ForsideVejrdataFrie data Dokumentation på engelsk DataForecast Data Weather Model (HARMONIE) for DINI and IG

Weather Model (HARMONIE) for DINI and IG

Description

DMI uses and codevelops the weather model HARMONIE. The weather model produces forecast data for e.g. temperature, dew point temperature, cloud cover, wind, pressure and several others parameters. DMI’s weather model HARMONIE is available in two different versions that cover the geographical areas of Iceland and Greenland (IG) and Denmark, Iceland, Netherlands and Ireland (DINI), respectively. Both versions of the weather model uses a grid resolution of 2 km. DMI’s HARMONIE model runs cycle 43h (https://journals.ametsoc.org/view/journals/mwre/145/5/mwr-d-16-0417.1.xml (external site)) with boundary conditions from the global weather model ECMWF.

The model focuses on events that take place on small scale but can have serious outcomes, e.g. extreme precipitation like cloudburst (convective precipitation) and rapidly changing storm low.

HARMONIE is an abbreviation of Hirlam Aladin Research towards Mesoscale Operational NWP in Europe and is developed through an international collaboration. Hirlam and Aladin are the names of two groups of meteorological institutions in Europe, therefore HARMONIE has a broad European foundation.

DMI’s HARMONIE model also creates start input for DMI’s downstream ocean models (Wave Model WAM and Storm Surge model DKSS).

Number of Runs and Forecast Range

DMI’s HARMONIE model runs every hour on our supercomputer located in Iceland. DMI only collects the deterministic run every third hour (00z, 03z, 06z, 09z, 12z, 15z, 18z and 21z). Every run produces a forecast of the atmospheres 3-dimensional condition for the next days.

The forecast range for HARMONIE varies based on what time the model run begins. In the table below, you can see the forecast range for the different model run times:

When is data normally available

Model areas

HARMONIE has two geographical areas: IG and DINI that cover Iceland/Greenland and Northwestern Europe, respectively.

Types of model output:

The weather model has three types of model output:

Surface (sf)
Model levels (ml)
Pressure levels (pl)

Surface levels (sf)

The surface files consist of a combination of the model’s surface scheme and interpolation from the model layers. The surface files therefore consists of parameters that are defined by the surface (e.g. soil temperature, 2 m temperature, 10 m wind). The surface files also contain parameters that are integrated across layers through the entire atmosphere (e.g. precipitation and cloud cover). It is in the surface level files, that you will find the most common parameters.

Please also see the parameter list.

Model levels (ml)

The first raw output data from the model are model levels. DINI and IG have 90 layers that all describe the atmosphere. The layers are placed close together at the surface and gradually move further apart up through the atmosphere. Close by the earth’s surface the layers follow the surface’s topography. Further up in the atmosphere the layers follow the pressure levels.

Please also see the parameter list.

Pressure levels (pl)

The model levels are recalculated to relevant pressure levels (see pressure levels below) and selected parameters are interpolated to these pressure levels.

The pressure levels are: 1000, 950, 925, 900, 850, 800, 700, 600, 500, 400, 300, 250, 200, 150, 100, and 50hPa.

The calculated parameters are: vertical speed, wind components u and v, temperature, geopotential, relative humidity, geometrical vertical speed, pseudoadiabatic potential temperature, potential vorticity.

Please also see the parameter list.

Coordinate Reference System

The models use a Lambert conformal conic projection (external site). Projection parameters can be shown using the grib_dump (external site) tool, QGIS (external site) or by calling the Forecast EDR service /collections/harmonie_dini_sf/ or /collections/harmonie_ig_sf/ endpoints, which reports the projection in WKT format (included below).

Wind u/v vectors also are also in relation to the lambert projection. If you wish to project wind direction to another coordinate reference system, you also need to rotate the wind accordingly. The Forecast EDR service does this rotation to CRS84 if the parameter crs=crs84 is used.

DINI WKT:


		PROJCRS["DMI HARMONIE DINI lambert projection",
    BASEGEOGCRS["DMI HARMONIE DINI lambert CRS",
        DATUM["DMI HARMONIE DINI lambert datum",
            ELLIPSOID["Sphere",6371229,0,
                LENGTHUNIT["metre",1,
                    ID["EPSG",9001]]]],
        PRIMEM["Greenwich",0,
            ANGLEUNIT["degree",0.0174532925199433,
                ID["EPSG",9122]]]],
    CONVERSION["Lambert Conic Conformal (2SP)",
        METHOD["Lambert Conic Conformal (2SP)",
            ID["EPSG",9802]],
        PARAMETER["Latitude of false origin",55.5,
            ANGLEUNIT["degree",0.0174532925199433],
            ID["EPSG",8821]],
        PARAMETER["Longitude of false origin",-8,
            ANGLEUNIT["degree",0.0174532925199433],
            ID["EPSG",8822]],
        PARAMETER["Latitude of 1st standard parallel",55.5,
            ANGLEUNIT["degree",0.0174532925199433],
            ID["EPSG",8823]],
        PARAMETER["Latitude of 2nd standard parallel",55.5,
            ANGLEUNIT["degree",0.0174532925199433],
            ID["EPSG",8824]],
        PARAMETER["Easting at false origin",0,
            LENGTHUNIT["metre",1],
            ID["EPSG",8826]],
        PARAMETER["Northing at false origin",0,
            LENGTHUNIT["metre",1],
            ID["EPSG",8827]]],
    CS[Cartesian,2],
        AXIS["(E)",east,
            ORDER[1],
            LENGTHUNIT["Metre",1]],
        AXIS["(N)",north,
            ORDER[2],
            LENGTHUNIT["Metre",1]]]

and IG WKT:


		PROJCRS["DMI HARMONIE IG lambert projection",
    BASEGEOGCRS["DMI HARMONIE IG lambert CRS",
        DATUM["DMI HARMONIE IG lambert datum",
            ELLIPSOID["Sphere",6371229,0,
                LENGTHUNIT["metre",1,
                    ID["EPSG",9001]]]],
        PRIMEM["Greenwich",0,
            ANGLEUNIT["degree",0.0174532925199433,
                ID["EPSG",9122]]]],
    CONVERSION["Lambert Conic Conformal (2SP)",
        METHOD["Lambert Conic Conformal (2SP)",
            ID["EPSG",9802]],
        PARAMETER["Latitude of false origin",72.000002,
            ANGLEUNIT["degree",0.0174532925199433],
            ID["EPSG",8821]],
        PARAMETER["Longitude of false origin",-36.000001,
            ANGLEUNIT["degree",0.0174532925199433],
            ID["EPSG",8822]],
        PARAMETER["Latitude of 1st standard parallel",72.000002,
            ANGLEUNIT["degree",0.0174532925199433],
            ID["EPSG",8823]],
        PARAMETER["Latitude of 2nd standard parallel",72.000002,
            ANGLEUNIT["degree",0.0174532925199433],
            ID["EPSG",8824]],
        PARAMETER["Easting at false origin",0,
            LENGTHUNIT["metre",1],
            ID["EPSG",8826]],
        PARAMETER["Northing at false origin",0,
            LENGTHUNIT["metre",1],
            ID["EPSG",8827]]],
    CS[Cartesian,2],
        AXIS["(E)",east,
            ORDER[1],
            LENGTHUNIT["Metre",1]],
        AXIS["(N)",north,
            ORDER[2],
            LENGTHUNIT["Metre",1]]]

Parameters

HARMONIE Denmark, Iceland, Netherlands and Ireland (harmonie_dini_sf)

