Feature 91 parameters

docs/_static/custom.css

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+/* Force longtable width control - MUST use fixed layout for width control */
+.longtable table {
+    table-layout: fixed !important;   /* Required for width specifications to work */
+    width: 100% !important;
+}
+
+/* Override RTD theme responsive behavior */
+.wy-table-responsive {
+    overflow: visible !important;
+}
+
+.wy-table-responsive table {
+    table-layout: fixed !important;
+    width: 100% !important;
+}
+
+/* Prevent wrapping in all columns by default */
+.longtable td,
+.longtable th {
+    padding: 4px 6px !important;      /* Default is usually 8px 12px */
+    white-space: nowrap !important;   /* keep text on one line */
+    overflow: hidden !important;      /* hide overflow if needed */
+    text-overflow: ellipsis !important; /* show "…" for cut-off text */
+}
+
+/* Allow wrapping ONLY in the Description column (6th column) */
+.longtable td:nth-child(1),
+.longtable th:nth-child(1) {
+    white-space: normal !important;   /* wrapping allowed */
+    word-wrap: break-word !important;
+    overflow: visible !important;
+    text-overflow: unset !important;
+}
+
+/* Fixed widths for each column */
+.longtable td:nth-child(1),
+.longtable th:nth-child(1) { width: 73% !important; }  /* Name and Description*/
+
+.longtable td:nth-child(2),
+.longtable th:nth-child(2) { width: 8% !important; }   /* Min */
+
+.longtable td:nth-child(3),
+.longtable th:nth-child(3) { width: 6% !important; }   /* Max */
+
+.longtable td:nth-child(4),
+.longtable th:nth-child(4) { width: 4% !important; }   /* Default */
+
+.longtable td:nth-child(5),
+.longtable th:nth-child(5) { width: 4% !important; }  /* Mandatory/Optional */
+
+/* Style italic text in first column only */
+.longtable td:nth-child(1) em,
+.longtable th:nth-child(1) em {
+    color: #1e6ba6;
+    font-style: italic;
+}
+
+

docs/conf.py

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 html_theme = 'sphinx_rtd_theme'
 html_theme_path = ["_themes", ]
 html_js_files = ['pop_ver.js']
-html_css_files = ['theme_override.css']
+html_css_files = ['theme_override.css', 'custom.css']
 
 # Add any paths that contain custom static files (such as style sheets) here,
 # relative to this directory. They are copied after the builtin static files,
@@ -67,7 +67,7 @@
 html_logo = os.path.join('_static','fasteddy_logo_large_vertical_2024_06.png')
 
 # -- Intersphinx control -----------------------------------------------------
-intersphinx_mapping = {'numpy':("https://docs.scipy.org/doc/numpy/", None)}
+intersphinx_mapping = {'numpy':("https://numpy.org/doc/stable/", None)}
 
 numfig = True
 

docs/csv/extensions_gad.csv

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+**GADSelector:** |br| Generalized Actuator Disk Selector: |br| 0=off; 1=on, 0, 1, 0, O
+**turbineSpecsFile:** |br| The path+filename to a turbine specifications file |br| *C-O if GADSelector > 0*, N/A, N/A, , C-O 
+**GADoutputForces:** |br| Flag to include GAD forces in the output: |br| 0=off; 1=on |br| *C-O if GADSelector > 0*, 0, 1, 0, C-O
+**GADofflineForces:** |br| Flag to compute GAD forces in an offline mode: |br| 0=off; 1=on |br| *C-O if GADSelector > 0*, 0, 1, 0, C-O
+**GADaxialInduction:** |br| Flag to compute axial induction factor: |br| 0=off (uses prescribed GADaxialIndVal) |br| 1=on |br| *C-O if GADSelector > 0*, 0, 1, 0, C-O
+**GADaxialIndVal:** |br| Prescribed constant axial induction factor when GADaxialInduction==1 |br| *C-O if GADSelector > 0*, 0.0, 1.0, 0.02, C-O
+**GADrefSwitch:** |br| Switch to use reference windspeed: |br| 0=off; 1=on |br| *C-O if GADSelector > 0*, 0, 1, 0, C-O
+**GADrefU:** |br| Prescribed constant reference hub-height windspeed |br| *C-O if GADSelector > 0*, 0.0, 50.0, 0.0, C-O
+**GADrefSampleWindow:** |br| Sample duration over which to average per-timestep values (filtering out highest frequencies) |br| *C-O if GADSelector > 0*, 1.0, 60.0, 10.0, C-O
+**GADrefSeriesLength:** |br| Number of sampling windows over which to average again for reference velocity magnitude and direction |br| *C-O if GADSelector > 0*, 1, 360, 30, C-O
+**GADForcingSwitch:** |br| Switch to use the GADrefU-based or local windspeed in computing GAD forces: |br| 0=local |br| 1=ref |br| *C-O if GADSelector > 0*, 0, 1, 0, C-O

