Changes between Version 92 and Version 93 of doc/app/iofiles/pids

Timestamp:

Jul 2, 2019 1:41:07 PM (6 years ago)

Author:

scharf

Comment:

--

doc/app/iofiles/pids

@@ -19 +19 @@
 More detailed information on variable attributes can be found in the [[attachment:PALM_input_data_standard_v1.9.pdf|PALM input data standard]]. 
 
-== [=#static_input '''Static input file'''] ==
-
-The static input file encompasses topography information as well as all necessary information file to initialize all land- and urban-type surfaces in the model, such as heat capacities, roughness, albedo, emissivity, etc..
-The initialization procedure for the surfaces follows a multi-step approach, depending on the given level of detail of each variable as provided in the static input file. 
-In a first step, surfaces are initialized horizontally homogeneous with a bulk classification for each type (e.g. vegetation or soil), either set by a default value or set by a namelist-provided value, while the bulk classification provides standard values for a variety of parameters. 
-In a second step, surfaces are initialized individually by providing the bulk classification at each grid point individually. 
-In case more detailed information is available, all or even single parameters can be initialized individually at each grid point.
-
-The provided input data is used to classify each surface element according to its treatment, i.e. default-, natural- or urban-type, in order to treat each surface element accordingly. 
-In case no land-surface or urban-surface scheme is applied, all surfaces are classified as default-type. 
-If a surface element has vegetation, pavement or water, it will be classified as natural-type and is treated by the land-surface scheme, while building surfaces will be treated by the urban-surface scheme. 
-
-\\\\
-=== [=#attr '''Global attributes:] === 
-
-'''Following list of mandatory attributes is expected by PALM when reading input data from the static input file.'''
-
-||='''Attribute'''  =||='''Type'''  =||='''Explanation / Remarks'''  =||
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#origin_lat '''origin_lat''']
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td
-Geographical latitude in degrees north. This attribute defines the south boundary of the model domain and overwrites the namelist parameter [../../inipar#latitude latitude], which is used e.g. for the Coriolis parameters as well as for the radiation.  
-Please note, in case of a nested run, values of [../../inipar#latitude latitude] will be synchronized internally to the respective value of the root parent domain. 
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#origin_lon '''origin_lon''']
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td
-Geographical longitude in degrees east. This attribute defines the left boundary of the model domain and overwrites the namelist parameter [../../inipar#longitude longitude], which is used e.g. for the radiation.  
-Please note, in case of a nested run, values of [../../inipar#longitude longitude] will be synchronized internally to the respective value of the root parent domain. 
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#origin_time '''origin_time''']
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_CHAR
-}}}
-{{{#!td
-Reference point in time (UTC) {{{YYYY­-MM­-DD hh:mm:ss +00}}}. 
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#origin_x '''origin_x''']
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td
-Reference x-location in m (UTM) of left model boundary.
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#origin_y '''origin_y''']
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td
-Reference y-location in m (UTM) of south model boundary. 
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#origin_z '''origin_z''']
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td
-Reference height in m above sea level after DHHN2016. 
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#rotation_angle '''rotation_angle''']
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td
-Clockwise angle of rotation in degrees between North positive y axis and the y axis in the data, e.g. ''0.0''. 
-}}}
-\\\\
-=== [=#topo '''Topography:] ===
-
-In order to prescribe topography from the static input file, [../../inipar#topography topography] = 'read_from_file' is required. 
-
-||='''Input variable'''  =||='''Type'''  =||='''LOD''' =||='''Explanation / Remarks'''  =||
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#zt '''zt(y,x)''']
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Terrain height in m relative to [#origin_z origin_z]. 
-If not provided, the relative terrain height will be set to 0 all over the model domain. 
-Please note, '''zt''' must not contain any {{{_FillValues}}}.
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#buildings_2d '''buildings_2d(y,x)''']
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-1 
-}}}
-{{{#!td
-2-dimensional building height in m relative to the underlying terrain. No holes or overhanging structures are possible. '''buildings_2d''' will be mounted on top of the maximum local terrain height occupied by the respective building. Please note, '''buildings_2d''' will not be used if [#buildings_3d buildings_3d] is present on file. If '''buildings_2d''' are prescribed, [#building_id building_id] is required.  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#buildings_3d '''buildings_3d(z,y,x)''']
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_BYTE
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-2
-}}}
-{{{#!td
-3-dimensional building topology relative to the underlying terrain. '''buildings_3d''' will be mapped on top of the maximum local terrain height occupied by the respective building. Note, '''buildings_3d''' do not need to be prescribed beyond the top level of the highest buildings. If '''buildings_3d''' are prescribed, [#building_id building_id] is required.  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#building_id '''building_id(y,x)''']
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_INT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Building ID is used to identify single building envelopes, which is used for correct mapping of buildings on top of the underlying terrain, as well as for the [#indoor_model indoor_model]. Please note, '''building_id''' must not contain any {{{_FillValue}}} at grid points where buildings_2d/3d is defined. 
-}}}
-
-\\\\
-
-=== [=#surf '''Surface variables''':] ===
-
-For a proper classification of natural land and water surfaces, [#pavement_type pavement_type], [#soil_type soil_type], [#vegetation_type vegetation_type] and [#water_type water_type] are required, which define bulk parameters for albedo, soil, root distribution, leaf-area density, etc. To enable initialization of the land-surface model with input-file-provided variables, the namelist parameter [../../lsmpar#surface_type surface_type] needs to be set to 'netcdf'.  