Number	edition \nNumber	discipline	parameter \nCategory	parameter \nNumber	[link:https://codes.ecmwf.int/grib/format/grib2/ctables/4/10/|typeOfStatisticalProcessing] \n(external site)	level	levelType	typeOfLevel	shortName	name	gridType	units
1	2	0	6	5	not_found	0	sfc	heightAboveGround	hcc	High cloud cover	lambert	%
2	2	0	6	3	not_found	0	sfc	heightAboveGround	lcc	Low cloud cover	lambert	%
3	2	0	6	4	not_found	0	sfc	heightAboveGround	mcc	Medium cloud cover	lambert	%
4	2	0	6	32	not_found	0	sfc	heightAboveGround	cc	Fraction of cloud cover	lambert	(0 - 1)
5	2	0	6	32	not_found	2	sfc	heightAboveGround	cc	Fraction of cloud cover	lambert	(0 - 1)
6	2	0	0	0	not_found	0	sfc	heightAboveGround	t	Temperature	lambert	K
7	2	0	0	0	not_found	2	sfc	heightAboveGround	2t	2 metre temperature	lambert	K
8	2	0	0	0	not_found	50	sfc	heightAboveGround	t	Temperature	lambert	K
9	2	0	0	0	not_found	100	sfc	heightAboveGround	t	Temperature	lambert	K
10	2	0	0	0	not_found	150	sfc	heightAboveGround	t	Temperature	lambert	K
11	2	0	0	0	not_found	250	sfc	heightAboveGround	t	Temperature	lambert	K
12	2	0	0	0	not_found	90	ml	hybrid	t	Temperature	lambert	K
13	2	0	0	0	not_found	2	102	heightAboveSea	t	Temperature	lambert	K
14	2	0	0	0	2	2	sfc	heightAboveGround	2t	2 metre temperature	lambert	K
15	2	0	0	0	3	2	sfc	heightAboveGround	2t	2 metre temperature	lambert	K
16	2	0	0	6	not_found	2	sfc	heightAboveGround	2d	2 metre dewpoint temperature	lambert	K
17	2	0	19	0	not_found	0	sfc	heightAboveGround	vis	Visibility	lambert	m
18	2	0	2	2	not_found	10	sfc	heightAboveGround	10u	10 metre U wind component	lambert	m s**-1
19	2	0	2	2	not_found	50	sfc	heightAboveGround	u	U component of wind	lambert	m s**-1
20	2	0	2	2	not_found	100	sfc	heightAboveGround	100u	100 metre U wind component	lambert	m s**-1
21	2	0	2	2	not_found	150	sfc	heightAboveGround	u	U component of wind	lambert	m s**-1
22	2	0	2	2	not_found	250	sfc	heightAboveGround	u	U component of wind	lambert	m s**-1
23	2	0	2	2	not_found	350	sfc	heightAboveGround	u	U component of wind	lambert	m s**-1
24	2	0	2	2	not_found	450	sfc	heightAboveGround	u	U component of wind	lambert	m s**-1
25	2	0	2	2	not_found	90	ml	hybrid	u	U component of wind	lambert	m s**-1
26	2	0	2	2	not_found	10	102	heightAboveSea	u	U component of wind	lambert	m s**-1
27	2	0	2	3	not_found	10	sfc	heightAboveGround	10v	10 metre V wind component	lambert	m s**-1
28	2	0	2	3	not_found	50	sfc	heightAboveGround	v	V component of wind	lambert	m s**-1
29	2	0	2	3	not_found	100	sfc	heightAboveGround	100v	100 metre V wind component	lambert	m s**-1
30	2	0	2	3	not_found	150	sfc	heightAboveGround	v	V component of wind	lambert	m s**-1
31	2	0	2	3	not_found	250	sfc	heightAboveGround	v	V component of wind	lambert	m s**-1
32	2	0	2	3	not_found	350	sfc	heightAboveGround	v	V component of wind	lambert	m s**-1
33	2	0	2	3	not_found	450	sfc	heightAboveGround	v	V component of wind	lambert	m s**-1
34	2	0	2	3	not_found	90	ml	hybrid	v	V component of wind	lambert	m s**-1
35	2	0	2	3	not_found	10	102	heightAboveSea	v	V component of wind	lambert	m s**-1
36	2	0	2	1	not_found	10	sfc	heightAboveGround	10si	10 metre wind speed	lambert	m s**-1
37	2	0	2	0	not_found	10	sfc	heightAboveGround	10wdir	10 metre wind direction	lambert	Degree true
38	2	0	1	52	1	0	sfc	surface	tp	Total Precipitation	lambert	kg m**-2
39	2	0	1	60	not_found	0	sfc	heightAboveGround	sd	Snow depth \nwater equivalent	lambert	kg m**-2
40	2	0	1	128	1	0	sfc	surface	titspf	Time integral of total \nsolid precipitation flux	lambert	kg m**-2
41	2	0	3	0	not_found	0	sfc	heightAboveGround	pres	Pressure	lambert	Pa
42	2	0	3	0	not_found	150	sfc	heightAboveGround	pres	Pressure	lambert	Pa
43	2	0	3	0	not_found	300	sfc	heightAboveGround	pres	Pressure	lambert	Pa
44	2	0	3	0	not_found	0	102	heightAboveSea	pres	Pressure	lambert	Pa
45	2	0	1	0	not_found	2	sfc	heightAboveGround	2sh	2 metre \nspecific humidity	lambert	kg kg**-1
46	2	0	1	0	not_found	0	102	heightAboveSea	q	Specific humidity	lambert	kg kg**-1
47	2	0	1	0	not_found	2	102	heightAboveSea	q	Specific humidity	lambert	kg kg**-1
48	2	0	1	64	not_found	0	sfc	entireAtmosphere	tcwv	Total column \nvertically-integrated \nwater vapour	lambert	kg m**-2
49	2	0	1	70	not_found	0	sfc	entireAtmosphere	tciw	Total column \ncloud ice water	lambert	kg m**-2
50	2	0	3	4	not_found	0	sfc	heightAboveGround	z	Geopotential	lambert	m**2 s**-2
51	2	0	3	6	not_found	0	4	isothermZero	h	Geometrical height	lambert	m
52	2	0	3	6	not_found	26315	20	isothermal	h	Geometrical height	lambert	m
53	2	0	19	3	not_found	0	sfc	heightAboveGround	mld	Mixed layer depth	lambert	m
54	2	0	7	6	not_found	0	sfc	entireAtmosphere	cape	Convective available \npotential energy	lambert	J kg**-1
55	2	0	7	7	not_found	0	sfc	entireAtmosphere	cin	Convective inhibition	lambert	J kg**-1
56	2	0	2	23	2	10	sfc	heightAboveGround	10efg	10 metre eastward \nwind gust since \nprevious post-processing	lambert	m s**-1
57	2	0	2	24	2	10	sfc	heightAboveGround	10nfg	10 metre northward \nwind gust since \nprevious post-processing	lambert	m s**-1
58	2	0	2	22	2	10	sfc	heightAboveGround	gust	Wind speed (gust)	lambert	m s**-1
59	2	2	0	0	not_found	0	sfc	heightAboveGround	land	Land cover (1=land, 0=sea)	lambert	Proportion
60	2	0	4	9	1	0	sfc	heightAboveGround	nswrf	Net short wave radiation flux	lambert	W m**-2
61	2	0	5	5	1	0	sfc	heightAboveGround	nlwrf	Net long wave radiation flux	lambert	W m**-2
62	2	0	4	9	1	0	sfc	nominalTop	nswrf	Net short wave radiation flux	lambert	W m**-2
63	2	0	5	5	1	0	sfc	nominalTop	ttr	Top net thermal radiation	lambert	J m**-2
64	2	0	3	6	not_found	0	5	adiabaticCondensation	h	Geometrical height	lambert	m
65	2	0	3	6	not_found	0	14	unknown	h	Geometrical height	lambert	m
66	2	0	3	6	not_found	0	16	unknown	h	Geometrical height	lambert	m
67	2	0	6	11	not_found	0	sfc	entireAtmosphere	cdcb	Cloud base	lambert	m
68	2	0	6	12	not_found	0	sfc	entireAtmosphere	cdct	Cloud top	lambert	m
69	2	0	0	10	1	0	sfc	heightAboveGround	lhtfl	Latent heat net flux	lambert	W m**-2
70	2	0	0	30	1	0	sfc	heightAboveGround	unknown	unknown	lambert	unknown
71	2	0	0	31	1	0	sfc	heightAboveGround	unknown	unknown	lambert	unknown
72	2	0	1	1	not_found	2	sfc	heightAboveGround	2r	2 metre relative humidity	lambert	%
73	2	0	1	1	not_found	50	sfc	heightAboveGround	r	Relative humidity	lambert	%
74	2	0	1	1	not_found	100	sfc	heightAboveGround	r	Relative humidity	lambert	%
75	2	0	1	1	not_found	150	sfc	heightAboveGround	r	Relative humidity	lambert	%
76	2	0	1	1	not_found	250	sfc	heightAboveGround	r	Relative humidity	lambert	%
77	2	3	2	1	not_found	0	3	cloudTop	unknown	unknown	lambert	unknown
78	2	3	6	3	1	0	sfc	heightAboveGround	unknown	unknown \n(Not present on first model step)	lambert	unknown
79	2	0	4	7	1	0	sfc	heightAboveGround	dswrf	Downward short-wave \nradiation flux \n(Not present on first model step)	lambert	W m**-2
80	2	0	17	193	not_found	0	sfc	heightAboveGround	unknown	unknown	lambert	unknown
81	2	0	1	192	not_found	0	sfc	heightAboveGround	unknown	unknown	lambert	unknown
82	2	0	1	69	not_found	0	sfc	entireAtmosphere	tclw	Total column cloud liquid water	lambert	kg m**-2
83	2	0	1	75	not_found	0	sfc	heightAboveGround	unknown	unknown	lambert	unknown
84	2	0	4	3	1	0	sfc	heightAboveGround	grad	Global radiation flux	lambert	W m**-2
85	2	0	1	53	1	0	sfc	heightAboveGround	tsrwe	Total snowfall rate \nwater equivalent	lambert	kg m**-2 s**-1
86	2	0	1	65	1	0	sfc	heightAboveGround	rprate	Rain precipitation rate	lambert	kg m**-2 s**-1
87	2	0	2	17	1	0	sfc	heightAboveGround	uflx	Momentum flux, u component	lambert	N m**-2
88	2	0	2	18	1	0	sfc	heightAboveGround	vflx	Momentum flux, v component	lambert	N m**-2
89	2	0	0	11	1	0	sfc	heightAboveGround	shtfl	Sensible heat net flux	lambert	W m**-2
90	2	0	5	4	1	0	sfc	heightAboveGround	ulwrf	Upward long-wave \nradiation flux	lambert	W m**-2
91	2	0	6	199	not_found	0	sfc	heightAboveGround	unknown	unknown	lambert	unknown

HARMONIE Iceland and Greenland (harmonie_ig_sf)