docs/csv/extensions_urban.csv

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+**urbanSelector:** |br| Urban selector: |br| 0=off |br| 1=on with no thermal contribution |br| 2=on with thermal relaxation towards base state, 0, 2, 0, O
+**cd_build:** |br| c_d coefficient (m-1) used by the drag-based building formulation: |br| -c_d|u_i|u_i |br| *C-O if urbanSelector > 0*, 0.0, 1e+8, 100.0, C-O
+**ct_build:** |br| c_t coefficient (s-1) used by the drag-based building formulation: |br| -c_t(rho*theta-rho_b*theta_b) & -c_t(rho-rho_b) |br| *C-O if urbanSelector > 0*, 0.0, 1e+8, 10.0, C-O
+**urban_heatRedis:** |br| Selector to activate surface heat redistribution |br| *C-O if urbanSelector > 0*, 0, 1, 0, C-O

docs/csv/fecuda.csv

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+**tBx:** |br| Number of threads in x-dimension, 1, INT_MAX, 1, M 
+**tBy:** |br| Number of threads in y-dimension, 1, INT_MAX, 8, M
+**tBz:** |br| Number of threads in z-dimension, 1, INT_MAX, 32, M

docs/csv/fempi.csv

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+Parameter Name: Description, Min, Max, Default, Req.
+**numProcsX:** |br| Number of cores to be used for horizontal domain decomposition in X, 1, INT_MAX, 1, M
+**numProcsY:** |br| Number of cores to be used for horizontal domain decomposition in Y, 1, INT_MAX, 1, M

docs/csv/grid.csv

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+**Nx:** |br| Number of discretised domain elements in the |br| x (zonal) direction, 1, INT_MAX, 128, M 
+**Ny:** |br| Number of discretised domain elements in the |br| y (meridional) direction, 1, INT_MAX, 122, M 
+**Nz:** |br| Number of discretised domain elements in the |br| z (vertical) direction, 1, INT_MAX, 122, M 
+**Nh:** |br| Number of halo cells to be used |br| (dependent on largest stencil extent), 0, INT_MAX, 3, M
+**d_xi:** |br| Computational domain fixed resolution in the 'i' direction, FLT_MIN, FLT_MAX, 10.0, M 
+**d_eta:** |br| Computational domain fixed resolution in the 'j' direction, FLT_MIN, FLT_MAX, 10.0, M 
+**d_zeta:** |br| Computational domain fixed resolution in the 'k' direction, FLT_MIN, FLT_MAX, 10.0, M 
+**coordHorizHalos:** |br| Switch to setup coordinate halos as periodic=1 or gradient-following=0, 0, 1, 1, M
+**topoFile:** |br| A file containing topography |br| (surface elevation in meters ASL), N/A, N/A, , O
+**verticalDeformSwitch:** |br| Switch to use vertical coordinate deformation 0=off; 1=on, 0, 1, , M
+**verticalDeformFactor:** |br| Deformation factor |br| 0.0=max compression |br| 1.0=no compression, 0.0, 1.0, , M
+**verticalDeformQuadCoeff:** |br| Quadratic term coefficient in the deformation scheme, -2.0, 2.0, 0.0, M

docs/csv/hydro_core_advection.csv

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+**advectionSelector:** |br| Advection scheme selector: |br| 0=1st-order upwind |br| 1=3rd-order QUICK |br| 2=hybrid 3rd-4th order |br| 3=hybrid 5th-6th order |br| 4=3rd-order WENO |br| 5=5th-order WENO |br| 6=2nd-order centered, 0, 6, 3, O
+**b_hyb:** |br| Hybrid advection scheme parameter: |br| 0.0=lower-order upwind |br| 1.0=higher-order centered |br| 0.0 < b_hyb < 1.0 = hybrid |br| *C-M if advectionSelector==2 or 3*, 0.0, 1.0, 0.8, O; C-M

