The UFS Atmosphere, the atmospheric component of the UFS Weather Model, access runtime configurations from file {\ttfamily input.\+nml}. This file contains various namelists records that control aspects of the I/O, dynamics, physics etc. Most physics-\/related options are in records {\bfseries{\&gfs\+\_\+physics\+\_\+nml}}. Some schemes have their own namelist records as described below.


\begin{DoxyItemize}
\item Namelist {\bfseries{\&gfs\+\_\+physics\+\_\+nml}} pertains to all of the suites used, but some of the variables are only relevant for specific parameterizations. Its variables are defined in file GFS\+\_\+typedefs.\+F90 in the host model.
\item Namelist {\bfseries{\&gfdl\+\_\+cloud\+\_\+microphysics\+\_\+nml}} is only relevant when the GFDL microphysics is used, and its variables are defined in module\+\_\+gfdl\+\_\+cloud\+\_\+microphys.\+F90.
\item Namelist {\bfseries{\&cires\+\_\+ugwp\+\_\+nml}} specifies options for the use of CIRES Unified Gravity Wave Physics Version 0.
\item Namelist {\bfseries{\&nam\+\_\+sfcperts}} specifies whether and how stochastic perturbations are used in the Noah Land Surface Model.
\item Namelist {\bfseries{\&nam\+\_\+sppperts}} specifies options for the use of \mbox{\hyperlink{GFS_SPP}{Stochastically-\/\+Perturbed Parameterizations (SPP)}}
\end{DoxyItemize}

Both the SDF and the input.\+nml contain information about how to specify the physics suite. Some of this information is redundant, and the user must make sure they are compatible.\+The safest practice is to use the SDF and namelist provided for each suite, since those are supported configurations. Changes to the SDF must be accompanied by corresponding changes to the namelist. While there is not a one-\/to-\/one correspondence between the namelist and the SDF, the tables below show some variables in the namelist that must match the SDF.

\hypertarget{_c_c_p_psuite_nml_desp_multi_row}{}
\tabulinesep=1mm
\begin{longtabu}spread 0pt [c]{*{4}{|X[-1]}|}
\caption{NML Description}\label{_c_c_p_psuite_nml_desp_multi_row}\\
\hline
\cellcolor{\tableheadbgcolor}\textbf{ Option }&\cellcolor{\tableheadbgcolor}\textbf{ CCPP scheme or interstitial }&\cellcolor{\tableheadbgcolor}\textbf{ Description }&\cellcolor{\tableheadbgcolor}\textbf{ Default Value }\\\cline{1-4}
\endfirsthead
\hline
\endfoot
\hline
\cellcolor{\tableheadbgcolor}\textbf{ Option }&\cellcolor{\tableheadbgcolor}\textbf{ CCPP scheme or interstitial }&\cellcolor{\tableheadbgcolor}\textbf{ Description }&\cellcolor{\tableheadbgcolor}\textbf{ Default Value }\\\cline{1-4}
\endhead
\multicolumn{4}{|c|}{\PBS\centering {\bfseries{General}} {\bfseries{options}} }\\\cline{1-4}
fhzero &\mbox{\hyperlink{namespacegfs__phys__time__vary}{gfs\+\_\+phys\+\_\+time\+\_\+vary}} &hour between clearing of diagnostic buckets &0.\+0 ~\newline
 \\\cline{1-4}
h2o\+\_\+phys &\mbox{\hyperlink{namespaceh2ophys}{h2ophys}} &flag for stratosphere h2o scheme &.false. \\\cline{1-4}
ldiag3d &see {\itshape GFS\+\_\+typedefs.\+F90} &flag for 3D diagnostic fields &.false. \\\cline{1-4}
qdiag3d &see {\itshape GFS\+\_\+typedefs.\+F90} &flag for 3D tracer diagnostic fields &.false. \\\cline{1-4}
lssav &see {\itshape GFS\+\_\+typedefs.\+F90} &flag for storing diagnostics &.false. \\\cline{1-4}
cplflx &see {\itshape GFS\+\_\+typedefs.\+F90} &flag for using fluxes provided by an external model &.false. \\\cline{1-4}
cplwav &see {\itshape GFS\+\_\+typedefs.\+F90} &flag for using information produced by an external ocean wave model &.false. \\\cline{1-4}
cplchm &see {\itshape GFS\+\_\+typedefs.\+F90} &flag for coupled chemistry diagnostics &.false. \\\cline{1-4}
cplwav2atm &see {\itshape GFS\+\_\+typedefs.\+F90} &flag for wave to atm coupling &.false. \\\cline{1-4}
oz\+\_\+phys\+\_\+2015 &\mbox{\hyperlink{namespaceozphys__2015}{ozphys\+\_\+2015}} &flag for new (2015) ozone physics &.false. \\\cline{1-4}
fhcyc &\mbox{\hyperlink{namespacegfs__phys__time__vary}{gfs\+\_\+phys\+\_\+time\+\_\+vary}} &frequency for surface data cycling in hours &0.\+0 \\\cline{1-4}
use\+\_\+ufo &\mbox{\hyperlink{namespacegfs__phys__time__vary}{gfs\+\_\+phys\+\_\+time\+\_\+vary}} &flag for using unfiltered orography surface option &.false. \\\cline{1-4}
ncld &see {\itshape GFS\+\_\+typedefs.\+F90} &number of hydrometeors &1 \\\cline{1-4}
do\+\_\+mynnsfclay &see {\itshape GFS\+\_\+typedefs.\+F90} &flag to activate MYNN-\/\+SFCLAY scheme &.false. \\\cline{1-4}
do\+\_\+sppt &\mbox{\hyperlink{namespacegfs__stochastics}{gfs\+\_\+stochastics}} &flag for stochastic SPPT option &.false. \\\cline{1-4}
do\+\_\+shum &\mbox{\hyperlink{namespacegfs__stochastics}{gfs\+\_\+stochastics}} &flag for stochastic SHUM option &.false. \\\cline{1-4}
do\+\_\+skeb &\mbox{\hyperlink{namespacegfs__stochastics}{gfs\+\_\+stochastics}} &flag for stochastic SKEB option &.false. \\\cline{1-4}
do\+\_\+sfcperts &\mbox{\hyperlink{namespacegfs__rrtmg__pre}{gfs\+\_\+rrtmg\+\_\+pre}} &flag for stochastic surface perturbations option &.false. \\\cline{1-4}
imp\+\_\+physics &choice of microphysics scheme &choice of microphysics scheme\+: ~\newline
 ~\newline
 
\begin{DoxyItemize}
\item 8\+: Thompson microphysics scheme ~\newline
 
\item 10\+: Morrison-\/\+Gettelman microphysics scheme 
\item 11\+: GFDL microphysics scheme 
\item 17\+: NSSL microphysics scheme with background CCN 
\item 18\+: NSSL microphysics scheme with predicted CCN (compatibility) 
\end{DoxyItemize}&99 \\\cline{1-4}
\multicolumn{4}{|c|}{\PBS\centering {\bfseries{Parameters}} {\bfseries{related}} {\bfseries{to}} {\bfseries{radiation}} {\bfseries{scheme}} {\bfseries{options}} }\\\cline{1-4}
pdfcld &\mbox{\hyperlink{namespacegfs__rrtmg__pre}{gfs\+\_\+rrtmg\+\_\+pre}} &flag for PDF clouds &.false. \\\cline{1-4}
fhswr &\mbox{\hyperlink{namespacerrtmg__sw}{rrtmg\+\_\+sw}} &frequency for shortwave radiation (secs) &3600. \\\cline{1-4}
fhlwr &\mbox{\hyperlink{namespacerrtmg__lw}{rrtmg\+\_\+lw}} &frequency for longwave radiation (secs) &3600. \\\cline{1-4}
levr &\mbox{\hyperlink{namespacegfs__rrtmg__setup}{gfs\+\_\+rrtmg\+\_\+setup}} &number of vertical levels for radiation calculations &-\/99 \\\cline{1-4}
nfxr &\mbox{\hyperlink{namespacegfs__rrtmg__pre}{gfs\+\_\+rrtmg\+\_\+pre}} &second dimension of radiation input/output array fluxr &39+6 \\\cline{1-4}
iflip &\mbox{\hyperlink{namespacegfs__rrtmg__setup}{gfs\+\_\+rrtmg\+\_\+setup}} &control flag for vertical index direction ~\newline
 
\begin{DoxyItemize}
\item 0\+: index from TOA to surface 
\item 1\+: index from surface to TOA 
\end{DoxyItemize}&1 \\\cline{1-4}
icliq\+\_\+sw &\mbox{\hyperlink{namespacerrtmg__sw}{rrtmg\+\_\+sw}} &sw optical property for liquid clouds ~\newline
 
\begin{DoxyItemize}
\item 0\+: input cloud optical depth, ignoring iswcice setting 
\item 1\+: cloud optical property scheme based on Hu and Stamnes (1993) \cite{hu_and_stamnes_1993} method 
\item 2\+: cloud optical property scheme based on Hu and Stamnes (1993) \cite{hu_and_stamnes_1993} -\/ updated 
\end{DoxyItemize}&1 \\\cline{1-4}
gfs\+\_\+typedefs\+::gfs\+\_\+control\+\_\+type\+::iovr &\mbox{\hyperlink{namespacerrtmg__sw}{rrtmg\+\_\+sw}} &control flag for cloud overlap in SW \& LW radiation ~\newline
 
\begin{DoxyItemize}
\item 0\+: random overlapping clouds 
\item 1\+: max/ran overlapping clouds 
\item 2\+: maximum overlap clouds (mcica only) 
\item 3\+: decorrelation-\/length overlap (mcica only) 
\item 4\+: exponential overlapping method 
\item 5\+: exponential-\/random overlapping method 
\end{DoxyItemize}&1 \\\cline{1-4}
ictm &\mbox{\hyperlink{namespacegfs__rrtmg__setup}{gfs\+\_\+rrtmg\+\_\+setup}} &external data time/date control flag ~\newline
 
\begin{DoxyItemize}
\item -\/2\+: same as 0, but superimpose seasonal cycle from climatology data set 
\item -\/1\+: use user provided external data for the forecast time, no extrapolation 
\item 0\+: use data at initial condition time, if not available, use latest, no extrapolation 
\item 1\+: use data at the forecast time, if not available, use latest and extrapolation 
\item yyyy0\+: use yyyy data for the forecast time, no further data extrapolation 
\item yyyy1\+: use yyyy data for the forecast. if needed, do extrapolation to match the fcst time 
\end{DoxyItemize}&1 \\\cline{1-4}
crick\+\_\+proof &\mbox{\hyperlink{namespacegfs__rrtmg__setup}{gfs\+\_\+rrtmg\+\_\+setup}} &control flag for eliminating CRICK ~\newline
 
\begin{DoxyItemize}
\item .true.\+: apply layer smoothing to eliminate CRICK 
\item .false.\+: do not apply layer smoothing 
\end{DoxyItemize}&.false. \\\cline{1-4}
ccnorm &\mbox{\hyperlink{namespacegfs__rrtmg__setup}{gfs\+\_\+rrtmg\+\_\+setup}} &control flag for in-\/cloud condensate mixing ratio ~\newline
 
\begin{DoxyItemize}
\item .true.\+: normalize cloud condensate 
\item .false.\+: not normalize cloud condensate 
\end{DoxyItemize}&.false. \\\cline{1-4}
norad\+\_\+precip &\mbox{\hyperlink{namespacegfs__rrtmg__setup}{gfs\+\_\+rrtmg\+\_\+setup}} &control flag for not using precip in radiation (Ferrier scheme) ~\newline
 ~\newline
 
\begin{DoxyItemize}
\item .true.\+: snow/rain has no impact on radiation 
\item .false.\+: snow/rain has impact on radiation 
\end{DoxyItemize}&.false. \\\cline{1-4}
ialb &\mbox{\hyperlink{namespacegfs__rrtmg__setup}{gfs\+\_\+rrtmg\+\_\+setup}} &SW surface albedo control flag\+: ~\newline
 
\begin{DoxyItemize}
\item 0\+: using climatology surface albedo scheme for SW 
\item 1\+: using MODIS based land surface albedo for SW ~\newline
 