-In case more than one of the surface types (vegetation, pavement, water) is given at an (x,y) location, the relative fraction of each of the types must be provided by [#surface_fraction surface_fraction].
-Further, if the [../../usmpar urban-surface model] is applied, also [#building_type building_type] is required, which defines bulk parameters to run the urban-surface model. Please note, for the sake of consistency, at least one of the variables  [#pavement_type pavement_type], [#vegetation_type vegetation_type], [#water_type water_type] or [#building_type building_type] needs to be defined at each (x,y) location if the land- and urban-surface model is applied.
-If only the land-surface model is applied but no urban-surface model, one of [#pavement_type pavement_type], [#vegetation_type vegetation_type] or [#water_type water_type] needs to be defined at each (x,y) location. 
-Further, in case data is taken from the static input file, both, the land- and urban-surface model need to be either switched on or off. Applying only one of the energy-balance models is not sufficient and will lead to a controlled termination.  \\
-
-||='''Input variable'''  =||='''Type'''  =||='''LOD''' =||='''Explanation / Remarks'''  =||
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#albedo_pars '''albedo_pars'''] //
-'''(nalbedo_pars,y,x)'''
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Spectral and broadband albedo for natural and urban surfaces for ''(y,x)''-locations. 
-When [#albedo_type albedo_type] = 0, all parameters must be set. Otherwise, single parameters for a given [#albedo_type albedo_type] can be overwritten, while the remaining parameters must be set to {{{_FillValue}}}.
-}}} 
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#albedo_type '''albedo_type(y,x)''']
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_BYTE
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Optional classification of albedo. Default values for '''albedo_type''' are already set in the bulk parametrization of [#buiding_type building_type], [#pavement_type pavement_type], [#vegetation_type vegetation_type], [#water_type water_type], but will be overwritten in case '''albedo_type''' is defined. The value of '''albedo_type''' will also overwrite the prescribed values in [#vegetation_pars vegetation_pars], [#water_pars water_pars], or [#pavement_pars pavement_pars]. 
-An overview of the different albedo types can be found  [[attachment:PALM_input_data_standard_v1.9.pdf|here]].
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#building_pars '''building_pars'''] //
-'''(nbuilding_pars,y,x)'''
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Parameters for the building parameterization. When [#building_type building_type] = 0, all parameters must be set. Otherwise, single parameters for a given [#building_type building_type] can be overwritten, while the remaining parameters must be set to {{{_FillValue}}}. '''building_pars''' becomes only effective if the [../../usmpar urban-surface model] or the [#indoor_model indoor_model] are applied. 
-Building parameters can be distinguished between ground-floor and upper level. For more information, please see [[attachment:PALM_input_data_standard_v1.9.pdf|here]].
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#building_surface_pars '''building_surface_pars'''] //
-'''(nbuilding_surface_pars,s,\\
-y,x)'''
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Detailed information for specific building surfaces. This variable 
-can contain data for the entire domain or for selected areas where 
-detailed data is available. 
-Setting of '''building_surface_pars''' will replace parameter settings made by [#building_type building_type] and [#building_pars building_pars].
-'''building_surface_pars''' becomes only effective if the [../../usmpar urban-surface model] is applied. 
-For more information, please see [[attachment:PALM_input_data_standard_v1.9.pdf|here]]. \\\\
-'''Please note: this input variable is currently not implemented.'''
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#building_type '''building_type(y,x)''']
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_BYTE
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Building type used to select bulk parameters. '''building_type''' is required if the [../../usmpar urban-surface model] or the [#indoor_model indoor_model]  are applied.
-Please note, '''building_type''' must not contain any {{{_FillValue}}} at grid points where buildings_2d/3d is defined. 
-An overview of the different building types can be found [[attachment:PALM_input_data_standard_v1.9.pdf|here]].
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#pavement_pars '''pavement_pars'''] //
-'''(npavement_pars,y,x)'''
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Parameters required for the bulk pavement parameterization in the
-land surface scheme.
-When [#pavement_type pavement_type] = 0, all parameters must be set. Otherwise, single parameters for a given [#pavement_type pavement_type] can be overwritten, while the remaining parameters must be set to {{{_FillValue}}}.
-}}} 
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#pavement_subsurface_pars '''pavement_subsurface_pars'''] //
-'''(npavement_subsurface_pars,  \\
-zsoil,y,x)'''
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Parameters required for the bulk pavement parameterization. 
-For all zsoil levels where '''pavement_subsurface_pars''' is not missing, the settings of the soil model are overwritten, i.e. thermal conductivity and heat capacities are set, and the layers are impermeable for water.
-When [#pavement_type pavement_type] = 0, all parameters must be set. 
-}}} 
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#pavement_type '''pavement_type(y,x)''']
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_BYTE
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Bulk classification of pavements on soil. At locations where '''pavement_type''' is defined, [#soil_type soil_type] must not contain any {{{_FillValues}}}. '''pavement_type''' overwrites the homogeneously prescribed setting via the namelist parameter [../../lsmpar#pavement_type pavement_type]. An overview of the different pavement types can be found  [[attachment:PALM_input_data_standard_v1.9.pdf|here]].
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#soil_pars '''soil_pars'''] //
-'''(nsoil_pars,(zsoil),y,x)'''
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-1, 2
-}}}
-{{{#!td
-Parameters for soil parametrization. 
