PREP_PGD

PREP_PGD program is used to create the horizontal grid file for some realistic Meso-NH applications. This file is called the PGD (for PhysioGraphic Data) file in Meso-NH terminology and it contains :

the definition of the projection, the horizontal grid extension and resolution ;
the interpolated physiographic fields (soil cover, orography, …).

Tip

The number of horizontal points must satisfy certain rules because of the pressure solver. To find out the number of horizontal grid points allowed go to Get the list of authorized number of horizontal grid points.

PREP_PGD program and its corresponding namelist and function
Executable	Input namelist file	Function	Output
PREP_PGD	PRE_PGD1.nam	Create horizontal grid file	PGDFILE.{des,nc}

The following namelists can be used in the PRE_PGD1.nam file :

Note

For additional SURFEX namelists (NAM_CARTESIAN, …) , please go to SURFEX documentation https://www.umr-cnrm.fr/surfex/IMG/pdf/surfex_tecdoc.pdf.

NAM_CONFIO

NAM_CONFIO content
Fortran name	Fortran type	Default value
CIO_DIR	CHARACTER(LEN=512)
LVERB_OUTLST	LOGICAL	.TRUE.
LVERB_STDOUT	LOGICAL	.FALSE.
LVERB_ALLPRC	LOGICAL	.FALSE.
NGEN_VERB	INTEGER	4
NGEN_ABORT_LEVEL	INTEGER	2
NBUD_VERB	INTEGER	4
NBUD_ABORT_LEVEL	INTEGER	2
NIO_VERB	INTEGER	4
NIO_ABORT_LEVEL	INTEGER	2
LIO_COMPRESS	LOGICAL	.TRUE.
CIO_COMPRESS_ALGO	CHARACTER(LEN=10)	‘ZSTD’
NIO_COMPRESS_LEVEL	INTEGER	4
LDIAG_REDUCE_FLOAT_PRECISION	LOGICAL	.FALSE.
LIO_ALLOW_REDUCED_PRECISION_BACKUP	LOGICAL	.FALSE.
LIO_ALLOW_NO_BACKUP	LOGICAL	.FALSE.
LIO_NO_WRITE	LOGICAL	.FALSE.
NFILE_NUM_MAX	INTEGER	999

Warning

If a file is not found in the netCDF fileformat, Meso-NH will check if it exists in the LFI format and use it if found. This could be useful if you need to mix the reading of different files with different fileformats.

CIO_DIR : directory used to write outputs, backups and diachronic files (current directory by default). It can be overridden by CBAK_DIR for backups and diachronic files and by COUT_DIR for outputs.
LVERB_OUTLST : flag to write application messages in OUTPUT_LISTINGn files (in current directory, n is for the current model)
LVERB_STDOUT : flag to write application messages on the standard output
NGEN_VERB : set the verbosity level for generic messages
- 0 : no messages
- 1 : fatal messages
- 2 : error messages (and lower values)
- 3 : warning messages (and lower values)
- 4 : info messages (and lower values)
- 5 : debug messages (and lower values)
NGEN_ABORT_LEVEL : set the minimum level of generic message to abort the application (same levels as for NGEN_VERB)
NBUD_VERB : set the verbosity level for budget messages (same levels as for NGEN_VERB)
NBUD_ABORT_LEVEL : set the minimum level of budget message to abort the application (same levels as for NGEN_VERB)
NIO_VERB : set the verbosity level for IO messages (same levels as for NGEN_VERB)
NIO_ABORT_LEVEL : set the minimum level of IO message to abort the application (same levels as for NGEN_VERB)

Warning

Not all messages use this infrastructure. Therefore, some of them are not affected by these options.

LIO_COMPRESS : enable lossless compression of data for all files. This can have a negative impact on performance. This option takes precedence over their equivalent NAM_BACKUP and NAM_OUTPUT namelists.
CIO_COMPRESS_ALGO: set the compression algorithm (only for files in netCDF format, not for LFI format). The allowed values are ‘ZSTD’ (for Zstandard compression,default value), ‘DEFLATE’ (for zlib compression) or ‘NONE’. This option takes precedence over their equivalent in NAM_BACKUP and NAM_OUTPUT namelists (only if LIO_COMPRESS=.TRUE. which is the default). If set to ‘NONE’, all compression will be disabled (that stands also for lossy compression).
LOUT_COMPRESS_LEVEL : set the compression level. The value must be in the 0 to 9 interval (0 for no compression, 9 for maximum compression). This option takes precedence over their equivalent in NAM_BACKUP and NAM_OUTPUT namelists (only if LIO_COMPRESS=.TRUE. which is the default).
LDIAG_REDUCE_FLOAT_PRECISION : force writing of floating points numbers in single precision for diagnostic files (written by the DIAG program)
LIO_ALLOW_REDUCED_PRECISION_BACKUP : flag to allow writing of backup files with a reduced precision as well as reading of reduced precision files and files written with Meso-NH compiled with a lower precision for integers or reals (ie MNH_INT=4 and MNH_REAL=4).
LIO_ALLOW_NO_BACKUP : allow to have no valid backup time (useful for some tests)
LIO_NO_WRITE : disable file writes (useful for benchs)
NFILE_NUM_MAX : maximum number for numbered files (mainly backup and output files). If less than 1000, the numbers will be on 3 digits. From 1000, they will be on the number of digits of NFILE_NUM_MAX (5 if NFILE_NUM_MAX=12345).

NAM_CONF_PGD

Warning

This namelist comes from SURFEX 9.0.0 user guide https://www.umr-cnrm.fr/surfex/IMG/pdf/surfex_tecdoc.pdf.

NAM_CONF_PGD content
Fortran name	Fortran type	Default value
NHALO_MNH	INTEGER	1
JPHEXT	INTEGER	1

NHALO_MNH : Size of the halo for parallel distribution. This variable is related to computer performance but has no impact on simulation results.
JPHEXT : Horizontal External points number. JPHEXT must be equal to 3 for cyclic cases with WENO5.

NAM_PGDFILE

Warning

This namelist comes from SURFEX 9.0.0 user guide https://www.umr-cnrm.fr/surfex/IMG/pdf/surfex_tecdoc.pdf.

NAM_PGDFILE content
Fortran name	Fortran type	Default value
CPGDFILE	CHARACTER (LEN=88)
NHALO	INTEGER	15

CPGDFILE : name of the output Physiographic Data File
NHALO : Size of the halo for parallel distribution

NAM_PGD_GRID

Warning

This namelist comes from SURFEX 9.0.0 user guide https://www.umr-cnrm.fr/surfex/IMG/pdf/surfex_tecdoc.pdf.

This namelist defines the grid type, either specified or from an existing surface file.

NAM_PGD_GRID content
Fortran name	Fortran type	Default value
CGRID	CHARACTER(LEN=10)	‘CONF PROJ’
YINIFILE	CHARACTER(LEN=28)	‘NONE’
YINIFILETYPE	CHARACTER(LEN=6)	‘NONE’
NOVMX	INTEGER	1

CGRID : type of grid and projection. It is used only if a file is not prescribed (see below). The different grid possibilities are:
- “CONF PROJ “: this grid is a regular grid (in meters in x and y perpendicular directions) on conformal projection plan (Mercator, Lambert or polar stereographic).
- “CARTESIAN “: this grid is a regular grid (in meters in x and y perpendicular directions), with no reference to real geographical coordinates.
Note

For each option of CGRID you need to fill other namelist. By example, for CGRID=’CONF PROJ’, you need to fill NAM_CONF_PROJ and NAM_CONF_PROJ_GRID namelists.
YINIFILE : name of the file used to define the grid. It is possible to define the grid as a subgrid of a previously created file. This is currently possible only for files that have a “CONF PROJ “ or “CARTESIAN “ grid type. The exact definition of the subgrid grid chosen is prescribed in a namelist (described below), depending on the type of grid available in the file chosen. The use of a file has priority on the CGRID type.
YINIFILETYPE : type of the YINIFILE file, if the latter is provided. YFILETYPE must be given. The following values are currently usable:
- “MESONH”: the file type is a MESONH file or (even if it is a LFI file from AROME).
NOVMX : number of points that can overlap each other in the user grid, for the calculation of physiographic fields.

NAM_CONF_PROJ

Warning

This namelist comes from SURFEX 9.0.0 user guide https://www.umr-cnrm.fr/surfex/IMG/pdf/surfex_tecdoc.pdf.

This namelist defines the projection in case of CGRID=”CONF PROJ” in NAM_PGD_GRID.

NAM_CONF_PROJ content
Fortran name	Fortran type	Default value
XLAT0	REAL
XLON0	REAL
XRPK	REAL
XBETA	REAL

XLAT0 : reference latitude for conformal projection (real, decimal degrees)
XLON0 : reference longitude for conformal projection (real, decimal degrees)
XRPK : cone factor for the projection (real):
- XRPK=1: polar stereographic projection from north pole
- 1>XRPK>0: Lambert projection from south pole
- XRPK=0: Mercator projection from earth center
- -1<XRPK<0: Lambert projection from north pole
- XRPK=-1: polar stereographic projection from south pole
XBETA : rotation angle of the simulation domain around the reference longitude (real)

NAM_CONF_PROJ_GRID

Warning

This namelist comes from SURFEX 9.0.0 user guide https://www.umr-cnrm.fr/surfex/IMG/pdf/surfex_tecdoc.pdf.

This namelists defines the horizontal domain in case of CGRID=”CONF PROJ” in NAM_PGD_GRID.

NAM_CONF_PROJ_GRID content
Fortran name	Fortran type	Default value
XLATCEN	REAL
XLONCEN	REAL
NIMAX	INTEGER
NJMAX	INTEGER
XDX	REAL
XDY	REAL

XLATCEN : latitude of the point of the center of the domain (real, decimal degrees)
XLONCEN : longitude of the point of the center of the domain (real, decimal degrees)
NIMAX : number of surface points of the grid in direction x.
NJMAX : number of surface points of the grid in direction y.
XDX : grid mesh size on the conformal plane in x direction (real, meters).
XDY : grid mesh size on the conformal plane in y direction (real, meters).

NAM_INIFILE_CONF_PROJ

This namelists defines the horizontal domain from an existing surface file in which grid type is “CONF PROJ”. If nothing is set in the namelist, a grid identical as the one in the file is chosen.

NAM_INIFILE_CONF_PROJ content
Fortran name	Fortran type	Default value
IXOR	INTEGER	1
IYOR	INTEGER	1
IXSIZE	INTEGER	YINIFILE size
IYSIZE	INTEGER	YINIFILE size
IDXRATIO	INTEGER	1
IDYRATIO	INTEGER	1

IXOR : first point I index, according to the YINIFILE grid, left to and out of the new physical domain.
IYOR : first point J index, according to the YINIFILE grid, under and out of the new physical domain.
IXSIZE : number of grid points in I direction, according to YINIFILE grid, recovered by the new domain. If to be used in Meso-NH, it must only be factor of 2,3 or 5.
IYSIZE : number of grid points in J direction, according to YINIFILE grid, recovered by the new domain. If to be used in Meso-NH, it must only be factor of 2,3 or 5.
IDXRATIO : resolution factor in I direction between the YINIFILE grid and the new grid. If to be used in Meso-NH, it must only be factor of 2,3 or 5.
IDYRATIO : resolution factor in J direction between the YINIFILE grid and the new grid. If to be used in Meso-NH, it must only be factor of 2,3 or 5.

NAM_PGD_SCHEMES

Warning

This namelist comes from SURFEX 9.0.0 user guide https://www.umr-cnrm.fr/surfex/IMG/pdf/surfex_tecdoc.pdf.

This namelist defines the four schemes that will be used, one for each type of surface (sea, inland water, town, vegetation).

NAM_PGD_SCHEMES content
Fortran name	Fortran type	Default value
CNATURE	CHARACTER(LEN=6)	‘ISBA’
CSEA	CHARACTER(LEN=6)	‘SEAFLX’
CWATER	CHARACTER(LEN=6)	‘WATFLX’
CTOWN	CHARACTER(LEN=6)	‘TEB’

CNATURE : scheme used for vegegation and natural soil covers. The different possibilities are:
- “NONE”: no scheme used. No fluxes will be cmputed at the surface.
- “FLUX”: ideal fluxes are prescribed. The have to be set in the fortran routine init_ideal_flux.f90.
- “TSZ0”: In this cheme, the fluxes are computed according to the ISBA physics, but the surface characteristics (temperature, humidity, etc…) remain constant with time.
- “ISBA”: this is the full ISBA scheme [Noilhan and Planton, 1989], with all options developped since this initial paper.
CSEA : scheme used for sea and ocean. The different possibilities are:
- “NONE” : no scheme used. No fluxes will be cmputed at the surface.
- “FLUX” : ideal fluxes are prescribed. The have to be set in the fortran routine init_ideal_flux.f90.
- “SEAFLX” : this is a relatively simple scheme, using the Charnock formula.
CWATER : scheme used for inland water. The different possibilities are:
- “NONE” : no scheme used. No fluxes will be cmputed at the surface.
- “FLUX” : ideal fluxes are prescribed. The have to be set in the fortran routine init_ideal_flux.f90.
- “WATFLX” : this is a relatively simple scheme, using the Charnock formula.
- “FLAKE” : this is lake scheme from Mironov, 2005.
CTOWN : scheme used for towns. The different possibilities are:
- “NONE” : no scheme used. No fluxes will be cmputed at the surface.
- “FLUX” : ideal fluxes are prescribed. The have to be set in the fortran routine init_ideal_flux.f90.
- “TEB” : this is the Town Energy Balance scheme [Masson, 2000], with all the subsequent ameliorations of the scheme.
LGARDEN : general flag to activate TEB_GARDEN

NAM_ZS

This namelist defines the orography settings. It is used by the PREP_PGD executable and can be included in its corresponding PRE_PGD1.nam input file. If you do not include it, the default settings are those defined in the table below.

Warning

This namelist comes from SURFEX 9.0.0 user guide https://www.umr-cnrm.fr/surfex/IMG/pdf/surfex_tecdoc.pdf.

NAM_ZS content
Fortran name	Fortran type	Default value
XUNIF_ZS	REAL
YZS	CHARACTER(LEN=28)
YZSFILETYPE	CHARACTER(LEN=6)
COROGTYPE	CHARACTER(LEN=3)	‘ENV’
XENV	REAL	0.0
LIMP_ZS	LOGICAL	.FALSE.
YSLOPE	CHARACTER(LEN=28)
YSLOPEFILETYPE	CHARACTER(LEN=6)	‘NETCDF’
LEXPLICIT_SLOPE	LOGICAL	.FALSE.
LORORAD	LOGICAL	F
NSECTORS	INTEGER	8
XRFSSO	REAL	1.0
XHALORADIUS	REAL	20000.0
NFSSOMAX	INTEGER	30
CSVF	CHARACTER(LEN=16)	MANNERS
LFSSOVF	LOGICAL	.FALSE.

XUNIF_ZS : uniform value of orography imposed on all points (real,meters). If XUNIF_ZS is set, file YZS is not used.
YZS : data file name. If XUNIF_ZS is set, file YZS is not used. If neither XUNIF_ZS and YZS is set, then orography is set to zero.
YZSFILETYPE : type of data file
COROGTYPE : type of orography:
- ‘AVG’: mean orography Zs.
- ‘ENV’: envelope relief, defined from mean orography and the subgrid orography standard deviation as: Zs + XENV * $\sigma(Zs)$
- ‘SIL’: silhouette relief, defined as the mean of the two subgrid silhouettes in directions x and y (if two main directions can be defined for the grid chosen).
- ‘MAX’: maximum orography over grid box (avoid averaging in case of sea/land grid box).
XENV : enhance factor in envelope orography definition (real).
LIMP_ZS : reads orography from an existing PGD file
YSLOPE : file name for slope
YSLOPEFILETYPE : data file type for slope
LEXPLICIT_SLOPE : Slope is computed from explicit ZS field and not subgrid orography
LORORAD : flag to activate orographic radiation parameters in PGD step. New fields are created in the PGD and used in the simulation if orographic shadowing is activated (with LDSV, LDSL or LDSH)
NSECTORS : number of aspect sectors
XRFSSO : reduction factor for computing NFSSO
XHALORADIUS : radius of the halo in which the horizon is computed (m)
NFSSOMAX : max for NFSSO (limit for memory reasons)
CSVF : formula for SVF computation
- ‘SENKOVA’ = Senkova et al. 2007
- ‘MANNERS’ = Manners et al. 2012 (default)
LFSSOVF : compute SVF (sky view factor) on fractional slopes if possible

NAM_ZSFILTER

Warning

This namelist comes from SURFEX 9.0.0 user guide https://www.umr-cnrm.fr/surfex/IMG/pdf/surfex_tecdoc.pdf.

NAM_ZSFILTER content
Fortran name	Fortran type	Default value
NZSFILTER	INTEGER	1
LHSLOP	LOGICAL	.FALSE.
XHSLOP	REAL	1.2
NLOCZSFILTER	INTEGER	3

NZSFILTER : number of iterations of the spatial filter applied to smooth the orography over the whole domain (integer, 1 iteration removes the $2\Delta x$ signal, 50 % of the $4\Delta x$ signal, 25 % of the $6\Delta x$ signal, etc…).