\end{DoxyItemize}&0 \\\cline{1-4}
iems &\mbox{\hyperlink{namespacegfs__rrtmg__setup}{gfs\+\_\+rrtmg\+\_\+setup}} &LW surface emissivity control flag (ab 2-\/digit integer) \+: ~\newline
 
\begin{DoxyItemize}
\item a\+: =0 set surface air/ground t same for LW radiation 
\item =1 set surface air/ground t diff for LW radiation 
\item b\+: =0 use fixed surface emissivity = 1.\+0 (black-\/body) 
\item =1 use varying climatology surface emissivity (veg based) 
\item =2 future development (not yet) ~\newline
 
\end{DoxyItemize}&0 \\\cline{1-4}
iaer &\mbox{\hyperlink{namespacegfs__rrtmg__setup}{gfs\+\_\+rrtmg\+\_\+setup}} &4-\/digit aerosol flag (dabc for aermdl, volcanic, LW, SW)\+: ~\newline
 
\begin{DoxyItemize}
\item d\+:tropospheric aerosol model scheme flag ~\newline
 =0 or none, opac-\/climatology aerosol scheme ~\newline
 =1 use NASA GOCART climatology aerosol scheme ~\newline
 =2 use NASA GOCART prognostic aerosol scheme ~\newline
 =5 opac-\/clim new spectral mapping 
\item a\+:=0 use background stratospheric aerosol ~\newline
 =1 include stratospheric volcanic aerosol 
\item b\+:=0 no tropospheric aerosol in LW radiation ~\newline
 =1 include tropospheric aerosol in LW 
\item c\+:=0 no tropospheric aerosol in SW radiation ~\newline
 =1 include tropospheric aerosol in SW 
\end{DoxyItemize}&1 \\\cline{1-4}
ico2 &\mbox{\hyperlink{namespacegfs__rrtmg__setup}{gfs\+\_\+rrtmg\+\_\+setup}} &$CO_2$ data source control flag\+:~\newline
 
\begin{DoxyItemize}
\item 0\+: prescribed value (380 ppmv) 
\item 1\+: yearly global averaged annual mean from observations 
\item 2\+: monthly 15 degree horizontal resolution from observations 
\end{DoxyItemize}&0 \\\cline{1-4}
isubc\+\_\+sw &\mbox{\hyperlink{namespacerrtmg__sw}{rrtmg\+\_\+sw}} &subgrid cloud approximation control flag in SW radiation\+: ~\newline
 
\begin{DoxyItemize}
\item 0\+: no Mc\+ICA approximation in SW radiation 
\item 1\+: use Mc\+ICA with prescribed permutation seeds (test mode) 
\item 2\+: use Mc\+ICA with randomly generated permutation seeds 
\end{DoxyItemize}&0 \\\cline{1-4}
isubc\+\_\+lw &\mbox{\hyperlink{namespacerrtmg__lw}{rrtmg\+\_\+lw}} &subgrid cloud approximation control flag in LW radiation\+: ~\newline
 
\begin{DoxyItemize}
\item 0\+: no Mc\+ICA approximation in LW radiation 
\item 1\+: use Mc\+ICA with prescribed permutatition seeds (test mode) 
\item 2\+: use Mc\+ICA with randomly generated permutation seeds 
\end{DoxyItemize}&0 \\\cline{1-4}
isol &\mbox{\hyperlink{namespacegfs__rrtmg__setup}{gfs\+\_\+rrtmg\+\_\+setup}} &solar constant scheme control flag\+: ~\newline
 
\begin{DoxyItemize}
\item 0\+: fixed value = 1366.\+0 $W m^{-2}$ (old standard) 
\item 10\+: fixed value = 1360.\+8 $W m^{-2}$ (new standard) 
\item 1\+: NOAA ABS-\/scale TSI table (yearly) with 11-\/yr cycle approximation 
\item 2\+: NOAA TIM-\/scale TSI table (yearly) with 11-\/yr cycle approximation 
\item 3\+: CMIP5 TIM-\/scale TSI table (yearly) with 11-\/yr cycle approximation 
\item 4\+: CMIP5 TIM-\/scale TSI table (monthly) with 11-\/yr cycle approximation 
\end{DoxyItemize}&0 \\\cline{1-4}
lwhtr &\mbox{\hyperlink{namespacerrtmg__lw}{rrtmg\+\_\+lw}} &flag for output of longwave heating rate &.true. \\\cline{1-4}
swhtr &\mbox{\hyperlink{namespacerrtmg__sw}{rrtmg\+\_\+sw}} &flag for output of shortwave heating rate &.true. \\\cline{1-4}
nhfrad &\mbox{\hyperlink{namespacegfs__time__vary__pre}{gfs\+\_\+time\+\_\+vary\+\_\+pre}} &number of timesteps for which to call radiation on physics timestep (coldstarts) &0 \\\cline{1-4}
\multicolumn{4}{|c|}{\PBS\centering {\bfseries{Parameters}} {\bfseries{related}} {\bfseries{to}} {\bfseries{cumulus}} {\bfseries{schemes}} }\\\cline{1-4}
imfshalcnv &choice of shallow convective scheme &flag for mass flux shallow convective scheme\+:~\newline
 
\begin{DoxyItemize}
\item 1\+:July 2010 version of mass-\/flux shallow convective scheme (operational as of 2016) 
\item 2\+: scale-\/ \& aerosol-\/aware mass-\/flux shallow convective scheme (2017) 
\item 3\+: scale-\/ \& aerosol-\/aware Grell-\/\+Freitas scheme 
\item 4\+: new Tiedtke scheme (CAPS) 
\item 0\+: modified Tiedtke\textquotesingle{}s eddy-\/diffusion shallow convective scheme 
\item -\/1\+: no shallow convection used 
\end{DoxyItemize}&1 \\\cline{1-4}
imfdeepcnv &choice of deep convective scheme &flag for mass-\/flux deep convective scheme\+:~\newline
 
\begin{DoxyItemize}
\item -\/1\+: Chikira-\/\+Sugiyama deep convection (with {\bfseries{cscnv}} = .T.) 
\item 1\+: July 2010 version of SAS convective scheme (operational version as of 2016) 
\item 2\+: scale-\/ \& aerosol-\/aware mass-\/flux deep convective scheme (2017) 
\item 3\+: scale-\/ \& aerosol-\/aware Grell-\/\+Freitas scheme (GSD) 
\item 4\+: new Tiedtke scheme (CAPS) 
\end{DoxyItemize}&1 \\\cline{1-4}
do\+\_\+deep &see {\itshape GFS\+\_\+typedefs.\+F90} &consistency check for deep convection &.true. \\\cline{1-4}
shal\+\_\+cnv &gfs\+\_\+suite\+\_\+interstitial &flag for calling shallow convection &.false. \\\cline{1-4}
lmfshal &\mbox{\hyperlink{namespacegfs__rrtmg__pre}{gfs\+\_\+rrtmg\+\_\+pre}} &flag for mass-\/flux shallow convection scheme in the cloud fraction calculation &shal\+\_\+cnv .and. (imfshalcnv \texorpdfstring{$>$}{>} 0) \\\cline{1-4}
lmfdeep2 &\mbox{\hyperlink{namespacegfs__rrtmg__pre}{gfs\+\_\+rrtmg\+\_\+pre}} &flag for mass-\/flux deep convection scheme in the cloud fraction calculation &imfdeepcnv == 2 .or. 3 .or.\+4 \\\cline{1-4}
random\+\_\+clds &\mbox{\hyperlink{namespacegfs__phys__time__vary}{gfs\+\_\+phys\+\_\+time\+\_\+vary}} &flag for whether clouds are random &.false. \\\cline{1-4}
trans\+\_\+trac &gfs\+\_\+suite\+\_\+interstitial &flag for convective transport of tracers &.false. \\\cline{1-4}
cal\+\_\+pre &\mbox{\hyperlink{namespacegfs__phys__time__vary}{gfs\+\_\+phys\+\_\+time\+\_\+vary}} or gfs\+\_\+\+MP\+\_\+generic &flag for calling precipitation type algorithm &.false. \\\cline{1-4}
shcnvcw &\mbox{\hyperlink{namespacesamfshalcnv}{samfshalcnv}} &flag for shallow convective cloud &.false. \\\cline{1-4}
progsigma &\mbox{\hyperlink{namespacesamfshalcnv}{samfshalcnv}}, \mbox{\hyperlink{namespacesamfdeepcnv}{samfdeepcnv}} &flag for prognostic updraft area fraction closure in sa\+SAS &.false. \\\cline{1-4}
\multicolumn{4}{|c|}{\PBS\centering {\bfseries{Parameters}} {\bfseries{related}} {\bfseries{to}} {\bfseries{PBL}} {\bfseries{scheme}} {\bfseries{options}} }\\\cline{1-4}
do\+\_\+mynnedmf &\mbox{\hyperlink{namespacemynnedmf__wrapper}{mynnedmf\+\_\+wrapper}} &flag to activate MYNN-\/\+EDMF scheme &.false. \\\cline{1-4}
dspheat &\mbox{\hyperlink{namespacesatmedmfvdifq}{satmedmfvdifq}} &flag for using TKE dissipative heating to temperature tendency in hybrid EDMF and TKE-\/\+EDMF schemes &.false. \\\cline{1-4}
satmedmf &\mbox{\hyperlink{namespacesatmedmfvdifq}{satmedmfvdifq}} &flag for calling scale-\/ware TKE-\/based EDMF PBL scheme &.false. \\\cline{1-4}
isatmedmf &\mbox{\hyperlink{namespacesatmedmfvdifq}{satmedmfvdifq}} &flag for scale-\/aware TKE-\/based moist EDMF scheme ~\newline
 
