from openmeteopy import OpenMeteo
from openmeteopy.options import GeocodingOptions
options = GeocodingOptions("casablanca")
mgr = OpenMeteo(options)
# Download data
meteo = mgr.get_data()
print(meteo)| Parameter | Format | Required | Default |
|---|---|---|---|
| name | String | Yes | - |
| count | Integer | No | 10 |
| format | String | No | json |
| language | String | No | en |
| Variable | Format | Description |
|---|---|---|
| id | Integer | Unique ID for this location |
| name | String | Location name. Localized following the language parameter, if possible |
| latitude | Floating point | Geographical WGS84 coordinates of this location |
| longitude | Floating point | Geographical WGS84 coordinates of this location |
| elevation | Floating point | Elevation above mean sea level of this location |
| timezone | String | Time zone using time zone database definitions, you can find the timezones in timezones.py |
| feature_code | String | Type of this location. Following the GeoNames feature_code definition |
| country_code | String | 2-Character FIPS country code. E.g. DE for Germany |
| country | String | Country name,Localized following the language parameter, if possible |
| country_id | Integer | Unique ID for this country |
| population | Integer | Number of inhabitants |
| postcodes | String array | List of postcodes for this location |
| admin1, admin2, admin3, admin4 | String | Name of hierarchical administrative areas this location resides in. Admin1 is the first administrative level. Admin2 the second administrative level,Localized following the language parameter, if possible |
| admin1_id, admin2_id, admin3_id, admin4_id | Integer | Unique IDs for the administrative areas |