Note

The amplitude of the filtered signal for each wavelength $\lambda\Delta x$ is :

\[\frac{1}{2}\left(\cos\left(\frac{2\pi}{\lambda}\right) + 1\right)\]

LHSLOP : flag to use a spatial filter applied to smooth the orography locally over the slopes (along the horizontal directions) higher than XHSLOP.
XHSLOP : slope threshold ($\Delta z/\Delta x$ and $\Delta z/\Delta y$) where the local spatial filter is applied.
NLOCZSFILTER : number of iterations of the local spatial filter applied to smooth the large slopes. If LHSLOP is TRUE, 3 new variables are written in the output files : ZS_FILTR ([2D] height variations of the orography by local filtering), ZSLOPEX and ZSLOPEY ([2D] orography slopes along i and j indexes respectively after local filtering).

NAM_COVER

Warning

This namelist comes from SURFEX 9.0.0 user guide https://www.umr-cnrm.fr/surfex/IMG/pdf/surfex_tecdoc.pdf.

This namelist gives the information to compute the surface cover fractions when ECOCLIMAP is used. It is possible to use an existing ECOCLIMAP map or the define the ECOCLIMAP covers for the user’s domain.

NAM_COVER content
Fortran name	Fortran type	Default value
XUNIF_COVER	REAL
YCOVER	CHARACTER(LEN=28)
YCOVERFILETYPE	CHARACTER(LEN=6)
XRM_COVER	REAL	10-6
XRM_COAST	REAL	1.0
XRM_LAKE	REAL	0.0
XRM_SEA	REAL	0.0
LORCA_GRID	LOGICAL	.FALSE.
XLAT_ANT	REAL	-77.0
LIMP_COVER	LOGICAL	.FALSE.
LRM_RIVER	LOGICAL	.FALSE.

XUNIF_COVER : specified values for uniform cover fractions. For each index i between 1 and 573, XUNIF_COVER(i) is the fraction of the ith ecosystem of ecoclimap. The same fraction of each ecosystem is set to all points of the grid. The sum of all ecosystem fractions must be equal to one. If XUNIF_COVER is set, it has priority on the use of an ecosystem file (see next item: YCOVER). In the case of grid without any reference to geographical coordinates (“CARTESIAN “ or “NONE “), XUNIF_COVER must be set.
YCOVER : ecoclimap data file name. It is used only if XUNIF_COVER is not set.
YCOVERFILETYPE : type of YCOVER file (‘DIRECT’, ‘BINLLV’, ‘BINLLF’, ‘ASCLLV’).
XRM_COVER : for each point, all fractions of ecosystems that are below XRM_COVER are removed (i.e. set to zero), and the corresponding area fractions are distributed among the remaining ecosystem fractions. Whatever the value of XRM_COVER, at least one ecosystem remains for each grid point.
XRM_COAST : limit of coast coverage under which the coast is replaced by sea or inland water.
XRM_LAKE : limit of inland lake coverage under which the water is removed.
XRM_SEA : limit of sea coverage under which the sea is removed.
LORCA_GRID : flag to ensure the compatibility between surfex and Orca grid which minimal latitude over Antarctica is 77S
XLAT_ANT : minimum Orca grid latitude over Antarctica
LIMP_COVER : reads the cover fractions in an existing PGD file to avoid their computation
LRM_RIVER : if T, rivers (cover 3) are removed

NAM_PGD_ARRANGE_COVER

Warning

This namelist comes from SURFEX 9.0.0 user guide https://www.umr-cnrm.fr/surfex/IMG/pdf/surfex_tecdoc.pdf.

This namelist initializes change water (not lake) to nature and/or town to rock keys.

NAM_PGD_ARRANGE_COVER content
Fortran name	Fortran type	Default value
LWATER_TO_NATURE	LOGICAL	.FALSE.
LTOWN_TO_ROCK	LOGICAL	.FALSE.
LTOWN_TO_COVER	LOGICAL	.FALSE.
NREPLACE_COVER	INTEGER

LWATER_TO_NATURE : Change Wetland treated as inland water into nature, i.e. covers with 0. $\leq$ FRAC_WATER $\leq$ 1.
LTOWN_TO_ROCK : Change Town into Rock
LTOWN_TO_COVER : Option to replace (if T) urban landuse by the ecoclimap cover ICOVER
NREPLACE_COVER : cover number to replace urban by this cover. If LTOWN_TO_COVER=T and NREPLACE=ICOVER, the urban landuse is replaced by the ECOCLIMAP cover number ICOVER (ICOVER must be present in the domain)

NAM_ISBA

Warning

This namelist comes from SURFEX 9.0.0 user guide https://www.umr-cnrm.fr/surfex/IMG/pdf/surfex_tecdoc.pdf.

NAM_ISBA content
Fortran name	Fortran type	Default value
NPATCH	INTEGER	1
NGROUND_LAYER	INTEGER	1E+9
CISBA	CHARACTER(LEN=3)	‘3-L’
CPEDO_FUNCTION	CHARACTER(LEN=4)	‘CH78’
CPHOTO	CHARACTER(LEN=3)	‘NON’
LTR_ML	LOGICAL	.FALSE.
CALBEDO	CHARACTER(LEN=3)	‘CM13’
XRM_PATCH	REAL	0.0
XUNIF_CLAY	REAL	0.33
YCLAY	CHARACTER(LEN=28)
YCLAYFILETYPE	CHARACTER(LEN=6)	‘ASCLLV’
XUNIF_SAND	REAL	0.33
YSAND	CHARACTER(LEN=28)
YSANDFILETYPE	CHARACTER(LEN=6)	‘ASCLLV’
XUNIF_RUNOFFB	REAL	0.5
YRUNOFFB	CHARACTER(LEN=28)
YRUNOFFBFILETYPE	CHARACTER(LEN=6)	‘ASCLLV’
XUNIF_WDRAIN	REAL	0.0
YWDRAIN	CHARACTER(LEN=28)
YWDRAINFILETYPE	CHARACTER(LEN=6)	‘ASCLLV’
YCTI	CHARACTER(LEN=28)
YCTIFILETYPE	CHARACTER(LEN=6)
XUNIF_SOC_TOP	REAL	1.E+20
XUNIF_SOC_SUB	REAL	1.E+20
YSOC_TOP	CHARACTER(LEN=28)
YSOC_SUB	CHARACTER(LEN=28)
YSOCFILETYPE	CHARACTER(LEN=6)
XUNIF_PERM	REAL	1.E+20
YPERM	CHARACTER(LEN=28)
YPERMFILETYPE	CHARACTER(LEN=28)
XUNIF_PH	REAL	1.E+20
YPH	CHARACTER(LEN=28)
YPHFILETYPE	CHARACTER(LEN=28)
XUNIF_FERT	REAL	1.E+20
YFERT	CHARACTER(LEN=28)
YFERTFILETYPE	CHARACTER(LEN=28)
LIMP_SAND	LOGICAL	.FALSE.
LIMP_CLAY	LOGICAL	.FALSE.
LIMP_CTI	LOGICAL	.FALSE.
LIMP_SOC	LOGICAL	.FALSE.
LIMP_PERM	LOGICAL	.FALSE.
XSOILGRID	REAL(150)	1.E+20
LMEB	LOGICAL	.FALSE.
LLULCC	LOGICAL	.FALSE.

NPATCH : number of patches used in ISBA. One patch corresponds to aggregated parameters. 12 patches correspond to separate energy budgets for all vegetation types present in ISBA. 3 patches correspond to bare soil types, low vegetation, trees. If CPHOTO equals ‘NON’ any number of patches between 1 and 12 is possible, for the other values of CPHOTO, 12 patches are required. The order and the signification of each patch is the following:
- 1: no vegetation (smooth) - NO
- 2: no vegetation (rocks) - ROCK
- 3: permanent snow and ice - SNOW
- 4: temperate broadleaf cold-deciduous summergreen - TEBD (TREE)
- 5: boreal needleleaf evergreen - BONE (CONI)
- 6: tropical broadleaf evergreen - EVER
- 7: C3 cultures types - C3
- 8: C4 cultures types - C4
- 9: irrigated crops - IRR
- 10: grassland (C3) - GRAS
- 11: tropical grassland (C4) - TROG
- 12: peat bogs, parks and gardens (irrigated grass) - PARK
- 13: tropical broadleaf deciduous - TRBD (TREE)
- 14: temperate broadleaf evergreen - TEBE (TREE)
- 15: temperate needleleaf evergreen - TENE (CONI)
- 16: boreal broadleaf cold-deciduous summergreen - BOBD (TREE)
- 17: boreal needleleaf cold-deciduous summergreen - BOND (CONI)
- 18: boreal grass - BOGR (GRASS)
- 19: shrub - SHRB (TREE)
NGROUND_LAYER : number of soil layer used in case of diffusion physics in the soil (CISBA = ‘DIF’):
- with CISBA = 2-L, NGROUND_LAYER default is 2
- with CISBA = 3-L, NGROUND_LAYER default is 3
- with CISBA= DIF and LECOCLIMAP, NGROUND_LAYER default is 14
CISBA : type of soil discretization and physics in ISBA:
- ‘2-L’: force-restore method with 2 layers for hydrology
- ‘3-L’: force-restore method with 3 layers for hydrology
- ‘DIF’: diffusion layer, with any number of layers
CPEDO_FUNCTION : Pedo-transfert function for DIF. The following options are currently available:
- “CH78”: Clapp and Hornberger 1978 for BC
- “C084”: Cosby et al. 1988 for BC
CPHOTO :type of photosynthesis physics. The following options are currently available:
- “NON”: none is used. Jarvis formula is used for plant transpiration.
- “AST”: ISBA-AGS with offensive/defensive stress, without evolving Leaf Area Index
- “NIT”: ISBA-AGS with nitrogen, with evolving Leaf Area Index
- “NCB”: ISBA-AGS with nitrogen, with evolving Leaf Area Index and wood, soil, roots biomass
LTR_ML : to activate new radiative transfert calculation, only if CPHOTO/=NON.
CALBEDO : type of bare soil albedo. The following options are currently available
- “DRY “: dry bare soil albedo
- “WET “: wet bare soil albedo
- “MEAN”: albedo for bare soil half wet, half dry
- “EVOL”: albedo of bare soil evolving with soil humidity
- “CM13”: albedo by cover and vegetation type processed from satellite data
XRM_PATCH : threshol to remove little fractions of patches
XUNIF_CLAY : uniform prescribed value of clay fraction.
YCLAY : clay fraction data file name.
YCLAYFILETYPE : type of clay data file (‘DIRECT’, ‘BINLLF’, ‘BINLLV’, ‘ASCLLV’)
XUNIF_SAND : uniform prescribed value of sand fraction.
YSAND : sand fraction data file name.
YSANDFILETYPE : type of sand data file (‘DIRECT’, ‘BINLLF’, ‘BINLLV’, ‘ASCLLV’)
XUNIF_RUNOFFB : uniform prescribed value of subgrid runoff coefficient.
YRUNOFFB : subgrid runoff coefficient data file name.
YRUNOFFBFILETYPE : type of subgrid runoff data file (‘DIRECT’, ‘BINLLF’, ‘BINLLV’, ‘ASCLLV’)
XUNIF_WDRAIN : uniform prescribed value of subgrid drainage.
YWDRAIN : subgrid drainage data file name.
YWDRAINFILETYPE : type of subgrid drainage data file (‘DIRECT’, ‘BINLLF’, ‘BINLLV’, ‘ASCLLV’)
YCTI : topographic indices file name.
YCTIFILETYPE : type of topographic file (‘DIRECT’, ‘BINLLF’, ‘BINLLV’, ‘ASCLLV’)
XUNIF_SOC_TOP : uniform prescribed value of topsoil organic carbon (used only in CSOC=SGH in NAM_ISBAn)
XUNIF_SOC_SUB : uniform prescribed value of subsoil organic carbon (used only in CSOC=SGH in NAM_ISBAn)
YSOC_TOP : organic carbon topsoil data file name (used only in CSOC=SGH in NAM_ISBAn).
YSOC_SUB : organic carbon subsoil data file name (used only in CSOC=SGH in NAM_ISBAn).
YSOCFILETYPE : type of organic matter data file (‘DIRECT’, ‘BINLLF’, ‘BINLLV’, ‘ASCLLV’) (used only in CSOC=SGH in NAM_ISBAn)
XUNIF_PERM : uniform value of permafrost distribution (used only if CISBA=DIF)
YPERM : file name for permafrost distribution (used only if CISBA=DIF)
YPERMFILETYPE : permafrost distribution data file type(‘DIRECT’, ‘BINLLF’, ‘BINLLV’, ‘ASCLLV’) (used only if CISBA=DIF)
XUNIF_PH : uniform value of soil pH (used only if LCH_NO_FLUX=T)
YPH : file name for soil pH (used only if LCH_NO_FLUX=T)
YPHFILETYPE : soil pH data file type (‘DIRECT’, ‘BINLLF’, ‘BINLLV’, ‘ASCLLV’) (used only if LCH_NO_FLUX=T)
XUNIF_FERT : uniform value of soil fertilization rate (kgN/ha/h) (used only if LCH_NO_FLUX=T)
YFERT : file name for soil fertilisation rate (kgN/ha/h) (used only if LCH_NO_FLUX=T)
YFERTFILETYPE : soil fertilisation rate file type (kgN/ha/h)(‘DIRECT’, ‘BINLLF’, ‘BINLLV’, ‘ASCLLV’) (used only if LCH_NO_FLUX=T)
LIMP_SAND : reads sand fraction in an existing PGD file
LIMP_CLAY : reads clay fraction in an existing PGD file
LIMP_CTI : reads topographic indices in an existing PGD file
LIMP_SOC : reads organic carbon in an existing PGD file
LIMP_PERM : reads permafrost distribution in an existing PGD file
XSOILGRID : uniform soil depth grid for CISBA=DIF. Default with CISBA=DIF and LECOCLIMAP is (/0.01,0.04,0.10,0.20,0.40,0.60,0.80,1.00,1.50,2.00,3.00,5.00,8.00,12.0/)
LMEB : Flag to activate MEB (please note that by default, MEB uses the TR_LM radiation scheme, so when LMEB=T, LTR_ML=T automatically)
LLULCC : land-use land cover change scheme activation key

NAM_SEABATHY

Warning

This namelist comes from SURFEX 9.0.0 user guide https://www.umr-cnrm.fr/surfex/IMG/pdf/surfex_tecdoc.pdf.

NAM_SEABATHY content
Fortran name	Fortran type	Default value
XUNIF_SEABATHY	REAL	300
YSEABATHY	CHARACTER(LEN=28)
YSEABATHYFILETYPE	CHARACTER(LEN=6)	‘NONE’
YNCVARNAME	CHARACTER(LEN=28)

XUNIF_SEABATHY : uniform value of bathymetry imposed on all points (real,meters). If XUNIF_SEABATHY is set, file YSEABATHY is not used ;
YSEABATHY : data file name. If XUNIF_SEABATHY is set, file YSEABATHY is not used. If neither XUNIF_SEABATHY and YSEABATHY is set, then bathymetry is set to zero ;
YSEABATHYFILETYPE : type of data file (‘DIRECT’, ‘BINLLF’, ‘BINLLV’, ‘ASCLLV’, ‘NETCDF’) ;
YNCVARNAME : name of variable to be read in NETCDF file.

NAM_DUMMY_PGD

Warning

This namelist comes from SURFEX 9.0.0 user guide https://www.umr-cnrm.fr/surfex/IMG/pdf/surfex_tecdoc.pdf.

This namelist allows to incorporate into the physiographic file any surface field. You can treat up to 999 such fields. These fields will be written on all the files you will use later(after prognostic fields initialization, or during and after run, etc…). Their name in the files are ‘DUMMY_GRnnn’, where nnn goes from 001 to 999. During the execution of the programs, these fields are stored in the XDUMMY_FIELDS(:,:) (first dimension: spatial dimension, second dimension: total number of fields), in the module MODD_DUMMY_SURF_FIELDn. You must modify the fortran source, where you want to use them.

NAM_DUMMY_PGD content
Fortran name	Fortran type	Default value
NDUMMY_NBR	INTEGER	0
CDUMMY_NAME(:)	CHARACTER(LEN=20)
CDUMMY_FILE(:)	CHARACTER(LEN=28)
CDUMMY_FILETYPE(:)	CHARACTER(LEN=6)
CDUMMY_AREA(:)	CHARACTER(LEN=3)	‘ALL’
CDUMMY_ATYPE(:)	CHARACTER(LEN=3)	‘ARI’

Only the first NDUMMY_NBR values in these arrays are meaningfull.

NDUMMY_NBR : number of dummy fields.
CDUMMY_NAME(:) : list of the dummy fields you want to initialize with your own data. You can give any name you want. This is a way to describe what is the field. This information is not used by the program. It is just written in the Meso-NH files.
CDUMMY_FILE(:) : list of the names of the files containing the data for the fields you have specified in CDUMMY_NAME(:).
CDUMMY_FILETYPE(:) : list of the types of the files containing the data for the fields you have specified in CDUMMY_NAME(:) (‘DIRECT’, ‘LATLON’, ‘BINLLF’, ‘BINLLV’, ‘ASCLLV’).
CDUMMY_AREA(:) : area of meaningfullness of the fields you have specified in CDUMMY_NAME(:) (‘ALL’, ‘NAT’, ‘TWN’, ‘SEA’, ‘WAT’, ‘LAN’, respectively for everywhere, natural areas, town areas, sea, inland waters, land = natural cover + town). For example, oceanic emission of DNS is relevant on ‘SEA’.
CDUMMY_ATYPE(:) : type of averaging (during PGD for the fields you have specified in CDUMMY_NAME(:) (‘ARI’, ‘INV’, ‘LOG’, respectively for arithmetic, inverse and logarithmic averaging).