\begin{DoxyItemize}
\item 0\+: initial version of satmedmf (Nov.\+2018) 
\item 1\+: updated version of satmedmf (as of May 2019) 
\end{DoxyItemize}&0 \\\cline{1-4}
do\+\_\+ysu &see {\itshape GFS\+\_\+typedefs.\+F90} &flag for YSU PBL scheme &.false. \\\cline{1-4}
debug &see {\itshape GFS\+\_\+typedefs.\+F90} &flag for debug printout &.false. \\\cline{1-4}
xkzm\+\_\+h &\mbox{\hyperlink{namespacesatmedmfvdifq}{satmedmfvdifq}} &background vertical diffusion for heat and q &1.\+0d0 \\\cline{1-4}
xkzm\+\_\+m &\mbox{\hyperlink{namespacesatmedmfvdifq}{satmedmfvdifq}} &background vertical diffusion for momentum &1.\+0d0 \\\cline{1-4}
xkzm\+\_\+s &\mbox{\hyperlink{namespacesatmedmfvdifq}{satmedmfvdifq}} &sigma threshold for background mom. diffusion &1.\+0d0 \\\cline{1-4}
dspfac &\mbox{\hyperlink{namespacesatmedmfvdifq}{satmedmfvdifq}} &TKE dissipative heating factor &1.\+0 \\\cline{1-4}
bl\+\_\+upfr &\mbox{\hyperlink{namespacesatmedmfvdifq}{satmedmfvdifq}} &updraft fraction in boundary layer mass flux scheme &0.\+13 \\\cline{1-4}
bl\+\_\+dnfr &\mbox{\hyperlink{namespacesatmedmfvdifq}{satmedmfvdifq}} &downdraft fraction in boundary layer mass flux scheme &0.\+1 ~\newline
 \\\cline{1-4}
rlmx &\mbox{\hyperlink{namespacesatmedmfvdifq}{satmedmfvdifq}} &maximum allowed mixing length in boundary layer mass flux scheme &300. \\\cline{1-4}
elmx &\mbox{\hyperlink{namespacesatmedmfvdifq}{satmedmfvdifq}} &maximum allowed dissipation mixing length in boundary layer mass flux scheme &300. \\\cline{1-4}
sfc\+\_\+rlm &\mbox{\hyperlink{namespacesatmedmfvdifq}{satmedmfvdifq}} &choice of near surface mixing lenghth in boundary layer mass flux scheme &0 \\\cline{1-4}
tc\+\_\+pbl &\mbox{\hyperlink{namespacesatmedmfvdifq}{satmedmfvdifq}} &control for TC applications in the PBL scheme &0 \\\cline{1-4}
bl\+\_\+mynn\+\_\+mixlength &\mbox{\hyperlink{namespacemynnedmf__wrapper}{mynnedmf\+\_\+wrapper}} &flag for different version of mixing length formulation ~\newline
 
\begin{DoxyItemize}
\item 0\+: Original form from Nakanishi and Niino (2009) \cite{NAKANISHI_2009} . NO scale-\/awareness is applied to the master mixing length, regardless of \char`\"{}scaleware\char`\"{} setting 
\item 1\+: HRRR operational form 201609-\/201807. Designed to work without the mass-\/flux scheme. Uses Bou\+Lac mixing length in free atmosphere. ~\newline
 
\item 2\+: HRRR operational form 201807-\/present. Designed to be compatible with mass-\/flux scheme activated (default) 
\end{DoxyItemize}&2 \\\cline{1-4}
bl\+\_\+mynn\+\_\+edmf &\mbox{\hyperlink{namespacemynnedmf__wrapper}{mynnedmf\+\_\+wrapper}} &flag to activate the mass-\/flux scheme ~\newline
 
\begin{DoxyItemize}
\item 0\+: deactivate mass-\/flux scheme 
\item 1\+: activate dynamic multiplume mass-\/flux scheme 
\end{DoxyItemize}~\newline
 &0 \\\cline{1-4}
bl\+\_\+mynn\+\_\+edmf\+\_\+mom &\mbox{\hyperlink{namespacemynnedmf__wrapper}{mynnedmf\+\_\+wrapper}} &flag to activate the transport of momentum ~\newline
 
\begin{DoxyItemize}
\item 0\+: deactivate momentum transport in mass-\/flux scheme ~\newline
 
\item 1\+: activate momentum transport in dynamic multiplume mass-\/flux scheme. {\ttfamily bl\+\_\+mynn\+\_\+edmf} must be set to 1 ~\newline
 
\end{DoxyItemize}&1 \\\cline{1-4}
bl\+\_\+mynn\+\_\+edmf\+\_\+tke &\mbox{\hyperlink{namespacemynnedmf__wrapper}{mynnedmf\+\_\+wrapper}} &flag to activate the transport of TKE ~\newline
 
\begin{DoxyItemize}
\item 0\+: deactivate TKE transport in mass-\/flux scheme 
\item 1\+: activate TKE transport in dynamic multiplume mass-\/flux scheme. {\ttfamily bl\+\_\+mynn\+\_\+edmf} must be set to 1 
\end{DoxyItemize}&0 \\\cline{1-4}
bl\+\_\+mynn\+\_\+edmf\+\_\+part &\mbox{\hyperlink{namespacemynnedmf__wrapper}{mynnedmf\+\_\+wrapper}} &flag to partitioning the MF and ED areas &0 ~\newline
 \\\cline{1-4}
bl\+\_\+mynn\+\_\+tkeadvect &\mbox{\hyperlink{namespacemynnedmf__wrapper}{mynnedmf\+\_\+wrapper}} &activate computation of TKE advection (not yet in use for FV3) ~\newline
 
\begin{DoxyItemize}
\item false\+: deactivate TKE advection ~\newline
 
\item true\+: activate TKE advection 
\end{DoxyItemize}~\newline
 &.false. \\\cline{1-4}
tke\+\_\+budget &\mbox{\hyperlink{namespacemynnedmf__wrapper}{mynnedmf\+\_\+wrapper}} &flag to activating TKE budget &0 \\\cline{1-4}
bl\+\_\+mynn\+\_\+cloudpdf &\mbox{\hyperlink{namespacemynnedmf__wrapper}{mynnedmf\+\_\+wrapper}} &flag to determine which cloud PDF to use ~\newline
 
\begin{DoxyItemize}
\item 0\+: use Sommeria-\/\+Deardorff subgrid cloud PDF 
\item 1\+: use Kuwano-\/\+Yoshida subgrid cloud PDF 
\item 2\+: use modified Chaboureau-\/\+Bechtold subgrid cloud PDF 
\end{DoxyItemize}&2 \\\cline{1-4}
bl\+\_\+mynn\+\_\+edmf\+\_\+cloudmix &\mbox{\hyperlink{namespacemynnedmf__wrapper}{mynnedmf\+\_\+wrapper}} &flag to activate mixing of cloud species ~\newline
 
\begin{DoxyItemize}
\item 0\+: deactivate the mixing of any water species mixing ratios 
\item 1\+: activate the mixing of all water species mixing ratios 
\end{DoxyItemize}&1 \\\cline{1-4}
bl\+\_\+mynn\+\_\+mixqt &\mbox{\hyperlink{namespacemynnedmf__wrapper}{mynnedmf\+\_\+wrapper}} &flag to mix total water or individual species ~\newline
 
\begin{DoxyItemize}
\item 0\+: mix individual water species separately 
\item 1\+: DO NOT USE 
\end{DoxyItemize}&0 \\\cline{1-4}
icloud\+\_\+bl &\mbox{\hyperlink{namespacemynnedmf__wrapper}{mynnedmf\+\_\+wrapper}} &flag to coupling SGS clouds to radiation ~\newline
 
\begin{DoxyItemize}
\item 0\+: deactivate coupling subgrid clouds to radiation 
\item 1\+: activate subgrid cloud coupling to radiation (highly suggested) 
\end{DoxyItemize}&1 \\\cline{1-4}
bl\+\_\+mynn\+\_\+closure &\mbox{\hyperlink{namespacemynnedmf__wrapper}{mynnedmf\+\_\+wrapper}} &flag to determine closure level of MYNN ~\newline
 
\begin{DoxyItemize}
\item \texorpdfstring{$<$}{<}=2.\+5\+: only prognose tke 
\item 2.\+5 \texorpdfstring{$<$}{<} and \texorpdfstring{$<$}{<} 3.\+0\+: prognose tke and q\textquotesingle{}2 
\item \texorpdfstring{$>$}{>}= 3.\+0, prognose tke, q\textquotesingle{}2, T\textquotesingle{}2, and T\textquotesingle{}q\textquotesingle{} 
\end{DoxyItemize}&2.\+6