docs/csv/hydro_core_auxiliary_scalars.csv

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+**NhydroAuxScalars:** |br| Number of prognostic auxiliary scalar fields, 0, 256, 0, O 
+**AuxScAdvSelector:** |br| Advection scheme for auxiliary scalar fields |br| *C-M if NhydroAuxScalars > 0*, 0, 6, 0, C-M
+**AuxScAdvSelector_b_hyb:** |br| Hybrid advection scheme parameter |br| *C-M if NhydroAuxScalars > 0*, 0.0, 1.0, 0.0, C-M 
+**AuxScSGSturb:** |br| Selector to apply sub-grid scale diffusion to auxiliary scalar fields |br| *C-M if NhydroAuxScalars > 0*, 0, 1, 0, C-M
+**srcAuxScFile:** |br| The path and filename to an Auxilliary Scalar Sources specification file |br| *C-O if NhydroAuxScalars > 0*, N/A, N/A, , C-O
+**srcAuxScTemporalType:** |br| Temporal characterization of source (0=instantaneous; 1=continuous) |br| *C-M if srcAuxScFile == NULL and* |br| *NhydroAuxScalars == 1*, 0, 1, 0, C-M
+**srcAuxScStartSeconds:** |br| Source start time in seconds |br| *C-M if srcAuxScFile == NULL and* |br| *NhydroAuxScalars == 1*, 0, FLT_MAX, 0, C-M
+**srcAuxScDurationSeconds:** |br| Source duration in seconds |br| *C-M if srcAuxScFile == NULL and* |br| *NhydroAuxScalars == 1*, 0, FLT_MAX, 30, C-M
+**srcAuxScGeometryType:** |br| 0=point (single cell volume) |br| 1=line (line of surface cells) |br| *C-M if srcAuxScFile == NULL and* |br| *NhydroAuxScalars == 1*, 0, 0, 0, C-M
+**srcAuxScMassSpecType:** |br| Mass specification type |br| 0=strict mass in kg |br| 1=mass source rate in kg/s |br| *C-M if srcAuxScFile == NULL and* |br| *NhydroAuxScalars == 1*, 0, 0, 0, C-M
+**srcAuxScMassSpecValue:** |br| Mass specification value in kg or kg/s given by srcAuxScMassSpecType 0 or 1 |br| *C-M if srcAuxScFile == NULL and* |br| *NhydroAuxScalars == 1*, 0.0, FLT_MAX, 1.0, C-M
+**srcAuxScLocation_X:** |br| Source geometry centroid position in x (west-east) |br| *C-M if srcAuxScFile == NULL and* |br| *NhydroAuxScalars == 1*, -FLT_MAX, FLT_MAX, 0.0, C-M
+**srcAuxScLocation_Y:** |br| Source geometry centroid position in y (south-north) |br| *C-M if srcAuxScFile == NULL and* |br| *NhydroAuxScalars == 1*, -FLT_MAX, FLT_MAX, 0.0, C-M
+**srcAuxScLocation_Z:** |br| Source geometry centroid position in z (vertical above the surface) |br| *C-M if srcAuxScFile == NULL and* |br| *NhydroAuxScalars == 1*, -FLT_MAX, FLT_MAX, 0.0, C-M