Number	edition \nNumber	discipline	parameter \nCategory	parameter \nNumber	[link:https://codes.ecmwf.int/grib/format/grib2/ctables/4/10/|typeOfStatisticalProcessing] \n(external site)	level	levelType	typeOfLevel	shortName	name	gridType	units
1	2	0	6	5	not_found	0	sfc	heightAboveGround	hcc	High cloud cover	lambert	%
2	2	0	6	3	not_found	0	sfc	heightAboveGround	lcc	Low cloud cover	lambert	%
3	2	0	6	4	not_found	0	sfc	heightAboveGround	mcc	Medium cloud cover	lambert	%
4	2	0	6	32	not_found	0	sfc	heightAboveGround	cc	Fraction of cloud cover	lambert	(0 - 1)
5	2	0	6	32	not_found	2	sfc	heightAboveGround	cc	Fraction of cloud cover	lambert	(0 - 1)
6	2	0	0	0	not_found	0	sfc	heightAboveGround	t	Temperature	lambert	K
7	2	0	0	0	not_found	2	sfc	heightAboveGround	2t	2 metre temperature	lambert	K
8	2	0	0	0	not_found	50	sfc	heightAboveGround	t	Temperature	lambert	K
9	2	0	0	0	not_found	100	sfc	heightAboveGround	t	Temperature	lambert	K
10	2	0	0	0	not_found	150	sfc	heightAboveGround	t	Temperature	lambert	K
11	2	0	0	0	not_found	250	sfc	heightAboveGround	t	Temperature	lambert	K
12	2	0	0	0	not_found	90	ml	hybrid	t	Temperature	lambert	K
13	2	0	0	0	not_found	2	102	heightAboveSea	t	Temperature	lambert	K
14	2	0	0	0	2	2	sfc	heightAboveGround	2t	2 metre temperature	lambert	K
15	2	0	0	0	3	2	sfc	heightAboveGround	2t	2 metre temperature	lambert	K
16	2	0	0	6	not_found	2	sfc	heightAboveGround	2d	2 metre dewpoint temperature	lambert	K
17	2	0	19	0	not_found	0	sfc	heightAboveGround	vis	Visibility	lambert	m
18	2	0	2	2	not_found	10	sfc	heightAboveGround	10u	10 metre U wind component	lambert	m s**-1
19	2	0	2	2	not_found	50	sfc	heightAboveGround	u	U component of wind	lambert	m s**-1
20	2	0	2	2	not_found	100	sfc	heightAboveGround	100u	100 metre U wind component	lambert	m s**-1
21	2	0	2	2	not_found	150	sfc	heightAboveGround	u	U component of wind	lambert	m s**-1
22	2	0	2	2	not_found	250	sfc	heightAboveGround	u	U component of wind	lambert	m s**-1
23	2	0	2	2	not_found	350	sfc	heightAboveGround	u	U component of wind	lambert	m s**-1
24	2	0	2	2	not_found	450	sfc	heightAboveGround	u	U component of wind	lambert	m s**-1
25	2	0	2	2	not_found	90	ml	hybrid	u	U component of wind	lambert	m s**-1
26	2	0	2	2	not_found	10	102	heightAboveSea	u	U component of wind	lambert	m s**-1
27	2	0	2	3	not_found	10	sfc	heightAboveGround	10v	10 metre V wind component	lambert	m s**-1
28	2	0	2	3	not_found	50	sfc	heightAboveGround	v	V component of wind	lambert	m s**-1
29	2	0	2	3	not_found	100	sfc	heightAboveGround	100v	100 metre V wind component	lambert	m s**-1
30	2	0	2	3	not_found	150	sfc	heightAboveGround	v	V component of wind	lambert	m s**-1
31	2	0	2	3	not_found	250	sfc	heightAboveGround	v	V component of wind	lambert	m s**-1
32	2	0	2	3	not_found	350	sfc	heightAboveGround	v	V component of wind	lambert	m s**-1
33	2	0	2	3	not_found	450	sfc	heightAboveGround	v	V component of wind	lambert	m s**-1
34	2	0	2	3	not_found	90	ml	hybrid	v	V component of wind	lambert	m s**-1
35	2	0	2	3	not_found	10	102	heightAboveSea	v	V component of wind	lambert	m s**-1
36	2	0	2	1	not_found	10	sfc	heightAboveGround	10si	10 metre wind speed	lambert	m s**-1
37	2	0	2	0	not_found	10	sfc	heightAboveGround	10wdir	10 metre wind direction	lambert	Degree true
38	2	0	1	52	1	0	sfc	surface	tp	Total Precipitation	lambert	kg m**-2
39	2	0	1	60	not_found	0	sfc	heightAboveGround	sd	Snow depth \nwater equivalent	lambert	kg m**-2
40	2	0	1	128	1	0	sfc	surface	titspf	Time integral of total \nsolid precipitation flux	lambert	kg m**-2
41	2	0	3	0	not_found	0	sfc	heightAboveGround	pres	Pressure	lambert	Pa
42	2	0	3	0	not_found	150	sfc	heightAboveGround	pres	Pressure	lambert	Pa
43	2	0	3	0	not_found	300	sfc	heightAboveGround	pres	Pressure	lambert	Pa
44	2	0	3	0	not_found	0	102	heightAboveSea	pres	Pressure	lambert	Pa
45	2	0	1	0	not_found	2	sfc	heightAboveGround	2sh	2 metre \nspecific humidity	lambert	kg kg**-1
46	2	0	1	0	not_found	0	102	heightAboveSea	q	Specific humidity	lambert	kg kg**-1
47	2	0	1	0	not_found	2	102	heightAboveSea	q	Specific humidity	lambert	kg kg**-1
48	2	0	1	64	not_found	0	sfc	entireAtmosphere	tcwv	Total column \nvertically-integrated \nwater vapour	lambert	kg m**-2
49	2	0	1	70	not_found	0	sfc	entireAtmosphere	tciw	Total column \ncloud ice water	lambert	kg m**-2
50	2	0	3	4	not_found	0	sfc	heightAboveGround	z	Geopotential	lambert	m**2 s**-2
51	2	0	3	6	not_found	0	4	isothermZero	h	Geometrical height	lambert	m
52	2	0	3	6	not_found	26315	20	isothermal	h	Geometrical height	lambert	m
53	2	0	19	3	not_found	0	sfc	heightAboveGround	mld	Mixed layer depth	lambert	m
54	2	0	7	6	not_found	0	sfc	entireAtmosphere	cape	Convective available \npotential energy	lambert	J kg**-1
55	2	0	7	7	not_found	0	sfc	entireAtmosphere	cin	Convective inhibition	lambert	J kg**-1
56	2	0	2	23	2	10	sfc	heightAboveGround	10efg	10 metre eastward \nwind gust since \nprevious post-processing	lambert	m s**-1
57	2	0	2	24	2	10	sfc	heightAboveGround	10nfg	10 metre northward \nwind gust since \nprevious post-processing	lambert	m s**-1
58	2	0	2	22	2	10	sfc	heightAboveGround	gust	Wind speed (gust)	lambert	m s**-1
59	2	2	0	0	not_found	0	sfc	heightAboveGround	land	Land cover (1=land, 0=sea)	lambert	Proportion
60	2	0	4	9	1	0	sfc	heightAboveGround	nswrf	Net short wave radiation flux	lambert	W m**-2
61	2	0	5	5	1	0	sfc	heightAboveGround	nlwrf	Net long wave radiation flux	lambert	W m**-2
62	2	0	4	9	1	0	sfc	nominalTop	nswrf	Net short wave radiation flux	lambert	W m**-2
63	2	0	5	5	1	0	sfc	nominalTop	ttr	Top net thermal radiation	lambert	J m**-2
64	2	0	3	6	not_found	0	5	adiabaticCondensation	h	Geometrical height	lambert	m
65	2	0	3	6	not_found	0	14	freeConvection	h	Geometrical height	lambert	m
66	2	0	3	6	not_found	0	16	neutralBuoyancy	h	Geometrical height	lambert	m
67	2	0	6	11	not_found	0	sfc	entireAtmosphere	cdcb	Cloud base	lambert	m
68	2	0	6	12	not_found	0	sfc	entireAtmosphere	cdct	Cloud top	lambert	m
69	2	0	0	10	1	0	sfc	heightAboveGround	lhtfl	Latent heat net flux	lambert	W m**-2
70	2	0	0	30	1	0	sfc	heightAboveGround	unknown	unknown	lambert	unknown
71	2	0	0	31	1	0	sfc	heightAboveGround	unknown	unknown	lambert	unknown
72	2	0	1	1	not_found	2	sfc	heightAboveGround	2r	2 metre relative humidity	lambert	%
73	2	0	1	1	not_found	50	sfc	heightAboveGround	r	Relative humidity	lambert	%
74	2	0	1	1	not_found	100	sfc	heightAboveGround	r	Relative humidity	lambert	%
75	2	0	1	1	not_found	150	sfc	heightAboveGround	r	Relative humidity	lambert	%
76	2	0	1	1	not_found	250	sfc	heightAboveGround	r	Relative humidity	lambert	%
77	2	3	2	1	not_found	0	3	cloudTop	unknown	unknown	lambert	unknown
78	2	3	6	3	1	0	sfc	heightAboveGround	unknown	unknown \n(Not present on first model step)	lambert	unknown
79	2	0	4	7	1	0	sfc	heightAboveGround	dswrf	Downward short-wave \nradiation flux \n(Not present on first model step)	lambert	W m**-2
80	2	0	17	193	not_found	0	sfc	heightAboveGround	unknown	unknown	lambert	unknown
81	2	0	1	192	not_found	0	sfc	heightAboveGround	unknown	unknown	lambert	unknown
82	2	0	1	69	not_found	0	sfc	entireAtmosphere	tclw	Total column cloud liquid water	lambert	kg m**-2
83	2	0	1	75	not_found	0	sfc	heightAboveGround	unknown	unknown	lambert	unknown
84	2	0	4	3	1	0	sfc	heightAboveGround	grad	Global radiation flux	lambert	W m**-2
85	2	0	1	53	1	0	sfc	heightAboveGround	tsrwe	Total snowfall rate \nwater equivalent	lambert	kg m**-2 s**-1
86	2	0	1	65	1	0	sfc	heightAboveGround	rprate	Rain precipitation rate	lambert	kg m**-2 s**-1
87	2	0	2	17	1	0	sfc	heightAboveGround	uflx	Momentum flux, u component	lambert	N m**-2
88	2	0	2	18	1	0	sfc	heightAboveGround	vflx	Momentum flux, v component	lambert	N m**-2
89	2	0	0	11	1	0	sfc	heightAboveGround	shtfl	Sensible heat net flux	lambert	W m**-2
90	2	0	5	4	1	0	sfc	heightAboveGround	ulwrf	Upward long-wave \nradiation flux	lambert	W m**-2
91	2	0	6	199	not_found	0	sfc	heightAboveGround	unknown	unknown	lambert	unknown

HARMONIE Denmark, Iceland, Netherlands and Ireland (harmonie_dini_pl)

Number	edition\nNumber	discipline	parameter\nCategory	parameter\nNumber	level	levelType	typeOfLevel	shortName	name	gridType	units
1	2	0	1	1	700	pl	isobaricInhPa	r	Relative \nhumidity	lambert	%
2	2	0	1	1	850	pl	isobaricInhPa	r	Relative \nhumidity	lambert	%
3	2	0	1	1	925	pl	isobaricInhPa	r	Relative \nhumidity	lambert	%
4	2	0	3	4	100	pl	isobaricInhPa	z	Geopotential	lambert	m**2 s**-2
5	2	0	3	4	150	pl	isobaricInhPa	z	Geopotential	lambert	m**2 s**-2
6	2	0	3	4	200	pl	isobaricInhPa	z	Geopotential	lambert	m**2 s**-2
7	2	0	3	4	250	pl	isobaricInhPa	z	Geopotential	lambert	m**2 s**-2
8	2	0	3	4	300	pl	isobaricInhPa	z	Geopotential	lambert	m**2 s**-2
9	2	0	3	4	400	pl	isobaricInhPa	z	Geopotential	lambert	m**2 s**-2
10	2	0	3	4	500	pl	isobaricInhPa	z	Geopotential	lambert	m**2 s**-2
11	2	0	3	4	600	pl	isobaricInhPa	z	Geopotential	lambert	m**2 s**-2
12	2	0	3	4	700	pl	isobaricInhPa	z	Geopotential	lambert	m**2 s**-2
13	2	0	3	4	800	pl	isobaricInhPa	z	Geopotential	lambert	m**2 s**-2
14	2	0	3	4	850	pl	isobaricInhPa	z	Geopotential	lambert	m**2 s**-2
15	2	0	3	4	900	pl	isobaricInhPa	z	Geopotential	lambert	m**2 s**-2
16	2	0	3	4	925	pl	isobaricInhPa	z	Geopotential	lambert	m**2 s**-2
17	2	0	3	4	950	pl	isobaricInhPa	z	Geopotential	lambert	m**2 s**-2
18	2	0	3	4	1000	pl	isobaricInhPa	z	Geopotential	lambert	m**2 s**-2
19	2	0	0	0	300	pl	isobaricInhPa	t	Temperature	lambert	K
20	2	0	0	0	500	pl	isobaricInhPa	t	Temperature	lambert	K
21	2	0	0	0	700	pl	isobaricInhPa	t	Temperature	lambert	K
22	2	0	0	0	850	pl	isobaricInhPa	t	Temperature	lambert	K
23	2	0	0	0	925	pl	isobaricInhPa	t	Temperature	lambert	K
24	2	0	0	0	950	pl	isobaricInhPa	t	Temperature	lambert	K
25	2	0	0	0	1000	pl	isobaricInhPa	t	Temperature	lambert	K
26	2	0	2	2	100	pl	isobaricInhPa	u	U component \nof wind	lambert	m s**-1
27	2	0	2	2	150	pl	isobaricInhPa	u	U component \nof wind	lambert	m s**-1
28	2	0	2	2	200	pl	isobaricInhPa	u	U component \nof wind	lambert	m s**-1
29	2	0	2	2	250	pl	isobaricInhPa	u	U component \nof wind	lambert	m s**-1
30	2	0	2	2	300	pl	isobaricInhPa	u	U component \nof wind	lambert	m s**-1
31	2	0	2	2	400	pl	isobaricInhPa	u	U component \nof wind	lambert	m s**-1
32	2	0	2	2	500	pl	isobaricInhPa	u	U component \nof wind	lambert	m s**-1
33	2	0	2	2	600	pl	isobaricInhPa	u	U component \nof wind	lambert	m s**-1
34	2	0	2	2	700	pl	isobaricInhPa	u	U component \nof wind	lambert	m s**-1
35	2	0	2	2	800	pl	isobaricInhPa	u	U component \nof wind	lambert	m s**-1
36	2	0	2	2	850	pl	isobaricInhPa	u	U component \nof wind	lambert	m s**-1
37	2	0	2	2	900	pl	isobaricInhPa	u	U component \nof wind	lambert	m s**-1
38	2	0	2	2	925	pl	isobaricInhPa	u	U component \nof wind	lambert	m s**-1
39	2	0	2	2	950	pl	isobaricInhPa	u	U component \nof wind	lambert	m s**-1
40	2	0	2	2	1000	pl	isobaricInhPa	u	U component \nof wind	lambert	m s**-1
41	2	0	2	3	100	pl	isobaricInhPa	v	V component \nof wind	lambert	m s**-1
42	2	0	2	3	150	pl	isobaricInhPa	v	V component \nof wind	lambert	m s**-1
43	2	0	2	3	200	pl	isobaricInhPa	v	V component \nof wind	lambert	m s**-1
44	2	0	2	3	250	pl	isobaricInhPa	v	V component \nof wind	lambert	m s**-1
45	2	0	2	3	300	pl	isobaricInhPa	v	V component \nof wind	lambert	m s**-1
46	2	0	2	3	400	pl	isobaricInhPa	v	V component \nof wind	lambert	m s**-1
47	2	0	2	3	500	pl	isobaricInhPa	v	V component \nof wind	lambert	m s**-1
48	2	0	2	3	600	pl	isobaricInhPa	v	V component \nof wind	lambert	m s**-1
49	2	0	2	3	700	pl	isobaricInhPa	v	V component \nof wind	lambert	m s**-1
50	2	0	2	3	800	pl	isobaricInhPa	v	V component \nof wind	lambert	m s**-1
51	2	0	2	3	850	pl	isobaricInhPa	v	V component \nof wind	lambert	m s**-1
52	2	0	2	3	900	pl	isobaricInhPa	v	V component \nof wind	lambert	m s**-1
53	2	0	2	3	925	pl	isobaricInhPa	v	V component \nof wind	lambert	m s**-1
54	2	0	2	3	950	pl	isobaricInhPa	v	V component \nof wind	lambert	m s**-1
55	2	0	2	3	1000	pl	isobaricInhPa	v	V component \nof wind	lambert	m s**-1
56	2	0	2	9	100	pl	isobaricInhPa	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
57	2	0	2	9	150	pl	isobaricInhPa	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
58	2	0	2	9	200	pl	isobaricInhPa	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
59	2	0	2	9	250	pl	isobaricInhPa	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
60	2	0	2	9	300	pl	isobaricInhPa	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
61	2	0	2	9	400	pl	isobaricInhPa	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
62	2	0	2	9	500	pl	isobaricInhPa	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
63	2	0	2	9	600	pl	isobaricInhPa	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
64	2	0	2	9	700	pl	isobaricInhPa	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
65	2	0	2	9	800	pl	isobaricInhPa	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
66	2	0	2	9	850	pl	isobaricInhPa	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
67	2	0	2	9	900	pl	isobaricInhPa	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
68	2	0	2	9	925	pl	isobaricInhPa	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
69	2	0	2	9	950	pl	isobaricInhPa	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
70	2	0	2	9	1000	pl	isobaricInhPa	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
71	2	0	0	3	500	pl	isobaricInhPa	papt	Pseudo-\nadiabatic \npotential \ntemperature	lambert	K
72	2	0	0	3	850	pl	isobaricInhPa	papt	Pseudo-\nadiabatic \npotential \ntemperature	lambert	K
73	2	0	0	3	925	pl	isobaricInhPa	papt	Pseudo-\nadiabatic \npotential \ntemperature	lambert	K