-When [#soil_type soil_type] = 0, all parameters must be set. Otherwise, 
-single parameters for a given [#soil_type soil_type] can be overwritten, while the remaining parameters must be set to {{{_FillValue}}}.
-In case {{{lod = 1}}}, prescribed parameters are vertically uniform, 
-while in case {{{lod = 2}}} parameters can be set for each layer individually. An overview of the different soil parameters can be found  [[attachment:PALM_input_data_standard_v1.9.pdf|here]].
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#soil_type '''soil_type((zsoil),y,x)''']
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_BYTE
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-1, 2
-}}}
-{{{#!td
-Bulk classification of soil in terms of porosity. '''soil_type''' overwrites the homogeneously prescribed setting via the namelist parameter [../../lsmpar#soil_type soil_type]. 
-In case {{{lod = 1}}}, a 2-dimensional vertically uniform soil texture is prescribed, while in case {{{lod = 2}}} the 3-dimensional soil_type is set for each layer individually. An overview of the different soil types can be found  [[attachment:PALM_input_data_standard_v1.9.pdf|here]].
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#surface_fraction '''surface_fraction'''] //
-'''(nsurface_fraction,y,x)'''
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Relative fraction of the respective surface type given via [#vegetation vegetation_type] (nsurface_fraction = 0), [#pavement_type pavement_type] (nsurface_fraction = 1) and [#water_type water_type] (nsurface_fraction = 2). The sum over all relative fractions must be equal to one for each location. This parameter is only needed at 
-locations (y,x) where more than one surface type (vegetation, 
-pavement, water) is defined. Moreover, if more than one surface type is defined at a location, the relative fractions of the respective surface types must not be 0. Also, if '''surface_fraction''' is given for one of the above mentioned surface types, this type need to be defined at this location. 
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#vegetation_pars '''vegetation_pars'''] //
-'''(nvegetation_pars,y,x)'''
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Parameters for the bulk parametrization of non-resolved vegetation in the land-surface model for each ''(y,x)''-location.  
-All/single parameters of vegetation_pars for a given [#vegetation_type vegetation_type] can be overwritten for given ''(y,x)''-location. If only single parameters shall be overwritten, all other parameters must be set to {{{_FillValue}}}. Please note, if [#vegetation_type vegetation_type] = 0, all parameters must be set. 
-An overview of the different vegetation parameters can be found  [[attachment:PALM_input_data_standard_v1.9.pdf|here]].
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#vegetation_type '''vegetation_type(y,x)''']
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_BYTE
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Bulk classification of non-resolved vegetation surfaces at natural land surface types. At locations where '''vegetation_type''' is defined, [#soil_type soil_type] must not contain any {{{_FillValues}}}. '''vegetation_type''' overwrites the homogeneously prescribed setting via the namelist parameter [../../lsmpar#vegetation_type vegetation_type]. An overview of the different vegetation types can be found  [[attachment:PALM_input_data_standard_v1.9.pdf|here]].
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#water_pars '''water_pars'''] //
-'''(nalbedo_pars,y,x)'''
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Parameters used for the parameterization of water surfaces. 
-When [#water_type water_type] = 0, all parameters must be set. Otherwise, single parameters for a given [#water_type water_type] can be overwritten, while the remaining parameters must be set to {{{_FillValue}}}.
-}}} 
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#water_type '''water_type(y,x)''']
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_BYTE
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Bulk classification of water bodies. '''water_type''' overwrites the homogeneously prescribed setting via the namelist parameter [../../lsmpar#water_type water_type]. An overview of the different water types can be found  [[attachment:PALM_input_data_standard_v1.9.pdf|here]].
-}}}
-
-\\\\
-
-=== [=#plant '''Resolved plant canopy:] ===
-
-In order to consider resolved plant canopy, the [../../canpar plant-canopy model] need to be switched on and setting of [#canopy_mode canopy_mode] = 'read_from_file_3d' is required. 
-
-||='''Input variable'''  =||='''Type'''  =||='''LOD''' =||='''Explanation / Remarks'''  =||
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#lad '''lad'''] //
-'''(zlad,y,x)'''
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Vegetation resolved by the plant-canopy model in terms of a three­
-dimensional leaf area density (LAD). 
-Please note, plant canopy is prescribed relative to the underlying topography and will be mounted on top of the terrain. 
-A preprocessor tool is available to convert arbitrary vegetation information to an LAD field. If '''lad''' is set, all settings of LAD-related parameters made in the namelist [../../canpar &plant_canopy_parameters] will be ignored. 
-Please note, unresolved vegetation is already treated via the land-surface model considered by [#vegetation_type vegetation_type]. Please check for possible double counting of similar vegetation in case [#vegetation_type vegetation_type] and '''lad''' is set at ''(y,x)''-location. 
-}}} 
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#bad '''bad'''] //
-'''(zlad,y,x)'''
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Basal area in m2 (i.e. trunk area) per grid volume. A preprocessor 
-tool is available to convert arbritrary vegetation information to an
-basal area density field. The dimension of the field must be equal 
-to that of the leaf area density. Please note, basal area is prescribed relative to the underlying topography. 
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#root_area_dens_r '''root_area_dens_r''']//
-'''(zsoil,y,x)'''
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Root area of the resolved vegetation in the soil.