NAM_CH_EMIS_PGD

This namelist is used to initialize chemistry components emissions. You can treat up to 999 such fields. These fields will be written on all the files you will use later (after prognostic fields initialization, or during and after run, etc…). Their name in the files are ‘EMIS_GRnnn’, where nnn goes from 001 to 999. During the execution of the programs, these fields are stored in the XEMIS_GR_FIELDS(:,:) (first dimension: spatial dimension, second dimension: total number of fields), in the module MODD_EMIS_GR_FIELDn. The temporal evolution, the aggregation of prescribed emissions and the link with the corresponding chemical prognostic variables are handled by the subroutine CH_EMISSION_FLUXn.f90.

NAM_CH_EMIS_PGD content
Fortran name	Fortran type	Default value
NEMIS_PGD_NBR	INTEGER	0
CEMIS_PGD_NAME(:)	CHARACTER(LEN=20)
CEMIS_PGD_FILE(:)	CHARACTER(LEN=28)
CEMIS_PGD_COMMENT(:)	CHARACTER(LEN=40)
NEMIS_PGD_TIME	INTEGER	0
CEMIS_PGD_FILETYPE(:)	CHARACTER(LEN=6)	DIRECT
CEMIS_PGD_AREA(:)	CHARACTER(LEN=3)	ALL
CEMIS_PGD_ATYPE(:)	CHARACTER(LEN=3)	ARI

Only the first NEMIS_PGD_NBR values in these arrays are meaningfull.

NEMIS_PGD_NBR : number of dummy fields.
CEMIS_PGD_NAME(:) : list of the dummy fields you want to initialize with your own data. You can give any name you want. This is a way to describe what is the field. This information is not used by the program. It is just written in the Meso-NH files.
CEMIS_PGD_FILE(:) : list of the names of the files containing the data for the fields you have specified in CEMIS_PGD_NAME(:).
CEMIS_PGD_COMMENT(:) : list of the comments associated to each emission field.
NEMIS_PGD_TIME(:) : list of the time of the files containing the data for the fields you have specified in CEMIS_PGD_NAME(:).
CEMIS_PGD_FILETYPE(:) : list of the types of the files containing the data for the fields you have specified in CEMIS_PGD_NAME(:) (‘DIRECT’, ‘BINLLF’, ‘BINLLV’, ‘ASCLLV’).
CEMIS_PGD_AREA(:) : area of meaningfullness of the fields you have specified in CEMIS_PGD_NAME(:) (‘ALL’, ‘NAT’, ‘TWN’, ‘SEA’, ‘WAT’, ‘LAN’, respectively for everywhere, natural areas, town areas, sea, inland waters, land = natural cover + town). For example, oceanic emission of DNS is relevant on ‘SEA’.
CEMIS_PGD_ATYPE(:) : type of averaging (during PGD for the fields you have specified in CEMIS_PGD_NAME(:) (‘ARI’, ‘INV’, ‘LOG’, respectively for arithmetic, inverse and logarithmic averaging).

Note

Example:

&NAM_CH_EMIS_PGD
   NEMIS_PGD_NBR = 2,
   CEMIS_PGD_NAME(1)='COE',
   NEMIS_PGD_TIME(1)=0,
   CEMIS_PGD_COMMENT(1)='CO_00h00',
   CEMIS_PGD_AREA(1)='LAN',
   CEMIS_PGD_ATYPE(1)='ARI',
   CEMIS_PGD_FILE(1)='co_00.asc',
   CEMIS_PGD_FILETYPE(1)='ASCLLV',
   CEMIS_PGD_NAME(2)='COE',
   NEMIS_PGD_TIME(2)=43200,
   CEMIS_PGD_COMMENT(2)='CO_12h00',
   CEMIS_PGD_AREA(2)='LAN',
   CEMIS_PGD_ATYPE(2)='ARI',
   CEMIS_PGD_FILE(2)='co_12.asc',
   CEMIS_PGD_FILETYPE(2)='ASCLLV',
   CEMIS_PGD_NAME(3)='DMSE',
   NEMIS_PGD_TIME(3)=0,
   CEMIS_PGD_COMMENT(3)='dms_cte',
   CEMIS_PGD_AREA(3)='SEA',
   CEMIS_PGD_ATYPE(3)='ARI',
   CEMIS_PGD_FILE(3)='dms.asc',
   CEMIS_PGD_FILETYPE(3)='ASCLLV'
/

NAM_CH_EMISSIONS

NAM_CH_EMISSIONS content
Fortran name	Fortran type	Default value
CCH_EMIS	CHARACTER(LEN=4)	‘NONE’

CCH_EMIS : option for emissions computations:
- “NONE”: no emission
- “AGGR”: one aggregated value for each specie and hour
- “SNAP”: from SNAP data using potential emission and temporal profile

NAM_CH_SNAP_EMIS_PGD

NAM_CH_SNAP_EMIS_PGD content
Fortran name	Fortran type	Default value
NEMIS_NBR	INTEGER	0
NEMIS_SNAP	INTEGER	0
CEMIS_NAME	CHARACTER(LEN=6)	‘’
CEMIS_COMMENT	CHARACTER(LEN=40)	‘’
CSNAP_MONTHLY_FILE	CHARACTER(LEN=28)	‘’
CSNAP_DAILY_FILE	CHARACTER(LEN=28)	‘’
CSNAP_HOURLY_FILE	CHARACTER(LEN=28)	‘’
CSNAP _POTENTIAL_FILE	CHARACTER(LEN=50)	‘’
CSNAP_POTENTIAL_FILETYPE	CHARACTER(LEN=6)	‘’


XUNIF_SNAP	REAL	none
XUNIF_DELTA_LEGAL_TIME	REAL	none
CDELTA_LEGAL_TIME_FILE	CHARACTER(LEN=50)	‘’
CDELTA_LEGAL_TIME_FILETYPE	CHARACTER(LEN=6)	‘’

NEMIS_NBR : number of chemical pgd fields chosen by user
NEMIS_SNAP : number of snaps
CEMIS_NAME : name of the chemical fields (emitted species)
CEMIS_COMMENT : comment on the chemical fields (emitted species)
CSNAP_MONTHLY_FILE : name of the snap ASCII monthly file
CSNAP_DAILY_FILE : name of the snap ASCII daily file
CSNAP_HOURLY_FILE : name of the snap ASCII hourly file
CSNAP_POTENTIAL_FILE : name of the snap potential file
CSNAP_POTENTIAL_FILETYPE : type of the snap potential file
XUNIF_SNAP : uniform value for the snap potential (emission factore for each chemical specie and each snap)
XUNIF_DELTA_LEGAL_TIME : uniform value for the difference (in hours) between lagal time and UTC time
CDELTA_LEGAL_TIME_FILE : name of file for the difference between legal time and UTC time
CDELTA_LEGAL_TIME_FILETYPE : filetype for the difference between legal time and UTC time
the annual cycle (with a monthly timescale)
the weekly cycle (with a daily time scale), typically to separate weekdays, saturdays and sundays.
The diurnal cycle (with an hourly time scale). Note here that the hypothesis is done that the diurnal evolution is the same whatever the day in the week. The reference for the calculation of the hour (UTC, solar, legal) is provided at the beginning of this file. This allows to have different timing in different places at the same UTC (if solar or legal time is chosen), for example between China and Europe.

NAM_DATA_BEM

NAM_DATA_BEM content
Fortran name	Fortran type	Default value
NPAR_FLOOR_LAYER	INTEGER	1
NPAR_MASS_LAYER	INTEGER	1
XPAR_CF_CO2_ELEC	REAL	0.0
XPAR_CF_CO2_GAS	REAL	57E-9
XPAR_CF_CO2_FUEL	REAL	75E-9
XPAR_CF_CO2_OTHER	REAL	92E-9
XUNIF_HC_FLOOR	REAL	none
CFNAM_HC_FLOOR	CHARACTER(LEN=28)	‘’
CFTYP_HC_FLOOR	CHARACTER(LEN=6)	‘’

XUNIF_TC_FLOOR	REAL	none
CFNAM_TC_FLOOR	CHARACTER(LEN=28)	‘’
CFTYP_TC_FLOOR	CHARACTER(LEN=6)	‘’

XUNIF_D_FLOOR	REAL	none
CFNAM_D_FLOOR	CHARACTER(LEN=28)	‘’
CFTYP_D_FLOOR	CHARACTER(LEN=6)	‘’

XUNIF_HC_MASS	REAL	2.016E+6
CFNAM_HC_MASS	CHARACTER(LEN=28)	‘’
CFTYP_HC_MASS	CHARACTER(LEN=6)	‘’

XUNIF_TC_MASS	REAL	1.95
CFNAM_TC_MASS	CHARACTER(LEN=28)	‘’
CFTYP_TC_MASS	CHARACTER(LEN=6)	‘’

XUNIF_D_MASS	REAL	0.12
CFNAM_D_MASS	CHARACTER(LEN=28)	‘’
CFTYP_D_MASS	CHARACTER(LEN=6)	‘’

XUNIF_FLOOR_HEIGHT	REAL	none
CFNAM_FLOOR_HEIGHT	CHARACTER(LEN=28)	‘’
CFTYP_FLOOR_HEIGHT	CHARACTER(LEN=6)	‘’

XUNIF_F_WASTE_CAN	REAL	none
CFNAM_F_WASTE_CAN	CHARACTER(LEN=28)	‘’
CFTYP_F_WASTE_CAN	CHARACTER(LEN=6)	‘’

XUNIF_F_WATER_COND	REAL	none
CFNAM_F_WATER_COND	CHARACTER(LEN=28)	‘’
CFTYP_F_WATER_COND	CHARACTER(LEN=6)	‘’

NAM_DATA_BEM content
Fortran name	Fortran type	Default value
Name	TYPE	Default
XUNIF_DCS_AREA	REAL	1E+20
CFNAM_DCS_AREA	CHARACTER(LEN=28)	‘’
CFTYP_DCS_AREA	CHARACTER(LEN=6)	‘’

XUNIF_HR_TARGET	REAL	none
CFNAM_HR_TARGET	CHARACTER(LEN=28)	‘’
CFTYP_HR_TARGET	CHARACTER(LEN=6)	‘’

XUNIF_QIN	REAL(NBEMCOMP)	5.8
CFNAM_QIN	CHARACTER(LEN=28)	‘’
CFTYP_QIN	CHARACTER(LEN=6)	‘’

XUNIF_QIN_FRAD	REAL	0.2
CFNAM_QIN_FRAD	CHARACTER(LEN=28)	‘’
CFTYP_QIN_FRAD	CHARACTER(LEN=6)	‘’

XUNIF_QIN_FLAT	REAL	0.0
CFNAM_QIN_FLAT	CHARACTER(LEN=28)	‘’
CFTYP_QIN_FLAT	CHARACTER(LEN=6)	‘’

XUNIF_MODQIN_VCD	REAL(NBEMCOMP)	1.0
CFNAM_MODQIN_VCD	CHARACTER(LEN=28)	‘ ‘
CFTYP_MODQIN_VCD	CHARACTER(LEN=6)	‘ ‘

XUNIF_MODQIN_VLD	REAL(NBEMCOMP)	1.0
CFNAM_MODQIN_VLD	CHARACTER(LEN=28)	‘ ‘
CFTYP_MODQIN_VLD	CHARACTER(LEN=6)	‘ ‘

XUNIF_MODQIN_NIG	REAL(NBEMCOMP)	1.0
CFNAM_MODQIN_NIG	CHARACTER(LEN=28)	‘ ‘
CFTYP_MODQIN_NIG	CHARACTER(LEN=6)	‘ ‘

XUNIF_SHGC	REAL	none
CFNAM_SHGC	CHARACTER(LEN=28)	‘ ‘
CFTYP_SHGC	CHARACTER(LEN=6)	‘ ‘

XUNIF_U_WIN	REAL	none
CFNAM_U_WIN	CHARACTER(LEN=28)	‘ ‘
CFTYP_U_WIN	CHARACTER(LEN=6)	‘ ‘

XUNIF_GR	REAL	none
CFNAM_GR	CHARACTER(LEN=28)	‘ ‘
CFTYP_GR	CHARACTER(LEN=6)	‘ ‘

XUNIF_SHGC_SH	REAL	none
CFNAM_SHGC_SH	CHARACTER(LEN=28)	‘ ‘
CFTYP_SHGC_SH	CHARACTER(LEN=6)	‘ ‘

XUNIF_N50	REAL	8.0
CFNAM_N50	CHARACTER(LEN=28)	‘ ‘
CFTYP_N50	CHARACTER(LEN=6)	‘ ‘

XUNIF_CAP_SYS_HEAT	REAL	none
CFNAM_CAP_SYS_HEAT	CHARACTER(LEN=28)	‘ ‘
CFTYP_CAP_SYS_HEAT	CHARACTER(LEN=6)	‘ ‘

NAM_DATA_BEM content
Fortran name	Fortran type	Default value
Name	TYPE	Default
XUNIF_CAP_SYS_RAT	REAL	none
CFNAM_CAP_SYS_RAT	CHARACTER(LEN=28)	‘ ‘
CFTYP_CAP_SYS_RAT	CHARACTER(LEN=6)	‘ ‘

XUNIF_T_ADP	REAL	none
CFNAM_T_ADP	CHARACTER(LEN=28)	‘ ‘
CFTYP_T_ADP	CHARACTER(LEN=6)	‘ ‘

XUNIF_M_SYS_RAT	REAL	none
CFNAM_M_SYS_RAT	CHARACTER(LEN=28)	‘ ‘
CFTYP_M_SYS_RAT	CHARACTER(LEN=6)	‘ ‘

XUNIF_COP_RAT	REAL	none
CFNAM_COP_RAT	CHARACTER(LEN=28)	‘ ‘
CFTYP_COP_RAT	CHARACTER(LEN=6)	‘ ‘

XUNIF_COP_DCS	REAL	1E+20
CFNAM_COP_DCS	CHARACTER(LEN=28)	‘ ‘
CFTYP_COP_DCS	CHARACTER(LEN=6)	‘ ‘

XUNIF_T_SIZE_MAX	REAL	none
CFNAM_T_SIZE_MAX	CHARACTER(LEN=28)	‘’
CFTYP_T_SIZE_MAX	CHARACTER(LEN=6)	‘’

XUNIF_T_SIZE_MIN	REAL	none
CFNAM_T_SIZE_MIN	CHARACTER(LEN=28)	‘’
CFTYP_T_SIZE_MIN	CHARACTER(LEN=6)	‘’

XUNIF_ISMECH	REAL	0.0
CFNAM_ISMECH	CHARACTER(LEN=28)	‘ ‘

CFTYP_ISMECH	CHARACTER(LEN=6)	‘ ‘

XUNIF_MECHRATE	REAL	0.0
CFNAM_MECHRATE	CHARACTER(LEN=28)	‘ ‘

CFTYP_MECHRATE	CHARACTER(LEN=6)	‘ ‘

XUNIF_SHADEARCHI	REAL	0.0
CFNAM_SHADEARCHI	CHARACTER(LEN=28)	‘ ‘

CFTYP_SHADEARCHI	CHARACTER(LEN=6)	‘ ‘

XUNIF_NATVENT	REAL(NBEMCOMP)	0
CFNAM_NATVENT	CHARACTER(LEN=28)	‘ ‘
CFTYP_NATVENT	CHARACTER(LEN=6)	‘ ‘

XUNIF_FRACOMP	REAL(NBEMCOMP)	1.0
CFNAM_FRACOMP	CHARACTER(LEN=28)	‘ ‘

CFTYP_FRACOMP	CHARACTER(LEN=6)	‘ ‘

XUNIF_RESIDENTIAL	REAL	1.0
CFNAM_RESIDENTIAL	CHARACTER(LEN=28)	‘ ‘

CFTYP_RESIDENTIAL	CHARACTER(LEN=6)	‘ ‘

NAM_DATA_BEM content
Fortran name	Fortran type	Default value
Name	TYPE	Default
XUNIF_TDESV	REAL	295.16
CFNAM_TDESV	CHARACTER(LEN=28)	‘ ‘

CFTYP_TDESV	CHARACTER(LEN=6)	‘ ‘

XUNIF_WIN_SW_MAX	REAL	150.0
CFNAM_WIN_SW_MAX	CHARACTER(LEN=28)	‘ ‘
CFTYP_WIN_SW_MAX	CHARACTER(LEN=6)	‘ ‘

XUNIF_FOPEN	REAL	0.0
CFNAM_FOPEN	CHARACTER(LEN=28)	‘ ‘
CFTYP_FOPEN	CHARACTER(LEN=6)	‘ ‘

XUNIF_FVSUM	REAL(NBEMCOMP)	0.0
CFNAM_FVSUM	CHARACTER(LEN=28)	‘ ‘
CFTYP_FVSUM	CHARACTER(LEN=6)	‘ ‘

XUNIF_FVVAC	REAL(NBEMCOMP)	0.0
CFNAM_FVVAC	CHARACTER(LEN=28)	‘ ‘
CFTYP_FVVAC	CHARACTER(LEN=6)	‘ ‘

XUNIF_FVNIG	REAL(NBEMCOMP)	0.0
CFNAM_FVNIG	CHARACTER(LEN=28)	‘ ‘
CFTYP_FVNIG	CHARACTER(LEN=6)	‘ ‘

XUNIF_FSSUM	REAL(NBEMCOMP)	0.0
CFNAM_FSSUM	CHARACTER(LEN=28)	‘ ‘
CFTYP_FSSUM	CHARACTER(LEN=6)	‘ ‘

XUNIF_FSVAC	REAL(NBEMCOMP)	0.0
CFNAM_FSVAC	CHARACTER(LEN=28)	‘ ‘
CFTYP_FSVAC	CHARACTER(LEN=6)	‘ ‘

XUNIF_FSNIG	REAL(NBEMCOMP)	0.0
CFNAM_FSNIG	CHARACTER(LEN=28)	‘ ‘
CFTYP_FSNIG	CHARACTER(LEN=6)	‘ ‘

XUNIF_DAYWBEG_SCHED	REAL(3,NBEMCOMP)	(/1,6,7/)
CFNAM_DAYWBEG_SCHED	CHARACTER(LEN=28)	‘ ‘
CFTYP_DAYWBEG_SCHED	CHARACTER(LEN=6)	‘ ‘

