NAM_DIAG - General
Fortran name |
Fortran type |
Default value |
|---|---|---|
XDTSTEP |
REAL |
XTSTEP |
CISO |
CHARACTER(LEN=NFILENAMELGTMAX) |
PREVTK |
LVAR_RS |
LOGICAL |
TRUE |
XDTSTEP: time step of the DIAG program (one time step is performed). By default time step of the simulation is used (XTSTEP).add
CISO="PREVTK"inNAM_DIAGto store following variables:
Name |
Meaning [Unit] |
Dimension |
|---|---|---|
PABST |
absolute pression [Pa] |
3D |
THT |
potential temperature [K] |
3D |
POVOT |
potential vorticity [PVU] |
3D |
Note
Other options for CISO are :
“PR” to store PABST
“TK” to store THT
“EV” to store POVOT
“PRTK” to store PABST + THT
“PREV” to store PABST + POVOT
“TKEV” to store THT + POVOT
add
LVAR_RS=TinNAM_DIAGto store following variables:
Name |
Meaning [Unit] |
Dimension |
|---|---|---|
UT |
u-wind speed [m/s] |
3D |
VT |
v-wind speed [m/s] |
3D |
WT |
w-wind speed [m/s] |
3D |
RVT |
water vapor mixing ratio [kg/kg] |
3D |
Tip
Add LWIND_ZM=T (with LVAR_RS=T) in NAM_DIAG to store following variables :
Name |
Meaning [Unit] |
Dimension |
|---|---|---|
UT_ZM |
zonal wind speed [m/s] |
3D |
VT_ZM |
meridian wind speed [m/s] |
3D |
add
LVAR_LS=TinNAM_DIAGto store following variables :
Name |
Meaning [Unit] |
Dimension |
|---|---|---|
LSUM |
large scale u-wind speed [m/s] |
3D |
LSVM |
large scale v-wind speed [m/s] |
3D |
LSWM |
large scale w-wind speed [m/s] |
3D |
LSTHM |
large scale potential temperature [K] |
3D |
LSRVM |
large scale water vapor mixing ratio [kg/kg] |
3D |
add
LVAR_LS=TandLWIND_ZM=TinNAM_DIAGto store following variables :
Name |
Meaning [Unit] |
Dimension |
|---|---|---|
LSUM_ZM |
large scale zonal wind speed [m/s] |
3D |
LSVM_ZM |
large scale meridian wind speed [m/s] |
3D |
add
LVAR_FRC=TinNAM_DIAG(LFORCINGhas to beTinYINIFILE.des) to store following variables :
Name |
Meaning [Unit] |
Dimension |
|---|---|---|
UFRCn |
zonal component of horizontal forcing wind [m/s] |
1D |
VFRCn |
meridian component of horizontal forcing wind [m/s] |
1D |
WFRCn |
vertical forcing wind [m/s] |
1D |
THFRCn |
\(\theta_{\rm frc}\) forcing potential temperature [K] |
1D |
RVFRCn |
\(r_{v,\rm frc}\) forcing vapor mixing ratio [kg/kg] |
1D |
TENDTHFRCn |
\((\partial \theta/\partial t)_{\rm frc}\) (K/s) |
1D |
TENDRVFRCn |
\((\partial r_v/\partial t)_{\rm frc}\) ((kg/kg)/s) |
1D |
GXTHFRCn |
\((\partial \theta/\partial x)_{\rm frc}\) (K/m) |
1D |
GYRVFRCn |
\((\partial \theta/\partial y)_{\rm frc}\) (K/m) |
1D |
PGROUNDFRCn |
forcing ground pressure (Pa) |
0D |
add
LTPZH=TinNAM_DIAGto store following variables :
Name |
Meaning [Unit] |
Dimension |
|---|---|---|
TEMP |
temperature [C] |
3D |
PRES |
pressure [hPa] |
3D |
ALT |
height of model levels (geopotentiel in pressure level) [m] |
3D |
REHU |
relative Humidity [%] (if |
3D |
VPRES |
vapor Pressure [hPa] (if |
3D |
add
LCOREF=TinNAM_DIAGto store following variables :
Name |
Meaning [Unit] |
Dimension |
|---|---|---|
COREF |
refraction coindex (if |
3D |
MCOREF |
modified refraction coindex (if |
3D |
add
LMOIST_V=TinNAM_DIAGto store following variables :
Name |
Meaning [Unit] |
Dimension |
|---|---|---|
THETAV |
virtual potential Temperature [K] |
3D |
POVOV |
virtual Potential Vorticity [PVU] |
3D |
add
LMOIST_V=TandLMEAN_POVO=TinNAM_DIAGto store following variables :
Name |
Meaning [Unit] |
Dimension |