HARMONIE Iceland and Greenland (harmonie_ig_pl)

HARMONIE Denmark, Iceland, Netherlands and Ireland (harmonie_dini_ml)

Number	edition\nNumber	discipline	parameter\nCategory	parameter\nNumber	level	levelType	typeOfLevel	shortName	name	gridType	units
1	2	0	6	32	1	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
2	2	0	6	32	2	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
3	2	0	6	32	3	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
4	2	0	6	32	4	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
5	2	0	6	32	5	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
6	2	0	6	32	6	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
7	2	0	6	32	7	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
8	2	0	6	32	8	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
9	2	0	6	32	9	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
10	2	0	6	32	10	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
11	2	0	6	32	11	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
12	2	0	6	32	12	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
13	2	0	6	32	13	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
14	2	0	6	32	14	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
15	2	0	6	32	15	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
16	2	0	6	32	16	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
17	2	0	6	32	17	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
18	2	0	6	32	18	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
19	2	0	6	32	19	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
20	2	0	6	32	20	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
21	2	0	6	32	21	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
22	2	0	6	32	22	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
23	2	0	6	32	23	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
24	2	0	6	32	24	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
25	2	0	6	32	25	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
26	2	0	6	32	26	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
27	2	0	6	32	27	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
28	2	0	6	32	28	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
29	2	0	6	32	29	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
30	2	0	6	32	30	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
31	2	0	6	32	31	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
32	2	0	6	32	32	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
33	2	0	6	32	33	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
34	2	0	6	32	34	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
35	2	0	6	32	35	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
36	2	0	6	32	36	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
37	2	0	6	32	37	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
38	2	0	6	32	38	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
39	2	0	6	32	39	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
40	2	0	6	32	40	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
41	2	0	6	32	41	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
42	2	0	6	32	42	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
43	2	0	6	32	43	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
44	2	0	6	32	44	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
45	2	0	6	32	45	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
46	2	0	6	32	46	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
47	2	0	6	32	47	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
48	2	0	6	32	48	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
49	2	0	6	32	49	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
50	2	0	6	32	50	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
51	2	0	6	32	51	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
52	2	0	6	32	52	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
53	2	0	6	32	53	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
54	2	0	6	32	54	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
55	2	0	6	32	55	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
56	2	0	6	32	56	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
57	2	0	6	32	57	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
58	2	0	6	32	58	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
59	2	0	6	32	59	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
60	2	0	6	32	60	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
61	2	0	6	32	61	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
62	2	0	6	32	62	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
63	2	0	6	32	63	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
64	2	0	6	32	64	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
65	2	0	6	32	65	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
66	2	0	6	32	66	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
67	2	0	6	32	67	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
68	2	0	6	32	68	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
69	2	0	6	32	69	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
70	2	0	6	32	70	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
71	2	0	6	32	71	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
72	2	0	6	32	72	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
73	2	0	6	32	73	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
74	2	0	6	32	74	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
75	2	0	6	32	75	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
76	2	0	6	32	76	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
77	2	0	6	32	77	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
78	2	0	6	32	78	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
79	2	0	6	32	79	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
80	2	0	6	32	80	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
81	2	0	6	32	81	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
82	2	0	6	32	82	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
83	2	0	6	32	83	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
84	2	0	6	32	84	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
85	2	0	6	32	85	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
86	2	0	6	32	86	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
87	2	0	6	32	87	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
88	2	0	6	32	88	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
89	2	0	6	32	89	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
90	2	0	6	32	90	ml	hybrid	cc	Fraction of \ncloud cover	lambert	(0 - 1)
91	2	0	1	83	1	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
92	2	0	1	83	2	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
93	2	0	1	83	3	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
94	2	0	1	83	4	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
95	2	0	1	83	5	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
96	2	0	1	83	6	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
97	2	0	1	83	7	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
98	2	0	1	83	8	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
99	2	0	1	83	9	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
100	2	0	1	83	10	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
101	2	0	1	83	11	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
102	2	0	1	83	12	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
103	2	0	1	83	13	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
104	2	0	1	83	14	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
105	2	0	1	83	15	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
106	2	0	1	83	16	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
107	2	0	1	83	17	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
108	2	0	1	83	18	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
109	2	0	1	83	19	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
110	2	0	1	83	20	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
111	2	0	1	83	21	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
112	2	0	1	83	22	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
113	2	0	1	83	23	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
114	2	0	1	83	24	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
115	2	0	1	83	25	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
116	2	0	1	83	26	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
117	2	0	1	83	27	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
118	2	0	1	83	28	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
119	2	0	1	83	29	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
120	2	0	1	83	30	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
121	2	0	1	83	31	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
122	2	0	1	83	32	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
123	2	0	1	83	33	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
124	2	0	1	83	34	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
125	2	0	1	83	35	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
126	2	0	1	83	36	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
127	2	0	1	83	37	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
128	2	0	1	83	38	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
129	2	0	1	83	39	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
130	2	0	1	83	40	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
131	2	0	1	83	41	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
132	2	0	1	83	42	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
133	2	0	1	83	43	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
134	2	0	1	83	44	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
135	2	0	1	83	45	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
136	2	0	1	83	46	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
137	2	0	1	83	47	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
138	2	0	1	83	48	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
139	2	0	1	83	49	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
140	2	0	1	83	50	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
141	2	0	1	83	51	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
142	2	0	1	83	52	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
143	2	0	1	83	53	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
144	2	0	1	83	54	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
145	2	0	1	83	55	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
146	2	0	1	83	56	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
147	2	0	1	83	57	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
148	2	0	1	83	58	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
149	2	0	1	83	59	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
150	2	0	1	83	60	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
151	2	0	1	83	61	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
152	2	0	1	83	62	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
153	2	0	1	83	63	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
154	2	0	1	83	64	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
155	2	0	1	83	65	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
156	2	0	1	83	66	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
157	2	0	1	83	67	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
158	2	0	1	83	68	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
159	2	0	1	83	69	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
160	2	0	1	83	70	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
161	2	0	1	83	71	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
162	2	0	1	83	72	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
163	2	0	1	83	73	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
164	2	0	1	83	74	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
165	2	0	1	83	75	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
166	2	0	1	83	76	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
167	2	0	1	83	77	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
168	2	0	1	83	78	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
169	2	0	1	83	79	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
170	2	0	1	83	80	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
171	2	0	1	83	81	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
172	2	0	1	83	82	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
173	2	0	1	83	83	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
174	2	0	1	83	84	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
175	2	0	1	83	85	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
176	2	0	1	83	86	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
177	2	0	1	83	87	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
178	2	0	1	83	88	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
179	2	0	1	83	89	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
180	2	0	1	83	90	ml	hybrid	clwc	Specific \ncloud liquid \nwater \ncontent	lambert	kg kg**-1
181	2	0	1	0	1	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
182	2	0	1	0	2	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
183	2	0	1	0	3	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
184	2	0	1	0	4	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
185	2	0	1	0	5	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
186	2	0	1	0	6	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
187	2	0	1	0	7	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
188	2	0	1	0	8	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
189	2	0	1	0	9	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
190	2	0	1	0	10	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
191	2	0	1	0	11	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
192	2	0	1	0	12	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
193	2	0	1	0	13	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
194	2	0	1	0	14	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
195	2	0	1	0	15	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
196	2	0	1	0	16	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
197	2	0	1	0	17	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
198	2	0	1	0	18	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
199	2	0	1	0	19	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
200	2	0	1	0	20	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
201	2	0	1	0	21	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
202	2	0	1	0	22	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
203	2	0	1	0	23	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
204	2	0	1	0	24	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
205	2	0	1	0	25	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
206	2	0	1	0	26	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
207	2	0	1	0	27	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
208	2	0	1	0	28	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
209	2	0	1	0	29	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
210	2	0	1	0	30	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
211	2	0	1	0	31	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
212	2	0	1	0	32	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
213	2	0	1	0	33	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
214	2	0	1	0	34	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
215	2	0	1	0	35	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
216	2	0	1	0	36	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
217	2	0	1	0	37	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
218	2	0	1	0	38	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
219	2	0	1	0	39	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
220	2	0	1	0	40	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
221	2	0	1	0	41	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
222	2	0	1	0	42	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
223	2	0	1	0	43	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
224	2	0	1	0	44	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
225	2	0	1	0	45	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
226	2	0	1	0	46	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