XUNIF_HOURWBEG_SCHED	REAL(4*3,NBEMCOMP)	(/5,7,16,23/)
CFNAM_HOURWBEG_SCHED	CHARACTER(LEN=28)	‘ ‘
CFTYP_HOURWBEG_SCHED	CHARACTER(LEN=6)	‘ ‘

XUNIF_PROBOCC	REAL(4*3,NBEMCOMP)	1.0
CFNAM_PROBOCC	CHARACTER(LEN=28)	‘ ‘
CFTYP_PROBOCC	CHARACTER(LEN=6)	‘ ‘

XUNIF_BEG_HOLIDAY	REAL(1,NBEMCOMP)
CFNAM_BEG_HOLIDAY	CHARACTER(LEN=28)	‘ ‘
CFTYP_BEG_HOLIDAY	CHARACTER(LEN=6)	‘ ‘

XUNIF_END_HOLIDAY	REAL(1,NBEMCOMP)
CFNAM_END_HOLIDAY	CHARACTER(LEN=28)	‘ ‘
CFTYP_END_HOLIDAY	CHARACTER(LEN=6)	‘ ‘

NAM_DATA_BEM content
Fortran name	Fortran type	Default value
Name	TYPE	Default
XUNIF_MOD_HOLIDAY	REAL	1.0
CFNAM_MOD_HOLIDAY	CHARACTER(LEN=28)	‘ ‘
CFTYP_MOD_HOLIDAY	CHARACTER(LEN=6)	‘ ‘

XUNIF_TCOOL_OCCD	REAL(NBEMCOMP)	300.16
CFNAM_TCOOL_OCCD	CHARACTER(LEN=28)	‘ ‘
CFTYP_TCOOL_OCCD	CHARACTER(LEN=6)	‘ ‘

XUNIF_TCOOL_OCCN	REAL(NBEMCOMP)	300.16
CFNAM_TCOOL_OCCN	CHARACTER(LEN=28)	‘ ‘
CFTYP_TCOOL_OCCN	CHARACTER(LEN=6)	‘ ‘

XUNIF_TCOOL_VCDD	REAL(NBEMCOMP)	300.16
CFNAM_TCOOL_VCDD	CHARACTER(LEN=28)	‘ ‘
CFTYP_TCOOL_VCDD	CHARACTER(LEN=6)	‘ ‘

XUNIF_TCOOL_VCDN	REAL(NBEMCOMP)	300.16
CFNAM_TCOOL_VCDN	CHARACTER(LEN=28)	‘ ‘
CFTYP_TCOOL_VCDN	CHARACTER(LEN=6)	‘ ‘

XUNIF_TCOOL_VCLD	REAL(NBEMCOMP)	300.16
CFNAM_TCOOL_VCLD	CHARACTER(LEN=28)	‘ ‘
CFTYP_TCOOL_VCLD	CHARACTER(LEN=6)	‘ ‘

XUNIF_THEAT_OCCD	REAL(NBEMCOMP)	293.16
CFNAM_THEAT_OCCD	CHARACTER(LEN=28)	‘ ‘
CFTYP_THEAT_OCCD	CHARACTER(LEN=6)	‘ ‘

XUNIF_THEAT_OCCN	REAL(NBEMCOMP)	293.16
CFNAM_THEAT_OCCN	CHARACTER(LEN=28)	‘ ‘
CFTYP_THEAT_OCCN	CHARACTER(LEN=6)	‘ ‘

XUNIF_THEAT_VCDD	REAL(NBEMCOMP)	293.16
CFNAM_THEAT_VCDD	CHARACTER(LEN=28)	‘ ‘
CFTYP_THEAT_VCDD	CHARACTER(LEN=6)	‘ ‘

XUNIF_THEAT_VCDN	REAL(NBEMCOMP)	293.16
CFNAM_THEAT_VCDN	CHARACTER(LEN=28)	‘ ‘
CFTYP_THEAT_VCDN	CHARACTER(LEN=6)	‘ ‘

XUNIF_THEAT_VCLD	REAL(NBEMCOMP)	293.16
CFNAM_THEAT_VCLD	CHARACTER(LEN=28)	‘ ‘
CFTYP_THEAT_VCLD	CHARACTER(LEN=6)	‘ ‘

XUNIF_FRAC_HEAT_ELEC	REAL(NBEMCOMP)	0.5
CFNAM_FRAC_HEAT_ELEC	CHARACTER(LEN=28)	‘ ‘
CFTYP_FRAC_HEAT_ELEC	CHARACTER(LEN=6)	‘ ‘

XUNIF_FRAC_HEAT_GAS	REAL(NBEMCOMP)	0.25
CFNAM_FRAC_HEAT_GAS	CHARACTER(LEN=28)	‘ ‘
CFTYP_FRAC_HEAT_GAS	CHARACTER(LEN=6)	‘ ‘

XUNIF_FRAC_HEAT_FUEL	REAL(NBEMCOMP)	0.25
CFNAM_FRAC_HEAT_FUEL	CHARACTER(LEN=28)	‘ ‘
CFTYP_FRAC_HEAT_FUEL	CHARACTER(LEN=6)	‘ ‘

NAM_DATA_BEM content
Fortran name	Fortran type	Default value
Name	TYPE	Default
XUNIF_FRAC_HEAT_OTHER	REAL(NBEMCOMP)	0.0
CFNAM_FRAC_HEAT_OTHER	CHARACTER(LEN=28)	‘ ‘
CFTYP_FRAC_HEAT_OTHER	CHARACTER(LEN=6)	‘ ‘

XUNIF_HOTWAT	REAL(NBEMCOMP)	0.0
CFNAM_HOTWAT	CHARACTER(LEN=28)	‘ ‘
CFTYP_HOTWAT	CHARACTER(LEN=6)	‘ ‘

XUNIF_F_HW_GAS	REAL	0.0
CFNAM_F_HW_GAS	CHARACTER(LEN=28)	‘ ‘
CFTYP_F_HW_GAS	CHARACTER(LEN=6)	‘ ‘

NPAR_FLOOR_LAYER : number of layers in roofs
NPAR_MASS_LAYER : number of layers for the internal mass in input data. This does NOT refer to the computational grid. The mass properties are interpolated from the input grid to the computational grid.
XPAR_CF_CO2_ELEC : Emission factor CO$_{2}$/electricity (KgCO$_{2}$.J$^{-1}$)
XPAR_CF_CO2_GAS : Emission factor CO$_{2}$/gas (KgCO$_{2}$.J$^{-1}$)
XPAR_CF_CO2_FUEL : Emission factor CO$_{2}$/fuel (KgCO$_{2}$.J$^{-1}$)
XPAR_CF_CO2_OTHER : Emission factor CO$_{2}$/other sources. The defaults emission factor assumes wood. (KgCO$_{2}$.J$^{-1}$)
XUNIF_HC_FLOOR / CFNAM_HC_FLOOR / CFTYP_HC_FLOOR : heat capacity of floor layers (J m$^{-3}$ K$^{-1}$)
XUNIF_TC_FLOOR / CFNAM_TC_FLOOR / CFTYP_TC_FLOOR : thermal conductivity of floor layers (W m$^{-1}$ K$^{-1}$)
XUNIF_D_FLOOR / CFNAM_D_FLOOR / CFTYP_D_FLOOR : thickness of floor layers (m)
XUNIF_HC_MASS / CFNAM_HC_MASS / CFTYP_HC_MASS : heat capacity of up to 9 mass layers (J/K/m$^{3}$)
XUNIF_TC_MASS / CFNAM_TC_MASS / CFTYP_TC_MASS : thermal conductivity of up to 9 mass layers (W/m/K)
XUNIF_D_MASS / CFNAM_D_MASS / CFTYP_D_MASS : depth of up to 9 mass layers (m)
XUNIF_FLOOR_HEIGHT / CFNAM_FLOOR_HEIGHT / CFTYP_FLOOR_HEIGHT : building floor height (m)
XUNIF_F_WASTE_CAN / CFNAM_F_WASTE_CAN / CFTYP_F_WASTE_CAN : fraction of waste heat into the canyon
XUNIF_F_WATER_COND / CFNAM_F_WATER_COND / CFTYP_F_WATER_COND : fraction of evaporation for condensers
XUNIF_DCS_AREA / CFNAM_DCS_AREA / CFTYP_DCS_AREA : presence of district cooling system
XUNIF_HR_TARGET / CFNAM_HR_TARGET / CFTYP_HR_TARGET : relative humidity setpoint
XUNIF_QIN / CFNAM_QIN / CFTYP_QIN : internal heat release (W m$^{-2}$). This value can be specified for up to 9 tiles of use/behaviour.
XUNIF_QIN_FRAD / CFNAM_QIN_FRAD / CFTYP_QIN_FRAD : radiant fraction of internal heat gains
XUNIF_QIN_FLAT / CFNAM_QIN_FLAT / CFTYP_QIN_FLAT : latent fraction of internal heat gains
XUNIF_MODQIN_VCD / CFNAM_MODQIN_VCD / CFTYP_MODQIN_VCD : Modulation factor for internal heat release when the building is vacant for short duration. This value can be specified for up to 9 tiles of use/behaviour (NBEMCOMP)
XUNIF_MODQIN_VLD / CFNAM_MODQIN_VLD / CFTYP_MODQIN_VLD : Modulation factor for internal heat release when the building is vacant for long duration (e.g. holidays). Can be specified for up to 9 tiles of use/behaviour (NBEMCOMP)
XUNIF_MODQIN_NIG / CFNAM_MODQIN_NIG / CFTYP_MODQIN_NIG : Modulation factor for internal heat release during the night. This value can be specified for up to 9 tiles of use/behaviour (NBEMCOMP)
XUNIF_SHGC / CFNAM_SHGC / CFTYP_SHGC : solar transmitance of windows (1)
XUNIF_U_WIN / CFNAM_U_WIN / CFTYP_U_WIN : U-Value of window (W.m$^{-2}$.K$^{-1}$)
XUNIF_GR / CFNAM_GR / CFTYP_GR : glazing ratio (1)
XUNIF_SHGC_SH / CFNAM_SHGC_SH / CFTYP_SHGC_SH : solar transmitance of windows + shading
XUNIF_N50 / CFNAM_N50 / CFTYP_N50 : Airtightness of the building (vol/h at 5O Pa)
XUNIF_CAP_SYS_HEAT / CFNAM_CAP_SYS_HEAT / CFTYP_CAP_SYS_HEAT : capacity of the heating system (W.m$^{-2}$)
XUNIF_CAP_SYS_RAT / CFNAM_CAP_SYS_RAT / CFTYP_CAP_SYS_RAT : rated capacity of the cooling system (W.m$^{-2}$)
XUNIF_T_ADP / CFNAM_T_ADP / CFTYP_T_ADP : Apparatus dewpoint temperature of the cooling coil (K)
XUNIF_M_SYS_RAT / CFNAM_M_SYS_RAT / CFTYP_M_SYS_RAT : rated HVAC mass flow rate (kg.s$^{-1}$.m$^{-2}$)
XUNIF_COP_RAT / CFNAM_COP_RAT / CFTYP_COP_RAT : rated COP of the cooling system (1)
XUNIF_COP_DCS / CFNAM_COP_DCS / CFTYP_COP_DCS : rated COP of the district cooling system (1)
XUNIF_T_SIZE_MAX / CFNAM_T_SIZE_MAX / CFTYP_T_SIZE_MAX : Temperature for capacity of the cooling system (K)
XUNIF_T_SIZE_MIN / CFNAM_T_SIZE_MIN / CFTYP_T_SIZE_MIN : Temperature for capacity of the heating system (K)
XUNIF_ISMECH / CFNAM_ISMECH / CFTYP_ISMECH : control variable for presence of mechanical ventilation (0=no mechanical ventilation / 1=mechanical ventilation)
XUNIF_MECHRATE / CFNAM_MECHRATE / CFTYP_MECHRATE : air exchange due to mechanical ventilation (vol/h). Replace old key XUNIF_V_VENT. 0=
XUNIF_SHADEARCHI / CFNAM_SHADEARCHI / CFTYP_SHADEARCHI : presence of shading devices. 0=no / 1=adjustable / 2=permanent
XUNIF_NATVENT / CFNAM_NATVENT / CFTYP_NATVENT : Control variable for ventilation for up to 9 behaviours in building. 0=No ventilation / 1=Manual ventilation / 2=Automatic ventilation
XUNIF_FRACOMP / CFNAM_FRACOMP / CFTYP_FRACOMP : fractions of up to 9 tiles of building use/human behaviour. Sum of the fractions must equal 1.
XUNIF_RESIDENTIAL / CFNAM_RESIDENTIAL / CFTYP_RESIDENTIAL : residential fractions (only used for solar panel)
XUNIF_TDESV / CFNAM_TDESV / CFTYP_TDESV : Design temperature for ventilation. Indoor air temperature, people or automatic ventilation try to achieve by opening/closing of windows (K)
XUNIF_WIN_SW_MAX / CFNAM_WIN_SW_MAX / CFTYP_WIN_SW_MAX : threshold for shortwave radiation received by walls used for shading calculations (W/m$^{2}$)
XUNIF_FOPEN / CFNAM_FOPEN / CFTYP_FOPEN : maximum fraction of windows opened in case ventilation is made
XUNIF_FVSUM / CFNAM_FVSUM / CFTYP_FVSUM : fraction of households using natural ventilation when the building during summer (warm conditions). This value can be specified for up to 9 tiles of use/behaviour.
XUNIF_FVVAC / CFNAM_FVVAC / CFTYP_FVVAC : fraction of households using natural ventilation when the building is vacant. This value can be specified for up to 9 tiles of use/behaviour.
XUNIF_FVNIG / CFNAM_FVNIG / CFTYP_FVNIG : fraction of households using natural ventilation during the night. This value can be specified for up to 9 tiles of use/behaviour.
XUNIF_FSSUM / CFNAM_FSSUM / CFTYP_FSSUM : fraction of households closing shading elements during summer (warm conditions). This value can be specified for up to 9 tiles of use/behaviour.
XUNIF_FSVAC / CFNAM_FSVAC / CFTYP_FSVAC : fraction of households closing shading elements when the building is vacant. This value can be specified for up to 9 tiles of use/behaviour.
XUNIF_FSNIG / CFNAM_FSNIG / CFTYP_FSNIG : fraction of households closing shading elements duting the night. This value can be specified for up to 9 tiles of use/behaviour.
XUNIF_DAYWBEG_SCHED / CFNAM_DAYWBEG_SCHED / CFTYP_DAYWBEG_SCHED : day of the week for schedules on human behaviour. 1=Monday, 2=Tuesday, …, 7=Sunday. 3 periods can be specified (by default 1,6,7 = Monday to Friday, Saturday, Sunday) for up to 9 tiles of human behaviour.
XUNIF_HOURWBEG_SCHED / CFNAM_HOURWBEG_SCHED / \
XUNIF_PROBOCC / CFNAM_PROBOCC / CFTYP_PROBOCC : Probability that the building is occupied for the schedules defined by DAYWBEG_SCHED and HOURBEG_SCHED
XUNIF_BEG_HOLIDAY / CFNAM_BEG_HOLIDAY / CFTYP_BEG_HOLIDAY : Julian day of year of the beginning of holiday period. One holiday period can be specified for up to 9 tiles for human behaviour.
XUNIF_END_HOLIDAY / CFNAM_END_HOLIDAY / CFTYP_END_HOLIDAY : Julian day of year of the end of holiday period. One holiday period can be specified for up to 9 tiles for human behaviour.
XUNIF_MOD_HOLIDAY / CFNAM_MOD_HOLIDAY / CFTYP_MOD_HOLIDAY : Modulation factor for internal heat release during holiday period.
XUNIF_TCOOL_OCCD / CFNAM_TCOOL_OCCD / CFTYP_TCOOL_OCCD : Design temperature for air conditioning when the building is occupied during the day (K). This value can be specified for up to 9 tiles of use/behaviour.
XUNIF_TCOOL_OCCN / CFNAM_TCOOL_OCCN / CFTYP_TCOOL_OCCN : Design temperature for air conditioning when the building is occupied during the night (K). This value can be specified for up to 9 tiles of use/behaviour.
XUNIF_TCOOL_VCDD / CFNAM_TCOOL_VCDD / CFTYP_TCOOL_VCDD : Design temperature for air conditioning when the building is vacant during the day (K). This value can be specified for up to 9 tiles of use/behaviour.
XUNIF_TCOOL_VCDN / CFNAM_TCOOL_VCDN / CFTYP_TCOOL_VCDN : Design temperature for air conditioning when the building is vacant during the night (K). This value can be specified for up to 9 tiles of use/behaviour.
XUNIF_TCOOL_VCLD / CFNAM_TCOOL_VCLD / CFTYP_TCOOL_VCLD : Design temperature for air conditioning when the building is vacant for long duration (K). Example : holiday home. This value can be specified for up to 9 tiles of use/behaviour.
XUNIF_THEAT_OCCD / CFNAM_THEAT_OCCD / CFTYP_THEAT_OCCD : Design temperature for heating when the building is occupied during the day (K). This value can be specified for up to 9 tiles of use/behaviour.
XUNIF_THEAT_OCCN / CFNAM_THEAT_OCCN / CFTYP_THEAT_OCCN : Design temperature for heating when the building is occupied during the night (K). This value can be specified for up to 9 tiles of use/behaviour.
XUNIF_THEAT_VCDD / CFNAM_THEAT_VCDD / CFTYP_THEAT_VCDD : Design temperature for heating when the building is vacant During the Day (K). This value can be specified for up to 9 tiles of use/behaviour.
XUNIF_THEAT_VCDN / CFNAM_THEAT_VCDN / CFTYP_THEAT_VCDN : Design temperature for heating when the building is vacant During the Night (K). This value can be specified for up to 9 tiles of use/behaviour.
XUNIF_THEAT_VCLD / CFNAM_THEAT_VCLD / CFTYP_THEAT_VCLD : Design temperature for heating when the building is vacant for Long Duration (K). Example : holiday home. This value can be specified for up to 9 tiles of use/behaviour.
XUNIF_FRAC_HEAT_ELEC / CFNAM_FRAC_HEAT_ELEC / \
XUNIF_FRAC_HEAT_GAS / CFNAM_FRAC_HEAT_GAS / CFTYP_FRAC_HEAT_GAS : Fraction of households with gas as heating combustible
XUNIF_FRAC_HEAT_FUEL / CFNAM_FRAC_HEAT_FUEL / \
XUNIF_FRAC_HEAT_OTHER / CFNAM_FRAC_HEAT_OTHER / \
XUNIF_HOTWAT / CFNAM_HOTWAT / CFTYP_HOTWAT : Energy consumption for domestic warm water (W/m$^{2}$)
XUNIF_F_HW_GAS / CFNAM_F_HW_GAS / CFTYP_F_HW_GAS : Fraction of domestic warm water heated with gas