|---|---|---|
MEAN_POVOV |
mean virtual potential vorticity (PVU) |
2D |
add
LMOIST_E=TinNAM_DIAGto store following variables :
Name |
Meaning [Unit] |
Dimension |
|---|---|---|
THETAE |
equivalent potential Temperature [K] |
3D |
POVOE |
equivalent Potential Vorticity [PVU] |
3D |
add
LMOIST_E=TandLMEAN_POVO=TinNAM_DIAGto store following variables :
Name |
Meaning [Unit] |
Dimension |
|---|---|---|
MEAN_POVOE |
mean equivalent potential vorticity (PVU) |
2D |
add
LMOIST_ES=TinNAM_DIAGto store following variables :
Name |
Meaning [Unit] |
Dimension |
|---|---|---|
THETAES |
equivalent saturated potential temperature [K] |
3D |
POVOES |
equivalent saturated potential vorticity [PVU] |
3D |
add
LMOIST_S1=TinNAM_DIAGto store following variables :
Name |
Meaning [Unit] |
Dimension |
|---|---|---|
THETAS1 |
Moist air Entropy (1st order) potential temperature [K] |
3D |
add
LMOIST_S2=TinNAM_DIAGto store following variables :
Name |
Meaning [Unit] |
Dimension |
|---|---|---|
THETAS2 |
Moist air Entropy (2nd order) potential temperature [K] |
3D |
add
LMOIST_L=TinNAM_DIAGto store following variables :
Name |
Meaning [Unit] |
Dimension |
|---|---|---|
THETAL |
Liquid water potential temperature [K] |
3D |
add
LMEAN_POVO=TinNAM_DIAGto store following variables :
Name |
Meaning [Unit] |
Dimension |
|---|---|---|
MEAN_POVO |
Mean Potential Vorticity (PVU) |
2D |
add
LMEAN_POVO=TandLMOIST_V=TinNAM_DIAGto store following variables :
Name |
Meaning [Unit] |
Dimension |
|---|---|---|
MEAN_POVOV |
Mean virtual Potential Vorticity (PVU) |
2D |
add
LMEAN_POVO=TandLMOIST_E=TNAM_DIAGto store following variables :
Name |
Meaning [Unit] |
Dimension |
|---|---|---|
MEAN_POVOE |
Mean equivalent Potential Vorticity (PVU) |
2D |
Note
Add XMEAN_POVO(1:2) in NAM_DIAG to chose averaged between two isobaric levels in Pa (XMEAN_POVO(1),XMEAN_POVO(2)) (by default (15000,50000))
add
LVORT=TinNAM_DIAGto store following variables :
Name |
Meaning [Unit] |
Dimension |
|---|---|---|
ABVOR |
Mean equivalent Potential Vorticity (PVU) |
2D |
UM1 |
u-relative vorticity components (/s) |
3D |
VM1 |
v-relative vorticity components (/s) |
3D |
WM1 |
w-relative vorticity components (/s) |
3D |
add
LVORT=TandLWIND_ZM=TinNAM_DIAGto store following variables :
Name |
Meaning [Unit] |
Dimension |
|---|---|---|
UM1_ZM |
zonal relative vorticity components (m/s) |
3D |
VM1_ZM |
meridian relative vorticity components (m/s) |
3D |
add
LDIV=TinNAM_DIAGto store following variables :
Name |
Meaning [Unit] |
Dimension |
|---|---|---|
HDIV |
Horizontal divergence (/s) |
3D |
HMDIV |
Horizontal Moisture divergence (kg/m3/s) |
3D |
add
LGEO=TinNAM_DIAGto store following variables :
Name |
Meaning [Unit] |
Dimension |
|---|---|---|
UM88 |
Geostrophic u-wind components (m/s) |
3D |
VM88 |
Geostrophic v-wind components (m/s) |
3D |
WM88 |
Geostrophic w-wind components (m/s) |
3D |
add
LGEO=TandLWIND_ZM=TinNAM_DIAGto store following variables :
Name |
Meaning [Unit] |
Dimension |
|---|---|---|
UM88_ZM |
Geostrophic zonal wind components (m/s) |
3D |
VM88_ZM |
Geostrophic meridian wind components (m/s) |
3D |
add
LAGEO=TinNAM_DIAGto store following variables :
Name |
Meaning [Unit] |
Dimension |
|---|---|---|
UM89 |
Ageostrophic u-wind components (m/s) |
3D |
VM89 |
Ageostrophic v-wind components (m/s) |
3D |
WM89 |