227	2	0	1	0	47	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
228	2	0	1	0	48	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
229	2	0	1	0	49	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
230	2	0	1	0	50	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
231	2	0	1	0	51	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
232	2	0	1	0	52	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
233	2	0	1	0	53	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
234	2	0	1	0	54	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
235	2	0	1	0	55	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
236	2	0	1	0	56	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
237	2	0	1	0	57	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
238	2	0	1	0	58	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
239	2	0	1	0	59	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
240	2	0	1	0	60	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
241	2	0	1	0	61	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
242	2	0	1	0	62	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
243	2	0	1	0	63	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
244	2	0	1	0	64	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
245	2	0	1	0	65	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
246	2	0	1	0	66	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
247	2	0	1	0	67	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
248	2	0	1	0	68	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
249	2	0	1	0	69	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
250	2	0	1	0	70	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
251	2	0	1	0	71	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
252	2	0	1	0	72	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
253	2	0	1	0	73	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
254	2	0	1	0	74	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
255	2	0	1	0	75	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
256	2	0	1	0	76	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
257	2	0	1	0	77	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
258	2	0	1	0	78	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
259	2	0	1	0	79	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
260	2	0	1	0	80	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
261	2	0	1	0	81	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
262	2	0	1	0	82	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
263	2	0	1	0	83	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
264	2	0	1	0	84	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
265	2	0	1	0	85	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
266	2	0	1	0	86	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
267	2	0	1	0	87	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
268	2	0	1	0	88	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
269	2	0	1	0	89	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
270	2	0	1	0	90	ml	hybrid	q	Specific \nhumidity	lambert	kg kg**-1
271	2	0	0	0	1	ml	hybrid	t	Temperature	lambert	K
272	2	0	0	0	2	ml	hybrid	t	Temperature	lambert	K
273	2	0	0	0	3	ml	hybrid	t	Temperature	lambert	K
274	2	0	0	0	4	ml	hybrid	t	Temperature	lambert	K
275	2	0	0	0	5	ml	hybrid	t	Temperature	lambert	K
276	2	0	0	0	6	ml	hybrid	t	Temperature	lambert	K
277	2	0	0	0	7	ml	hybrid	t	Temperature	lambert	K
278	2	0	0	0	8	ml	hybrid	t	Temperature	lambert	K
279	2	0	0	0	9	ml	hybrid	t	Temperature	lambert	K
280	2	0	0	0	10	ml	hybrid	t	Temperature	lambert	K
281	2	0	0	0	11	ml	hybrid	t	Temperature	lambert	K
282	2	0	0	0	12	ml	hybrid	t	Temperature	lambert	K
283	2	0	0	0	13	ml	hybrid	t	Temperature	lambert	K
284	2	0	0	0	14	ml	hybrid	t	Temperature	lambert	K
285	2	0	0	0	15	ml	hybrid	t	Temperature	lambert	K
286	2	0	0	0	16	ml	hybrid	t	Temperature	lambert	K
287	2	0	0	0	17	ml	hybrid	t	Temperature	lambert	K
288	2	0	0	0	18	ml	hybrid	t	Temperature	lambert	K
289	2	0	0	0	19	ml	hybrid	t	Temperature	lambert	K
290	2	0	0	0	20	ml	hybrid	t	Temperature	lambert	K
291	2	0	0	0	21	ml	hybrid	t	Temperature	lambert	K
292	2	0	0	0	22	ml	hybrid	t	Temperature	lambert	K
293	2	0	0	0	23	ml	hybrid	t	Temperature	lambert	K
294	2	0	0	0	24	ml	hybrid	t	Temperature	lambert	K
295	2	0	0	0	25	ml	hybrid	t	Temperature	lambert	K
296	2	0	0	0	26	ml	hybrid	t	Temperature	lambert	K
297	2	0	0	0	27	ml	hybrid	t	Temperature	lambert	K
298	2	0	0	0	28	ml	hybrid	t	Temperature	lambert	K
299	2	0	0	0	29	ml	hybrid	t	Temperature	lambert	K
300	2	0	0	0	30	ml	hybrid	t	Temperature	lambert	K
301	2	0	0	0	31	ml	hybrid	t	Temperature	lambert	K
302	2	0	0	0	32	ml	hybrid	t	Temperature	lambert	K
303	2	0	0	0	33	ml	hybrid	t	Temperature	lambert	K
304	2	0	0	0	34	ml	hybrid	t	Temperature	lambert	K
305	2	0	0	0	35	ml	hybrid	t	Temperature	lambert	K
306	2	0	0	0	36	ml	hybrid	t	Temperature	lambert	K
307	2	0	0	0	37	ml	hybrid	t	Temperature	lambert	K
308	2	0	0	0	38	ml	hybrid	t	Temperature	lambert	K
309	2	0	0	0	39	ml	hybrid	t	Temperature	lambert	K
310	2	0	0	0	40	ml	hybrid	t	Temperature	lambert	K
311	2	0	0	0	41	ml	hybrid	t	Temperature	lambert	K
312	2	0	0	0	42	ml	hybrid	t	Temperature	lambert	K
313	2	0	0	0	43	ml	hybrid	t	Temperature	lambert	K
314	2	0	0	0	44	ml	hybrid	t	Temperature	lambert	K
315	2	0	0	0	45	ml	hybrid	t	Temperature	lambert	K
316	2	0	0	0	46	ml	hybrid	t	Temperature	lambert	K
317	2	0	0	0	47	ml	hybrid	t	Temperature	lambert	K
318	2	0	0	0	48	ml	hybrid	t	Temperature	lambert	K
319	2	0	0	0	49	ml	hybrid	t	Temperature	lambert	K
320	2	0	0	0	50	ml	hybrid	t	Temperature	lambert	K
321	2	0	0	0	51	ml	hybrid	t	Temperature	lambert	K
322	2	0	0	0	52	ml	hybrid	t	Temperature	lambert	K
323	2	0	0	0	53	ml	hybrid	t	Temperature	lambert	K
324	2	0	0	0	54	ml	hybrid	t	Temperature	lambert	K
325	2	0	0	0	55	ml	hybrid	t	Temperature	lambert	K
326	2	0	0	0	56	ml	hybrid	t	Temperature	lambert	K
327	2	0	0	0	57	ml	hybrid	t	Temperature	lambert	K
328	2	0	0	0	58	ml	hybrid	t	Temperature	lambert	K
329	2	0	0	0	59	ml	hybrid	t	Temperature	lambert	K
330	2	0	0	0	60	ml	hybrid	t	Temperature	lambert	K
331	2	0	0	0	61	ml	hybrid	t	Temperature	lambert	K
332	2	0	0	0	62	ml	hybrid	t	Temperature	lambert	K
333	2	0	0	0	63	ml	hybrid	t	Temperature	lambert	K
334	2	0	0	0	64	ml	hybrid	t	Temperature	lambert	K
335	2	0	0	0	65	ml	hybrid	t	Temperature	lambert	K
336	2	0	0	0	66	ml	hybrid	t	Temperature	lambert	K
337	2	0	0	0	67	ml	hybrid	t	Temperature	lambert	K
338	2	0	0	0	68	ml	hybrid	t	Temperature	lambert	K
339	2	0	0	0	69	ml	hybrid	t	Temperature	lambert	K
340	2	0	0	0	70	ml	hybrid	t	Temperature	lambert	K
341	2	0	0	0	71	ml	hybrid	t	Temperature	lambert	K
342	2	0	0	0	72	ml	hybrid	t	Temperature	lambert	K
343	2	0	0	0	73	ml	hybrid	t	Temperature	lambert	K
344	2	0	0	0	74	ml	hybrid	t	Temperature	lambert	K
345	2	0	0	0	75	ml	hybrid	t	Temperature	lambert	K
346	2	0	0	0	76	ml	hybrid	t	Temperature	lambert	K
347	2	0	0	0	77	ml	hybrid	t	Temperature	lambert	K
348	2	0	0	0	78	ml	hybrid	t	Temperature	lambert	K
349	2	0	0	0	79	ml	hybrid	t	Temperature	lambert	K
350	2	0	0	0	80	ml	hybrid	t	Temperature	lambert	K
351	2	0	0	0	81	ml	hybrid	t	Temperature	lambert	K
352	2	0	0	0	82	ml	hybrid	t	Temperature	lambert	K
353	2	0	0	0	83	ml	hybrid	t	Temperature	lambert	K
354	2	0	0	0	84	ml	hybrid	t	Temperature	lambert	K
355	2	0	0	0	85	ml	hybrid	t	Temperature	lambert	K
356	2	0	0	0	86	ml	hybrid	t	Temperature	lambert	K
357	2	0	0	0	87	ml	hybrid	t	Temperature	lambert	K
358	2	0	0	0	88	ml	hybrid	t	Temperature	lambert	K
359	2	0	0	0	89	ml	hybrid	t	Temperature	lambert	K
360	2	0	0	0	90	ml	hybrid	t	Temperature	lambert	K
361	2	0	2	2	1	ml	hybrid	u	U component \nof wind	lambert	m s**-1
362	2	0	2	2	2	ml	hybrid	u	U component \nof wind	lambert	m s**-1
363	2	0	2	2	3	ml	hybrid	u	U component \nof wind	lambert	m s**-1
364	2	0	2	2	4	ml	hybrid	u	U component \nof wind	lambert	m s**-1
365	2	0	2	2	5	ml	hybrid	u	U component \nof wind	lambert	m s**-1
366	2	0	2	2	6	ml	hybrid	u	U component \nof wind	lambert	m s**-1
367	2	0	2	2	7	ml	hybrid	u	U component \nof wind	lambert	m s**-1
368	2	0	2	2	8	ml	hybrid	u	U component \nof wind	lambert	m s**-1
369	2	0	2	2	9	ml	hybrid	u	U component \nof wind	lambert	m s**-1
370	2	0	2	2	10	ml	hybrid	u	U component \nof wind	lambert	m s**-1
371	2	0	2	2	11	ml	hybrid	u	U component \nof wind	lambert	m s**-1
372	2	0	2	2	12	ml	hybrid	u	U component \nof wind	lambert	m s**-1
373	2	0	2	2	13	ml	hybrid	u	U component \nof wind	lambert	m s**-1
374	2	0	2	2	14	ml	hybrid	u	U component \nof wind	lambert	m s**-1
375	2	0	2	2	15	ml	hybrid	u	U component \nof wind	lambert	m s**-1
376	2	0	2	2	16	ml	hybrid	u	U component \nof wind	lambert	m s**-1
377	2	0	2	2	17	ml	hybrid	u	U component \nof wind	lambert	m s**-1
378	2	0	2	2	18	ml	hybrid	u	U component \nof wind	lambert	m s**-1
379	2	0	2	2	19	ml	hybrid	u	U component \nof wind	lambert	m s**-1
380	2	0	2	2	20	ml	hybrid	u	U component \nof wind	lambert	m s**-1
381	2	0	2	2	21	ml	hybrid	u	U component \nof wind	lambert	m s**-1
382	2	0	2	2	22	ml	hybrid	u	U component \nof wind	lambert	m s**-1
383	2	0	2	2	23	ml	hybrid	u	U component \nof wind	lambert	m s**-1
384	2	0	2	2	24	ml	hybrid	u	U component \nof wind	lambert	m s**-1
385	2	0	2	2	25	ml	hybrid	u	U component \nof wind	lambert	m s**-1
386	2	0	2	2	26	ml	hybrid	u	U component \nof wind	lambert	m s**-1
387	2	0	2	2	27	ml	hybrid	u	U component \nof wind	lambert	m s**-1
388	2	0	2	2	28	ml	hybrid	u	U component \nof wind	lambert	m s**-1
389	2	0	2	2	29	ml	hybrid	u	U component \nof wind	lambert	m s**-1
390	2	0	2	2	30	ml	hybrid	u	U component \nof wind	lambert	m s**-1
391	2	0	2	2	31	ml	hybrid	u	U component \nof wind	lambert	m s**-1
392	2	0	2	2	32	ml	hybrid	u	U component \nof wind	lambert	m s**-1
393	2	0	2	2	33	ml	hybrid	u	U component \nof wind	lambert	m s**-1
394	2	0	2	2	34	ml	hybrid	u	U component \nof wind	lambert	m s**-1
395	2	0	2	2	35	ml	hybrid	u	U component \nof wind	lambert	m s**-1
396	2	0	2	2	36	ml	hybrid	u	U component \nof wind	lambert	m s**-1
397	2	0	2	2	37	ml	hybrid	u	U component \nof wind	lambert	m s**-1
398	2	0	2	2	38	ml	hybrid	u	U component \nof wind	lambert	m s**-1
399	2	0	2	2	39	ml	hybrid	u	U component \nof wind	lambert	m s**-1
400	2	0	2	2	40	ml	hybrid	u	U component \nof wind	lambert	m s**-1
401	2	0	2	2	41	ml	hybrid	u	U component \nof wind	lambert	m s**-1
402	2	0	2	2	42	ml	hybrid	u	U component \nof wind	lambert	m s**-1
403	2	0	2	2	43	ml	hybrid	u	U component \nof wind	lambert	m s**-1
404	2	0	2	2	44	ml	hybrid	u	U component \nof wind	lambert	m s**-1
405	2	0	2	2	45	ml	hybrid	u	U component \nof wind	lambert	m s**-1
406	2	0	2	2	46	ml	hybrid	u	U component \nof wind	lambert	m s**-1
407	2	0	2	2	47	ml	hybrid	u	U component \nof wind	lambert	m s**-1
408	2	0	2	2	48	ml	hybrid	u	U component \nof wind	lambert	m s**-1
409	2	0	2	2	49	ml	hybrid	u	U component \nof wind	lambert	m s**-1
410	2	0	2	2	50	ml	hybrid	u	U component \nof wind	lambert	m s**-1
411	2	0	2	2	51	ml	hybrid	u	U component \nof wind	lambert	m s**-1
412	2	0	2	2	52	ml	hybrid	u	U component \nof wind	lambert	m s**-1
413	2	0	2	2	53	ml	hybrid	u	U component \nof wind	lambert	m s**-1
414	2	0	2	2	54	ml	hybrid	u	U component \nof wind	lambert	m s**-1
415	2	0	2	2	55	ml	hybrid	u	U component \nof wind	lambert	m s**-1
416	2	0	2	2	56	ml	hybrid	u	U component \nof wind	lambert	m s**-1
417	2	0	2	2	57	ml	hybrid	u	U component \nof wind	lambert	m s**-1
418	2	0	2	2	58	ml	hybrid	u	U component \nof wind	lambert	m s**-1
419	2	0	2	2	59	ml	hybrid	u	U component \nof wind	lambert	m s**-1
420	2	0	2	2	60	ml	hybrid	u	U component \nof wind	lambert	m s**-1
421	2	0	2	2	61	ml	hybrid	u	U component \nof wind	lambert	m s**-1
422	2	0	2	2	62	ml	hybrid	u	U component \nof wind	lambert	m s**-1
423	2	0	2	2	63	ml	hybrid	u	U component \nof wind	lambert	m s**-1
424	2	0	2	2	64	ml	hybrid	u	U component \nof wind	lambert	m s**-1
425	2	0	2	2	65	ml	hybrid	u	U component \nof wind	lambert	m s**-1
426	2	0	2	2	66	ml	hybrid	u	U component \nof wind	lambert	m s**-1
427	2	0	2	2	67	ml	hybrid	u	U component \nof wind	lambert	m s**-1
428	2	0	2	2	68	ml	hybrid	u	U component \nof wind	lambert	m s**-1
429	2	0	2	2	69	ml	hybrid	u	U component \nof wind	lambert	m s**-1
430	2	0	2	2	70	ml	hybrid	u	U component \nof wind	lambert	m s**-1
431	2	0	2	2	71	ml	hybrid	u	U component \nof wind	lambert	m s**-1
432	2	0	2	2	72	ml	hybrid	u	U component \nof wind	lambert	m s**-1
433	2	0	2	2	73	ml	hybrid	u	U component \nof wind	lambert	m s**-1
434	2	0	2	2	74	ml	hybrid	u	U component \nof wind	lambert	m s**-1
435	2	0	2	2	75	ml	hybrid	u	U component \nof wind	lambert	m s**-1
436	2	0	2	2	76	ml	hybrid	u	U component \nof wind	lambert	m s**-1
437	2	0	2	2	77	ml	hybrid	u	U component \nof wind	lambert	m s**-1
438	2	0	2	2	78	ml	hybrid	u	U component \nof wind	lambert	m s**-1
439	2	0	2	2	79	ml	hybrid	u	U component \nof wind	lambert	m s**-1
440	2	0	2	2	80	ml	hybrid	u	U component \nof wind	lambert	m s**-1
441	2	0	2	2	81	ml	hybrid	u	U component \nof wind	lambert	m s**-1
442	2	0	2	2	82	ml	hybrid	u	U component \nof wind	lambert	m s**-1
443	2	0	2	2	83	ml	hybrid	u	U component \nof wind	lambert	m s**-1
444	2	0	2	2	84	ml	hybrid	u	U component \nof wind	lambert	m s**-1
445	2	0	2	2	85	ml	hybrid	u	U component \nof wind	lambert	m s**-1
446	2	0	2	2	86	ml	hybrid	u	U component \nof wind	lambert	m s**-1
447	2	0	2	2	87	ml	hybrid	u	U component \nof wind	lambert	m s**-1
448	2	0	2	2	88	ml	hybrid	u	U component \nof wind	lambert	m s**-1
449	2	0	2	2	89	ml	hybrid	u	U component \nof wind	lambert	m s**-1
450	2	0	2	2	90	ml	hybrid	u	U component \nof wind	lambert	m s**-1
451	2	0	2	3	1	ml	hybrid	v	V component \nof wind	lambert	m s**-1
452	2	0	2	3	2	ml	hybrid	v	V component \nof wind	lambert	m s**-1
453	2	0	2	3	3	ml	hybrid	v	V component \nof wind	lambert	m s**-1
454	2	0	2	3	4	ml	hybrid	v	V component \nof wind	lambert	m s**-1
455	2	0	2	3	5	ml	hybrid	v	V component \nof wind	lambert	m s**-1
456	2	0	2	3	6	ml	hybrid	v	V component \nof wind	lambert	m s**-1
457	2	0	2	3	7	ml	hybrid	v	V component \nof wind	lambert	m s**-1
458	2	0	2	3	8	ml	hybrid	v	V component \nof wind	lambert	m s**-1
459	2	0	2	3	9	ml	hybrid	v	V component \nof wind	lambert	m s**-1
460	2	0	2	3	10	ml	hybrid	v	V component \nof wind	lambert	m s**-1
461	2	0	2	3	11	ml	hybrid	v	V component \nof wind	lambert	m s**-1
462	2	0	2	3	12	ml	hybrid	v	V component \nof wind	lambert	m s**-1
463	2	0	2	3	13	ml	hybrid	v	V component \nof wind	lambert	m s**-1
464	2	0	2	3	14	ml	hybrid	v	V component \nof wind	lambert	m s**-1
465	2	0	2	3	15	ml	hybrid	v	V component \nof wind	lambert	m s**-1
466	2	0	2	3	16	ml	hybrid	v	V component \nof wind	lambert	m s**-1
467	2	0	2	3	17	ml	hybrid	v	V component \nof wind	lambert	m s**-1
468	2	0	2	3	18	ml	hybrid	v	V component \nof wind	lambert	m s**-1
469	2	0	2	3	19	ml	hybrid	v	V component \nof wind	lambert	m s**-1
470	2	0	2	3	20	ml	hybrid	v	V component \nof wind	lambert	m s**-1
471	2	0	2	3	21	ml	hybrid	v	V component \nof wind	lambert	m s**-1
472	2	0	2	3	22	ml	hybrid	v	V component \nof wind	lambert	m s**-1
473	2	0	2	3	23	ml	hybrid	v	V component \nof wind	lambert	m s**-1
474	2	0	2	3	24	ml	hybrid	v	V component \nof wind	lambert	m s**-1
475	2	0	2	3	25	ml	hybrid	v	V component \nof wind	lambert	m s**-1
476	2	0	2	3	26	ml	hybrid	v	V component \nof wind	lambert	m s**-1
477	2	0	2	3	27	ml	hybrid	v	V component \nof wind	lambert	m s**-1
478	2	0	2	3	28	ml	hybrid	v	V component \nof wind	lambert	m s**-1
479	2	0	2	3	29	ml	hybrid	v	V component \nof wind	lambert	m s**-1
480	2	0	2	3	30	ml	hybrid	v	V component \nof wind	lambert	m s**-1
481	2	0	2	3	31	ml	hybrid	v	V component \nof wind	lambert	m s**-1
482	2	0	2	3	32	ml	hybrid	v	V component \nof wind	lambert	m s**-1
483	2	0	2	3	33	ml	hybrid	v	V component \nof wind	lambert	m s**-1
484	2	0	2	3	34	ml	hybrid	v	V component \nof wind	lambert	m s**-1
485	2	0	2	3	35	ml	hybrid	v	V component \nof wind	lambert	m s**-1
486	2	0	2	3	36	ml	hybrid	v	V component \nof wind	lambert	m s**-1
487	2	0	2	3	37	ml	hybrid	v	V component \nof wind	lambert	m s**-1
488	2	0	2	3	38	ml	hybrid	v	V component \nof wind	lambert	m s**-1
489	2	0	2	3	39	ml	hybrid	v	V component \nof wind	lambert	m s**-1
490	2	0	2	3	40	ml	hybrid	v	V component \nof wind	lambert	m s**-1
491	2	0	2	3	41	ml	hybrid	v	V component \nof wind	lambert	m s**-1