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#root_area_dens_s '''root_area_dens_s''']//
-'''(zsoil,y,x)'''
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Root area of the parameterized vegetation in the soil that is set via 
-[#vegetation_type vegetation_type]. When [#vegetation_type vegetation_type] = 0, the '''root_area_density_s''' must be set.
-}}}
-\\\\\\
-
-
-
-== [=#dynamic_input '''Dynamic input file'''] ==
-
-The dynamic input file (see [../#PIDS_DYNAMIC PIDS_DYNAMIC]) comprises all data which might change depending on the day of year, such as initialization data, large-scale forcing tendencies or boundary data.  
-Utilizing the pre-processing tool [wiki:doc/app/iofiles/inifor INIFOR], the respective data can be derived directly from the larger-scale [[http://www.cosmo-model.org/content/default.htm|COSMO model]] (except for active or passive chemical components which are not considered in the COSMO model). This way, the dynamic input file acts as a interface between a larger-scale model and PALM, being a so-called [../../inipar/#nesting_offline offline nesting]. 
-In case of a [../../nestpar nested] model run (online), only the parent domain considers the dynamic input_file for inititialization and offline-nesting, while embedded child models itself will be initialized and forced via its parent domains.    
-In order to activate input from the dynamic input file, setting of [../../inipar#initializing_actions initializing_actions] = 'inifor' is required. 
-For more information of how to create a dynamic input file, please see the [wiki:doc/app/iofiles/inifor INIFOR documentation]. 
-For more detailed documentation of the input variables, please see [[attachment:PALM_input_data_standard_v1.9.pdf|PALM input data standard]].
-
-||='''Input variable'''  =||='''Type'''  =||='''LOD''' =||='''Explanation / Remarks'''  =||
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#init_atmosphere_pt '''init_atmosphere_pt''']//
-(z,(y),(x))
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-1, 2
-}}}
-{{{#!td
-{{{lod=1}}}: Initial profile of potential temperature. //
-
-{{{lod=2}}}: Initial volume data of potential temperature.
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#init_atmosphere_qv '''init_atmosphere_qv''']//
-(z,(y),(x))
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-1, 2
-}}}
-{{{#!td
-{{{lod=1}}}: Initial profile of mixing ratio. //
-
-{{{lod=2}}}: Initial volume data of mixing_ratio. 
-
-Input of this quantity becomes only effective if [../../inipar#humidity humidity] = ''.T.''.
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#init_atmosphere_u '''init_atmosphere_u''']//
-(z,(y),(x))
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-1, 2
-}}}
-{{{#!td
-{{{lod=1}}}: Initial profile of the wind component in the x-direction. //
-
-{{{lod=2}}}: Initial volume data of the wind component in the x-direction. 
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#init_atmosphere_v '''init_atmosphere_v''']//
-(z,(y),(x))
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-1, 2
-}}}
-{{{#!td
-{{{lod=1}}}: Initial profile of the wind component in the y-direction. //
-
-{{{lod=2}}}: Initial volume data of the wind component in the y-direction. 
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#init_atmosphere_w '''init_atmosphere_w''']//
-(z,(y),(x))
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-1, 2
-}}}
-{{{#!td
-{{{lod=1}}}: Initial profile of the wind component in the z-direction. //
-
-{{{lod=2}}}: Initial volume data of the wind component in the z-direction. 
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#init_atmosphere_s '''init_atmosphere_s''']//
-(z,(y),(x))
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-1, 2
-}}}
-{{{#!td
-{{{lod=1}}}: Initial profile of any passive scalar. //
-
-{{{lod=2}}}: Initial volume data of any passive scalar. 
-
-Input of this quantity becomes only effective if [../../inipar#passive_scalar passive_scalar] = ''.T.''. Please note, this quantity is currently not provided by [#inifor inifor]. 
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#init_atmosphere_no '''init_atmosphere_no''']//
-(z,(y),(x))
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-1, 2
-}}}
-{{{#!td
-{{{lod=1}}}: Initial profile of nitrogen monoxide. //
-
-{{{lod=2}}}: Initial volume data of nitrogen monoxide. 
-
-Input of this quantity becomes only effective if the [../../chempar chemistry model] is switched on. Please note, this quantity is currently not provided by [#inifor inifor].  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#init_atmosphere_no2 '''init_atmosphere_no2''']//
-(z,(y),(x))
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-1, 2
-}}}
-{{{#!td
-{{{lod=1}}}: Initial profile of nitrogen dioxide. //
-
-{{{lod=2}}}: Initial volume data of nitrogen dioxide. 
-
-Input of this quantity becomes only effective if the [../../chempar chemistry model] is switched on. Please note, this quantity is currently not provided by [#inifor inifor].  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#init_atmosphere_no3 '''init_atmosphere_no3''']//
-(z,(y),(x))
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-1, 2
-}}}
-{{{#!td
-{{{lod=1}}}: Initial profile of nitrate. //
-
-{{{lod=2}}}: Initial volume data of nitrate. 
-
-Input of this quantity becomes only effective if the [../../chempar chemistry model] is switched on. Please note, this quantity is currently not provided by [#inifor inifor].  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#init_atmosphere_pm10 '''init_atmosphere_pm10''']//
-(z,(y),(x))
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-1, 2
-}}}
-{{{#!td
-{{{lod=1}}}: Initial profile of PM10. //
-
-{{{lod=2}}}: Initial volume data of PM10. 