docs/csv/hydro_core_base_state.csv

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+**stabilityScheme:** |br| Scheme used to set hydrostatic stability-dependent Base-State EOS fields |br| 0=none |br| 1=profile |br| 2=linear in theta, 0, 4, 0, M 
+**temp_grnd:** |br| Air Temperature (K) at the ground used to set hydrostatic Base-State EOS fields, FLT_MIN, FLT_MAX, 300.0, M 
+**pres_grnd:** |br| Pressure (Pa) at the ground used to set hydrostatic Base-State EOS fields, FLT_MIN, FLT_MAX, 1.0e5, M 
+**zStableBottom:** |br| Height (m) of the first stable upper-layer when stabilityScheme = 1 or 2, 0, FLT_MAX, 1000.0, M 
+**stableGradient:** |br| Vertical gradient (K/m) of the first stable upper-layer when stabilityScheme = 1 or 2, FLT_MIN, FLT_MAX, 0.1, M 
+**zStableBottom2:** |br| Height (m) of the second stable upper-layer when stabilityScheme = 2, 0, FLT_MAX, 1100.0, M 
+**stableGradient2:** |br| Vertical gradient (K/m) of the second stable upper-layer when stabilityScheme = 2, FLT_MIN, FLT_MAX, 0.03, M 
+**zStableBottom3:** |br| Height (m) of the third stable upper-layer when stabilityScheme = 2, 0, FLT_MAX, 1500.0, M 
+**stableGradient3:** |br| Vertical gradient (K/m) of the third stable upper-layer when stabilityScheme = 2, FLT_MIN, FLT_MAX, 0.03, M 
+**thetaPerturbationSwitch:** |br| Switch to include initial theta perturbations: |br| 0=off; 1=on, 0, 1, 0, M 
+**thetaHeight:** |br| Height below which to include initial theta perturbations: |br| (meters), 0.0, FLT_MAX, 0.0, M 
+**thetaAmplitude:** |br| Maximum amplitude for theta perturbations: |br| thetaAmplitude*[-1;+1] K, 0.0, 2.0, 0.0, M 
+**U_g:** |br| Zonal (West-East) component of the geostrophic wind (m/s), -FLT_MAX, FLT_MAX, 0.0, M 
+**V_g:** |br| Meridional (South-North) component of the geostrophic wind (m/s), -FLT_MAX, FLT_MAX, 0.0, M 
+**z_Ug:** |br| Height (m) above ground for linear geostrophic wind gradient (zonal component), 0.0, FLT_MAX, 10000.0, M 
+**z_Vg:** |br| Height (m) above ground for linear geostrophic wind gradient (meridional component), 0.0, FLT_MAX, 10000.0, M 
+**Ug_grad:** |br| Geostrophic wind gradient for U component |br| U_g gradient above z_Ug (ms-1/m), -1e2, 1e2, 0.0, M 
+**Vg_grad:** |br| Geostrophic wind gradient for V component |br| V_g gradient above z_Vg (ms-1/m), -1e2, 1e2, 0.0, M 
+**physics_oneRKonly:** |br| Selector to apply physics RHS forcing only at the latest RK stage: |br| 0=off; 1=on, 0, 1, 1, O

docs/csv/hydro_core_boundary_cond.csv

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+**hydroBCs:** |br| Selector for hydro BC set. |br| 1=Dirichlet lateral ceiling and surface boundary conditions (Limited Area Domain--LAD) |br| 2=periodicHorizVerticalAbl, 1, 2, 2, M
+**ceilingAdvectionBC:** |br| Selector for normal advection at the domain ceiling |br| 0=zero-valued w-BC |br| 1=non-zero w-BC, 0, 1, 0, O
+**hydroBndysFileBase:** |br| Base file name LAD BC set |br| *C-M if hydroBCs==1*, N/A, N/A, , C-M
+**hydroBndysFileStart:** |br| Start counter value for LAD BC set files |br| *C-M if hydroBCs==1*, 0, 500000, 0, C-M 
+**hydroBndysFileEnd:** |br| End counter value for LAD BC set files |br| *C-M if hydroBCs==1*, 0, 500000, 0, C-M 
+**dtBdyPlaneBCs:** |br| Delta in time (seconds) between BdyPlane sets |br| *C-M if hydroBCs==1*, 0.0, 6e5, 0.0, C-M 

docs/csv/hydro_core_canopy.csv

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+**canopySelector:** |br| Canopy selector: |br| 0=off; 1=on, 0, 1, 0, O 
+**canopySkinOpt:** |br| Canopy selector to use additional skin friction effect on drag coefficient: |br| 0=off; 1=on |br| *C-M if canopySelector==1*, 0, 1, 0, C-M
+**canopy_cd:** |br| Non-dimensional canopy drag coefficient |br| *C-M if canopySelector==1*, 0.0, 1e+2, 0.15, C-M
+**canopy_lf:** |br| Representative canopy element length scale |br| *C-M if canopySelector==1*, 0.0, 1e+2, 0.1, C-M 