NAM_DATA_ISBA

NAM_DATA_ISBA content
Fortran name	Fortran type	Default value
Name	TYPE	Default
XUNIF_VEGTYPE	REAL	none
CFNAM_VEGTYPE	CHARACTER(LEN=28)
CFTYP_VEGTYPE	CHARACTER(LEN=6)	none

XUNIF_RSMIN	REAL	none
CFNAM_RSMIN	CHARACTER(LEN=28)	‘ ‘
CFTYP_RSMIN	CHARACTER(LEN=6)	none

XUNIF_GAMMA	REAL	none
CFNAM_GAMMA	CHARACTER(LEN=28)	‘ ‘
CFTYP_GAMMA	CHARACTER(LEN=6)	none

NAM_DATA_ISBA content
Fortran name	Fortran type	Default value
XUNIF_WRMAX_CF	REAL	none
CFNAM_WRMAX_CF	CHARACTER(LEN=28)	‘ ‘
CFTYP_WRMAX_CF	CHARACTER(LEN=6)	none

XUNIF_RGL	REAL	none
CFNAM_RGL	CHARACTER(LEN=28)	‘ ‘
CFTYP_RGL	CHARACTER(LEN=6)	none

XUNIF_CV	REAL	none
CFNAM_CV	CHARACTER(LEN=28)	‘ ‘
CFTYP_CV	CHARACTER(LEN=6)	none

XUNIF_Z0_O_Z0H	REAL	none
CFNAM_Z0_O_Z0H	CHARACTER(LEN=28)	‘ ‘
CFTYP_Z0_O_Z0H	CHARACTER(LEN=6)	none

XUNIF_SEED_M	REAL	none
CFNAM_SEED_M	CHARACTER(LEN=28)
CFTYP_SEED_M	CHARACTER(LEN=6)	none

XUNIF_SEED_D	REAL	none
CFNAM_SEED_D	CHARACTER(LEN=28)
CFTYP_SEED_D	CHARACTER(LEN=6)	none

XUNIF_REAP_M	REAL	none
CFNAM_REAP_M	CHARACTER(LEN=28)
CFTYP_REAP_M	CHARACTER(LEN=6)	none

XUNIF_REAP_D	REAL	none
CFNAM_REAP_D	CHARACTER(LEN=28)
CFTYP_REAP_D	CHARACTER(LEN=6)	none

XUNIF_SEED_S2_M	REAL	none
CFNAM_SEED_S2_M	CHARACTER(LEN=28)
CFTYP_SEED_S2_M	CHARACTER(LEN=6)	none

XUNIF_SEED_S2_D	REAL	none
CFNAM_SEED_S2_D	CHARACTER(LEN=28)
CFTYP_SEED_S2_D	CHARACTER(LEN=6)	none

XUNIF_REAP_S2_M	REAL	none
CFNAM_REAP_S2_M	CHARACTER(LEN=28)
CFTYP_REAP_S2_M	CHARACTER(LEN=6)	none

XUNIF_REAP_S2_D	REAL	none
CFNAM_REAP_S2_D	CHARACTER(LEN=28)
CFTYP_REAP_S2_D	CHARACTER(LEN=6)	none

XUNIF_SEED_S3_M	REAL	none
CFNAM_SEED_S3_M	CHARACTER(LEN=28)
CFTYP_SEED_S3_M	CHARACTER(LEN=6)	none

XUNIF_SEED_S3_D	REAL	none
CFNAM_SEED_S3_D	CHARACTER(LEN=28)
CFTYP_SEED_S3_D	CHARACTER(LEN=6)	none

NAM_DATA_ISBA content
Fortran name	Fortran type	Default value
XUNIF_REAP_S3_M	REAL	none
CFNAM_REAP_S3_M	CHARACTER(LEN=28)
CFTYP_REAP_S3_M	CHARACTER(LEN=6)	none

XUNIF_REAP_S3_D	REAL	none
CFNAM_REAP_S3_D	CHARACTER(LEN=28)
CFTYP_REAP_S3_D	CHARACTER(LEN=6)	none

XUNIF_IRRIGTYPE	REAL	none
CFNAM_IRRIGTYPE	CHARACTER(LEN=28)
CFTYP_IRRIGTYPE	CHARACTER(LEN=6)	none

XUNIF_IRRIGFRAC	REAL	none
CFNAM_IRRIGFRAC	CHARACTER(LEN=28)
CFTYP_IRRIGFRAC	CHARACTER(LEN=6)	none

XUNIF_IRRIGFREQ	REAL	none
CFNAM_IRRIGFREQ	CHARACTER(LEN=28)
CFTYP_IRRIGFREQ	CHARACTER(LEN=6)	none

XUNIF_IRRIGTIME	REAL	none
CFNAM_IRRIGTIME	CHARACTER(LEN=28)
CFTYP_IRRIGTIME	CHARACTER(LEN=6)	none

NAM_DATA_ISBA content
Fortran name	Fortran type	Default value
Name	TYPE	Default
NTIME	INTEGER	36
Name	TYPE	Default
XUNIF_VEG	REAL	none
CFNAM_VEG	CHARACTER(LEN=28)
CFTYP_VEG	CHARACTER(LEN=6)	none

XUNIF_LAI	REAL	none
CFNAM_LAI	CHARACTER(LEN=28)
CFTYP_LAI	CHARACTER(LEN=6)	none

XUNIF_Z0	REAL	none
CFNAM_Z0	CHARACTER(LEN=28)
CFTYP_Z0	CHARACTER(LEN=6)	none

XUNIF_EMIS	REAL	none
CFNAM_EMIS	CHARACTER(LEN=28)
CFTYP_EMIS	CHARACTER(LEN=6)	none

XUNIF_ALBNIR_VEG	REAL	none
CFNAM_ALBNIR_VEG	CHARACTER(LEN=28)
CFTYP_ALBNIR_VEG	CHARACTER(LEN=6)	none

XUNIF_ALBVIS_VEG	REAL	none
CFNAM_ALBVIS_VEG	CHARACTER(LEN=28)
CFTYP_ALBVIS_VEG	CHARACTER(LEN=6)	none

NAM_DATA_ISBA content
Fortran name	Fortran type	Default value
XUNIF_ALBUV_VEG	REAL	none
CFNAM_ALBUV_VEG	CHARACTER(LEN=28)
CFTYP_ALBUV_VEG	CHARACTER(LEN=6)	none

XUNIF_ALBNIR_SOIL	REAL	none
CFNAM_ALBNIR_SOIL	CHARACTER(LEN=28)
CFTYP_ALBNIR_SOIL	CHARACTER(LEN=6)	none

XUNIF_ALBVIS_SOIL	REAL	none
CFNAM_ALBVIS_SOIL	CHARACTER(LEN=28)
CFTYP_ALBVIS_SOIL	CHARACTER(LEN=6)	none

XUNIF_ALBUV_SOIL	REAL	none
CFNAM_ALBUV_SOIL	CHARACTER(LEN=28)
CFTYP_ALBUV_SOIL	CHARACTER(LEN=6)	none

XUNIF_IRRIG	REAL	none
CFNAM_IRRIG	CHARACTER(LEN=28)
CFTYP_IRRIG	CHARACTER(LEN=6)	none

XUNIF_GNDLITTER	REAL
XUNIF_Z0LITTER	REAL
XUNIF_WATSUP	REAL	none
CFNAM_WATSUP	CHARACTER(LEN=28)
CFTYP_WATSUP	CHARACTER(LEN=6)	none

XUNIF_F2THRESHOLD	REAL	none
CFNAM_F2THRESHOLD	CHARACTER(LEN=28)
CFTYP_F2THRESHOLD	CHARACTER(LEN=6)	none

NAM_DATA_ISBA content
Fortran name	Fortran type	Default value
Name	TYPE	Default
XUNIF_DG	REAL	none
CFNAM_DG	CHARACTER(LEN=28)
CFTYP_DG	CHARACTER(LEN=6)	none

XUNIF_ROOTFRAC	REAL	none
CFNAM_ROOTFRAC	CHARACTER(LEN=28)
CFTYP_ROOTFRAC	CHARACTER(LEN=6)	none

XUNIF_ROOT_DEPTH	REAL	none
CFNAM_ROOT_DEPTH	CHARACTER(LEN=28)
CFTYP_ROOT_DEPTH	CHARACTER(LEN=6)	none

XUNIF_GROUND_DEPTH	REAL	none
CFNAM_GROUND_DEPTH	CHARACTER(LEN=28)
CFTYP_GROUND_DEPTH	CHARACTER(LEN=6)	none

XUNIF_ROOT_EXTINCTION	REAL	none
CFNAM_ROOT_EXTINCTION	CHARACTER(LEN=28)
CFTYP_ROOT_EXTINCTION	CHARACTER(LEN=6)	none

XUNIF_ROOT_LIN	REAL	none
CFNAM_ROOT_LIN	CHARACTER(LEN=28)
CFTYP_ROOT_LIN	CHARACTER(LEN=6)	none

NAM_DATA_ISBA content
Fortran name	Fortran type	Default value
Name	TYPE	Default
LUNIF_STRESS	LOGICAL	T
XUNIF_GMES	REAL	none
CFNAM_GMES	CHARACTER(LEN=28)
CFTYP_GMES	CHARACTER(LEN=6)	none

XUNIF_BSLAI	REAL	none
CFNAM_BSLAI	CHARACTER(LEN=28)
CFTYP_BSLAI	CHARACTER(LEN=6)	none

XUNIF_LAIMIN	REAL	none
CFNAM_LAIMIN	CHARACTER(LEN=28)
CFTYP_LAIMIN	CHARACTER(LEN=6)	none

XUNIF_SEFOLD	REAL	none
CFNAM_SEFOLD	CHARACTER(LEN=28)
CFTYP_SEFOLD	CHARACTER(LEN=6)	none

XUNIF_GC	REAL	none
CFNAM_GC	CHARACTER(LEN=28)
CFTYP_GC	CHARACTER(LEN=6)	none

XUNIF_DMAX	REAL	none
CFNAM_DMAX	CHARACTER(LEN=28)
CFTYP_DMAX	CHARACTER(LEN=6)	none

XUNIF_F2I	REAL	none
CFNAM_F2I	CHARACTER(LEN=28)
CFTYP_F2I	CHARACTER(LEN=6)	none

XUNIF_H_TREE	REAL	none
CFNAM_H_TREE	CHARACTER(LEN=28)
CFTYP_H_TREE	CHARACTER(LEN=6)	none

XUNIF_RE25	REAL	none
CFNAM_RE25	CHARACTER(LEN=28)
CFTYP_RE25	CHARACTER(LEN=6)	none

XUNIF_CE_NITRO	REAL	none
CFNAM_CE_NITRO	CHARACTER(LEN=28)
CFTYP_CE_NITRO	CHARACTER(LEN=6)	none

XUNIF_CF_NITRO	REAL	none
CFNAM_CF_NITRO	CHARACTER(LEN=28)
CFTYP_CF_NITRO	CHARACTER(LEN=6)	none

XUNIF_CNA_NITRO	REAL	none
CFNAM_CNA_NITRO	CHARACTER(LEN=28)
CFTYP_CNA_NITRO	CHARACTER(LEN=6)	none

NAM_DATA_ISBA content
Fortran name	Fortran type	Default value
Name	TYPE	Default
XUNIF_CONDSAT	REAL	none
CFNAM_CONDSAT	CHARACTER(LEN=28)
CFTYP_CONDSAT	CHARACTER(LEN=6)	none

XUNIF_MPOTSAT	REAL	none
CFNAM_MPOTSAT	CHARACTER(LEN=28)
CFTYP_MPOTSAT	CHARACTER(LEN=6)	none

XUNIF_BCOEF	REAL	none
CFNAM_BCOEF	CHARACTER(LEN=28)
CFTYP_BCOEF	CHARACTER(LEN=6)	none

XUNIF_WSAT	REAL	none
CFNAM_WSAT	CHARACTER(LEN=28)
CFTYP_WSAT	CHARACTER(LEN=6)	none

XUNIF_WFC	REAL	none
CFNAM_WFC	CHARACTER(LEN=28)
CFTYP_WFC	CHARACTER(LEN=6)	none

XUNIF_WWILT	REAL	none
CFNAM_WWILT	CHARACTER(LEN=28)
CFTYP_WWILT	CHARACTER(LEN=6)	none

NAM_DATA_ISBA content
Fortran name	Fortran type	Default value
Name	TYPE	Default
XUNIF_XUNIF_IRRIGTYPE_C	REAL	0 for non irrigated vegtype
		1 (sprinkler) for irrigated vegtypes
XUNIF_XUNIF_IRRIGFRAC_C	REAL	0.05
XUNIF_XUNIF_IRRIGFREQ_C	REAL
XUNIF_IRRIGTIME_C	REAL	28800
XUNIF_WATSUP_C	REAL	30
XUNIF_F2THRESHOLD_C	REAL
XUNIF_SEED_M_C	REAL	3
XUNIF_SEED_D_C	REAL	15
XUNIF_REAP_M_C	REAL	8
XUNIF_REAP_D_C	REAL	31
XUNIF_SEED_S2_M_C	REAL
XUNIF_SEED_S2_D_C	REAL
XUNIF_REAP_S2_M_C	REAL
XUNIF_REAP_S2_D_C	REAL
XUNIF_SEED_S3_M_C	REAL
XUNIF_SEED_S3_D_C	REAL
XUNIF_REAP_S3_M_C	REAL
XUNIF_REAP_S3_D_C	REAL
XUNIF_SEED_D_DELTA	REAL	0
XUNIF_REAP_D_DELTA	REAL	0
XUNIF_SEED_S2_D_DELTA	REAL	0
XUNIF_REAP_S2_D_DELTA	REAL	0
XUNIF_SEED_S3_D_DELTA	REAL	0
Name	TYPE	Default
NUNIF_VEG_IRR_USE	INTEGER	(/5,7,12,16,17,18/)
XUNIF_IRRIGFREQ_CTYPE	INTEGER	(/604800,0,604800/)
Name	TYPE	Default
XUNIF_WATSUP_CTIME	INTEGER
XUNIF_F2THRESHOLD_CTIME	INTEGER