-
-Input of this quantity becomes only effective if the [../../chempar chemistry model] is switched on. Please note, this quantity is currently not provided by [#inifor inifor].  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#init_atmosphere_hno3 '''init_atmosphere_hno3''']//
-(z,(y),(x))
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-1, 2
-}}}
-{{{#!td
-{{{lod=1}}}: Initial profile of nitric acid. //
-
-{{{lod=2}}}: Initial volume data of nitric acid. 
-
-Input of this quantity becomes only effective if the [../../chempar chemistry model] is switched on. Please note, this quantity is currently not provided by [#inifor inifor].  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#init_atmosphere_so4 '''init_atmosphere_so4''']//
-(z,(y),(x))
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-1, 2
-}}}
-{{{#!td
-{{{lod=1}}}: Initial profile of sulfate. //
-
-{{{lod=2}}}: Initial volume data of sulfate. 
-
-Input of this quantity becomes only effective if the [../../chempar chemistry model] is switched on. Please note, this quantity is currently not provided by [#inifor inifor].  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#init_atmosphere_yyy '''init_atmosphere_yyy''']//
-(z,(y),(x))
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-1, 2
-}}}
-{{{#!td
-{{{lod=1}}}: Initial profile of any further species. //
-
-{{{lod=2}}}: Initial volume data of any further species. 
-
-Input of this quantity becomes only effective if the [../../chempar chemistry model] is switched on. Please note, this quantity is currently not provided by [#inifor inifor]. 
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#init_atmosphere_aerosol '''init_atmosphere_aerosol''']//
-(z,Dmid)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-1
-}}}
-{{{#!td
-{{{lod=1}}}: Initial profile of aerosol number concentration per aerosol size bin (# m^-3^). The bin mean diameter ''Dmid'' given in nm. //
-
-Input of this quantity becomes only effective if the [../../../tec/aerosol aerosol module SALSA] is switched on. Please note, this quantity is currently not provided by [#inifor inifor].  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#init_atmosphere_mass_fracs_a '''init_atmosphere_mass_fracs_a''']//
-(z,composition_index)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-1
-}}}
-{{{#!td
-Vertical profile of the mass fractions of background/initial aerosol concentration: subrange a.
-
-Input of this quantity becomes only effective if the [../../../tec/aerosol aerosol module SALSA] is switched on. Please note, this quantity is currently not provided by [#inifor inifor].  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#composition_name '''composition_name''']//
-(composition_index,max_string_length)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_CHAR
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-
-}}}
-{{{#!td
-List of chemical components of aerosol particles. 
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#init_building_temperature '''init_building_temperature''']//
-((s),(nwall),y,x)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-1, 2, 3
-}}}
-{{{#!td
-Initialization of walls and indoor temperatures with varying level of 
-detail. Requires the [../../usmpar urban-surface model] to become effective.  
-
-{{{lod=1}}}: The same wall temperature is assumed for all walls of the 
-building at location ''(y,x)''. //
-
-{{{lod=2}}}: The wall layer temperatures of a building at ''(y,x)'' are provided individually for each layer. 
-
-{{{lod=3}}}: The wall temperatures are provided individually for each surface element and for each wall layer. 
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#init_pavement_temperature '''init_pavement_temperature''']//
-(zsoil,(y),(x))
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-1, 2
-}}}
-{{{#!td
-Initialization of the pavement temperature. 
-Requires the [../../lsmpar land-surface model] to become effective.  
-
-{{{lod=1}}}: For all paved surface elements the same pavement temperature profile is prescribed. //
-
-{{{lod=2}}}: The pavement temperature profile is prescribed for each ''(y,x)''-location individually. 
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#init_soil_t '''init_soil_t''']//
-(zsoil,(y),(x))
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-1, 2
-}}}
-{{{#!td
-{{{lod=1}}}: Initial vertical profile of soil temperature. //
-
-{{{lod=2}}}: Initial volume data of soil temperature. 
-
-Input of this quantity becomes only effective if the [../../lsmpar land-surface model] is switched on. In case of a nested run, soil temperature in the child domain will be initialized by horizontal mean vertical soil-temperature profiles derived from the respective parent (even if volume data is provided in the dynamic input file).  
-Moreover, please note '''zsoil''' need to have the same dimensions as in the static input file
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#init_soil_m '''init_soil_m''']//
-(zsoil,(y),(x))
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-1, 2
-}}}
-{{{#!td
-{{{lod=1}}}: Initial vertical profile of soil moisture. //
-
-{{{lod=2}}}: Initial volume data of soil moisture. 
-
-Input of this quantity becomes only effective if the [../../lsmpar land-surface model] is switched on. In case of a nested run, soil moisture in the child domain will be initialized by horizontal mean vertical soil-moisture profiles derived from the respective parent (even if volume data is provided in the dynamic input file).  
-Moreover, please note '''zsoil''' need to have the same dimensions as in the static input file
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#init_water_temperature '''init_water_temperature''']//
-(y,x)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Initialization of the water temperature at location ''(y,x)''. 
-Requires the [../../lsmpar land-surface model] to become effective.  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#nudging_pt '''nudging_pt''']//
-(time,z)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Nudging data for potential temperature. 
-Requires cyclic boundary conditions as well as [../../inipar#nudging nudging] = .T. to become effective.  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#nudging_qv '''nudging_qv''']//
-(time,z)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Nudging data for the mixing ratio. 