\\\cline{1-4}
num\+\_\+dfi\+\_\+radar &\mbox{\hyperlink{namespacecu__gf__driver}{cu\+\_\+gf\+\_\+driver}} &number of timespans with radar-\/prescried temperature tendencies &0 \\\cline{1-4}
fh\+\_\+dfi\+\_\+radar &\mbox{\hyperlink{namespacecu__gf__driver}{cu\+\_\+gf\+\_\+driver}} &begin+end of timespans to receive radar-\/prescribed temperature tendencies &-\/2e10 \\\cline{1-4}
do\+\_\+cap\+\_\+suppress &\mbox{\hyperlink{namespacecu__gf__driver}{cu\+\_\+gf\+\_\+driver}} &enable convection suppression in GF scheme if fh\+\_\+dfi\+\_\+radar is specified &.true. \\\cline{1-4}
ix\+\_\+dfi\+\_\+radar &\mbox{\hyperlink{namespacecu__gf__driver}{cu\+\_\+gf\+\_\+driver}} &index within dfi\+\_\+radar\+\_\+tten of each timespan (-\/1 means \char`\"{}none\char`\"{}) &-\/1 \\\cline{1-4}
dfi\+\_\+radar\+\_\+max\+\_\+intervals &\mbox{\hyperlink{namespacecu__gf__driver}{cu\+\_\+gf\+\_\+driver}} &number of radar-\/derived temperature tendency and/or convection suppression intervals &4 \\\cline{1-4}
\multicolumn{4}{|c|}{\PBS\centering {\bfseries{Parameters}} {\bfseries{related}} {\bfseries{to}} {\bfseries{surface}} {\bfseries{perturbation}} {\bfseries{options}} }\\\cline{1-4}
nsfcpert &\mbox{\hyperlink{namespacegfs__surface__generic__pre}{gfs\+\_\+surface\+\_\+generic\+\_\+pre}} &number of weights for stochastic surface perturbation &0 \\\cline{1-4}
pertz0 &\mbox{\hyperlink{namespacegfs__surface__generic__pre}{gfs\+\_\+surface\+\_\+generic\+\_\+pre}} &magnitude of perturbation of momentum roughness length &-\/999. \\\cline{1-4}
pertzt &\mbox{\hyperlink{namespacegfs__surface__generic__pre}{gfs\+\_\+surface\+\_\+generic\+\_\+pre}} &magnitude of perturbation of heat to momentum roughness length ratio &-\/999. \\\cline{1-4}
pertshc &\mbox{\hyperlink{namespacegfs__surface__generic__pre}{gfs\+\_\+surface\+\_\+generic\+\_\+pre}} &magnitude of perturbation of soil hydraulic conductivity &-\/999. \\\cline{1-4}
pertlai &\mbox{\hyperlink{namespacegfs__surface__generic__pre}{gfs\+\_\+surface\+\_\+generic\+\_\+pre}} &magnitude of perturbation of leaf area index &-\/999. \\\cline{1-4}
pertalb &\mbox{\hyperlink{namespacegfs__surface__generic__pre}{gfs\+\_\+surface\+\_\+generic\+\_\+pre}} &magnitude of surface albedo perturbation &-\/999. \\\cline{1-4}
pertvegf &\mbox{\hyperlink{namespacegfs__surface__generic__pre}{gfs\+\_\+surface\+\_\+generic\+\_\+pre}} &magnitude of perturbation of vegetation fraction &-\/999. \\\cline{1-4}
\multicolumn{4}{|c|}{\PBS\centering {\bfseries{Parameters}} {\bfseries{related}} {\bfseries{to}} {\bfseries{Cellular}} {\bfseries{Automata}} {\bfseries{options}} }\\\cline{1-4}
do\+\_\+ca &\mbox{\hyperlink{namespacesamfdeepcnv}{samfdeepcnv}}, \mbox{\hyperlink{namespacegfs__stochastics}{gfs\+\_\+stochastics}} &cellular automata main switch &.false. \\\cline{1-4}
ca\+\_\+closure &\mbox{\hyperlink{namespacesamfdeepcnv}{samfdeepcnv}} &logical switch for CA on closure &.false \\\cline{1-4}
ca\+\_\+entr &\mbox{\hyperlink{namespacesamfdeepcnv}{samfdeepcnv}} &logical swith for CA on entrainment &.false \\\cline{1-4}
ca\+\_\+trigger &\mbox{\hyperlink{namespacesamfdeepcnv}{samfdeepcnv}} &logical switch for CA on trigger &.false. \\\cline{1-4}
\multicolumn{4}{|c|}{\PBS\centering {\bfseries{Parameters}} {\bfseries{related}} {\bfseries{to}} {\bfseries{microphysics}} {\bfseries{scheme}} {\bfseries{options}} }\\\cline{1-4}
lradar &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &flag for computing radar reflectivity in Thompson MP scheme &.false. \\\cline{1-4}
sedi\+\_\+transport &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &flag for turning on horizontal momentum transport during sedimentation &.true. \\\cline{1-4}
do\+\_\+sedi\+\_\+w &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &{\itshape }.true. to turn on vertical motion transport during sedimentation. (not supported in GFS physics) &.false. ~\newline
 \\\cline{1-4}
do\+\_\+sedi\+\_\+heat &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &flag for turning on horizontal heat transport during sedimentation &.true. \\\cline{1-4}
rad\+\_\+snow &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &flag for considering snow in cloud fraction calculation &.true. \\\cline{1-4}
rad\+\_\+graupel &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &flag for considering graupel in cloud fraction calculation &.true. \\\cline{1-4}
rad\+\_\+rain &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &flag for considering rain in cloud fraction calculation &.true. \\\cline{1-4}
cld\+\_\+min &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &minimum cloud fraction. If total cloud condensate exceeds 1.\+0e-\/6 kg/kg, cloud fraction cannot be less than {\ttfamily cld\+\_\+min} &0.\+05 \\\cline{1-4}
const\+\_\+vi &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &flag for using constant cloud ice fall speed &.false. \\\cline{1-4}
const\+\_\+vs &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &flag for using constant snow fall speed &.false. \\\cline{1-4}
const\+\_\+vg &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &flag for using constant graupel fall speed &.false. \\\cline{1-4}
const\+\_\+vr &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &flag for using constant rain fall speed &.false. \\\cline{1-4}
vi\+\_\+fac &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &tunable factor for cloud ice fall or the constant cloud ice fall speed when {\ttfamily const\+\_\+vi} is .true. &1. \\\cline{1-4}
vr\+\_\+fac &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &tunable factor for rain fall or the constant rain fall speed when {\ttfamily const\+\_\+vr} is .true. &1. \\\cline{1-4}
vs\+\_\+fac &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &tunable factor for snow fall or the constant snow fall speed when {\ttfamily const\+\_\+vs} is .true. &1. \\\cline{1-4}
vg\+\_\+fac &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &tunable factor for graupel fall or the constant graupel fall speed when {\ttfamily const\+\_\+vg} is .true. &1. \\\cline{1-4}
vi\+\_\+max &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &maximum fall speed for cloud ice &0.\+5 \\\cline{1-4}
vs\+\_\+max &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &maximum fall speed for snow &5.\+0 \\\cline{1-4}
vg\+\_\+max &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &maximum fall speed for graupel &8.\+0 \\\cline{1-4}
vr\+\_\+max &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &maximum fall speed for rain &12.\+0 \\\cline{1-4}
qi\+\_\+lim &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &cloud ice limiter to prevent large ice built up in cloud ice freezing and deposition &1. \\\cline{1-4}
prog\+\_\+ccn &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &flag for activating prognostic CCN (not supported in GFS Physics) &.false. \\\cline{1-4}
do\+\_\+qa &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &{\itshape }.true. to activate inline cloud fraction diagnosis in fast saturation adjustment. {\itshape }.false. to activate inline cloud fraction diagnosis in major cloud microphysics &.true. \\\cline{1-4}
fast\+\_\+sat\+\_\+adj &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &flag for adjusting cloud water evaporation (cloud water -\/\texorpdfstring{$>$}{>} water vapor), cloud water freezing (cloud water -\/\texorpdfstring{$>$}{>} cloud ice), cloud ice deposition (water vapor -\/\texorpdfstring{$>$}{>} cloud ice) when fast saturation adjustment is activated ({\bfseries{do\+\_\+sat\+\_\+adj}} = .true. in {\bfseries{fv\+\_\+core\+\_\+nml}} block) &.true. \\\cline{1-4}
tau\+\_\+l2v &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &time scale for evaporation of cloud water to water vapor. Increasing(decreasing) {\ttfamily tau\+\_\+l2v} can decrease(boost) deposition of cloud water to water vapor &300. \\\cline{1-4}
tau\+\_\+v2l &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &time scale for condensation of water vapor to cloud water. Increasing(decreasing) {\ttfamily tau\+\_\+v2l} can decrease(boost) condensation of water vapor to cloud water &150. \\\cline{1-4}
tau\+\_\+g2v &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &time scale for sublimation of graupel to water vapor. Increasing(decreasing) {\ttfamily tau\+\_\+g2v} can decrease(boost) sublimation of graupel to water vapor &900. \\\cline{1-4}
tau\+\_\+g2r &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &time scale for graupel melting. Increasing(decreasing) {\ttfamily tau\+\_\+g2r} can decrease(boost) melting of graupel to rain (graupel-\/\texorpdfstring{$>$}{>} rain) &600. \\\cline{1-4}
tau\+\_\+v2g &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &time scale for deposition of water vapor to graupel. Increasing(decreasing) {\ttfamily tau\+\_\+v2g} can decrease(boost) deposition of water vapor to graupel (water vapor -\/\texorpdfstring{$>$}{>} graupel) &21600. \\\cline{1-4}
tau\+\_\+l2r &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &time scale for autoconversion of cloud water to rain. Increasing(decreasing) {\ttfamily tau\+\_\+l2r} can decrese(boost) autoconversion of cloud water to rain (cloud water -\/\texorpdfstring{$>$}{>} rain) &900. \\\cline{1-4}
tau\+\_\+r2g &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &time scale for freezing of rain to graupel. Increasing(decreasing) {\ttfamily tau\+\_\+r2g} can decrease(boost) freezing of rain to graupel (rain-\/\texorpdfstring{$>$}{>}graupel) &900. \\\cline{1-4}
tau\+\_\+i2s &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &time scale for autoconversion of cloud ice to snow. Increasing(decreasing) {\ttfamily tau\+\_\+i2s} can decrease(boost) autoconversion of cloud ice to snow (cloud ice -\/\texorpdfstring{$>$}{>} snow) &1000. \\\cline{1-4}
tau\+\_\+imlt &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &time scale for cloud ice melting. Increasing(decreasing) {\ttfamily tau\+\_\+imlt} can decrease(boost) melting of cloud ice to cloud water or rain (cloud ice -\/\texorpdfstring{$>$}{>} cloud water or rain) &600. \\\cline{1-4}
tau\+\_\+smlt &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &time scale for snow melting. Increasing(decreasing) {\ttfamily tau\+\_\+smlt} can decrease(boost) melting of snow to cloud water or rain (snow-\/\texorpdfstring{$>$}{>} cloud water or rain) &900. \\\cline{1-4}
rthresh &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &critical cloud water radius for autoconversion (cloud water -\/\texorpdfstring{$>$}{>} rain). Increasing(decreasing) of {\ttfamily rthresh} makes the autoconversion harder(easier) &10.\+0e-\/6 \\\cline{1-4}
dw\+\_\+land &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &base value for subgrid deviation/variability over land &0.\+20 \\\cline{1-4}
dw\+\_\+ocean &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &base value for subgrid deviation/variability over ocean &0.\+10 \\\cline{1-4}
ql\+\_\+gen &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &maximum value for cloud water generated from condensation of water vapor (water vapor-\/\texorpdfstring{$>$}{>} cloud water) &1.\+0e-\/3 \\\cline{1-4}
qi\+\_\+gen &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &maximum value of cloud ice generated from deposition of water vapor (water vapor-\/\texorpdfstring{$>$}{>}cloud ice) or freezing(cloud water -\/\texorpdfstring{$>$}{>} cloud ice). Increasing(decreasing) {\ttfamily qi\+\_\+gen} can increas(decrease) cloud ice &1.\+82e-\/6 \\\cline{1-4}
ql\+\_\+mlt &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &maximum value of cloud water allowed from melted cloud ice (cloud ice -\/\texorpdfstring{$>$}{>} cloud water or rain). Exceedance of which will become rain. Increasing(decreasing) {\ttfamily ql\+\_\+mlt} can increase(decrease) cloud water and decrease(increase) rain &2.\+0e-\/3 \\\cline{1-4}
