635 degree_d NA
#> 636 degree_d NA
#> 637 degree_d NA
#> 638 SD NA
#> 639 degree_d NA
#> 640 SD NA
#> 641 degree_d NA
#> 642 SD NA
#> 643 g.g-1 NA
#> 644 m2 NA
#> 645 SD NA
#> 646 SD NA
#> 647 SD NA
#> 648 mm NA
#> 649 SD NA
#> 650 mm.degree_C-1.d-1 NA
#> 651 SD NA
#> 652 d-1 NA
#> 653 m2.m-2 NA
#> 654 m2.m-2 NA
#> 655 degree_C NA
#> 656 degree_C NA
#> 657 degree_C NA
#> 658 degree_C NA
#> 659 degree_C NA
#> 660 degree_C NA
#> 661 degree_C NA
#> 662 degree_C NA
#> 663 degree_C NA
#> 664 degree_C NA
#> 665 degree_C NA
#> 666 degree_C NA
#> 667 %.degree_C-1 NA
#> 668 degree_d NA
#> 669 degree_C NA
#> 670 degree_C NA
#> 671 degree_C NA
#> 672 degree_C NA
#> 673 degree_C NA
#> 674 degree_C NA
#> 675 degree_C NA
#> 676 degree_C NA
#> 677 degree_C NA
#> 678 degree_C NA
#> 679 degree_C NA
#> 680 degree_C NA
#> 681 degree_C NA
#> 682 degree_C NA
#> 683 degree_C NA
#> 684 degree_C NA
#> 685 SD NA
#> 686 SD NA
#> 687 degree_C NA
#> 688 degree_C NA
#> 689 degree_C NA
#> 690 degree_C NA
#> 691 degree_C NA
#> 692 degree_C NA
#> 693 degree_C NA
#> 694 degree_C NA
#> 695 degree_C NA
#> 696 degree_C NA
#> 697 degree_C NA
#> 698 degree_C NA
#> 699 SD NA
#> 700 degree_C NA
#> 701 degree_C NA
#> 702 degree_C NA
#> 703 degree_C NA
#> 704 SD NA
#> 705 SD NA
#> 706 SD NA
#> 707 SD NA
#> 708 degree_d NA
#> 709 degree_d NA
#> 710 SD NA
#> 711 kg.ha-1.d-1 NA
#> 712 SD NA
#> 713 SD NA
#> 714 g.g-1.d-1 NA
#> 715 g.g-1.d-1 NA
#> 716 g.g-1.degree_d-1 NA
#> 717 number.degree_d-1 NA
#> 718 g.g-1.d-1 NA
#> 719 g.g-1.d-1 NA
#> 720 degree_C-1 NA
#> 721 SD NA
#> 722 micromole.cm-1.h-1 NA
#> 723 micromole.cm-1.h-1 NA
#> 724 mg.kg-1.d-1 NA
#> 725 SD NA
#> 726 kg.ha-1.d-1 NA
#> 727 SD NA
#> 728 SD NA
#> 729 SD NA
#> 730 g.g-1 NA
#> 731 kg.ha-1 NA
#> 732 t.ha-1 NA
#> 733 SD NA
#> 734 m NA
#> 735 cm NA
#> 736 cm NA
#> 737 cm NA
#> 738 cm NA
#> 739 m NA
#> 740 cm NA
#> 741 cm NA