-Requires cyclic boundary conditions as well as [../../inipar#nudging nudging] = .T. and [../../inipar#humidity humidity] = .T. to become effective.  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#nudging_u '''nudging_u''']//
-(time,z)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Nudging data for the wind in the x-direction. 
-Requires cyclic boundary conditions to become effective.  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#nudging_v '''nudging_v''']//
-(time,z)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Nudging data for the wind in the y-direction. 
-Requires cyclic boundary conditions to become effective.  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#nudging_w '''nudging_w''']//
-(time,z)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Nudging data for the wind in the z-direction. 
-Requires cyclic boundary conditions to become effective.  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#nudging_s '''nudging_s''']//
-(time,z)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Nudging data for a passive scalar. 
-Requires cyclic boundary conditions as well as [../../inipar#nudging nudging] = .T. and [../../inipar#passive_scalar passive_scalar] = .T. to become effective.  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#nudging_tau '''nudging_tau''']//
-(time,z)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Nudging relaxation time scale.  
-Requires cyclic boundary conditions as well as [../../inipar#nudging nudging] = .T. to become effective.  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#ls_forcing_ug '''ls_forcing_ug''']//
-(time,z)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Large­-scale forcing data for the geostrophic wind component in x-direction.   
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#ls_forcing_vg '''ls_forcing_vg''']//
-(time,z)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Large­-scale forcing data for the geostrophic wind component in y-direction.    
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#ls_forcing_sub_w '''ls_forcing_sub_w''']//
-(time,z)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Large­-scale forcing data for the subsidence velocity.    
-Requires cyclic boundary conditions as well as [../../inipar#large_scale_forcing large_scale_forcing] = .T. to become effective.  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#ls_forcing_adv_lpt '''ls_forcing_adv_lpt''']//
-(time,z)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Large­-scale forcing data for the advection tendency of potential temperature.     
-Requires cyclic boundary conditions as well as [../../inipar#large_scale_forcing large_scale_forcing] = .T. to become effective.  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#ls_forcing_adv_qv '''ls_forcing_adv_qv''']//
-(time,z)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Large­-scale forcing data for the advection tendency of mixing ratio.     
-Requires cyclic boundary conditions as well as [../../inipar#large_scale_forcing large_scale_forcing] = .T. to become effective.  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#ls_forcing_left_pt '''ls_forcing_left_pt''']//
-(time,z)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Boundary condition at left (west) model boundary for the potential temperature.  
-Requires non-cyclic boundary conditions as well as [../../inipar#forcing forcing] = .T. to become effective.  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#ls_forcing_left_qv '''ls_forcing_left_qv''']//
-(time,z)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Boundary condition at left (west) model boundary for the mixing ratio.  
-Requires non-cyclic boundary conditions as well as [../../inipar#forcing forcing] = .T. to become effective.  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#ls_forcing_left_u '''ls_forcing_left_u''']//
-(time,z)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Boundary condition at left (west) model boundary for the wind component in x-direction.  
-Requires non-cyclic boundary conditions as well as [../../inipar#forcing forcing] = .T. to become effective.  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#ls_forcing_left_v '''ls_forcing_left_v''']//
-(time,z)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Boundary condition at left (west) model boundary for the wind component in y-direction.  
-Requires non-cyclic boundary conditions as well as [../../inipar#forcing forcing] = .T. to become effective.  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#ls_forcing_left_w '''ls_forcing_left_w''']//
-(time,z)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Boundary condition at left (west) model boundary for the wind component in z-direction.  
-Requires non-cyclic boundary conditions as well as [../../inipar#forcing forcing] = .T. to become effective.  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#ls_forcing_right_pt '''ls_forcing_right_pt''']//
-(time,z)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Boundary condition at right model boundary for the potential temperature.  
-Requires non-cyclic boundary conditions as well as [../../inipar#forcing forcing] = .T. to become effective.  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#ls_forcing_right_qv '''ls_forcing_right_qv''']//
-(time,z)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Boundary condition at right (east) model boundary for the mixing ratio.  
-Requires non-cyclic boundary conditions as well as [../../inipar#forcing forcing] = .T. to become effective.  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#ls_forcing_right_u '''ls_forcing_right_u''']//
-(time,z)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Boundary condition at right (east) model boundary for the wind component in x-direction.  
-Requires non-cyclic boundary conditions as well as [../../inipar#forcing forcing] = .T. to become effective.  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#ls_forcing_right_v '''ls_forcing_right_v''']//
-(time,z)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Boundary condition at right (east) model boundary for the wind component in y-direction.  
-Requires non-cyclic boundary conditions as well as [../../inipar#forcing forcing] = .T. to become effective.  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#ls_forcing_right_w '''ls_forcing_right_w''']//
-(time,z)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Boundary condition at right (east) model boundary for the wind component in z-direction.  
-Requires non-cyclic boundary conditions as well as [../../inipar#forcing forcing] = .T. to become effective.  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#ls_forcing_south_pt '''ls_forcing_south_pt''']//
-(time,z)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Boundary condition at front (south) model boundary for the potential temperature.  
-Requires non-cyclic boundary conditions as well as [../../inipar#forcing forcing] = .T. to become effective.  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#ls_forcing_south_qv '''ls_forcing_south_qv''']//
-(time,z)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Boundary condition at front (south) model boundary for the mixing ratio.  