qs\+\_\+mlt &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &maximum value of cloud water allowed from melted snow (snow -\/\texorpdfstring{$>$}{>} cloud water or rain). Exceedance of which will become rain. Increasing(decreasing) {\ttfamily qs\+\_\+mlt} can increas(decrease) cloud water and decrease (increase) rain &1.\+0e-\/6 \\\cline{1-4}
ql0\+\_\+max &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &threshold of cloud water to rain autoconversion (cloud water -\/\texorpdfstring{$>$}{>} rain). Increasing(decreasing) {\ttfamily ql0\+\_\+max} can increase(decrease) rain and decrease(increase) cloud water &2.\+0e-\/3 \\\cline{1-4}
qi0\+\_\+max &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &maximum value of cloud ice generated from other sources like convection. Exceedance of which will become snow. Increasing(decreasing) {\ttfamily qi0\+\_\+max} can increase(decrease) cloud ice and decrease(increase) snow &1.\+0e-\/4 \\\cline{1-4}
qi0\+\_\+crt &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &threshold of cloud ice to snow autoconversion (cloud ice -\/\texorpdfstring{$>$}{>} snow). Increasing(decreasing) {\ttfamily qi0\+\_\+crt} can increase(decrease) cloud ice and decrease(increase) snow &1.\+0e-\/4 \\\cline{1-4}
qs0\+\_\+crt &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &threshold of snow to graupel autoconversion (snow -\/\texorpdfstring{$>$}{>} graupel). Increasing(decreasing) {\ttfamily qs0\+\_\+crt} can increase(decrease) snow and decrease(increase) graupel &1.\+0e-\/3 \\\cline{1-4}
qc\+\_\+crt &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &minimum value of cloud condensate to allow partial cloudiness. Partial cloud can only exist when total cloud condensate exceeds {\ttfamily qc\+\_\+crt} &5.\+0e-\/8 \\\cline{1-4}
c\+\_\+psaci &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &accretion efficiency of cloud ice to snow (cloud ice -\/\texorpdfstring{$>$}{>} snow). Increasing(decreasing) of {\ttfamily c\+\_\+psaci} can boost(decrease) the accretion of cloud ice to snow &0.\+02 \\\cline{1-4}
c\+\_\+pgacs &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &accretion efficiency of snow to graupel (snow -\/\texorpdfstring{$>$}{>} graupel). Increasing(decreasing) of {\ttfamily c\+\_\+pgacs} can boost(decrease) the accretion of snow to graupel &2.\+0e-\/3 \\\cline{1-4}
rh\+\_\+inc &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &relative humidity increment for complete evaporation of cloud water and cloud ice &0.\+25 \\\cline{1-4}
rh\+\_\+inr &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &relative humidity increment for sublimation of snow &0.\+25 \\\cline{1-4}
rh\+\_\+ins &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &relative humidity increment for minimum evaporation of rain &0.\+25 \\\cline{1-4}
rthresh &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &critical cloud water radius for autoconversion(cloud water-\/\texorpdfstring{$>$}{>}rain). Increasing(decreasing) of {\ttfamily rthresh} makes the autoconversion harder(easier) &1.\+0e-\/5 \\\cline{1-4}
ccn\+\_\+l &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &base CCN over land. Increasing(decreasing) {\ttfamily ccn\+\_\+l} can on the one hand boost(decrease) the autoconversion of cloud water to rain, on the other hand make the autoconversion harder(easier). The unit is $cm^{-3}$ &270. \\\cline{1-4}
ccn\+\_\+o &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &base CCN over ocean. Increasing(decreasing) {\ttfamily ccn\+\_\+o} can on the one hand boost(decrease) the autoconversion of cloud water to rain, on the other hand make the autoconversion harder(easier). The unit is $cm^{-3}$ &90. \\\cline{1-4}
c\+\_\+paut &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &autoconversion efficiency of cloud water to rain (cloud water -\/\texorpdfstring{$>$}{>} rain). Increasing(decreasing) of {\ttfamily c\+\_\+paut} can boost(decrease) the autoconversion of cloud water to rain &0.\+55 \\\cline{1-4}
c\+\_\+cracw &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &accretion efficiency of cloud water to rain (cloud water -\/\texorpdfstring{$>$}{>} rain). Increasing(decreasing) of {\ttfamily c\+\_\+cracw} can boost(decrease) the accretion of cloud water to rain &0.\+9 \\\cline{1-4}
sat\+\_\+adj0 &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &adjust factor for condensation of water vapor to cloud water (water vapor-\/\texorpdfstring{$>$}{>}cloud water) and deposition of water vapor to cloud ice &0.\+9 \\\cline{1-4}
use\+\_\+ppm &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &{\itshape true} to use PPM fall scheme; {\itshape false} to use time-\/implicit monotonic fall scheme &.false. \\\cline{1-4}
use\+\_\+ccn &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &{\itshape true} to compute prescribed CCN. It should be .true. when {\ttfamily prog\+\_\+ccn} = .false. &.false. \\\cline{1-4}
mono\+\_\+prof &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &{\itshape true} to turn on terminal fall with monotonic PPM scheme. This is used together with {\ttfamily use\+\_\+ppm=}.true. &.true. \\\cline{1-4}
z\+\_\+slope\+\_\+liq &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &{\itshape true} to turn on vertically subgrid linear monotonic slope for autoconversion of cloud water to rain &.true. \\\cline{1-4}
z\+\_\+slope\+\_\+ice &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &{\itshape true} to turn on vertically subgrid linear monotonic slope for autoconversion of cloud ice to snow &.false. \\\cline{1-4}
de\+\_\+ice &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &{\itshape true} to convert excessive cloud ice to snow to prevent ice over-\/built from other sources like convection scheme (not supported in GFS physics) &.false. \\\cline{1-4}
fix\+\_\+negative &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &{\itshape true} to fix negative water species using nearby points &.false. \\\cline{1-4}
icloud\+\_\+f &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &flag (0,1,or 2) for cloud fraction diagnostic scheme &0 \\\cline{1-4}
irain\+\_\+f &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &flag (0 or 1) for cloud water autoconversion to rain scheme. 0\+: with subgrid variability; 1\+: no subgrid variability &0 \\\cline{1-4}
mp\+\_\+time &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &time step of GFDL cloud microphysics (MP). If {\ttfamily mp\+\_\+time} isn\textquotesingle{}t divisible by physics time step or is larger than physics time step, the actual MP time step becomes {\ttfamily dt/\+NINT}\mbox{[}dt/\+MIN(dt,mp\+\_\+time)\mbox{]} &150. \\\cline{1-4}
alin &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &parameter {\itshape a} in Lin et al.(1983). Constant in empirical formula for $U_R$. Increasing(decreasing) {\ttfamily alin} can boost(decrease) accretion of cloud water by rain and rain evaporation &842. \\\cline{1-4}
clin &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &parameter {\itshape c} in Lin et al.(1983). Constant in empirical formula for $U_S$. Increasing(decreasing) {\ttfamily clin} can boost(decrease) accretion of cloud water by snow, accretion of cloud ice by snow, snow sublimation and deposition, and snow melting &4.\+8 \\\cline{1-4}
t\+\_\+min &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &temperature threshold for instant deposition. Deposit all water vapor to cloud ice when temperature is lower than {\ttfamily t\+\_\+min} &178. \\\cline{1-4}
t\+\_\+sub &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &temperature threshold for sublimation. Cloud ice, snow or graupel stops(starts) sublimation when temperature is lower(higher) then {\ttfamily t\+\_\+sub} &184. \\\cline{1-4}
mp\+\_\+print &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}} &{\itshape }.true. to turn on GFDL cloud microphysics debugging print out. (not supported in GFS physics) &.false. \\\cline{1-4}
ltaerosol &\mbox{\hyperlink{namespacemp__thompson}{mp\+\_\+thompson}} &flag for using aerosol climotology in Thompson MP scheme &.false. \\\cline{1-4}
mraerosol &&flag for merra2 aerosol aware &.false. \\\cline{1-4}
lradar &&flag for radar reflectivity &.false. \\\cline{1-4}
nsfullradar\+\_\+diag &&seconds between resetting radar reflectivity calculation &.-\/999.\+0 \\\cline{1-4}
ttendlim &\mbox{\hyperlink{namespacemp__thompson}{mp\+\_\+thompson}} &temperature tendency limiter per time step in K/s, set to \texorpdfstring{$<$}{<} 0 to deactivate &-\/999.\+0 \\\cline{1-4}
ext\+\_\+diag\+\_\+thompson &\mbox{\hyperlink{namespacemp__thompson}{mp\+\_\+thompson}} &flag for extended diagnostic output from Thompson MP &.false. \\\cline{1-4}
thompson\+\_\+ext\+\_\+ndiag3d &\mbox{\hyperlink{namespacemp__thompson}{mp\+\_\+thompson}} &number of 3d arrays for extended diagnostic output from Thompson MP &37 ~\newline
 \\\cline{1-4}
dt\+\_\+inner &\mbox{\hyperlink{namespacemp__thompson}{mp\+\_\+thompson}} &time step for the inner loop in second &-\/999.\+0 \\\cline{1-4}
sedi\+\_\+semi &\mbox{\hyperlink{namespacemp__thompson}{mp\+\_\+thompson}} &flag for semi Lagrangian sedi of rain &.false. \\\cline{1-4}
decfl &\mbox{\hyperlink{namespacemp__thompson}{mp\+\_\+thompson}} &deformed CFL factor &8 \\\cline{1-4}
effr\+\_\+in &\mbox{\hyperlink{namespacegfdl__cloud__microphys}{gfdl\+\_\+cloud\+\_\+microphys}}, \mbox{\hyperlink{namespacemp__thompson}{mp\+\_\+thompson}} &flag for using input cloud effective radii calculation &.false. \\\cline{1-4}
cnvcld &see {\itshape GFS\+\_\+typedefs.\+F90} &flag for convective cloud &.false. \\\cline{1-4}
lgfdlmprad &\mbox{\hyperlink{namespacegfs__rrtmg__pre}{gfs\+\_\+rrtmg\+\_\+pre}} &flag for GFDL mp scheme and radiation consistency &.false. \\\cline{1-4}
nssl\+\_\+cccn &\mbox{\hyperlink{namespacemp__nssl}{mp\+\_\+nssl}} &CCN concentration (m$^\wedge$-\/3) &0.\+6e9 \\\cline{1-4}
nssl\+\_\+alphah &\mbox{\hyperlink{namespacemp__nssl}{mp\+\_\+nssl}} &graupel shape parameter &0.\+0 \\\cline{1-4}
nssl\+\_\+alphahl &\mbox{\hyperlink{namespacemp__nssl}{mp\+\_\+nssl}} &hail shape parameter &1.\+0 \\\cline{1-4}
nssl\+\_\+alphar &\mbox{\hyperlink{namespacemp__nssl}{mp\+\_\+nssl}} &shape paramter for rain (imurain=1 only) &0.\+0 \\\cline{1-4}
nssl\+\_\+ehw0\+\_\+in &\mbox{\hyperlink{namespacemp__nssl}{mp\+\_\+nssl}} &constant or max assumed graupel-\/droplet collection efficiency &0.\+9 \\\cline{1-4}
nssl\+\_\+ehlw0\+\_\+in &\mbox{\hyperlink{namespacemp__nssl}{mp\+\_\+nssl}} &constant or max assumed hail-\/droplet collection efficiency &0.\+9 \\\cline{1-4}
nssl\+\_\+hail\+\_\+on &\mbox{\hyperlink{namespacemp__nssl}{mp\+\_\+nssl}} &NSSL flag to activate the hail category &.false. \\\cline{1-4}
nssl\+\_\+ccn\+\_\+on &\mbox{\hyperlink{namespacemp__nssl}{mp\+\_\+nssl}} &NSSL flag to activate the CCN category &.true. \\\cline{1-4}
nssl\+\_\+invertccn &\mbox{\hyperlink{namespacemp__nssl}{mp\+\_\+nssl}} &NSSL flag to treat CCN as activated or unactivated &.true. \\\cline{1-4}
nssl\+\_\+ehw0 &\mbox{\hyperlink{namespacemp__nssl}{mp\+\_\+nssl}} &NSSL graupel-\/droplet collection efficiency &0.\+9 \\\cline{1-4}
nssl\+\_\+ehlw0 &\mbox{\hyperlink{namespacemp__nssl}{mp\+\_\+nssl}} &NSSL hail-\/droplet collection efficiency &0.\+9 \\\cline{1-4}
\multicolumn{4}{|c|}{\PBS\centering {\bfseries{Parameters}} {\bfseries{related}} {\bfseries{to}} {\bfseries{gravity}} {\bfseries{drag}} {\bfseries{scheme}} {\bfseries{options}} }\\\cline{1-4}
knob\+\_\+ugwp\+\_\+version &\mbox{\hyperlink{namespacecires__ugwp}{cires\+\_\+ugwp}} &parameter selects a version of the UGWP implementation in FV3\+GFS-\/127L ~\newline
 ~\newline
 