XUNIF_VEGTYPE / CFNAM_VEGTYPE / CFTYP_VEGTYPE : fractions of each vegetation types
XUNIF_RSMIN / CFNAM_RSMIN / CFTYP_RSMIN : minimal stomatal resistance (s/m)
XUNIF_GAMMA / CFNAM_GAMMA / CFTYP_GAMMA : coefficient used in the computation of RSMIN (-)
XUNIF_WRMAX_CF / CFNAM_WRMAX_CF / CFTYP_WRMAX_CF : coefficient for maximum interception water storage capacity (-)
XUNIF_RGL / CFNAM_RGL / CFTYP_RGL : maximum solar radiation available for photosynthesis (W/m$^{2}$)
XUNIF_CV / CFNAM_CV / CFTYP_CV : vegetation thermal inertia coefficient (K m$^{2}$/J)
XUNIF_Z0_O_Z0H / CFNAM_Z0_O_Z0H / CFTYP_Z0_O_Z0H : ratio of surface roughness lengths (-)
XUNIF_SEED_M / CFNAM_SEED_M / CFTYP_SEED_M : month of seeding
XUNIF_SEED_D / CFNAM_SEED_D / CFTYP_SEED_D : day of seeding
XUNIF_REAP_M / CFNAM_REAP_M / CFTYP_REAP_M : month of reaping
XUNIF_REAP_D / CFNAM_REAP_D / CFTYP_REAP_D : day of reaping
XUNIF_SEED_S2_M / CFNAM_SEED_S2_M / CFTYP_SEED_S2_M : month for a second season of seeding
XUNIF_SEED_S2_D / CFNAM_SEED_S2_D / CFTYP_SEED_S2_D : day for a second season of seeding
XUNIF_REAP_S2_M / CFNAM_REAP_S2_M / CFTYP_REAP_S2_M : month for a second season of reaping
XUNIF_REAP_S2_D / CFNAM_REAP_S2_D / CFTYP_REAP_S2_D : day for a second season of reaping
XUNIF_SEED_S3_M / CFNAM_SEED_S3_M / CFTYP_SEED_S3_M : month for a third season of seeding
XUNIF_SEED_S3_D / CFNAM_SEED_S3_D / CFTYP_SEED_S3_D : day for a third season of seeding
XUNIF_REAP_S3_M / CFNAM_REAP_S3_M / CFTYP_REAP_S3_M : month for a third season of reaping
XUNIF_REAP_S3_D / CFNAM_REAP_S3_D / CFTYP_REAP_S3_D : day for a third season of reaping
XUNIF_IRRIGTYPE / CFNAM_IRRIGTYPE / CFTYP_IRRIGTYPE : irrigation type when LIRRIGMODE or LECOSG are activated. 0 for none, 1 for sprinkling, 2 for dripping and 3 for flooding. By default an irrigated vegetation type is 1 (sprinkler) and the others 0.
XUNIF_IRRIGFRAC / CFNAM_IRRIGFRAC / CFTYP_IRRIGFRAC : if LECOSG and LIRRIGMODE are activated, this key indicates the irrigation fraction [0-1] for each vegetation type (but only the vegetation types indicated in NUNIF_VEG_IRR_USE will be irrigated).
XUNIF_IRRIGFREQ / CFNAM_IRRIGFREQ / CFTYP_IRRIGFREQ : if LIRRIGMODE, keys to indicate the minimum time (in s) between two irrigation triggers. By default it is defined with XUNIF_IRRIGFREQ_CTYPE: values for the 3 types of irrigation, respectively sprinkling, dripping and flooding.
XUNIF_IRRIGTIME / CFNAM_IRRIGTIME / CFTYP_IRRIGTIME : if LIRRIGMODE, keys to indicate the duration of irrigation (in s).
NTIME : time dimension for ISBA parameters. 1=a single value for the whole year / 2=two values from January to June, and from July to December / 12=monthly parameters / 36=parameters updated each 10 days
XUNIF_VEG / CFNAM_VEG / CFTYP_VEG : fraction of vegetation for each vegetation types (-)
XUNIF_LAI / CFNAM_LAI / CFTYP_LAI : leaf area index (m$^{2}$/m$^{2}$)
XUNIF_Z0 / CFNAM_Z0 / CFTYP_Z0 : roughness length (m)
XUNIF_EMIS / CFNAM_EMIS / CFTYP_EMIS : emissivity (-)
XUNIF_ALBNIR_VEG / CFNAM_ALBNIR_VEG / CFTYP_ALBNIR_VEG : vegetation near-infra-red albedo (-)
XUNIF_ALBVIS_VEG / CFNAM_ALBVIS_VEG / CFTYP_ALBVIS_VEG : vegetation visible albedo (-)
XUNIF_ALBUV_VEG / CFNAM_ALBUV_VEG / CFTYP_ALBUV_VEG : vegetation UV albedo(-)
XUNIF_ALBNIR_SOIL / CFNAM_ALBNIR_SOIL / CFTYP_ALBNIR_SOIL : soil near-infra-red albedo (-)
XUNIF_ALBVIS_SOIL / CFNAM_ALBVIS_SOIL / CFTYP_ALBVIS_SOIL : soil visible albedo (-)
XUNIF_ALBUV_SOIL / CFNAM_ALBUV_SOIL / CFTYP_ALBUV_SOIL : soil UV albedo (-)
XUNIF_IRRIG / CFNAM_IRRIG / CFTYP_IRRIG : flag for irrigation
XUNIF_GNDLITTER : litter layer thickness (m)
XUNIF_Z0LITTER : sub-forest canopy litter layer roughness (m)
XUNIF_WATSUP / CFNAM_WATSUP / CFTYP_WATSUP : water supply during irrigation process (mm)
XUNIF_F2THRESHOLD / CFNAM_F2THRESHOLD / CFTYP_F2THRESHOLD : if LIRRIGMODE, keys to indicate the threshold [0-1] for irrigation triggering. By default the value given by XTHRESHOLD in the namelist NAM_AGRI is used, but the value can be overwritten here.
XUNIF_DG / CFNAM_DG / CFTYP_DG : soil layer thickness (m)
XUNIF_ROOTFRAC / CFNAM_ROOTFRAC / CFTYP_ROOTFRAC : root fraction (-)
XUNIF_ROOT_DEPTH / CFNAM_ROOT_DEPTH / CFTYP_ROOT_DEPTH : root depth (-)
XUNIF_GROUND_DEPTH / CFNAM_GROUND_DEPTH / CFTYP_GROUND_DEPTH : ground depth for hydrology (-)
XUNIF_ROOT_EXTINCTION / CFNAM_ROOT_EXTINCTION / CFTYP_ROOT_EXTINCTION : root extinction percentage(-)
XUNIF_ROOT_LIN / CFNAM_ROOT_LIN / CFTYP_ROOT_LIN : root linear parameter (-)
XUNIF_GMES / CFNAM_GMES / CFTYP_GMES : mesophyll conductance (m/s$^{-1}$)
XUNIF_BSLAI / CFNAM_BSLAI / CFTYP_BSLAI : ratio d(biomass)/d(lai) (kg/m$^{2}$)
XUNIF_LAIMIN / CFNAM_LAIMIN / CFTYP_LAIMIN : minimum LAI (m$^{2}$/m$^{2}$)
XUNIF_SEFOLD / CFNAM_SEFOLD / CFTYP_SEFOLD : e-folding time for senescence (s)
XUNIF_GC / CFNAM_GC / CFTYP_GC : cuticular conductance (m/s)
XUNIF_DMAX / CFNAM_DMAX / CFTYP_DMAX : maximum air saturation deficit (kg/kg)
XUNIF_F2I / CFNAM_F2I / CFTYP_F2I : critical normilized soil water content for stress parameterization (-)
XUNIF_H_TREE / CFNAM_H_TREE / CFTYP_H_TREE : height of trees (m)
XUNIF_RE25 / CFNAM_RE25 / CFTYP_RE25 : Ecosystem respiration parameter (kg/kgms$^{-1}$)
XUNIF_CE_NITRO / CFNAM_CE_NITRO / CFTYP_CE_NITRO : leaf aera ratio sensivity to [nitrogen] (m$^{2}$/kg)
XUNIF_CF_NITRO / CFNAM_CF_NITRO / CFTYP_CF_NITRO : lethal minimum value of leaf area ratio (m$^{2}$/kg)
XUNIF_CNA_NITRO / CFNAM_CNA_NITRO / CFTYP_CNA_NITRO : nitrogen concentration of active biomass (kg/kg)
LUNIF_STRESS : stress type
XUNIF_CONDSAT / CFNAM_CONDSAT / CFTYP_CONDSAT : hydraulic conductivity at saturation (m/s)
XUNIF_MPOTSAT / CFNAM_MPOTSAT / CFTYP_MPOTSAT : matric potential at saturation (m)
XUNIF_BCOEF / CFNAM_BCOEF / CFTYP_BCOEF : soil water CH78 b-parameter (-)
XUNIF_WSAT / CFNAM_WSAT / CFTYP_WSAT : porosity profile (m$^{3}$/m$^{3}$)
XUNIF_WFC / CFNAM_WFC / CFTYP_WFC : field capacity volumetric water content profile (m$^{3}$/m$^{3}$)
XUNIF_WWILT / CFNAM_WWILT / CFTYP_WWILT : wilting point volumetric water content profile (m/s)
NUNIF_VEG_IRR_USE : if LAGRIP or/and LIRRIGMODE are activated, corresponds to the number of vegetation types irrigated or/and with agricultural practices. By default if LECOCLIMAP-SG and LIRRIGMODE (with or without LAGRIP), it is (/5,7,12,16,17,18/) (temperate broadleaf deciduous, temperate broadleaf evergreen, shrubs, C3 winter crops, C3 summer crops and C4 crops. And with ECOCLIMAP, it is (/9/), the value of the NVT_IRR vegetation type.
XUNIF_IRRIGFREQ_CTYPE : values for the 3 types of irrigation respectively sprinkling dripping and flooding (s).
XUNIF_WATSUP_CTIME : water supply during irrigation process (mm)
XUNIF_F2THRESHOLD_CTIME : threshold for irrigation triggering
XUNIF_IRRIGTYPE_C : Type of irrigation (constant value for all irrigated type of vegetation). 0 for none, 1 for sprinkling, 2 for dripping and 3 for flooding.
XUNIF_IRRIGFRAC_C : Irrigation fraction (constant value for all irrigated type of vegetation).
XUNIF_IRRIGFREQ_C : minimum time between two irrigation triggers in s (constant value for all irrigated type of vegetation).
XUNIF_IRRIGTIME_C : duration of irrigation in s (constant value for all irrigated type of vegetation).
XUNIF_WATSUP_C : water supply during irrigation process in mm (constant value for all irrigated type of vegetation).
XUNIF_F2THRESHOLD_C : threshold for irrigation triggering (constant value for all irrigated type of vegetation).
XUNIF_SEED_M_C : seeding month and/or month of the beginning of irrigation (constant value for all irrigated type of vegetation)
XUNIF_SEED_D_C : seeding day and/or day of the beginning of irrigation (constant value for all irrigated type of vegetation)
XUNIF_REAP_M_C : reaping month and/or month corresponding 2 weeks after the end of irrigation (constant value for all irrigated type of vegetation)
XUNIF_REAP_D_C : reaping day and/or day corresponding 2 weeks after the end of irrigation (constant value for all irrigated type of vegetation)
XUNIF_SEED_S2_M_C : idem for a second season
XUNIF_SEED_S2_D_C : idem for a second season
XUNIF_REAP_S2_M_C : idem for a second season
XUNIF_REAP_S2_D_C : idem for a second season
XUNIF_SEED_S3_M_C : idem for a third season
XUNIF_SEED_S3_D_C : idem for a third season
XUNIF_REAP_S3_M_C : idem for a third season
XUNIF_REAP_S3_D_C : idem for a third season
XUNIF_SEED_D_DELTA : if date of irrigation are given with XUNIF the seeding date changes with a random value around the DELTA given here (in days)
XUNIF_REAP_D_DELTA : if date of irrigation are given with XUNIF the reaping date changes with a random value around the DELTA given here (in days)
XUNIF_SEED_S2_D_DELTA : idem for a second season (in days)
XUNIF_REAP_S2_D_DELTA : idem for a second season (in days)
XUNIF_SEED_S3_D_DELTA : idem for a third season (in days)
XUNIF_REAP_S3_D_DELTA : oden for a third season (in days)

NAM_DATA_TEB

NAM_DATA_TEB content
Fortran name	Fortran type	Default value
NPAR_ROOF_LAYER	INTEGER	0
NPAR_WALL_LAYER	INTEGER	0
CBLD_ATYPE	CHARACTER(LEN=3)	‘MAJ’
CCSVFILEARCHI	CHARACTER(LEN=28)	‘ ‘
CCSVFILECOMPO	CHARACTER(LEN=28)	‘ ‘
NUNIF_BLDTYPE	INTEGER	none
CFNAM_BLDTYPE	CHARACTER(LEN=28)	‘ ‘
CFTYP_BLDTYPE	CHARACTER(LEN=6)	none

NUNIF_IND_BLD_AGE	INTEGER	none
CFNAM_IND_BLD_AGE	CHARACTER(LEN=28)	‘ ‘
CFTYP_IND_BLD_AGE	CHARACTER(LEN=6)	none

NUNIF_COL_BLD_AGE	INTEGER	none
CFNAM_COL_BLD_AGE	CHARACTER(LEN=28)	‘ ‘
CFTYP_COL_BLD_AGE	CHARACTER(LEN=6)	none

NUNIF_USETYPE	INTEGER	none
CFNAM_USETYPE	CHARACTER(LEN=28)	‘ ‘
CFTYP_USETYPE	CHARACTER(LEN=6)	none

NUNIF_P1TERRITORY	INTEGER	none
CFNAM_P1TERRITORY	CHARACTER(LEN=28)	‘ ‘
CFTYP_P1TERRITORY	CHARACTER(LEN=6)	none

NUNIF_PXTERRITORY	INTEGER	none
CFNAM_PXTERRITORY	CHARACTER(LEN=28)	‘ ‘
CFTYP_PXTERRITORY	CHARACTER(LEN=6)	none

XUNIF_FRACIHS	REAL	1E+20
CFNAM_FRACIHS	CHARACTER(LEN=28)	‘ ‘
CFTYP_FRACIHS	CHARACTER(LEN=6)	none

XUNIF_FRACCHS	REAL	1E+20
CFNAM_FRACCHS	CHARACTER(LEN=28)	‘ ‘
CFTYP_FRACCHS	CHARACTER(LEN=6)	none

XUNIF_FRACCOM	REAL	1E+20
CFNAM_FRACCOM	CHARACTER(LEN=28)	‘ ‘
CFTYP_FRACCOM	CHARACTER(LEN=6)	none

XUNIF_FRACTER	REAL	1E+20
CFNAM_FRACTER	CHARACTER(LEN=28)	‘ ‘
CFTYP_FRACTER	CHARACTER(LEN=6)	none

NAM_DATA_TEB content
Fortran name	Fortran type	Default value
Name	TYPE	Default
XUNIF_FRACIND	REAL	1E+20
CFNAM_FRACIND	CHARACTER(LEN=28)	‘ ‘
CFTYP_FRACIND	CHARACTER(LEN=6)	none

XUNIF_FRACNHE	REAL	1E+20
CFNAM_FRACNHE	CHARACTER(LEN=28)	‘ ‘
CFTYP_FRACNHE	CHARACTER(LEN=6)	none

XUNIF_FRACPAV	REAL	1E+20
CFNAM_FRACPAV	CHARACTER(LEN=28)	‘ ‘
CFTYP_FRACPAV	CHARACTER(LEN=6)	none

XUNIF_FRACMRI	REAL	1E+20
CFNAM_FRACMRI	CHARACTER(LEN=28)	‘ ‘
CFTYP_FRACMRI	CHARACTER(LEN=6)	none

XUNIF_FRACHRI	REAL	1E+20
CFNAM_FRACHRI	CHARACTER(LEN=28)	‘ ‘
CFTYP_FRACHRI	CHARACTER(LEN=6)	none

XUNIF_FRACATB	REAL	1E+20
CFNAM_FRACATB	CHARACTER(LEN=28)	‘ ‘
CFTYP_FRACATB	CHARACTER(LEN=6)	none

XUNIF_FOEQI_MAIS	REAL	1E+20
CFNAM_FOEQI_MAIS	CHARACTER(LEN=28)	‘ ‘
CFTYP_FOEQI_MAIS	CHARACTER(LEN=6)	none

XUNIF_FOEQI_APPT	REAL	1E+20
CFNAM_FOEQI_APPT	CHARACTER(LEN=28)	‘ ‘
CFTYP_FOEQI_APPT	CHARACTER(LEN=6)	none

XUNIF_FAEQI_MAIS	REAL	1E+20
CFNAM_FAEQI_MAIS	CHARACTER(LEN=28)	‘ ‘
CFTYP_FAEQI_MAIS	CHARACTER(LEN=6)	none

XUNIF_FAEQI_APPT	REAL	1E+20
CFNAM_FAEQI_APPT	CHARACTER(LEN=28)	‘ ‘
CFTYP_FAEQI_APPT	CHARACTER(LEN=6)	none

XUNIF_CRE_MAIS	REAL	1E+20
CFNAM_CRE_MAIS	CHARACTER(LEN=28)	‘ ‘
CFTYP_CRE_MAIS	CHARACTER(LEN=6)	none

XUNIF_CRE_APPT	REAL	1E+20
CFNAM_CRE_APPT	CHARACTER(LEN=28)	‘ ‘
CFTYP_CRE_APPT	CHARACTER(LEN=6)	none

XUNIF_ALB_ROOF	REAL	none
CFNAM_ALB_ROOF	CHARACTER(LEN=28)	‘ ‘
CFTYP_ALB_ROOF	CHARACTER(LEN=6)	none

XUNIF_EMIS_ROOF	REAL	none
CFNAM_EMIS_ROOF	CHARACTER(LEN=28)	‘ ‘
CFTYP_EMIS_ROOF	CHARACTER(LEN=6)	none

NAM_DATA_TEB content
Fortran name	Fortran type	Default value
Name	TYPE	Default
XUNIF_HC_ROOF	REAL	none
CFNAM_HC_ROOF	CHARACTER(LEN=28)	‘ ‘
CFTYP_HC_ROOF	CHARACTER(LEN=6)	none