492	2	0	2	3	42	ml	hybrid	v	V component \nof wind	lambert	m s**-1
493	2	0	2	3	43	ml	hybrid	v	V component \nof wind	lambert	m s**-1
494	2	0	2	3	44	ml	hybrid	v	V component \nof wind	lambert	m s**-1
495	2	0	2	3	45	ml	hybrid	v	V component \nof wind	lambert	m s**-1
496	2	0	2	3	46	ml	hybrid	v	V component \nof wind	lambert	m s**-1
497	2	0	2	3	47	ml	hybrid	v	V component \nof wind	lambert	m s**-1
498	2	0	2	3	48	ml	hybrid	v	V component \nof wind	lambert	m s**-1
499	2	0	2	3	49	ml	hybrid	v	V component \nof wind	lambert	m s**-1
500	2	0	2	3	50	ml	hybrid	v	V component \nof wind	lambert	m s**-1
501	2	0	2	3	51	ml	hybrid	v	V component \nof wind	lambert	m s**-1
502	2	0	2	3	52	ml	hybrid	v	V component \nof wind	lambert	m s**-1
503	2	0	2	3	53	ml	hybrid	v	V component \nof wind	lambert	m s**-1
504	2	0	2	3	54	ml	hybrid	v	V component \nof wind	lambert	m s**-1
505	2	0	2	3	55	ml	hybrid	v	V component \nof wind	lambert	m s**-1
506	2	0	2	3	56	ml	hybrid	v	V component \nof wind	lambert	m s**-1
507	2	0	2	3	57	ml	hybrid	v	V component \nof wind	lambert	m s**-1
508	2	0	2	3	58	ml	hybrid	v	V component \nof wind	lambert	m s**-1
509	2	0	2	3	59	ml	hybrid	v	V component \nof wind	lambert	m s**-1
510	2	0	2	3	60	ml	hybrid	v	V component \nof wind	lambert	m s**-1
511	2	0	2	3	61	ml	hybrid	v	V component \nof wind	lambert	m s**-1
512	2	0	2	3	62	ml	hybrid	v	V component \nof wind	lambert	m s**-1
513	2	0	2	3	63	ml	hybrid	v	V component \nof wind	lambert	m s**-1
514	2	0	2	3	64	ml	hybrid	v	V component \nof wind	lambert	m s**-1
515	2	0	2	3	65	ml	hybrid	v	V component \nof wind	lambert	m s**-1
516	2	0	2	3	66	ml	hybrid	v	V component \nof wind	lambert	m s**-1
517	2	0	2	3	67	ml	hybrid	v	V component \nof wind	lambert	m s**-1
518	2	0	2	3	68	ml	hybrid	v	V component \nof wind	lambert	m s**-1
519	2	0	2	3	69	ml	hybrid	v	V component \nof wind	lambert	m s**-1
520	2	0	2	3	70	ml	hybrid	v	V component \nof wind	lambert	m s**-1
521	2	0	2	3	71	ml	hybrid	v	V component \nof wind	lambert	m s**-1
522	2	0	2	3	72	ml	hybrid	v	V component \nof wind	lambert	m s**-1
523	2	0	2	3	73	ml	hybrid	v	V component \nof wind	lambert	m s**-1
524	2	0	2	3	74	ml	hybrid	v	V component \nof wind	lambert	m s**-1
525	2	0	2	3	75	ml	hybrid	v	V component \nof wind	lambert	m s**-1
526	2	0	2	3	76	ml	hybrid	v	V component \nof wind	lambert	m s**-1
527	2	0	2	3	77	ml	hybrid	v	V component \nof wind	lambert	m s**-1
528	2	0	2	3	78	ml	hybrid	v	V component \nof wind	lambert	m s**-1
529	2	0	2	3	79	ml	hybrid	v	V component \nof wind	lambert	m s**-1
530	2	0	2	3	80	ml	hybrid	v	V component \nof wind	lambert	m s**-1
531	2	0	2	3	81	ml	hybrid	v	V component \nof wind	lambert	m s**-1
532	2	0	2	3	82	ml	hybrid	v	V component \nof wind	lambert	m s**-1
533	2	0	2	3	83	ml	hybrid	v	V component \nof wind	lambert	m s**-1
534	2	0	2	3	84	ml	hybrid	v	V component \nof wind	lambert	m s**-1
535	2	0	2	3	85	ml	hybrid	v	V component \nof wind	lambert	m s**-1
536	2	0	2	3	86	ml	hybrid	v	V component \nof wind	lambert	m s**-1
537	2	0	2	3	87	ml	hybrid	v	V component \nof wind	lambert	m s**-1
538	2	0	2	3	88	ml	hybrid	v	V component \nof wind	lambert	m s**-1
539	2	0	2	3	89	ml	hybrid	v	V component \nof wind	lambert	m s**-1
540	2	0	2	3	90	ml	hybrid	v	V component \nof wind	lambert	m s**-1
541	2	0	2	9	1	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
542	2	0	2	9	2	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
543	2	0	2	9	3	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
544	2	0	2	9	4	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
545	2	0	2	9	5	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
546	2	0	2	9	6	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
547	2	0	2	9	7	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
548	2	0	2	9	8	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
549	2	0	2	9	9	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
550	2	0	2	9	10	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
551	2	0	2	9	11	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
552	2	0	2	9	12	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
553	2	0	2	9	13	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
554	2	0	2	9	14	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
555	2	0	2	9	15	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
556	2	0	2	9	16	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
557	2	0	2	9	17	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
558	2	0	2	9	18	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
559	2	0	2	9	19	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
560	2	0	2	9	20	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
561	2	0	2	9	21	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
562	2	0	2	9	22	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
563	2	0	2	9	23	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
564	2	0	2	9	24	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
565	2	0	2	9	25	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
566	2	0	2	9	26	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
567	2	0	2	9	27	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
568	2	0	2	9	28	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
569	2	0	2	9	29	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
570	2	0	2	9	30	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
571	2	0	2	9	31	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
572	2	0	2	9	32	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
573	2	0	2	9	33	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
574	2	0	2	9	34	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
575	2	0	2	9	35	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
576	2	0	2	9	36	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
577	2	0	2	9	37	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
578	2	0	2	9	38	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
579	2	0	2	9	39	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
580	2	0	2	9	40	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
581	2	0	2	9	41	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
582	2	0	2	9	42	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
583	2	0	2	9	43	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
584	2	0	2	9	44	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
585	2	0	2	9	45	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
586	2	0	2	9	46	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
587	2	0	2	9	47	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
588	2	0	2	9	48	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
589	2	0	2	9	49	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
590	2	0	2	9	50	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
591	2	0	2	9	51	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
592	2	0	2	9	52	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
593	2	0	2	9	53	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
594	2	0	2	9	54	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
595	2	0	2	9	55	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
596	2	0	2	9	56	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
597	2	0	2	9	57	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
598	2	0	2	9	58	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
599	2	0	2	9	59	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
600	2	0	2	9	60	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
601	2	0	2	9	61	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
602	2	0	2	9	62	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
603	2	0	2	9	63	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
604	2	0	2	9	64	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
605	2	0	2	9	65	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
606	2	0	2	9	66	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
607	2	0	2	9	67	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
608	2	0	2	9	68	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
609	2	0	2	9	69	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
610	2	0	2	9	70	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
611	2	0	2	9	71	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
612	2	0	2	9	72	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
613	2	0	2	9	73	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
614	2	0	2	9	74	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
615	2	0	2	9	75	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
616	2	0	2	9	76	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
617	2	0	2	9	77	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
618	2	0	2	9	78	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
619	2	0	2	9	79	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
620	2	0	2	9	80	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
621	2	0	2	9	81	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
622	2	0	2	9	82	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
623	2	0	2	9	83	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
624	2	0	2	9	84	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
625	2	0	2	9	85	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
626	2	0	2	9	86	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
627	2	0	2	9	87	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
628	2	0	2	9	88	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
629	2	0	2	9	89	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
630	2	0	2	9	90	ml	hybrid	wz	Geometric \nvertical \nvelocity	lambert	m s**-1
631	2	0	3	0	0	sfc	heightAboveGround	pres	Pressure	lambert	Pa
632	2	0	3	4	0	sfc	heightAboveGround	z	Geopotential	lambert	m**2 s**-2
633	2	0	19	11	1	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
634	2	0	19	11	2	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
635	2	0	19	11	3	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
636	2	0	19	11	4	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
637	2	0	19	11	5	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
638	2	0	19	11	6	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
639	2	0	19	11	7	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
640	2	0	19	11	8	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
641	2	0	19	11	9	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
642	2	0	19	11	10	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
643	2	0	19	11	11	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
644	2	0	19	11	12	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
645	2	0	19	11	13	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
646	2	0	19	11	14	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
647	2	0	19	11	15	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
648	2	0	19	11	16	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
649	2	0	19	11	17	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
650	2	0	19	11	18	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
651	2	0	19	11	19	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
652	2	0	19	11	20	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
653	2	0	19	11	21	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
654	2	0	19	11	22	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
655	2	0	19	11	23	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
656	2	0	19	11	24	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
657	2	0	19	11	25	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
658	2	0	19	11	26	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
659	2	0	19	11	27	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
660	2	0	19	11	28	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
661	2	0	19	11	29	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
662	2	0	19	11	30	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
663	2	0	19	11	31	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
664	2	0	19	11	32	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
665	2	0	19	11	33	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
666	2	0	19	11	34	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
667	2	0	19	11	35	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
668	2	0	19	11	36	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
669	2	0	19	11	37	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
670	2	0	19	11	38	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
671	2	0	19	11	39	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
672	2	0	19	11	40	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
673	2	0	19	11	41	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
674	2	0	19	11	42	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
675	2	0	19	11	43	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
676	2	0	19	11	44	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
677	2	0	19	11	45	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
678	2	0	19	11	46	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
679	2	0	19	11	47	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
680	2	0	19	11	48	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
681	2	0	19	11	49	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
682	2	0	19	11	50	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
683	2	0	19	11	51	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
684	2	0	19	11	52	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
685	2	0	19	11	53	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
686	2	0	19	11	54	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
687	2	0	19	11	55	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
688	2	0	19	11	56	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
689	2	0	19	11	57	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
690	2	0	19	11	58	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
691	2	0	19	11	59	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
692	2	0	19	11	60	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
693	2	0	19	11	61	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
694	2	0	19	11	62	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
695	2	0	19	11	63	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
696	2	0	19	11	64	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
697	2	0	19	11	65	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
698	2	0	19	11	66	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
699	2	0	19	11	67	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
700	2	0	19	11	68	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
701	2	0	19	11	69	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
702	2	0	19	11	70	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
703	2	0	19	11	71	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
704	2	0	19	11	72	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
705	2	0	19	11	73	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
706	2	0	19	11	74	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
707	2	0	19	11	75	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
708	2	0	19	11	76	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
709	2	0	19	11	77	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
710	2	0	19	11	78	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
711	2	0	19	11	79	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
712	2	0	19	11	80	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
713	2	0	19	11	81	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
714	2	0	19	11	82	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
715	2	0	19	11	83	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
716	2	0	19	11	84	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
717	2	0	19	11	85	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
718	2	0	19	11	86	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
719	2	0	19	11	87	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
720	2	0	19	11	88	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
721	2	0	19	11	89	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1
722	2	0	19	11	90	ml	hybrid	tke	Turbulent \nkinetic \nenergy	lambert	J kg**-1