\begin{DoxyItemize}
\item 0\+: default version delivered to EMC in Jan 2019 for implementation 
\item 1\+: version of UGWP under development that plans to consider the physics-\/based sources of NGWs ({\bfseries{knob\+\_\+ugwp\+\_\+wvspec}} \mbox{[}2\+:4\mbox{]}), options for stochastic and deterministic excitation of waves ({\bfseries{knob\+\_\+ugwp\+\_\+stoch}}), and switches between different UGWP schemes ({\bfseries{knob\+\_\+ugwp\+\_\+solver}}) 
\end{DoxyItemize}&0 \\\cline{1-4}
knob\+\_\+ugwp\+\_\+doaxyz &\mbox{\hyperlink{namespacecires__ugwp}{cires\+\_\+ugwp}} &parameter controls application of the momentum deposition for NGW-\/schemes ~\newline
 
\begin{DoxyItemize}
\item 0\+: the momentum tendencies due to NGWs are calculated, but tendencies do not change the horizontal winds 
\item 1\+: default value; it changes the horizontal momentum tendencies and horizontal winds 
\end{DoxyItemize}&1 \\\cline{1-4}
knob\+\_\+ugwp\+\_\+doheat &\mbox{\hyperlink{namespacecires__ugwp}{cires\+\_\+ugwp}} &parameter controls application of the heat deposition for NGW-\/schemes ~\newline
 
\begin{DoxyItemize}
\item 0\+: the temperature tendencies due to NGWs are calculated but tendencies do not change the temperature state 
\item 1\+: default value; it changes the temperature tendencies and kinetic temperature 
\end{DoxyItemize}&1 \\\cline{1-4}
knob\+\_\+ugwp\+\_\+dokdis &\mbox{\hyperlink{namespacecires__ugwp}{cires\+\_\+ugwp}} &parameter controls application of the eddy diffusion due to instability of NGWs ~\newline
 
\begin{DoxyItemize}
\item 0\+: the eddy diffusion tendencies due to NGWs are calculated but tendencies do not change the model state vector 
\item 1\+: it computes eddy diffusion coefficient due to instability of NGWs; in UGWP v0, eddy viscosity, heat conductivity and tracer diffusion are not activated 
\end{DoxyItemize}&0 \\\cline{1-4}
knob\+\_\+ugwp\+\_\+solver &\mbox{\hyperlink{namespacecires__ugwp}{cires\+\_\+ugwp}} &parameter controls the selection of UGWP-\/solvers(wave propagation, dissipation and wave breaking) for NGWs ~\newline
 
\begin{DoxyItemize}
\item 1\+: represents the discrete multi-\/wave solver with background dissipation and linear wave saturation 
\item 2\+: represents the spectral deterministic solver with background dissipation and spectral saturation 
\item 3\+: represents the discrete multi-\/wave solver with the background dissipation, extension of Alexander sand Dunkerton (1999) 
\item 4\+: represents the spectral solver with background dissipation, extension of Doppler Spread Theory of Hines (1997) 
\end{DoxyItemize}&1 \\\cline{1-4}
knob\+\_\+ugwp\+\_\+ndx4lh &\mbox{\hyperlink{namespacecires__ugwp}{cires\+\_\+ugwp}} &parameter controls the selection of the horizontal wavenumber(wavelength) for NGW schemes ~\newline
 
\begin{DoxyItemize}
\item 1\+: selects the $4xdx$ sub-\/grid wavelength, where dx is the horizontal resolution of the model configuration (C96-\/400km; C768-\/52km) 
\end{DoxyItemize}&2 \\\cline{1-4}
knob\+\_\+ugwp\+\_\+wvspec &\mbox{\hyperlink{namespacecires__ugwp}{cires\+\_\+ugwp}} &four-\/dimensional array defines number of waves in each arimuthal propagation (as defined by knob\+\_\+ugwp\+\_\+azdir) for GWs excited due to the following four sources\+: ~\newline
 (1) sub-\/grid orography ({\bfseries{knob\+\_\+ugwp\+\_\+wvspec}}\mbox{[}1\mbox{]}=1), ~\newline
 (2) convective ({\bfseries{knob\+\_\+ugwp\+\_\+wvspec}}\mbox{[}2\mbox{]}=25), ~\newline
 (3) frontal ({\bfseries{knob\+\_\+ugwp\+\_\+wvspec}}\mbox{[}3\mbox{]}=25) activity, ~\newline
 (4) {\bfseries{knob\+\_\+ugwp\+\_\+wvspec}}\mbox{[}4\mbox{]} represents number of wave excited by dynamical imbalances that may mimic both convective and front-\/jet mechanisms of GW triggering. ~\newline
 In UGWP v0, first two elements of the array, {\bfseries{knob\+\_\+ugwp\+\_\+wvspec(1\+:2)}}, control number of waves for stationary (OGW) and nonstationary waves (NGWs). &1,32,32,32 \\\cline{1-4}
knob\+\_\+ugwp\+\_\+azdir &\mbox{\hyperlink{namespacecires__ugwp}{cires\+\_\+ugwp}} &four-\/dimensional array that defines number of azimuths for propagation of GWs triggered by four types of physics-\/based sources (orography, convection, front-\/jets, and dynamical imbalance). In UGWP v0, first two elements of the array, {\bfseries{knob\+\_\+ugwp\+\_\+azdir(1\+:2)}}, control number of azimuths for OGW and NGWs respectively. ~\newline
 &2,4,4,4 \\\cline{1-4}
knob\+\_\+ugwp\+\_\+stoch &\mbox{\hyperlink{namespacecires__ugwp}{cires\+\_\+ugwp}} &four-\/dimensional array that control stochastic selection of GWs triggered by four types of physics-\/based sources. ~\newline
 Default values\+:0,0,0,0 -\/ reflect determinstic selection of GW parameters without stochastic selection ~\newline
 &0,0,0,0 \\\cline{1-4}
knob\+\_\+ugwp\+\_\+effac &\mbox{\hyperlink{namespacecires__ugwp}{cires\+\_\+ugwp}} &four-\/dimensional array that control efficiency of GWs triggerd by four types of physics-\/based sources. ~\newline
 Default values\+: 1.,1.,1.,1. -\/ reflect that calculated GW-\/tendencies will be applied for the model state. &1.,1.,1.,1. \\\cline{1-4}
launch\+\_\+level &\mbox{\hyperlink{namespacecires__ugwp}{cires\+\_\+ugwp}} &parameter has been introduced by EMC during implementation. It defines the interface model level from the surface at which NGWs are launched. ~\newline
 Default value for FV3\+GFS-\/64L, launch\+\_\+level=25 and for FV3\+GFS-\/128L, launch\+\_\+level=52. &55 \\\cline{1-4}
ldiag\+\_\+ugwp &\mbox{\hyperlink{namespacecires__ugwp}{cires\+\_\+ugwp}} &flag for CIRES UGWP diagnostics &.false. ~\newline
 \\\cline{1-4}
do\+\_\+ugwp &\mbox{\hyperlink{namespacecires__ugwp}{cires\+\_\+ugwp}} &flag for CIRES UGWP revised OGW ~\newline
 