docs/csv/hydro_core_cell_perturbation.csv

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+**cellpertSelector:** |br| CP method selector: |br| 0=off; 1=on, 0, 1, 0, O
+**cellpert_nts:** |br| Number of time steps after which perturbations are seeded, 0, 1e+6, 500, O
+**cellpert_sw2b:** |br| Only south and west bnds perturbed (for idealized cases): |br| 0=off |br| 1=south & west |br| 2=south |br| *C-O if cellpertSelector > 0*, 0, 3, 0, C-O
+**cellpert_amp:** |br| Maximum amplitude for the potential temperature perturbations |br| *C-O if cellpertSelector > 0*, 0.0, 20.0, 0.5, C-O
+**cellpert_gppc:** |br| Number of grid points conforming the cell |br| *C-O if cellpertSelector > 0*, 0, 50, 8, C-O
+**cellpert_ndbc:** |br| Number of cells normal to domain lateral boundaries |br| *C-O if cellpertSelector > 0*, 0, 10, 3, C-O
+**cellpert_kbottom:** |br| Z-grid point where the perturbations start |br| *C-O if cellpertSelector > 0*, 1, 10, 1, C-O
+**cellpert_ktop:** |br| Z-grid point where the perturbations end |br| *C-O if cellpertSelector > 0*, 0, 200, 20, C-O
+**cellpert_tvcp:** |br| Time-varying CP method selector: |br| 0=off; 1=on (hydroBCs==1) |br| *C-O if cellpertSelector > 0*, 0, 1, 0, C-O
+**cellpert_eckert:** |br| Eckert number for the potential temperature perturbations (hydroBCs==1) |br| *C-O if cellpertSelector > 0*, 0.0, 10.0, 0.2, C-O
+**cellpert_tsfact:** |br| Factor on the refreshing perturbation time scale (hydroBCs==1) |br| *C-O if cellpertSelector > 0*, 0.0, 10.0, 1.0, C-O 

docs/csv/hydro_core_coriolis.csv

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+**coriolisSelector:** |br| Coriolis Force selector: |br| 0=None |br| 1=Horizontal-only |br| 2=Horizontal & Vertical, 0, 2, 0, M
+**coriolisLatitude:** |br| Characteristic latitude in degrees from equator of the LES domain, -90.0, 90.0, 54.0, M

docs/csv/hydro_core_diffusion.csv

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+**diffusionSelector:** |br| Diffusion term-type selector: |br| 0=none |br| 1=constant |br| 2=scalar turbulent-diffusivity, 0, 1, 0, O
+**nu_0:** |br| Constant diffusivity used when diffusionSelector=1, 0, FLT_MAX, 1.0, O

docs/csv/hydro_core_explicit_filters.csv

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+**filterSelector:** |br| Explicit filter selector: |br| 0=off; 1=on, 0, 1, 0, O
+**filter_6thdiff_vert:** |br| Vertical 6th-order filter on w selector: |br| 0=off; 1=on |br| *C-O if filterSelector == 1*, 0, 1, 0, C-O
+**filter_6thdiff_hori:** |br| Horizontal 6th-order filter on rho; theta; qv selector: |br| 0=off; 1=on |br| *C-O if filterSelector == 1*, 0, 1, 0, C-O
+**filter_6thdiff_vert_coeff:** |br| Vertical 6th-order filter factor: |br| 0.0=off; 1.0=full |br| *C-M if filterSelector == 1 and* |br| *filter_6thdiff_vert == 1*, 0.0, 1.0, 0.03, C-M
+**filter_6thdiff_hori_coeff:** |br| Horizontal 6th-order filter factor: |br| 0.0=off; 1.0=full |br| *C-M if filterSelector == 1 and* |br| *filter_6thdiff_hori == 1*, 0.0, 1.0, 0.03, C-M
+**filter_divdamp:** |br| Divergence damping selector: |br| 0=off; 1=on |br| *C-O if filterSelector == 1*, 0, 1, 0, C-O

docs/csv/hydro_core_io_logging.csv

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+**hydroForcingWrite:** |br| Switch for writing output of hydroFldsFrhs for prognostic fields |br| 0=off; 1=on, 0, 1, 0, O
+**hydroSubGridWrite:** |br| Switch for writing output of SGS fields |br| 0=off; 1=on, 0, 1, 0, M
+**hydroForcingLog:** |br| Switch for logging Frhs min/max etc |br| 0=off; 1=on, 0, 1, 0, M