XUNIF_TC_ROOF	REAL	none
CFNAM_TC_ROOF	CHARACTER(LEN=28)	‘ ‘
CFTYP_TC_ROOF	CHARACTER(LEN=6)	none

XUNIF_D_ROOF	REAL	none
CFNAM_D_ROOF	CHARACTER(LEN=28)	‘ ‘
CFTYP_D_ROOF	CHARACTER(LEN=6)	none

XUNIF_ALB_ROAD	REAL	none
CFNAM_ALB_ROAD	CHARACTER(LEN=28)	‘ ‘
CFTYP_ALB_ROAD	CHARACTER(LEN=6)	none

XUNIF_EMIS_ROAD	REAL	none
CFNAM_EMIS_ROAD	CHARACTER(LEN=28)	‘ ‘
CFTYP_EMIS_ROAD	CHARACTER(LEN=6)	none

XUNIF_HC_COATING_ROAD	REAL	none
CFNAM_HC_COATING_ROAD	CHARACTER(LEN=28)	‘ ‘
CFTYP_HC_COATING_ROAD	CHARACTER(LEN=6)	none

XUNIF_TC_COATING_ROAD	REAL	none
CFNAM_TC_COATING_ROAD	CHARACTER(LEN=28)	‘ ‘
CFTYP_TC_COATING_ROAD	CHARACTER(LEN=6)	none

XUNIF_D_COATING_ROAD	REAL	none
CFNAM_D_COATING_ROAD	CHARACTER(LEN=28)	‘ ‘
CFTYP_D_COATING_ROAD	CHARACTER(LEN=6)	none

XUNIF_HC_BASEMENT_ROAD	REAL	none
CFNAM_HC_BASEMENT_ROAD	CHARACTER(LEN=28)	‘ ‘
CFTYP_HC_BASEMENT_ROAD	CHARACTER(LEN=6)	none

XUNIF_TC_BASEMENT_ROAD	REAL	none
CFNAM_TC_BASEMENT_ROAD	CHARACTER(LEN=28)	‘ ‘
CFTYP_TC_BASEMENT_ROAD	CHARACTER(LEN=6)	none

XUNIF_ALB_WALL	REAL	none
CFNAM_ALB_WALL	CHARACTER(LEN=28)	‘ ‘
CFTYP_ALB_WALL	CHARACTER(LEN=6)	none

XUNIF_EMIS_WALL	REAL	none
CFNAM_EMIS_WALL	CHARACTER(LEN=28)	‘ ‘
CFTYP_EMIS_WALL	CHARACTER(LEN=6)	none

XUNIF_HC_WALL	REAL	none
CFNAM_HC_WALL	CHARACTER(LEN=28)	‘ ‘
CFTYP_HC_WALL	CHARACTER(LEN=6)	none

XUNIF_TC_WALL	REAL	none
CFNAM_TC_WALL	CHARACTER(LEN=28)	‘ ‘
CFTYP_TC_WALL	CHARACTER(LEN=6)	none

NAM_DATA_TEB content
Fortran name	Fortran type	Default value
Name	TYPE	Default
XUNIF_D_WALL	REAL	none
CFNAM_D_WALL	CHARACTER(LEN=28)	‘ ‘
CFTYP_D_WALL	CHARACTER(LEN=6)	none

XUNIF_Z0_TOWN	REAL	none
CFNAM_Z0_TOWN	CHARACTER(LEN=28)	‘ ‘
CFTYP_Z0_TOWN	CHARACTER(LEN=6)	none

XUNIF_BLD	REAL	none
CFNAM_BLD	CHARACTER(LEN=28)	‘ ‘
CFTYP_BLD	CHARACTER(LEN=6)	none

XUNIF_ROAD	REAL	none
CFNAM_ROAD	CHARACTER(LEN=28)	‘ ‘
CFTYP_ROAD	CHARACTER(LEN=6)	none

XUNIF_BLD_HEIGHT	REAL	none
CFNAM_BLD_HEIGHT	CHARACTER(LEN=28)	‘ ‘
CFTYP_BLD_HEIGHT	CHARACTER(LEN=6)	none

XUNIF_WALL_O_HOR	REAL	none
CFNAM_WALL_O_HOR	CHARACTER(LEN=28)	‘ ‘
CFTYP_WALL_O_HOR	CHARACTER(LEN=6)	none

XUNIF_H_TRAFFIC	REAL	none
CFNAM_H_TRAFFIC	CHARACTER(LEN=28)	‘ ‘
CFTYP_H_TRAFFIC	CHARACTER(LEN=6)	none

XUNIF_LE_TRAFFIC	REAL	none
CFNAM_LE_TRAFFIC	CHARACTER(LEN=28)	‘ ‘
CFTYP_LE_TRAFFIC	CHARACTER(LEN=6)	none

XUNIF_H_INDUSTRY	REAL	none
CFNAM_H_INDUSTRY	CHARACTER(LEN=28)	‘ ‘
CFTYP_H_INDUSTRY	CHARACTER(LEN=6)	none

XUNIF_LE_INDUSTRY	REAL	none
CFNAM_LE_INDUSTRY	CHARACTER(LEN=28)	‘ ‘
CFTYP_LE_INDUSTRY	CHARACTER(LEN=6)	none

XUNIF_ROAD_DIR	REAL	1.E+20
CFNAM_ROAD_DIR	CHARACTER(LEN=28)	‘ ‘
CFTYP_ROAD_DIR	CHARACTER(LEN=6)	none

XUNIF_GREENROOF	REAL	1.E+20
CFNAM_GREENROOF	CHARACTER(LEN=28)	‘ ‘
CFTYP_GREENROOF	CHARACTER(LEN=6)	none

XUNIF_FRAC_HVEG	REAL	1.E+20
CFNAM_FRAC_HVEG	CHARACTER(LEN=28)	‘ ‘
CFTYP_FRAC_HVEG	CHARACTER(LEN=6)	none

XUNIF_FRAC_LVEG	REAL	1.E+20
CFNAM_FRAC_LVEG	CHARACTER(LEN=28)	‘ ‘
CFTYP_FRAC_LVEG	CHARACTER(LEN=6)	none

NAM_DATA_TEB content
Fortran name	Fortran type	Default value
Name	TYPE	Default
XUNIF_FRAC_NVEG	REAL	1.E+20
CFNAM_FRAC_NVEG	CHARACTER(LEN=28)	‘ ‘
CFTYP_FRAC_NVEG	CHARACTER(LEN=6)	none

XUNIF_ROUGH_ROOF	REAL	none
CFNAM_ROUGH_ROOF	CHARACTER(LEN=28)	‘ ‘
CFTYP_ROUGH_ROOF	CHARACTER(LEN=6)	none

XUNIF_ROUGH_WALL	REAL	none
CFNAM_ROUGH_WALL	CHARACTER(LEN=28)	‘ ‘
CFTYP_ROUGH_WALL	CHARACTER(LEN=6)	none

XUNIF_EMIS_PANEL	REAL	1.E+20
CFNAM_EMIS_PANEL	CHARACTER(LEN=28)	‘ ‘
CFTYP_EMIS_PANEL	CHARACTER(LEN=6)	none

XUNIF_ALB_PANEL	REAL	1.E+20
CFNAM_ALB_PANEL	CHARACTER(LEN=28)	‘ ‘
CFTYP_ALB_PANEL	CHARACTER(LEN=6)	none

XUNIF_EFF_PANEL	REAL	1.E+20
CFNAM_EFF_PANEL	CHARACTER(LEN=28)	‘ ‘
CFTYP_EFF_PANEL	CHARACTER(LEN=6)	none

XUNIF_FRAC_PANEL	REAL	1.E+20
CFNAM_FRAC_PANEL	CHARACTER(LEN=28)	‘ ‘
CFTYP_FRAC_PANEL	CHARACTER(LEN=6)	none

XUNIF_NB_POP	REAL	0.0
CFNAM_NB_POP	CHARACTER(LEN=28)	‘ ‘
CFTYP_NB_POP	CHARACTER(LEN=6)	none

XUNIF_SFCO2_RD	REAL	0.0
CFNAM_SFCO2_RD	CHARACTER(LEN=28)	‘ ‘
CFTYP_SFCO2_RD	CHARACTER(LEN=6)	none

XUNIF_DELTA_LEGAL_TIME	REAL	1.E+20
CFNAM_DELTA_LEGAL_TIME	CHARACTER(LEN=28)	‘ ‘
CFTYP_DELTA_LEGAL_TIME	CHARACTER(LEN=6)	none

XUNIF_TIME_OF_CHANGE	REAL	1.E+20
XPAR_POP_MONTHLY	REAL(12)	(/1,1,1,1,1,
		1,1,1,1,
		1,1,1,1/)
XPAR_POP_DAILY	REAL(7)	(/1,1,1,1,
		1,1,1/)
		1,1,1/)
XPAR_POP_HOURLY	REAL(24)	(/1,1,1,1,
		1,1,1,1,
		1,1,1,1,
		1,1,1,1,
		1,1,1,1,
		1,1,1,1/)

NAM_DATA_TEB content
Fortran name	Fortran type	Default value
Name	TYPE	Default
XPAR_TRAF_MONTHLY	REAL(12)	(/1,1,1,1,1,1,1,1,1,1,1,1/)
XPAR_TRAF_DAILY	REAL(7)	(/1.05,1.07,1.08,1.09,1.15,0.86,0.7/)
XPAR_TRAF_HOURLY	REAL(24)	(/(12/33),(12/33),(12/33),(12/33),
		(12/33),(12/33),(12/33),(48/33),
		(48/33),(48/33),(48/33),(48/33),
		(48/33),(48/33),(48/33),(48/33),
		(48/33),(48/33),(48/33),(48/33),
		(48/33),(12/33),(12/33),(12/33),

NAM_DATA_TEB content
Fortran name	Fortran type	Default value
Identifier	NAME
1	DETACHED LOW-RISE
2	SEMI-DETACHED LOW-RISE
3	ROWS OF OPEN LOW-RISE
4	BLOCKS OF OPEN LOW-RISE
5	OPEN MID-RISE

NAM_DATA_TEB content
Fortran name	Fortran type	Default value
Identifier	BUILDING USE	Identifier
1	AGRICULTURE	8
2	CASTLE	9
3	COMMERCE	10
4	COLLECTIVE HOUSING	11
5	INDIVIDUAL HOUSING	12
6	INDUSTRIAL	13
7	NON HEATED

NAM_DATA_TEB content
Fortran name	Fortran type	Default value
Identifier	NAME	Name
1	FRANCE	FRANCE_PIERRE_GALET_TUILE
2	FRANCE_BRIQUE	FRANCE_PIERRE_MEULIERE_TUILE
3	FRANCE_PIERRE	FRANCE_PIERRE_SCHISTE_TUILE
4	FRANCE_PIERRE_CALCAIRE	FRANCE_PIERRE_GNEISS_TUILE
5	FRANCE_PIERRE_CALCAIRE_ARDOISE	FRANCE_PIERRE_VOLCANIQUE_ARDOISE
6	FRANCE_PIERRE_CALCAIRE_ZINC	FRANCE_BOIS_TUILE
7	FRANCE_PIERRE_GRES_TUILE	FRANCE_BOIS_ARDOISE
8	FRANCE_PIERRE_GRES_ARDOISE	FRANCE_TERRE_TUILE
9	FRANCE_PIERRE_GRANITE_TUILE	FRANCE_BRIQUE_TUILE
10	FRANCE_PIERRE_GRANITE_ARDOISE

NPAR_ROOF_LAYER : number of layers in roofs (-)
NPAR_WALL_LAYER : number of layers in walls (-)
CBLD_ATYPE : type of averaging for building (-)
- ‘MAJ’: majoritary building in grid mesh is chosen
- ‘ARI’: characteristics are linearly averaged
CCSVFILEARCHI : name of the .csv file containing information on building construction materials. The following parameters can be initialised via the MApUCE architectural tables (CCSVFILEARCHI ). Most of these parameters did already exist in previous versions of TEB. In the case one of these parameters is specified via the namelist (XUNIF_...), this entry is prioritised with respect to the entries in the architectural tables. Care is therefore needed during namelist construction.
- Road properties (ALB_ROAD; EMIS_ROAD; HC_ROAD; TC_ROAD; D_ROAD)
- Roof properties (ALB_ROOF; EMIS_ROOF; HC_ROOF; TC_ROOF; D_ROOF)
- Wall properties (ALB_WALL; EMIS_WALL; HC_WALL; TC_WALL; D_WALL)
- Ground floor properties (HC_FLOOR; TC_FLOOR; D_FLOOR)
- Thermal mass properties (HC_MASS; TC_MASS; D_MASS)
- Flag for presence of internal mass (ISMASS)
- Window properties (GR; U_WIN; SHGC; SHGC_SH
- Solar panel properties (ALB_PANEL; EMIS_PANEL; EFF_PANEL; FRAC_PANEL)
- Airtightness (N50)
- Flag for presence of shading elements (SHADEARCHI)
- Flag for presence of mechanical ventilation (ISMECH)
- Air exchange rate due to mechanical ventilation (MECHRATE)
- Fraction of green roofs (GREENROOF)
CCSVFILECOMPO : name of the .csv file containing information on human behaviours as a function of building use. The following parameters can be initialised via the MApUCE behavioural table (CCSVFILECOMPO ). If one of these parameters is specified via the namelist (XUNIF_...), this entry is prioritised with respect to the entries in the behavioural table. Care is therefore needed during namelist construction.
- Schedules of building occupation (DAYWBEG_SCHED ; HOURBEG_SCHED)
- Probability of building occupation (PROBOCC)
- Holiday periods (BEG_HOLIDAY ; END_HOLIDAY ; MOD_HOLIDAY)
- Design temperature for heating (THEAT...)
- Design temperature and relative humidity for air conditioning (TCOOL... ; HR_TARGET)
- Fraction of evaporative air conditioning systems (F_WATER_COND)
- Fraction of waste heat to the street canyon (F_WASTE_CAN)
- Rated COP of air conditioning system (COP_RAT)
- Internal heat release (QIN ; QIN_FRAD ; QIN_FLAT ; MODQIN_VCD ; MODQIN_VLD ; MODQIN_NIG ; HOTWAT)
- Ventilation (NATVENT ; FVSUM ; FVVAC ; FVNIG ; FOPEN)
- Shading (FSSUM ; FSVAC ; FSNIG ; WIN_SW_MAX)
NUNIF_BLDTYPE / CFNAM_BLDTYPE / CFTYP_BLDTYPE : identifier for building type \ \
NUNIF_IND_BLD_AGE / CFNAM_IND_BLD_AGE / CFTYP_IND_BLD_AGE : identifier for construction period of buildings with individual housing use
NUNIF_COL_BLD_AGE / CFNAM_COL_BLD_AGE / CFTYP_COL_BLD_AGE : identifier for construction period of buildings (collective housing) \ \
NUNIF_USETYPE / CFNAM_USETYPE / CFTYP_USETYPE : Identifier for building use \ \
NUNIF_P1TERRITORY / CFNAM_P1TERRITORY / CFTYP_P1TERRITORY : Identifier for construction material of historical buildings (before 1948). The P1 territory describes the dominant construction materials for historical buildings (construction period P1). For P1, there is a large variety of materials used for the walls. The identifiers 4 to 19 are related to the P1 territory. (see table below)
NUNIF_PXTERRITORY / CFNAM_PXTERRITORY / CFTYP_PXTERRITORY : Identifier for construction material of recent buildings (after 1948). The PX territory describes the dominant construction material for the more recent buildings. The identifiers 1 to 3 are related to the PX territory. (see table below) \ \
XUNIF_FRACIHS / CFNAM_FRACIHS / CFTYP_FRACIHS : individual housing fraction
XUNIF_FRACCHS / CFNAM_FRACCHS / CFTYP_FRACCHS : collective housing fraction
XUNIF_FRACCOM / CFNAM_FRACCOM / CFTYP_FRACCOM : fraction of commercial building use
XUNIF_FRACTER / CFNAM_FRACTER / CFTYP_FRACTER : fraction of tertiary building use
XUNIF_FRACIND / CFNAM_FRACIND / CFTYP_FRACIND : fraction of industrial building use
XUNIF_FRACNHE / CFNAM_FRACNHE / CFTYP_FRACNHE : fraction of non heated buildings
XUNIF_FRACPAV / CFNAM_FRACPAV / CFTYP_FRACPAV : fraction of low-rise building types
XUNIF_FRACMRI / CFNAM_FRACMRI / CFTYP_FRACMRI : fraction of mid-rise building types
XUNIF_FRACHRI / CFNAM_FRACHRI / CFTYP_FRACHRI : fraction of high-rise building types
XUNIF_FRACATB / CFNAM_FRACATB / CFTYP_FRACATB : fraction of activity buildings
XUNIF_FOEQI_MAIS / CFNAM_FOEQI_MAIS / CFTYP_FOEQI_MAIS : fraction of strong equipment and use in individual housing (-)
XUNIF_FOEQI_APPT / CFNAM_FOEQI_APPT / CFTYP_FOEQI_APPT : fraction of strong equipment and use in collective housing (-)
XUNIF_FAEQI_MAIS / CFNAM_FAEQI_MAIS / CFTYP_FAEQI_MAIS : fraction of weak equipment and use in individual housing (-)
XUNIF_FAEQI_APPT / CFNAM_FAEQI_APPT / CFTYP_FAEQI_APPT : fraction of weak equipment and use in collective housing (-)
XUNIF_CRE_MAIS / CFNAM_CRE_MAIS / CFTYP_CRE_MAIS : fraction of high regulation in individual housing (-)
XUNIF_CRE_APPT / CFNAM_CRE_APPT / CFTYP_CRE_APPT : fraction of high regulation in collective housing (-)
XUNIF_ALB_ROOF / CFNAM_ALB_ROOF / CFTYP_ALB_ROOF : roof albedo (-)
XUNIF_EMIS_ROOF / CFNAM_EMIS_ROOF / CFTYP_EMIS_ROOF : roof emissivity (-)
XUNIF_HC_ROOF / CFNAM_HC_ROOF / CFTYP_HC_ROOF : roof layers heat capacity (J/K/m$^{3}$)
XUNIF_TC_ROOF / CFNAM_TC_ROOF / CFTYP_TC_ROOF : roof layers thermal conductivity (W/K/m)
XUNIF_D_ROOF / CFNAM_D_ROOF / CFTYP_D_ROOF : roof layers depth (m)
XUNIF_ALB_ROAD / CFNAM_ALB_ROAD / CFTYP_ALB_ROAD : road albedo (-)
XUNIF_EMIS_ROAD / CFNAM_EMIS_ROAD / CFTYP_EMIS_ROAD : road emissivity (-)
XUNIF_HC_COATING_ROAD / CFNAM_HC_COATING_ROAD / \
XUNIF_TC_COATING_ROAD / CFNAM_TC_COATING_ROAD / \
XUNIF_D_COATING_ROAD / CFNAM_D_COATING_ROAD / \
XUNIF_HC_BASEMENT_ROAD / CFNAM_HC_BASEMENT_ROAD / \
XUNIF_TC_BASEMENT_ROAD / CFNAM_TC_BASEMENT_ROAD / \
XUNIF_ALB_WALL / CFNAM_ALB_WALL / CFTYP_ALB_WALL : wall albedo (-)
XUNIF_EMIS_WALL / CFNAM_EMIS_WALL / CFTYP_EMIS_WALL : wall emissivity (-)
XUNIF_HC_WALL / CFNAM_HC_WALL / CFTYP_HC_WALL : wall layers heat capacity (J/K/m$^{3}$)
XUNIF_XUNIF_TC_WALL / CFNAM_XUNIF_TC_WALL / CFTYP_XUNIF_TC_WALL : wall layers thermal conductivity (W/K/m)
XUNIF_D_WALL / CFNAM_D_WALL / CFTYP_D_WALL : wall layers depth (m)
XUNIF_Z0_TOWN / CFNAM_Z0_TOWN / CFTYP_Z0_TOWN : roughness length for momentum (m)
XUNIF_BLD / CFNAM_BLD / CFTYP_BLD : fraction of buildings (-)
XUNIF_ROAD / CFNAM_ROAD / CFTYP_ROAD : fraction of road (-)
XUNIF_BLD_HEIGHT / CFNAM_BLD_HEIGHT / CFTYP_BLD_HEIGHT : buildings height (m)
XUNIF_WALL_O_HOR / CFNAM_WALL_O_HOR / CFTYP_WALL_O_HOR : ratio between facade and urban horizontal surface (-)
XUNIF_H_TRAFFIC / CFNAM_H_TRAFFIC / CFTYP_H_TRAFFIC : anthropogenic sensible heat fluxes due to traffic (W/m$^{2}$)
XUNIF_LE_TRAFFIC / CFNAM_LE_TRAFFIC / CFTYP_LE_TRAFFIC : anthropogenic latent heat fluxes due to traffic (W/m$^{2}$)
XUNIF_H_INDUSTRY / CFNAM_H_INDUSTRY / CFTYP_H_INDUSTRY : anthropogenic sensible heat fluxes due to factories (W/m$^{2}$)
XUNIF_LE_INDUSTRY / CFNAM_LE_INDUSTRY / CFTYP_LE_INDUSTRY : anthropogenic latent heat fluxes due to factories (W/m$^{2}$)
XUNIF_ROAD_DIR / CFNAM_ROAD_DIR / CFTYP_ROAD_DIR : road direction (in degrees from North clockwise)
XUNIF_GREENROOF / CFNAM_GREENROOF / CFTYP_GREENROOF : fraction of greenroofs on roofs (-)
XUNIF_FRAC_HVEG / CFNAM_FRAC_HVEG / CFTYP_FRAC_HVEG : fraction of high vegetation (-)
XUNIF_FRAC_LVEG / CFNAM_FRAC_LVEG / CFTYP_FRAC_LVEG : fraction of low vegetation (-)
XUNIF_FRAC_NVEG / CFNAM_FRAC_NVEG / CFTYP_FRAC_NVEG : fraction of bare soil (-)
XUNIF_ROUGH_ROOF / CFNAM_ROUGH_ROOF / CFTYP_ROUGH_ROOF : roof roughness coefficient
XUNIF_ROUGH_WALL / CFNAM_ROUGH_WALL / CFTYP_ROUGH_WALL : wall roughness coefficient
XUNIF_EMIS_PANEL / CFNAM_EMIS_PANEL / CFTYP_EMIS_PANEL : emissivity of solar panel
XUNIF_ALB_PANEL / CFNAM_ALB_PANEL / CFTYP_ALB_PANEL : albedo of solar panel
XUNIF_EFF_PANEL / CFNAM_EFF_PANEL / CFTYP_EFF_PANEL : efficiency of solar panel
XUNIF_FRAC_PANEL / CFNAM_FRAC_PANEL / CFTYP_FRAC_PANEL : fraction of solar panel
XUNIF_NB_POP / CFNAM_NB_POP / CFTYP_NB_POP : population density (1/km$^{2}$)
XUNIF_SFCO2_RD / CFNAM_SFCO2_RD / CFTYP_SFCO2_RD : CO$_{2}$ flux due to traffic (kg/s/m$^{2}$)
XUNIF_DELTA_LEGAL_TIME / CFNAM_DELTA_LEGAL_TIME / \
XUNIF_TIME_OF_CHANGE : time of time change of the legal hour
XUNIF_POP_MONTHLY : monthly cycle of inhabitants density
XUNIF_POP_DAILY : daily cycle of inhabitants density
XUNIF_POP_HOURLY : hourly cycle of inhabitants density
XUNIF_TRAF_MONTHLY : monthly cycle of traffic
XUNIF_TRAF_DAILY : daily cycle of traffic
XUNIF_TRAF_HOURLY : hourly cycle of traffic