\begin{DoxyItemize}
\item .T.\+: revised gwdps\+\_\+v0 
\item .F.\+: GFS operational orographic gwdps 
\end{DoxyItemize}&.false.; The CIRES Unified Gravity Wave Physics (\mbox{\hyperlink{namespacecires__ugwp}{cires\+\_\+ugwp}}) scheme is used in GFSv15p2 and GFSv16beta SDFs with do\+\_\+ugwp=F in the namelist. In this setting, the \mbox{\hyperlink{namespacecires__ugwp}{cires\+\_\+ugwp}} calls the operational GFS v15.\+2 orographic gravity wave drag (gwdps) scheme. When do\+\_\+ugwp=.T., the \mbox{\hyperlink{namespacecires__ugwp}{cires\+\_\+ugwp}} scheme calls an experimental orographic gravity wave (gwdps\+\_\+v0) \\\cline{1-4}
do\+\_\+tofd &\mbox{\hyperlink{namespacecires__ugwp}{cires\+\_\+ugwp}} &flag for turbulent orographic form drag &.false. \\\cline{1-4}
cnvgwd &\mbox{\hyperlink{namespacecires__ugwp}{cires\+\_\+ugwp}} &flag for convective gravity wave drag scheme dependent on maxval(cdmbgwd(3\+:4) == 0.\+0) &.false. \\\cline{1-4}
cdmbgwd(4) &\mbox{\hyperlink{namespacecires__ugwp}{cires\+\_\+ugwp}} &multiplication factors for mountain blocking(1), orographic gravity wave drag(2) 
\begin{DoxyItemize}
\item \mbox{[}1\mbox{]}\+: GWDPS mountain blocking 
\item \mbox{[}2\mbox{]}\+: GWDPS orographic gravity wave drag 
\item \mbox{[}3\mbox{]}\+: the modulation total momentum flux of NGWs by intensities of the total precipitation 
\item \mbox{[}4\mbox{]}\+: TKE for future tests and applications 
\end{DoxyItemize}&2.\+0,0.\+25,1.\+0,1.\+0 \\\cline{1-4}
nmtvr &\mbox{\hyperlink{namespacecires__ugwp}{cires\+\_\+ugwp}} &number of topographic variables such as variance etc used in the GWD parameterization-\/10 more added if GSL orographic drag scheme is used &14 \\\cline{1-4}
cgwf &\mbox{\hyperlink{namespacecires__ugwp}{cires\+\_\+ugwp}}, \mbox{\hyperlink{namespaceunified__ugwp}{unified\+\_\+ugwp}} &multiplication factor for convective GWD &0.\+5d0,0.\+05d0 \\\cline{1-4}
do\+\_\+gwd &see {\itshape GFS\+\_\+typedefs.\+F90} &flag for gravity wave drag &maxval(cdmbgwd) \texorpdfstring{$>$}{>} 0.\+0 \\\cline{1-4}
gwd\+\_\+opt &\mbox{\hyperlink{namespacedrag__suite}{drag\+\_\+suite}} &flag for GWD scheme ~\newline
 
\begin{DoxyItemize}
\item 1\+: original GFS GWD 
\item 2\+: Unified UGWP GWD 
\item 22\+: Unified UGWP GWD with extra output 
\item 3\+: GSL drag suite 
\item 33\+: GSL drag suite with extra output 
\end{DoxyItemize}&1 \\\cline{1-4}
do\+\_\+ugwp\+\_\+v0 &\mbox{\hyperlink{namespaceunified__ugwp}{unified\+\_\+ugwp}} &flag for version 0 UGWP GWD &.true. \\\cline{1-4}
do\+\_\+ugwp\+\_\+v0\+\_\+orog\+\_\+only &\mbox{\hyperlink{namespaceunified__ugwp}{unified\+\_\+ugwp}} &flag for version 0 UGWP GWD (orographic drag only) &.false. \\\cline{1-4}
do\+\_\+ugwp\+\_\+v0\+\_\+nst\+\_\+only &\mbox{\hyperlink{namespaceunified__ugwp}{unified\+\_\+ugwp}} &flag for version 0 UGWP GWD (non-\/stationary GWD only) &.false. \\\cline{1-4}
do\+\_\+gsl\+\_\+drag\+\_\+ls\+\_\+bl &\mbox{\hyperlink{namespaceunified__ugwp}{unified\+\_\+ugwp}}, \mbox{\hyperlink{namespacedrag__suite}{drag\+\_\+suite}} &flag for GSL drag (large-\/scale GWD and blocking only) &.false. \\\cline{1-4}
do\+\_\+gsl\+\_\+drag\+\_\+ss &\mbox{\hyperlink{namespaceunified__ugwp}{unified\+\_\+ugwp}}, \mbox{\hyperlink{namespacedrag__suite}{drag\+\_\+suite}} &flag for GSL drag (small-\/scale GWD only) &.false. \\\cline{1-4}
do\+\_\+gsl\+\_\+drag\+\_\+tofd &\mbox{\hyperlink{namespaceunified__ugwp}{unified\+\_\+ugwp}}, \mbox{\hyperlink{namespacedrag__suite}{drag\+\_\+suite}} &flag for GSL drag (turbulent orog form drag only) &.false. \\\cline{1-4}
\multicolumn{4}{|c|}{\PBS\centering {\bfseries{Parameters}} {\bfseries{related}} {\bfseries{to}} {\bfseries{LSM}} {\bfseries{options}} }\\\cline{1-4}
lsm &see {\itshape GFS\+\_\+typedefs.\+F90} &flag for land surface model to use ~\newline
 
\begin{DoxyItemize}
\item 1\+: Noah LSM 
\item 2\+: Noah\+MP LSM 
\item 3\+: RUC LSM 
\end{DoxyItemize}&1 \\\cline{1-4}
lsoil &\mbox{\hyperlink{namespacelsm__noah}{lsm\+\_\+noah}} &number of soil layers &4 \\\cline{1-4}
rdlai &\mbox{\hyperlink{namespacelsm__ruc}{lsm\+\_\+ruc}} &flag to read leaf area index from input files &.false. \\\cline{1-4}
ivegsrc &\mbox{\hyperlink{namespacelsm__noah}{lsm\+\_\+noah}}, \mbox{\hyperlink{namespacelsm__ruc}{lsm\+\_\+ruc}}, \mbox{\hyperlink{namespacenoahmpdrv}{noahmpdrv}}, \mbox{\hyperlink{namespacesfc__diff}{sfc\+\_\+diff}} &flag for vegetation type dataset choice\+: ~\newline
 
\begin{DoxyItemize}
\item 0\+: USGS 
\item 1\+: IGBP(20 category)\+: IGBP must be selected if Noah\+MP is used 
\item 2\+: UMD (13 category) 
\item 3\+: NLCD40 (40 category, NOAH WRFv4 only) 
\item 4\+: USGS-\/\+RUC (28 category, NOAH WRFv4 only) 
\item 5\+: MODIS-\/\+RUC (21 category, NOAH WRFv4 only) 
\end{DoxyItemize}&2 \\\cline{1-4}
isot &\mbox{\hyperlink{namespacelsm__noah}{lsm\+\_\+noah}}, \mbox{\hyperlink{namespacelsm__ruc}{lsm\+\_\+ruc}}, \mbox{\hyperlink{namespacenoahmpdrv}{noahmpdrv}} &flag for soil type dataset choice\+:~\newline
 
\begin{DoxyItemize}
\item 0\+: Zobler soil type (9 category) 
\item 1\+: STATSGO soil type (19 category)\+: STATSGO must be selected if Noah\+MP is used 
\item 2\+: STAS-\/\+RUC soil type (19 category, NOAH WRFv4 only 
\end{DoxyItemize}&0 \\\cline{1-4}
exticeden &\mbox{\hyperlink{namespacelsm__noah}{lsm\+\_\+noah}},\mbox{\hyperlink{namespacelsm__ruc}{lsm\+\_\+ruc}} &flag for calculating frozen precip ice density outside of the LSM &.false. \\\cline{1-4}
iopt\+\_\+dveg &\mbox{\hyperlink{namespacenoahmpdrv}{noahmpdrv}} &options for dynamic vegetation ~\newline
 
\begin{DoxyItemize}
\item 1\+: off (use table LAI; use FVEG = SHDFAC from input) 
\item 2\+: on (together with {\itshape iopt\+\_\+crs} = 1) 
\item 3\+: off (use table LAI; calculate FVEG) 
\item 4\+: off (use table LAI; use maximum vegetation fraction) 
\item 5\+: on (use maximum vegetation fraction) 
\item 6\+: on (use FVEG = SHDFAC from input) 
\item 7\+: off (use input LAI; use FVEG = SHDFAC from input) 
\item 8\+: off (use input LAI; calculate FVEG) 
\item 9\+: off (use input LAI; use maximum vegetation fraction) 
\end{DoxyItemize}&4 \\\cline{1-4}
iopt\+\_\+crs &\mbox{\hyperlink{namespacenoahmpdrv}{noahmpdrv}} &options for canopy stomatal resistance ~\newline
 
\begin{DoxyItemize}
\item 1\+: Ball-\/\+Berry 
\item 2\+: Jarvis 
\end{DoxyItemize}&1 \\\cline{1-4}
iopt\+\_\+btr &\mbox{\hyperlink{namespacenoahmpdrv}{noahmpdrv}} &options for soil moisture factor for stomatal resistance ~\newline
 
\begin{DoxyItemize}
\item 1\+: Noah (soil moisture) 
\item 2\+: CLM (matric potential) 
\item 3\+: SSIB (matric potential) 
\end{DoxyItemize}&1 \\\cline{1-4}
iopt\+\_\+run &\mbox{\hyperlink{namespacenoahmpdrv}{noahmpdrv}} &options for runoff and groundwater ~\newline
 
\begin{DoxyItemize}
\item 1\+: TOPMODEL with groundwater (Niu et al. 2007 \cite{niu_et_al_2007}) 
\item 2\+: TOPMODEL with an equilibrium water table (Niu et al. 2005 \cite{niu_et_al_2005}) 
\item 3\+: original surface and subsurface runoff (free drainage) 
\item 4\+: bats surface and subsurface runoff (free drainage) 
\item 5\+: Miguez-\/macho\&Fan groundwater scheme (Miguez-\/\+Macho et al. 2007 \cite{miguez_et_al_2007}; Fan et al. 2007 \cite{fan_et_al_2007}; needs further testing for public use) 
\end{DoxyItemize}&3 \\\cline{1-4}
iopt\+\_\+sfc &\mbox{\hyperlink{namespacenoahmpdrv}{noahmpdrv}} &options for surface layer drag coeff (CH\&CM) ~\newline
 
\begin{DoxyItemize}
\item 1\+: m-\/o 
\item 2\+: original Noah (Chen et al. 1997 \cite{chen_et_al_1997}) 
\item 4\+: MYNN surface layer scheme 
\end{DoxyItemize}&1 \\\cline{1-4}
iopt\+\_\+frz &\mbox{\hyperlink{namespacenoahmpdrv}{noahmpdrv}} &options for supercooled liquid water (or ice fraction) ~\newline
 
