| 146 | [=#depo_pcm_type '''depo_pcm_type'''] |
| 147 | }}} |
| 148 | {{{#!td style="vertical-align:top" |
| 149 | C(20) |
| 150 | }}} |
| 151 | {{{#!td style="vertical-align:top" |
| 152 | 'zhang2001' |
| 153 | }}} |
| 154 | {{{#!td |
| 155 | Leaf type applied in the dry deposition model. |
| 156 | Available options: |
| 157 | 'evergreen_needleleaf', 'evergreen_broadleaf', 'deciduous_needleleaf' and 'deciduous_broadleaf'. |
| 158 | }}} |
| 159 | |---------------- |
| 160 | {{{#!td style="vertical-align:top" |
| 161 | [=#depo_surf_par '''depo_surf_par'''] |
| 162 | }}} |
| 163 | {{{#!td style="vertical-align:top" |
| 164 | C(20) |
| 165 | }}} |
| 166 | {{{#!td style="vertical-align:top" |
| 167 | 'zhang2001' |
| 168 | }}} |
| 169 | {{{#!td |
| 170 | The method to solve the aerosol size specific dry deposition velocity (in m s-1) over an urban surface. |
| 171 | Available options: |
| 172 | 'zhang2001' ([wiki:doc/app/salsaref/ Zhang et al. 2001]) |
| 173 | 'petroff2010' ([wiki:doc/app/salsaref/ Petroff & Zhang, 2010]). |
| 174 | |
| 175 | Note that the surface material is not specified in the included parametrisations. |
| 176 | }}} |
| 177 | |---------------- |
| 178 | {{{#!td style="vertical-align:top" |
170 | | Time step for calling aerosol dynamic processes of SALSA. For switching on individual processes, see [#nlcnd nlcnd], [#nlcndgas nlcndgas], [#nlcndh2oae nlcndh2oae], [#nlcoag nlcoag], [#nldepo nldepo], [#nldepo_vege nldepo_vege], [#nldepo_topo nldepo_topo], [#nldistupdate nldistupdate] and [#nsnucl nsnucl]. |
| 203 | Time step for calling aerosol dynamic processes of SALSA. For switching on individual processes, see [#nlcnd nlcnd], [#nlcndgas nlcndgas], [#nlcndh2oae nlcndh2oae], [#nlcoag nlcoag], [#nldepo nldepo], [#nldepo_pcm nldepo_pcm], [#nldepo_surf nldepo_surf], [#nldistupdate nldistupdate] and [#nsnucl nsnucl]. |
226 | | If '''igctyp''' = 1, the whole modelling domain is initialised with values given in [#H2SO4_init H2SO4_init], [#HNO3_init HNO3_init], [#NH3_init NH3_init], [#OCNV_init OCNV_init] and [#OCSV_init OCSV_init]. |
227 | | |
228 | | If '''igctyp''' = 2, the initial gas concentrations are read from the input file PIDS_CHEM. In this case, also vertical profiles can be provided. |
229 | | }}} |
230 | | |---------------- |
231 | | {{{#!td style="vertical-align:top" |
232 | | [=#isdtyp '''isdtyp'''] |
| 259 | If '''init_gases_type''' = 0, the whole modelling domain is initialised with values given in [#H2SO4_init H2SO4_init], [#HNO3_init HNO3_init], [#NH3_init NH3_init], [#OCNV_init OCNV_init] and [#OCSV_init OCSV_init]. |
| 260 | |
| 261 | If '''init_gases_type''' = 1, the initial gas concentrations are read from the input file PIDS_CHEM. In this case, also vertical profiles can be provided. |
| 262 | }}} |
| 263 | |---------------- |
| 264 | {{{#!td style="vertical-align:top" |
| 265 | [=#init_aerosol_type '''init_aerosol_type'''] |
243 | | If '''isdtyp''' = 1, the whole modelling domain is initialised with a constant log-normal aerosol size distribution described by input parameters [#dpg dpg], [#sigmag sigmag] and [#n_lognorm n_lognorm]. |
244 | | |
245 | | If '''isdtyp''' = 2, the initial aerosol size distribution is read from the input file PIDS_AERO. In this case, also a vertical profile of the aerosol size distribution can be provided. |
| 276 | If '''init_aerosol_type''' = 0, the whole modelling domain is initialised with a constant log-normal aerosol size distribution described by input parameters [#dpg dpg], [#sigmag sigmag] and [#n_lognorm n_lognorm]. |
| 277 | |
| 278 | If '''init_aerosol_type''' = 1, the initial aerosol size distribution is read from the input file PIDS_SALSA. In this case, also a vertical profile of the aerosol size distribution can be provided. |
448 | | [=#nldepo_topo '''nldepo_topo'''] |
449 | | }}} |
450 | | {{{#!td style="vertical-align:top" |
451 | | L |
452 | | }}} |
453 | | {{{#!td style="vertical-align:top" |
454 | | .F. |
455 | | }}} |
456 | | {{{#!td |
457 | | Parameter to switch aerosol dry deposition on topography elements (ground, wall, roofs). The parametrisation to calculate the size-dependent deposition velocity is set by parameter [#depo_topo_type depo_topo_type]. |
| 481 | [=#nldepo_surf '''nldepo_surf'''] |
| 482 | }}} |
| 483 | {{{#!td style="vertical-align:top" |
| 484 | L |
| 485 | }}} |
| 486 | {{{#!td style="vertical-align:top" |
| 487 | .F. |
| 488 | }}} |
| 489 | {{{#!td |
| 490 | Parameter to switch aerosol dry deposition on topography elements (ground, wall, roofs). The parametrisation to calculate the size-dependent deposition velocity is set by parameter [#depo_surf_type depo_surf_type]. |
463 | | [=#nldepo_vege '''nldepo_vege'''] |
464 | | }}} |
465 | | {{{#!td style="vertical-align:top" |
466 | | L |
467 | | }}} |
468 | | {{{#!td style="vertical-align:top" |
469 | | .F. |
470 | | }}} |
471 | | {{{#!td |
472 | | Parameter to switch on aerosol dry deposition on resolved scale vegetation. The parametrisation to calculate the size-dependent deposition velocity is set by parameter [#depo_vege_type depo_vege_type]. |
| 496 | [=#nldepo_pcm '''nldepo_pcm'''] |
| 497 | }}} |
| 498 | {{{#!td style="vertical-align:top" |
| 499 | L |
| 500 | }}} |
| 501 | {{{#!td style="vertical-align:top" |
| 502 | .F. |
| 503 | }}} |
| 504 | {{{#!td |
| 505 | Parameter to switch on aerosol dry deposition on resolved scale vegetation. The parametrisation to calculate the size-dependent deposition velocity is set by parameter [#depo_pcm_par depo_pcm_par]. |