NAM_DATA_TEB_GARDEN

NAM_DATA_TEB_GARDEN content
Fortran name	Fortran type	Default value
NTIME_GD	INTEGER	12
CTYP_GARDEN_HVEG	CHARACTER(LEN=4)	‘TEBD’



CTYP_GARDEN_LVEG	CHARACTER(LEN=4)	‘GRAS’


CTYP_GARDEN_NVEG	CHARACTER(LEN=4)	‘NO’
CSHAPE_GARDEN_NVEG	CHARACTER(LEN=3)	‘CYL’


XUNIF_LAI_HVEG	REAL	1.E+20
CFNAM_LAI_HVEG	CHARACTER(LEN=28)	‘ ‘
CFTYP_LAI_HVEG	CHARACTER(LEN=28)	‘ ‘

XUNIF_LAI_LVEG	REAL	1.E+20
CFNAM_LAI_LVEG	CHARACTER(LEN=28)	‘ ‘
CFTYP_LAI_LVEG	CHARACTER(LEN=28)	‘ ‘

XUNIF_H_HVEG	REAL	1.E+20
CFNAM_H_HVEG	CHARACTER(LEN=28)	‘ ‘
CFTYP_H_HVEG	CHARACTER(LEN=28)	‘ ‘

XUNIF_HTRUNK_HVEG	REAL	3.0
CFNAM_HTRUNK_HVEG	CHARACTER(LEN=28)	‘ ‘
CFTYP_HTRUNK_HVEG	CHARACTER(LEN=28)	‘ ‘

XUNIF_WCROWN_HVEG	REAL	5.0
CFNAM_WCROWN_HVEG	CHARACTER(LEN=28)	‘ ‘
CFTYP_WCROWN_HVEG	CHARACTER(LEN=28)	‘ ‘

XUNIF_RE25	REAL	1E+20
CFNAM_RE25	CHARACTER(LEN=28)	‘ ‘
CFTYP_RE25	CHARACTER(LEN=28)	‘ ‘

NTIME_GD : time dimension
CTYP_GARDEN_HVEG : type of high vegetation
CTYP_GARDEN_LVEG : type of low vegetation
CTYP_GARDEN_NVEG : type of bare soil
CSHAPE_GARDEN_NVEG : shape of crown for urban trees. For the moment, only cylindric shape of crown ‘CYL’is available.
XUNIF_LAI_HVEG / CFNAM_LAI_HVEG / CFTYP_LAI_HVEG : LAI of high vegetation (m$^{2}$/m$^{2}$)
XUNIF_LAI_LVEG / CFNAM_LAI_LVEG / CFTYP_LAI_LVEG : LAI of low vegetation (m$^{2}$/m$^{2}$)
XUNIF_H_HVEG / CFNAM_H_HVEG / CFTYP_H_HVEG : height of trees (m)
XUNIF_HTRUNK_HVEG / CFNAM_HTRUNK_HVEG / CFTYP_HTRUNK_HVEG : height of trunk of trees (m)
XUNIF_WCROWN_HVEG / CFNAM_WCROWN_HVEG / CFTYP_WCROWN_HVEG : width of crown of trees (m)
XUNIF_RE25 / CFNAM_RE25 / CFTYP_RE25 : ecosystem respiration parameter (kg/m$^{2}$/s)

NAM_DATA_TEB_GREENROOF

NAM_DATA_TEB_GREENROOF content
Fortran name	Fortran type	Default value
NTIME_GR	INTEGER	1
NLAYER_GR	INTEGER	6
CTYP_GR	CHARACTER(LEN=5)	‘GRASS’
XUNIF_OM_GR	REAL,DIMENSION(NLAYER_GR)	1.E+20
XUNIF_CLAY_GR	REAL,DIMENSION(NLAYER_GR)	1.E+20
XUNIF_SAND_GR	REAL,DIMENSION(NLAYER_GR)	1.E+20
XUNIF_LAI_GR	REAL,DIMENSION(NTIME_GR)	1.E+20
CFNAM_OM_GR	CHARACTER(LEN=28),DIM(NLAYER_GR)	‘’
CFNAM_CLAY_GR	CHARACTER(LEN=28),DIM(NLAYER_GR)	‘’
CFNAM_SAND_GR	CHARACTER(LEN=28),DIM(NLAYER_GR)	‘’
CFNAM_LAI_GR	CHARACTER(LEN=28),DIM(NTIME_GR)	‘’
CFTYP_OM_GR	CHARACTER(LEN=6),DIM(NLAYER_GR)	‘’

CFTYP_CLAY_GR	CHARACTER(LEN=6),DIM(NLAYER_GR)	‘’

CFTYP_SAND_GR	CHARACTER(LEN=6),DIM(NLAYER_GR)	‘’

CFTYP_LAI_GR	CHARACTER(LEN=6),DIM(NTIME_GR)	‘’

NTIME_GR : time dimension (1=uniform LAI / 12=monthly LAI)
NLAYER_GR : number of layers in greenroofs
CTYP_GR : type of vegetation for greenroofs
- ‘GRASS’: Grasses - graminoïds
- ‘SEDUM’: Sedum (succulent plants)
XUNIF_OM_GR / CFNAM_OM_GR / CFTYP_OM_GR : fraction of organic matter in greenroof layer
XUNIF_CLAY_GR / CFNAM_CLAY_GR / CFTYP_CLAY_GR : fraction of clay for the non-OM part of the green roof layer
XUNIF_SAND_GR / CFNAM_SAND_GR / CFTYP_SAND_GR : fraction of sand for the non-OM part of the green roof layer
XUNIF_LAI_GR / CFNAM_LAI_GR / CFTYP_LAI_GR : LAI of green roof vegetation (m$^{2}$/m$^{2}$)

NAM_DATA_TEB_HYDRO

NAM_DATA_TEB_HYDRO content
Fortran name	Fortran type	Default value
XUNIF_DENS_WASTE	REAL	1.E+20
CFNAM_DENS_WASTE	CHARACTER(LEN=28)
CFTYP_DENS_WASTE	CHARACTER(LEN=6)

XUNIF_DENS_STORM	REAL	1.E+20
CFNAM_DENS_STORM	CHARACTER(LEN=28)
CFTYP_DENS_STORM	CHARACTER(LEN=6)

XUNIF_DSEWER	REAL	1.E+20
CFNAM_DSEWER	CHARACTER(LEN=28)
CFTYP_DSEWER	CHARACTER(LEN=6)

XUNIF_WS_ROOF_MAX	REAL	1
CFNAM_WS_ROOF_MAX	CHARACTER(LEN=28)
CFTYP_WS_ROOF_MAX	CHARACTER(LEN=6)

XUNIF_WS_ROAD_MAX	REAL	1
CFNAM_WS_ROAD_MAX	CHARACTER(LEN=28)
CFTYP_WS_ROAD_MAX	CHARACTER(LEN=6)

XUNIF_IP_SEWER	REAL	0
CFNAM_IP_SEWER	CHARACTER(LEN=28)
CFTYP_IP_SEWER	CHARACTER(LEN=6)

XUNIF_CONNEX	REAL	1

CFNAM_CONNEX	CHARACTER(LEN=28)
CFTYP_CONNEX	CHARACTER(LEN=6)

XUNIF_INFIL_ROAD	REAL	0
CFNAM_INFIL_ROAD	CHARACTER(LEN=28)
CFTYP_INFIL_ROAD	CHARACTER(LEN=6)

XUNIF_URBDRAIN	REAL	0

CFNAM_URBDRAIN	CHARACTER(LEN=28)
CFTYP_URBDRAIN	CHARACTER(LEN=6)

XUNIF_DENS_WASTE / CFNAM_DENS_WASTE / CFTYP_DENS_WASTE : wastewater sewer length density (-)
XUNIF_DENS_STORM / CFNAM_DENS_STORM / CFTYP_DENS_STORM : tormwater sewer length density (-)
XUNIF_DSEWER / CFNAM_DSEWER / CFTYP_DSEWER : waste water sewer depth (m)
XUNIF_WS_ROOF_MAX / CFNAM_WS_ROOF_MAX / CFTYP_WS_ROOF_MAX : maximum capacity of surface roof water storage (mm)
XUNIF_WS_ROAD_MAX / CFNAM_WS_ROAD_MAX / CFTYP_WS_ROAD_MAX : maximum capacity of surface road water storage (mm)
XUNIF_IP_SEWER / CFNAM_IP_SEWER / CFTYP_IP_SEWER : parasite infiltrations into sewer (-)
XUNIF_CONNEX / CFNAM_CONNEX/ CFTYP_CONNEX : impervious surfaces connexion rate to the sewer (-)
XUNIF_INFIL_ROAD / CFNAM_INFIL_ROAD / CFTYP_INFIL_ROAD : water infiltration through the roads (kg/m$^{2}$/s)
XUNIF_URBDRAIN / CFNAM_URBDRAIN / CFTYP_URBDRAIN : limitation fraction of urban deep drainage (-)

NAM_ECOCLIMAP2

NAM_ECOCLIMAP2 content
Fortran name	Fortran type	Default value
LCLIM_LAI	LOGICAL	T
YIRRIG	CHARACTER(LEN=28)	‘ ‘

LCLIM_LAI : if T, climatological LAI is computed otherwise, the LAI corresponding to current year (if between 2002 and 2006) is used.
YIRRIG : irrigation file name

NAM_FRAC

NAM_FRAC content
Fortran name	Fortran type	Default value
LECOCLIMAP	LOGICAL	T
LECOSG	LOGICAL	F
XUNIF_SEA	REAL	none
CFNAM_SEA	CHARACTER(LEN=28)	‘ ‘
CFTYP_SEA	CHARACTER(LEN=6)	none

XUNIF_WATER	REAL	none
CFNAM_WATER	CHARACTER(LEN=28)	‘ ‘
CFTYP_WATER	CHARACTER(LEN=6)	none

XUNIF_NATURE	REAL	none
CFNAM_NATURE	CHARACTER(LEN=28)	‘ ‘
CFTYP_NATURE	CHARACTER(LEN=6)	none

XUNIF_TOWN	REAL	none
CFNAM_TOWN	CHARACTER(LEN=28)	‘ ‘
CFTYP_TOWN	CHARACTER(LEN=6)	‘ ‘

LECOCLIMAP : flag to use ECOCLIMAP or not. From version 7.1, it’s possible to partially use ECOCLIMAP to complete missing parameters when they are given directly in the namelist.
LECOSG : flag to use ECOCLIMAP-SG database (from SURFEX 8.1)
XUNIF_SEA : uniform prescribed value of sea fraction. If XUNIF_SEA is set, file CFNAM_SEA is not used.
CFNAM_SEA : sea fraction data file name. If XUNIF_SEA is set, file CFNAM_SEA is not used.
CFTYP_SEA : type of sea data file (‘DIRECT’, ‘BINLLF’, ‘BINLLV’, ‘ASCLLV’)
XUNIF_WATER : uniform prescribed value of water fraction. If XUNIF_WATER is set, file CFNAM_WATER is not used.
CFNAM_WATER : water fraction data file name. If XUNIF_WATER is set, file CFNAM_WATER is not used.
CFTYP_WATER : type of water data file (‘DIRECT’, ‘BINLLF’, ‘BINLLV’, ‘ASCLLV’)
XUNIF_NATURE : uniform prescribed value of nature fraction. If XUNIF_NATURE is set, file CFNAM_NATURE is not used.
CFNAM_NATURE : nature fraction data file name. If XUNIF_NATURE is set, file \
CFTYP_NATURE : type of nature data file (‘DIRECT’, ‘BINLLF’, ‘BINLLV’, ‘ASCLLV’)
XUNIF_TOWN : uniform prescribed value of town fraction. If XUNIF_TOWN is set, file CFNAM_TOWN is not used.
CFNAM_TOWN : town fraction data file name. If XUNIF_TOWN is set, file CFNAM_TOWN is not used.
CFTYP_TOWN : type of town data file (‘DIRECT’, ‘BINLLF’, ‘BINLLV’, ‘ASCLLV’)

NAM_READ_DATA_COVER

NAM_READ_DATA_COVER content
Fortran name	Fortran type	Default value
LREAD_DATA_COVER	LOGICAL	F

:code:`` : LREAD_DATA_COVER: if T, covers data are read in .bin files; if F, in fortran routines