\begin{DoxyItemize}
\item 1\+: no interation (Niu and Yang (2006) \cite{niu_and_yang_2006} ) 
\item 2\+: Koren\textquotesingle{}s iteration 
\end{DoxyItemize}&1 \\\cline{1-4}
iopt\+\_\+inf &\mbox{\hyperlink{namespacenoahmpdrv}{noahmpdrv}} &options for frozen soil permeability ~\newline
 
\begin{DoxyItemize}
\item 1\+: linear effects, more permeable (Niu and Yang (2006) \cite{niu_and_yang_2006}) 
\item 2\+: nonlinear effects, less permeable (old) 
\end{DoxyItemize}&1 \\\cline{1-4}
iopt\+\_\+rad &\mbox{\hyperlink{namespacenoahmpdrv}{noahmpdrv}} &options for radiation transfer ~\newline
 
\begin{DoxyItemize}
\item 1\+: modified two-\/stream (gap = f(solar angle, 3d structure ...)\texorpdfstring{$<$}{<}1-\/fveg) 
\item 2\+: two-\/stream applied to grid-\/cell (gap = 0) 
\item 3\+: two-\/stream applied to vegetated fraction (gap=1-\/FVEG) 
\end{DoxyItemize}&3 \\\cline{1-4}
iopt\+\_\+alb &\mbox{\hyperlink{namespacenoahmpdrv}{noahmpdrv}} &options for ground snow surface albedo ~\newline
 
\begin{DoxyItemize}
\item 1\+: BATS 
\item 2\+: CLASS 
\end{DoxyItemize}&2 \\\cline{1-4}
iopt\+\_\+snf &\mbox{\hyperlink{namespacenoahmpdrv}{noahmpdrv}} &options for partitioning precipitation into rainfall and snowfall ~\newline
 
\begin{DoxyItemize}
\item 1\+: Jordan (1991) 
\item 2\+: BATS\+: when sfctmp \texorpdfstring{$<$}{<} tfrz+2.2 
\item 3\+: sfctmp \texorpdfstring{$<$}{<} tfrz 
\item 4\+: use WRF microphysics output 
\end{DoxyItemize}&1 \\\cline{1-4}
iopt\+\_\+tbot &\mbox{\hyperlink{namespacenoahmpdrv}{noahmpdrv}} &options for lower boundary condition of soil temperature ~\newline
 
\begin{DoxyItemize}
\item 1\+: zero heat flux from bottom (zbot and tbot not used) 
\item 2\+: tbot at zbot (8m) read from a file (original Noah) 
\end{DoxyItemize}&2 \\\cline{1-4}
iopt\+\_\+stc &\mbox{\hyperlink{namespacenoahmpdrv}{noahmpdrv}} &options for snow/soil temperature time scheme (only layer 1) ~\newline
 
\begin{DoxyItemize}
\item 1\+: semi-\/implicit; flux top boundary condition 
\item 2\+: full implicit (original Noah); temperature top boundary condition 
\item 3\+: same as 1, but fsno for ts calculation (generally improve snow; v3.\+7) 
\end{DoxyItemize}&1 \\\cline{1-4}
iopt\+\_\+trs &\mbox{\hyperlink{namespacenoahmpdrv}{noahmpdrv}} &options for thermal roughness scheme\+:~\newline
 
\begin{DoxyItemize}
\item 1\+: z0h=z0m ~\newline
 
\item 2\+: canopy based czil 
\item 3\+: ec 
\item 4\+: kb inversed 
\end{DoxyItemize}&2 \\\cline{1-4}
mosaic\+\_\+lu &\mbox{\hyperlink{namespacelsm__ruc}{lsm\+\_\+ruc}} &control for use of fractional landuse in RUC land surface model ~\newline
 
\begin{DoxyItemize}
\item 1\+: use of fractional landuse in RUC LSM 
\end{DoxyItemize}&0 \\\cline{1-4}
mosaic\+\_\+soil &\mbox{\hyperlink{namespacelsm__ruc}{lsm\+\_\+ruc}} &control for use of fractional soil in RUC land surface model ~\newline
 
\begin{DoxyItemize}
\item 1\+: use of fractional soil in RUC LSM 
\end{DoxyItemize}&0 \\\cline{1-4}
isncond\+\_\+opt &\mbox{\hyperlink{namespacelsm__ruc}{lsm\+\_\+ruc}} &control for soil thermal conductivity option in RUC land surface model ~\newline
 
\begin{DoxyItemize}
\item 1\+: constant 
\item 2\+: Sturm et al.(1997) \cite{sturm_1997} 
\end{DoxyItemize}&1 \\\cline{1-4}
isncovr\+\_\+opt &\mbox{\hyperlink{namespacelsm__ruc}{lsm\+\_\+ruc}} &control for snow cover fraction option in RUC land surface model 
\begin{DoxyItemize}
\item 1\+: original formulation using threshold snow depth to compute snow fraction 
\item 2\+: Niu-\/\+Yang(2007) \cite{Niu_2007} 
\item 3\+: updated Niu-\/\+Yang similar to Noah MP 
\end{DoxyItemize}&1 \\\cline{1-4}
\multicolumn{4}{|c|}{\PBS\centering {\bfseries{Parameters}} {\bfseries{related}} {\bfseries{to}} {\bfseries{other}} {\bfseries{surface}} {\bfseries{scheme}} {\bfseries{options}} }\\\cline{1-4}
lkm &\mbox{\hyperlink{namespaceclm__lake}{clm\+\_\+lake}} &0\+: no lake; 1\+: lake; 2\+: lake\&nsst &0 \\\cline{1-4}
iopt\+\_\+lake &\mbox{\hyperlink{namespaceclm__lake}{clm\+\_\+lake}} &1\+: flake; 2\+: CLM lake &2 \\\cline{1-4}
lakedepth\+\_\+threshold &\mbox{\hyperlink{namespaceclm__lake}{clm\+\_\+lake}} &lakedepth must be greater than this value to enable a lake model &1.\+0 \\\cline{1-4}
lakefrac\+\_\+threshold &\mbox{\hyperlink{namespaceclm__lake}{clm\+\_\+lake}} &lakefrac must be greater than this value to enable a lake model &0.\+0 \\\cline{1-4}
use\+\_\+lake2m &\mbox{\hyperlink{namespaceclm__lake}{clm\+\_\+lake}} &use 2m T\&Q from CLM lake model &.false. \\\cline{1-4}
nstf\+\_\+name(5) &\mbox{\hyperlink{namespacesfc__nst}{sfc\+\_\+nst}} &NSST related paramters\+:~\newline
 ~\newline
 
\begin{DoxyItemize}
\item nstf\+\_\+name(1)\+: 0=NSST off, 1= NSST on but uncoupled, 2= NSST on and coupled 
\item nstf\+\_\+name(2)\+: 1=NSST spin up on, 0=NSST spin up off 
\item nstf\+\_\+name(3)\+: 1=NSST analysis on, 0=NSST analysis off 
\item nstf\+\_\+name(4)\+: zsea1 in mm 
\item nstf\+\_\+name(5)\+: zesa2 in mm 
\end{DoxyItemize}&/0,0,1,0,5/ \\\cline{1-4}
nst\+\_\+anl &\mbox{\hyperlink{namespacegfs__phys__time__vary}{gfs\+\_\+phys\+\_\+time\+\_\+vary}} &flag for NSST analysis in gcycle/sfcsub &.false. \\\cline{1-4}
frac\+\_\+grid &fractional grid &flag for fractional grid &.false. \\\cline{1-4}
min\+\_\+lakeice &fractional grid &minimum lake ice value &0.\+15d0 ~\newline
 \\\cline{1-4}
min\+\_\+seaice &fractional grid &minimum sea ice value &1.\+0d-\/11 \\\cline{1-4}
min\+\_\+lake\+\_\+height &fractional grid &minimum lake height value &250.\+0 \\\cline{1-4}
sfc\+\_\+z0\+\_\+type &\mbox{\hyperlink{namespacesfc__diff}{sfc\+\_\+diff}} &surface roughness options over ocean ~\newline
 
\begin{DoxyItemize}
\item 0\+: no change 
\item 6\+: areodynamical roughness over water with input 10-\/m wind 
\item 7\+: slightly decrease Cd for higher wind speed compared to 6 
\item negative when cplwav2atm=.true. -\/ i.\+e. two way wave coupling 
\end{DoxyItemize}&0 \\\cline{1-4}
redrag &\mbox{\hyperlink{namespacesfc__diff}{sfc\+\_\+diff}} &flag for applying reduced drag coefficient for high wind over sea in GFS surface layer scheme &.false. \\\cline{1-4}
lheatstrg &\mbox{\hyperlink{namespacegfs__surface__generic__post}{gfs\+\_\+surface\+\_\+generic\+\_\+post}} &flag for canopy heat storage parameterization &.false. \\\cline{1-4}
z0fac &\mbox{\hyperlink{namespacegfs__surface__generic__post}{gfs\+\_\+surface\+\_\+generic\+\_\+post}} &surface roughness fraction factor &0.\+3 ~\newline
 \\\cline{1-4}
e0fac &\mbox{\hyperlink{namespacegfs__surface__generic__post}{gfs\+\_\+surface\+\_\+generic\+\_\+post}} &latent heat flux fraction factor relative to sensible heat flux,e.\+g., e0fac=0.\+5 indicates that canopy heat storage for latent heat flux is 50\% of that for sensible heat flux &0.\+5 \\\cline{1-4}
isftcflx &\mbox{\hyperlink{namespacemynnsfc__wrapper}{mynnsfc\+\_\+wrapper}} &flag for thermal roughness lengths over water in MYNN-\/\+SFCLAY &0 \\\cline{1-4}
iz0tlnd &\mbox{\hyperlink{namespacemynnsfc__wrapper}{mynnsfc\+\_\+wrapper}} &flag for thermal roughness lengths over land in MYNN-\/\+SFCLAY &0 \\\cline{1-4}
sfclay\+\_\+compute\+\_\+flux &\mbox{\hyperlink{namespacemynnsfc__wrapper}{mynnsfc\+\_\+wrapper}} &flag for computing surface scalar fluxes in MYNN-\/\+SFCLAY &.false. \\\cline{1-4}
sfclay\+\_\+compute\+\_\+diag &\mbox{\hyperlink{namespacemynnsfc__wrapper}{mynnsfc\+\_\+wrapper}} &flag for computing surface diagnostics in MYNN-\/\+SFCLAY &.false. \\\cline{1-4}
\end{longtabu}