HARMONIE Iceland and Greenland (harmonie_ig_ml)

Ensemble statistical models

In addition to the regular DINI forecast DMI also runs an Ensemble - a set of model runs with slightly different initial conditions. Each of these model runs (Ensemble members) give a different outcome and from the distribution of these outcomes the statistical model files are derived.

The statistical models are:

harmonie_dini_eps_means - is the average value of all the ensemble members.
harmonie_dini_eps_percentiles - is the 0, 10, 25, 50, 75, 90 and 100 percentile values. For percentage value 0 it is the minimum value of all ensemble members. For percentage value 10 the value is such that 10% of the ensemble members are below the value and 90% are above. For the percentage value 50 half the ensemble members are below and half are above this value. For percentage value 100 this the maximal value of all the ensemble members.
harmonie_dini_eps_probabilities - is the relative number (a number between 0 and 1) of ensemble members being above or below a certain threshold. The threshold is noted in the scaledValueOfLowerLimit and scaledValueOfUpperLimit with value 0 being no threshold. Note that this threshold is not just for the point, it can also be points in near vicinity.

Parameters

HARMONIE Denmark, Iceland, Netherlands and Ireland (harmonie_dini_eps_means)

HARMONIE Denmark, Iceland, Netherlands and Ireland (harmonie_dini_eps_percentiles)

Note, that some of the percentile model parameters have a stepRange parameter which describes a time interval.
The parameters in question are listed below:

“Total precipitation”, has 1 and 6 hours stepRanges. This means that fx total precipitation after 6 hours will be present in modelfiles after timestep 6 and later .
“Time integral of total solid precipitation flux” which also have 1 and 6 hour stepRanges
“Maximum 10 metre wind gust since previous post-processing”, which has 1 hour stepRanges