docs/csv/hydro_core_large_scale_forcings.csv

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+**lsfSelector:** |br| Large-scale forcings selector: |br| 0=off; 1=on, 0, 1, 0, M
+**lsf_horMnSubTerms:** |br| Large-scale subsidence terms switch: |br| 0=off; 1=on |br| *C-M if lsfSelector > 0*, 0, 1, 0, C-M
+**lsf_freq:** |br| Large-scale forcing frequency (seconds) |br| *C-M if lsfSelector > 0*, 1e-3, 1e+3, 1.0, C-M
+**lsf_w_surf:** |br| Large-scale forcing to w at the surface |br| *C-M if lsfSelector > 0*, -1e+4, 1e+4, 0.0, C-M
+**lsf_w_lev1:** |br| Large-scale forcing to w at the first specified level |br| *C-M if lsfSelector > 0*, -1e+4, 1e+4, 0.0, C-M 
+**lsf_w_lev2:** |br| Large-scale forcing to w at the second specified level |br| *C-M if lsfSelector > 0*, -1e+4, 1e+4, 0.0, C-M
+**lsf_w_zlev1:** |br| Large-scale forcing to w height 1 |br| *C-M if lsfSelector > 0*, 0.0, 1e+4, 100.0, C-M 
+**lsf_w_zlev2:** |br| Large-scale forcing to w height 2 |br| *C-M if lsfSelector > 0*, 0.0, 1e+4, 200.0, C-M
+**lsf_th_surf:** |br| Large-scale forcing to theta at the surface |br| *C-M if lsfSelector > 0*, -1e+4, 1e+4, 0.0, C-M
+**lsf_th_lev1:** |br| Large-scale forcing to theta at the first specified level |br| *C-M if lsfSelector > 0*, -1e+4, 1e+4, 0.0, C-M 
+**lsf_th_lev2:** |br| Large-scale forcing to theta at the second specified level |br| *C-M if lsfSelector > 0*, -1e+4, 1e+4, 0.0, C-M
+**lsf_th_zlev1:** |br| Large-scale forcing to theta height 1 |br| *C-M if lsfSelector > 0*, 0.0, 1e+4, 100.0, C-M 
+**lsf_th_zlev2:** |br| Large-scale forcing to theta height 2 |br| *C-M if lsfSelector > 0*, 0.0, 1e+4, 200.0, C-M
+**lsf_qv_surf:** |br| Large-scale forcing to qv at the first specified level |br| *C-M if lsfSelector > 0*, -1e+4, 1e+4, 0.0, C-M 
+**lsf_qv_lev1:** |br| Large-scale forcing to qv at the first specified level |br| *C-M if lsfSelector > 0*, -1e+4, 1e+4, 0.0, C-M 
+**lsf_qv_lev2:** |br| Large-scale forcing to qv at the second specified level |br| *C-M if lsfSelector > 0*, -1e+4, 1e+4, 0.0, C-M
+**lsf_qv_zlev1:** |br| Large-scale forcing to qv height 1 |br| *C-M if lsfSelector > 0*, 0.0, 1e+4, 100.0, C-M 
+**lsf_qv_zlev2:** |br| Large-scale forcing to qv height 2 |br| *C-M if lsfSelector > 0*, 0.0, 1e+4, 200.0, C-M 

docs/csv/hydro_core_moisture.csv

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+**moistureSelector:** |br| Moisture selector: |br| 0=off; 1=on, 0, 1, 0, M
+**moistureNvars:** |br| Number of moisture species |br| *C-M if moistureSelector==1*, 0, 2, 0, C-M
+**moistureAdvSelectorQv:** |br| Water vapor advection scheme selector |br| *C-M if moistureSelector==1*, 0, 6, 0, C-M
+**moistureAdvSelectorQv_b:** |br| Hybrid advection scheme parameter for water vapor |br| *C-M if moistureSelector==1*, 0.0, 1.0, 0.0, C-M 
+**moistureAdvSelectorQi:** |br| Moisture advection scheme selector for non-qv fields (non-oscillatory schemes) |br| *C-M if moistureSelector==1*, 0, 2, 0, C-M 
+**moistureSGSturb:** |br| Selector to apply sub-grid scale diffusion to moisture fields |br| *C-M if moistureSelector==1*, 0, 1, 0, C-M 
+**moistureCond:** |br| Selector to apply condensation to moisture fields |br| *C-M if moistureSelector==1*, 1, 4, 1, C-M 
+**moistureCondTscale:** |br| Relaxation time in seconds |br| *C-M if moistureSelector==1*, 1e-4, 1000.0, 1.0, C-M
+**moistureCondBasePres:** |br| Selector to use base pressure for microphysics |br| *C-M if moistureSelector==1*, 0, 1, 0, C-M
+**moistureMPcallTscale:** |br| Time scale for microphysics to be called |br| *C-M if moistureSelector==1*, 1e-4, 1000.0, 1.0, C-M

docs/csv/hydro_core_rayleigh_damping_layer.csv

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+**dampingLayerSelector:** |br| Rayleigh Damping Layer selector, 0, 1, 0, O
+**dampingLayerDepth:** |br| Rayleigh Damping Layer Depth |br| *C-O if dampingLayerSelector==1*, 0.0, FLT_MAX, 100.0, C-O