-Requires non-cyclic boundary conditions as well as [../../inipar#forcing forcing] = .T. to become effective.  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#ls_forcing_south_u '''ls_forcing_south_u''']//
-(time,z)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Boundary condition at front (south) model boundary for the wind component in x-direction.  
-Requires non-cyclic boundary conditions as well as [../../inipar#forcing forcing] = .T. to become effective.  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#ls_forcing_south_v '''ls_forcing_south_v''']//
-(time,z)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Boundary condition at front (south) model boundary for the wind component in y-direction.  
-Requires non-cyclic boundary conditions as well as [../../inipar#forcing forcing] = .T. to become effective.  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#ls_forcing_south_w '''ls_forcing_south_w''']//
-(time,z)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Boundary condition at front (south) model boundary for the wind component in z-direction.  
-Requires non-cyclic boundary conditions as well as [../../inipar#forcing forcing] = .T. to become effective.  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#ls_forcing_north_pt '''ls_forcing_north_pt''']//
-(time,z)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Boundary condition at back (north) model boundary for the potential temperature.  
-Requires non-cyclic boundary conditions as well as [../../inipar#forcing forcing] = .T. to become effective.  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#ls_forcing_north_qv '''ls_forcing_north_qv''']//
-(time,z)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Boundary condition at back (north) model boundary for the mixing ratio.  
-Requires non-cyclic boundary conditions as well as [../../inipar#forcing forcing] = .T. to become effective.  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#ls_forcing_north_u '''ls_forcing_north_u''']//
-(time,z)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Boundary condition at back (north) model boundary for the wind component in x-direction.  
-Requires non-cyclic boundary conditions as well as [../../inipar#forcing forcing] = .T. to become effective.  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#ls_forcing_north_v '''ls_forcing_north_v''']//
-(time,z)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Boundary condition at back (north) model boundary for the wind component in y-direction.  
-Requires non-cyclic boundary conditions as well as [../../inipar#forcing forcing] = .T. to become effective.  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#ls_forcing_north_w '''ls_forcing_north_w''']//
-(time,z)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Boundary condition at back (north) model boundary for the wind component in z-direction.  
-Requires non-cyclic boundary conditions as well as [../../inipar#forcing forcing] = .T. to become effective.  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#ls_forcing_top_pt '''ls_forcing_top_pt''']//
-(time,z)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Boundary condition at top model boundary for the potential temperature.  
-Requires non-cyclic boundary conditions as well as [../../inipar#forcing forcing] = .T. to become effective.  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#ls_forcing_top_qv '''ls_forcing_top_qv''']//
-(time,z)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Boundary condition at top model boundary for the mixing ratio.  
-Requires non-cyclic boundary conditions as well as [../../inipar#forcing forcing] = .T. to become effective.  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#ls_forcing_top_u '''ls_forcing_top_u''']//
-(time,z)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Boundary condition at top model boundary for the wind component in x-direction.  
-Requires non-cyclic boundary conditions as well as [../../inipar#forcing forcing] = .T. to become effective.  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#ls_forcing_top_v '''ls_forcing_top_v''']//
-(time,z)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Boundary condition at top model boundary for the wind component in y-direction.  
-Requires non-cyclic boundary conditions as well as [../../inipar#forcing forcing] = .T. to become effective.  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#ls_forcing_top_w '''ls_forcing_top_w''']//
-(time,z)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Boundary condition at top model boundary for the wind component in z-direction.  
-Requires non-cyclic boundary conditions as well as [../../inipar#forcing forcing] = .T. to become effective.  
-}}}
-
-\\\\
-
-== [=#rad_input '''Radiation input file'''] ==
-
-'''Please note''', input from radiation input file is currently not implemented in PALM, but will follow soon. 
-
-||='''Input variable'''  =||='''Type'''  =||='''LOD''' =||='''Explanation / Remarks'''  =||
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#rad_swd_dif_0 '''rad_swd_dif_0''']//
-(time,y,x)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Incoming diffuse shortwave radiative flux at the surface. 
-Requires the [../../radpar radiation model] switched on to become effective.
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#rad_swd_dir_0 '''rad_swd_dir_0''']//
-(time,y,x)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Incoming direct shortwave radiative flux at the surface. 
-Requires the [../../radpar radiation model] switched on to become effective.
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#rad_swu_dif_0 '''rad_swu_dif_0''']//
-(time,y,x)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Outcoming diffuse shortwave radiative flux at the surface. 
-Requires the [../../radpar radiation model] switched on to become effective.
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#rad_swu_dir_0 '''rad_swu_dir_0''']//
-(time,y,x)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-none
-}}}
-{{{#!td
-Outcoming direct shortwave radiative flux at the surface. 
-Requires the [../../radpar radiation model] switched on to become effective.
-}}}
-
-\\\\
-== [=#chem_input '''Chemistry input file'''] ==
-
-'''Please note''', input from chemistry input file is already implemented in PALM. A documentation will follow soon. 
-
-\\\\
-
-== [=#salsa_input '''Aerosol input file'''] ==
-
-The aerosol input file contains information needed to setup aerosol emissions. Aerosol emission value can be given applying two alternative level of detail (lod): 1 or 2. See [../../../tec/aerosol aerosol module documentation] for further details.