Ageostrophic w-wind components (m/s) |
3D |
add
LAGEO=TandLWIND_ZM=TinNAM_DIAGto store following variables :
Name |
Meaning [Unit] |
Dimension |
|---|---|---|
UM89_ZM |
Ageostrophic zonal wind components (m/s) |
3D |
VM89_ZM |
Ageostrophic meridian wind components (m/s) |
3D |
add
LMSLP=TinNAM_DIAGto store following variables :
Name |
Meaning [Unit] |
Dimension |
|---|---|---|
MSLP |
Mean Sea Level Pressure (hPa) |
2D |
add
LBV_FR=TinNAM_DIAGto store following variables :
Name |
Meaning [Unit] |
Dimension |
|---|---|---|
BV |
Brunt-Vaissala frequency (/s) |
3D |
BVE |
Equivalent Brunt-Vaissala frequency (/s) |
3D |
add
LVAR_MRSV=TinNAM_DIAGto store following variables :
Name |
Meaning [Unit] |
Dimension |
|---|---|---|
MRSVnnn |
Mixing Ratio for User Scalar Variable n (g/kg) |
3D |
define
CBLTOP="RICHA"inNAM_DIAGto store following variable :
Name |
Meaning [Unit] |
Dimension |
|---|---|---|
HBLTOP |
Height of boundary layer top (m) computed with bulk Richardson number method |
2D |
define
CBLTOP="THETA"inNAM_DIAGto store following variable :
Name |
Meaning [Unit] |
Dimension |
|---|---|---|
HBLTOP |
Height of boundary layer top (m) computed with parcel method |
2D |
add
LHU_FLX=TinNAM_DIAGto store following variables :
Name |
Meaning [Unit] |
Dimension |
|---|---|---|
UM90 |
u-wind components of moisture ground flux (kg/s/m2) |
3D |
VM90 |
v-wind components of moisture ground flux (kg/s/m2) |
3D |
UM91 |
u-wind components of moisture ground flux integrated on 3000 meters (kg/s/m) |
2D |
VM91 |
v-wind components of moisture ground flux integrated on 3000 meters (kg/s/m) |
2D |
HMCONV |
Horizontal CONVergence of moisture flux (kg/s/m2) |
2D |
HMCONV3000 |
Horizontal CONVergence of moisture flux integrated on 3000 meters (kg/s/m2) |
2D |
UM92 |
u-wind components of hydrometeores ground flux (if CCLOUD=ICE3 or ICE4) (kg/s/m2) |
2D |
VM92 |
v-wind components of hydrometeores ground flux (if CCLOUD=ICE3 or ICE4) (kg/s/m2) |
2D |
UM93 |
u-wind components of hydrometeor ground flux (if CCLOUD=ICE3 or ICE4) (kg/s/m) |
2D |
VM93 |
v-wind components of hydrometeor ground flux (if CCLOUD=ICE3 or ICE4) (kg/s/m) |
2D |
HMCONV_TT |
Horizontal CONVergence of hydrometeor flux (kg/s/m2) |
2D |
HMCONV3000_TT |
Horizontal CONVergence of hydrometeor flux integrated on 3000 meters (kg/s/m2) |
2D |
define NCAPE=0 in
NAM_DIAGto store following variables :
Name |
Meaning [Unit] |
Dimension |
|---|---|---|
CAPEMAX |
maximum of CAPE3D (J/kg) |
2D |
CINMAX |
value of CIN3D corresponding to CAPEMAX (J/kg) |
2D |
define NCAPE=1 in
NAM_DIAGto store following variables :
Name |
Meaning [Unit] |
Dimension |
|---|---|---|
CAPEMAX |
maximum of CAPE3D (J/kg) |
2D |
CINMAX |
value of CIN3D corresponding to CAPEMAX (J/kg) |
2D |
CAPE3D |
Convective Available Potential Energy (J/kg) |
3D |
CIN3D |
Convective INhibition energy (J/kg) |
3D |
DCAPE3D |
Downdraft cape (J/kg) |
3D |
define NCAPE=2 in
NAM_DIAGto store following variables :
Name |
Meaning [Unit] |
Dimension |
|---|---|---|
CAPEMAX |
maximum of CAPE3D (J/kg) |
2D |
CINMAX |
value of CIN3D corresponding to CAPEMAX (J/kg) |
2D |
CAPE3D |
Convective Available Potential Energy (J/kg) |
3D |
CIN3D |
Convective INhibition energy (J/kg) |
3D |
DCAPE3D |
Downdraft cape (J/kg) |
3D |
VKE |
Vertical Kinetic Energy (from explicit vertical motion) (J/kg) |
3D |