Number	edition\nNumber	discipline	parameter\nCategory	parameter\nNumber	[link:https://codes.ecmwf.int/grib/format/grib2/ctables/4/10/|typeOfStatisticalProcessing] \n(external site)	level	levelType	typeOfLevel	percentileValue	shortName	name	gridType	units
1	2	0	0	0	not_found	2	sfc	heightAboveGround	0	2t	2 metre \ntemperature	lambert	K
2	2	0	0	0	not_found	2	sfc	heightAboveGround	10	2t	2 metre \ntemperature	lambert	K
3	2	0	0	0	not_found	2	sfc	heightAboveGround	25	2t	2 metre \ntemperature	lambert	K
4	2	0	0	0	not_found	2	sfc	heightAboveGround	50	2t	2 metre \ntemperature	lambert	K
5	2	0	0	0	not_found	2	sfc	heightAboveGround	75	2t	2 metre \ntemperature	lambert	K
6	2	0	0	0	not_found	2	sfc	heightAboveGround	90	2t	2 metre \ntemperature	lambert	K
7	2	0	0	0	not_found	2	sfc	heightAboveGround	100	2t	2 metre \ntemperature	lambert	K
8	2	0	0	6	not_found	2	sfc	heightAboveGround	0	2d	2 metre \ndewpoint \ntemperature	lambert	K
9	2	0	0	6	not_found	2	sfc	heightAboveGround	10	2d	2 metre \ndewpoint \ntemperature	lambert	K
10	2	0	0	6	not_found	2	sfc	heightAboveGround	25	2d	2 metre \ndewpoint \ntemperature	lambert	K
11	2	0	0	6	not_found	2	sfc	heightAboveGround	50	2d	2 metre \ndewpoint \ntemperature	lambert	K
12	2	0	0	6	not_found	2	sfc	heightAboveGround	75	2d	2 metre \ndewpoint \ntemperature	lambert	K
13	2	0	0	6	not_found	2	sfc	heightAboveGround	90	2d	2 metre \ndewpoint \ntemperature	lambert	K
14	2	0	0	6	not_found	2	sfc	heightAboveGround	100	2d	2 metre \ndewpoint \ntemperature	lambert	K
15	2	0	1	1	not_found	2	sfc	heightAboveGround	0	2r	2 metre \nrelative \nhumidity	lambert	%
16	2	0	1	1	not_found	2	sfc	heightAboveGround	10	2r	2 metre \nrelative \nhumidity	lambert	%
17	2	0	1	1	not_found	2	sfc	heightAboveGround	25	2r	2 metre \nrelative \nhumidity	lambert	%
18	2	0	1	1	not_found	2	sfc	heightAboveGround	50	2r	2 metre \nrelative \nhumidity	lambert	%
19	2	0	1	1	not_found	2	sfc	heightAboveGround	75	2r	2 metre \nrelative \nhumidity	lambert	%
20	2	0	1	1	not_found	2	sfc	heightAboveGround	90	2r	2 metre \nrelative \nhumidity	lambert	%
21	2	0	1	1	not_found	2	sfc	heightAboveGround	100	2r	2 metre \nrelative \nhumidity	lambert	%
22	2	0	2	1	not_found	10	sfc	heightAboveGround	0	10si	10 metre \nwind speed	lambert	m s**-1
23	2	0	2	1	not_found	10	sfc	heightAboveGround	10	10si	10 metre \nwind speed	lambert	m s**-1
24	2	0	2	1	not_found	10	sfc	heightAboveGround	25	10si	10 metre \nwind speed	lambert	m s**-1
25	2	0	2	1	not_found	10	sfc	heightAboveGround	50	10si	10 metre \nwind speed	lambert	m s**-1
26	2	0	2	1	not_found	10	sfc	heightAboveGround	75	10si	10 metre \nwind speed	lambert	m s**-1
27	2	0	2	1	not_found	10	sfc	heightAboveGround	90	10si	10 metre \nwind speed	lambert	m s**-1
28	2	0	2	1	not_found	10	sfc	heightAboveGround	100	10si	10 metre \nwind speed	lambert	m s**-1
29	2	0	6	32	not_found	0	sfc	heightAboveGround	0	cc	Fraction of \ncloud cover	lambert	(0 - 1)
30	2	0	6	32	not_found	0	sfc	heightAboveGround	10	cc	Fraction of \ncloud cover	lambert	(0 - 1)
31	2	0	6	32	not_found	0	sfc	heightAboveGround	25	cc	Fraction of \ncloud cover	lambert	(0 - 1)
32	2	0	6	32	not_found	0	sfc	heightAboveGround	50	cc	Fraction of \ncloud cover	lambert	(0 - 1)
33	2	0	6	32	not_found	0	sfc	heightAboveGround	75	cc	Fraction of \ncloud cover	lambert	(0 - 1)
34	2	0	6	32	not_found	0	sfc	heightAboveGround	90	cc	Fraction of \ncloud cover	lambert	(0 - 1)
35	2	0	6	32	not_found	0	sfc	heightAboveGround	100	cc	Fraction of \ncloud cover	lambert	(0 - 1)
36	2	0	1	52	1	0	sfc	surface	0	tp	Total \nPrecipitation	lambert	kg m**-2
37	2	0	1	52	1	0	sfc	surface	10	tp	Total \nPrecipitation	lambert	kg m**-2
38	2	0	1	52	1	0	sfc	surface	25	tp	Total \nPrecipitation	lambert	kg m**-2
39	2	0	1	52	1	0	sfc	surface	50	tp	Total \nPrecipitation	lambert	kg m**-2
40	2	0	1	52	1	0	sfc	surface	75	tp	Total \nPrecipitation	lambert	kg m**-2
41	2	0	1	52	1	0	sfc	surface	90	tp	Total \nPrecipitation	lambert	kg m**-2
42	2	0	1	52	1	0	sfc	surface	100	tp	Total \nPrecipitation	lambert	kg m**-2
43	2	0	1	128	1	0	sfc	surface	0	titspf	Time integral \nof total solid \nprecipitation flux	lambert	kg m**-2
44	2	0	1	128	1	0	sfc	surface	10	titspf	Time integral \nof total solid \nprecipitation flux	lambert	kg m**-2
45	2	0	1	128	1	0	sfc	surface	25	titspf	Time integral \nof total solid \nprecipitation flux	lambert	kg m**-2
46	2	0	1	128	1	0	sfc	surface	50	titspf	Time integral \nof total solid \nprecipitation flux	lambert	kg m**-2
47	2	0	1	128	1	0	sfc	surface	75	titspf	Time integral \nof total solid \nprecipitation flux	lambert	kg m**-2
48	2	0	1	128	1	0	sfc	surface	90	titspf	Time integral \nof total solid \nprecipitation flux	lambert	kg m**-2
49	2	0	1	128	1	0	sfc	surface	100	titspf	Time integral \nof total solid \nprecipitation flux	lambert	kg m**-2
50	2	0	1	52	1	0	sfc	surface	0	tp	Total \nPrecipitation	lambert	kg m**-2
51	2	0	1	52	1	0	sfc	surface	10	tp	Total \nPrecipitation	lambert	kg m**-2
52	2	0	1	52	1	0	sfc	surface	25	tp	Total \nPrecipitation	lambert	kg m**-2
53	2	0	1	52	1	0	sfc	surface	50	tp	Total \nPrecipitation	lambert	kg m**-2
54	2	0	1	52	1	0	sfc	surface	75	tp	Total \nPrecipitation	lambert	kg m**-2
55	2	0	1	52	1	0	sfc	surface	90	tp	Total \nPrecipitation	lambert	kg m**-2
56	2	0	1	52	1	0	sfc	surface	100	tp	Total \nPrecipitation	lambert	kg m**-2
57	2	0	1	128	1	0	sfc	surface	0	titspf	Time integral \nof total solid \nprecipitation flux	lambert	kg m**-2
58	2	0	1	128	1	0	sfc	surface	10	titspf	Time integral \nof total solid \nprecipitation flux	lambert	kg m**-2
59	2	0	1	128	1	0	sfc	surface	25	titspf	Time integral \nof total solid \nprecipitation flux	lambert	kg m**-2
60	2	0	1	128	1	0	sfc	surface	50	titspf	Time integral \nof total solid \nprecipitation flux	lambert	kg m**-2
61	2	0	1	128	1	0	sfc	surface	75	titspf	Time integral \nof total solid \nprecipitation flux	lambert	kg m**-2
62	2	0	1	128	1	0	sfc	surface	90	titspf	Time integral \nof total solid \nprecipitation flux	lambert	kg m**-2
63	2	0	1	128	1	0	sfc	surface	100	titspf	Time integral \nof total solid \nprecipitation flux	lambert	kg m**-2
64	2	0	2	22	2	10	sfc	heightAboveGround	0	10fg	Maximum \n10 metre \nwind gust \nsince previous \npost-processing	lambert	m s**-1
65	2	0	2	22	2	10	sfc	heightAboveGround	10	10fg	Maximum \n10 metre \nwind gust \nsince previous \npost-processing	lambert	m s**-1
66	2	0	2	22	2	10	sfc	heightAboveGround	25	10fg	Maximum \n10 metre \nwind gust \nsince previous \npost-processing	lambert	m s**-1
67	2	0	2	22	2	10	sfc	heightAboveGround	50	10fg	Maximum \n10 metre \nwind gust \nsince previous \npost-processing	lambert	m s**-1
68	2	0	2	22	2	10	sfc	heightAboveGround	75	10fg	Maximum \n10 metre \nwind gust \nsince previous \npost-processing	lambert	m s**-1
69	2	0	2	22	2	10	sfc	heightAboveGround	90	10fg	Maximum \n10 metre \nwind gust \nsince previous \npost-processing	lambert	m s**-1
70	2	0	2	22	2	10	sfc	heightAboveGround	100	10fg	Maximum \n10 metre \nwind gust \nsince previous \npost-processing	lambert	m s**-1
71	2	0	19	0	not_found	0	sfc	heightAboveGround	0	vis	Visibility	lambert	m
72	2	0	19	0	not_found	0	sfc	heightAboveGround	10	vis	Visibility	lambert	m
73	2	0	19	0	not_found	0	sfc	heightAboveGround	25	vis	Visibility	lambert	m
74	2	0	19	0	not_found	0	sfc	heightAboveGround	50	vis	Visibility	lambert	m
75	2	0	19	0	not_found	0	sfc	heightAboveGround	75	vis	Visibility	lambert	m
76	2	0	19	0	not_found	0	sfc	heightAboveGround	90	vis	Visibility	lambert	m
77	2	0	19	0	not_found	0	sfc	heightAboveGround	100	vis	Visibility	lambert	m
78	2	0	6	11	not_found	0	sfc	entireAtmosphere	0	unknown	unknown	lambert	unknown
79	2	0	6	11	not_found	0	sfc	entireAtmosphere	10	unknown	unknown	lambert	unknown
80	2	0	6	11	not_found	0	sfc	entireAtmosphere	25	unknown	unknown	lambert	unknown
81	2	0	6	11	not_found	0	sfc	entireAtmosphere	50	unknown	unknown	lambert	unknown
82	2	0	6	11	not_found	0	sfc	entireAtmosphere	75	unknown	unknown	lambert	unknown
83	2	0	6	11	not_found	0	sfc	entireAtmosphere	90	unknown	unknown	lambert	unknown
84	2	0	6	11	not_found	0	sfc	entireAtmosphere	100	unknown	unknown	lambert	unknown
85	2	0	1	64	not_found	0	sfc	entireAtmosphere	0	tcwv	Total column \nvertically-\nintegrated \nwater vapour	lambert	kg m**-2
86	2	0	1	64	not_found	0	sfc	entireAtmosphere	10	tcwv	Total column \nvertically-\nintegrated \nwater vapour	lambert	kg m**-2
87	2	0	1	64	not_found	0	sfc	entireAtmosphere	25	tcwv	Total column \nvertically-\nintegrated \nwater vapour	lambert	kg m**-2
88	2	0	1	64	not_found	0	sfc	entireAtmosphere	50	tcwv	Total column \nvertically-\nintegrated \nwater vapour	lambert	kg m**-2
89	2	0	1	64	not_found	0	sfc	entireAtmosphere	75	tcwv	Total column \nvertically-\nintegrated \nwater vapour	lambert	kg m**-2
90	2	0	1	64	not_found	0	sfc	entireAtmosphere	90	tcwv	Total column \nvertically-\nintegrated \nwater vapour	lambert	kg m**-2
91	2	0	1	64	not_found	0	sfc	entireAtmosphere	100	tcwv	Total column \nvertically-\nintegrated \nwater vapour	lambert	kg m**-2

HARMONIE Denmark, Iceland, Netherlands and Ireland (harmonie_dini_eps_probabilities)

Number	edition\nNumber	discipline	parameter\nCategory	parameter\nNumber	[link:https://codes.ecmwf.int/grib/format/grib2/ctables/4/10/|typeOfStatisticalProcessing] \n(external site)	level	levelType	typeOfLevel	scaledValueOfLowerLimit	scaledValueOfUpperLimit	shortName	name	gridType	units
1	2	0	1	52	1	0	sfc	surface	0	30	tp	Total \nPrecipitation	lambert	kg m**-2
2	2	0	1	52	1	0	sfc	surface	0	50	tp	Total \nPrecipitation	lambert	kg m**-2
3	2	0	1	52	1	0	sfc	surface	0	24	tp	Total \nPrecipitation	lambert	kg m**-2
4	2	0	1	52	1	0	sfc	surface	0	35	tp	Total \nPrecipitation	lambert	kg m**-2
5	2	0	1	52	1	0	sfc	surface	0	10	tp	Total \nPrecipitation	lambert	kg m**-2
6	2	0	1	52	1	0	sfc	surface	0	16	tp	Total \nPrecipitation	lambert	kg m**-2
7	2	0	1	52	1	0	sfc	surface	0	30	tp	Total \nPrecipitation	lambert	kg m**-2
8	2	0	1	128	1	0	sfc	surface	0	1	titspf	Time integral \nof total solid \nprecipitation flux	lambert	kg m**-2
9	2	0	1	128	1	0	sfc	surface	0	5	titspf	Time integral \nof total solid \nprecipitation flux	lambert	kg m**-2
10	2	0	1	128	1	0	sfc	surface	0	10	titspf	Time integral \nof total solid \nprecipitation flux	lambert	kg m**-2
11	2	0	1	128	1	0	sfc	surface	0	15	titspf	Time integral \nof total solid \nprecipitation flux	lambert	kg m**-2
12	2	0	0	0	not_found	2	sfc	heightAboveGround	273	0	2t	2 metre temperature	lambert	K
13	2	0	2	1	not_found	10	sfc	heightAboveGround	0	25	10si	10 metre wind speed	lambert	m s**-1
14	2	0	2	1	not_found	10	sfc	heightAboveGround	0	33	10si	10 metre wind speed	lambert	m s**-1
15	2	0	2	22	2	10	sfc	heightAboveGround	0	25	10fg	Maximum \n10 metre \nwind gust \nsince previous \npost-processing	lambert	m s**-1
16	2	0	2	22	2	10	sfc	heightAboveGround	0	33	10fg	Maximum \n10 metre \nwind gust \nsince previous \npost-processing	lambert	m s**-1
17	2	0	19	0	not_found	0	sfc	heightAboveGround	100	0	vis	Visibility	lambert	m