-
-||='''Variables'''  =||='''Type''' =||='''Explanation / Remarks'''  =||
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#aerosol_emission_values '''aerosol_emission_values''']//
-((time),y,x,(Dmid),(ncat))
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td
-Emission values of aerosol particles per size bin. The coordinates vary based on the chosen level of detail.\\
-
-{{{lod=1}}}: Emissions are provided per emission category and yearly as total PM in dimensions {{{aerosol_emission_values(y,x,ncat)}}}. They are then scaled by pre-defined rescaling factors '''emission_time_factors'''. Default categories are ''traffic exhaust'', ''road dust'', ''wood combustion'', ''other''.//
-
-{{{lod=2}}}: Emissions are provided per aerosol size bin for each surface point in space and at given points in time in dimensions {{{aerosol_emission_values(time,y,x,Dmid)}}} and in units # m^-2^ s^-1^. The bin mean diameter ''Dmid'' given in nm. 
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#composition_name '''composition_name''']//
-(composition_index,max_string_length)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_CHAR
-}}}
-{{{#!td
-List of chemical components of aerosol particles. 
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#emission_category_index '''emission_category_index''']//
-(ncat)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_BYTE
-}}}
-{{{#!td
-Category index of the emission quantity in question (e.g. 1 = traffic emissions). {{{lod=1}}} only.
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#emission_category_name '''emission_category_name''']//
-(ncat,max_string_length)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_CHAR
-}}}
-{{{#!td
-Emission categories names (match to emission_category_index of the same index element). {{{lod=1}}} only.
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#emission_mass_fracs '''emission_mass_fracs''']//
-((ncat),composition_index)
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td
-Mass fractions of chemical components in aerosol emissions.
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#emission_time_factors '''emission_time_factors''']//
-(ncat,(nhoursyear),(nmonthdayhour)) 
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td
-Emission time scaling factors for emission_values ({{{lod=1}}}). Two different time factors are possible: 1) Scaling according to month‑day‑hour classification ({{{emission_time_factors(ncat,nmonthdayhour)}}}), or scaling for each hour of the year ({{{emission_time_factors(ncat,nhoursyear)}}}).
-}}}
-
-\\\\
-
-== [=#virtual_measurement_input '''Virtual measurement input file'''] ==
-
-The virtual measurement input file comprises all information required to setup virtual sites within the model domain. Therefore, different global attributes as well as variables are mandatory. Please note, each attribute and variable name is in the format ''name<id>'', where id is an integer number running from 1 to [#num_vm number of stations].  
-
-||='''Global attributes'''  =||='''Type''' =||='''Explanation / Remarks'''  =||
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#num_vm '''number_of_stations<id>''']
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_INT
-}}}
-{{{#!td
-Number of considered sites. 
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#origin_x2 '''origin_x<id>''']
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td
-Origin ''x''-coordinate of the measurement site in UTM.
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#origin_y2 '''origin_y<id>''']
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td
-Origin ''y''-coordinate of the measurement site in UTM.
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#site '''site<id>''']
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_CHAR
-}}}
-{{{#!td
-Name of the site. The name of the site will be used to name the final NetcDF files. 
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#featuretype '''featureType<id>''']
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_CHAR
-}}}
-{{{#!td
-Type of the measurement. Allowed strings are: ''timeSeries'', ''timeSeriesProfile'', and ''trajectory''. 
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#filename '''filename<id>''']
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_CHAR
-}}}
-{{{#!td
-Name of the file where the original observational data is stored. 
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#soilsample '''soil_sample<id>''']
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_BYTE
-}}}
-{{{#!td
-Bit value indicating that at the current site also soil quantities should be sampled ( = 1 ). If no soil quantities are sampled this value should be 0.  
-}}}
-
-\\\\
-In the following, the required variables will be listed. Please note, NetCDF dimensions of the coordinate variables ''E_UTM'', ''N_UTM'', and ''height_above_origin'' depend on the [#featuretype type] of the measurement. For ''timeseries'', the observation is a stationary one, with only 1 value necessary for sufficient description of the coordinates. For ''timeSeriesProfile'' or ''trajectory'', however, the coordinate variables depend on the dimensions ''tray<id>'' and ''ntime<id>'', being the number of trajectories and the maximum number of timesteps measured for a trajectory, according to the '''[UC]2 data standard'''.
-
-||='''Variables'''  =||='''Type''' =||='''Explanation / Remarks'''  =||
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#eutm '''E_UTM<id>''' (1) or (tray<id>,ntime<id>)]
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td
-UTM easting coordinate of the measurement location(s). 
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#nutm '''N_UTM<id>''' (1) or (tray<id>,ntime<id>)]
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td
-UTM northing coordinate of the measurement location(s). 
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#zag '''height_above_origin<id>''' (1) or (tray<id>,ntime<id>)]
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_FLOAT
-}}}
-{{{#!td
-Height above the surface.  
-}}}
-|----------------
-{{{#!td style="vertical-align:top;width: 150px"
-[=#measured_variables '''measured_variables<id>'''(num_vars<id>,10)]
-}}}
-{{{#!td style="vertical-align:top;width: 50px"
-NC_CHAR
-}}}
-{{{#!td
-List of character strings (length = 10) with variable names. 
-}}}
-
-For an example input file, please see [[attachment:example_vmeas|here]]. 
+Follow the links below to get to the respective description \\\\
+[./static static driver] \\
+[./dynamic dynamic driver] \\
+[./rad radiation driver] \\
+[./chem chemistry driver] \\
+[./aerosol aerosol driver] \\
+[./vm virtual measurements file] \\