geolibre
GeoLibre in Jupyter: the full GeoLibre GIS app as an anywidget, with a leafmap-style Python API.
The widget embeds the complete GeoLibre app (menus, panels, processing tools)
inside a notebook cell. State syncs both ways through a single
.geolibre.json project, so data you add from Python appears in the UI, and
edits you make in the UI are readable back from Python.
Install
pip install geolibre
Or with conda from conda-forge:
conda install -c conda-forge geolibre
Quickstart
from geolibre import Map
m = Map(center=(-100, 40), zoom=4)
m.add_geojson("https://example.com/data.geojson", name="Data")
m
Add more data and drive the view:
m.add_tile_layer(
"https://tile.openstreetmap.org/{z}/{x}/{y}.png",
name="OpenStreetMap",
attribution="(c) OpenStreetMap contributors",
)
m.add_cog("https://example.com/dem.tif", name="DEM", colormap="terrain")
m.add_basemap("dark")
m.set_center(-120, 47, zoom=8)
Google Earth Engine layers are optional and need pip install earthengine-api
plus credentials (ee.Authenticate() once, then a Google Cloud project):
import ee
ee.Authenticate() # once per machine
ee.Initialize(project="your-google-cloud-project")
m.add_ee_layer(ee.Image("USGS/SRTMGL1_003"), {"min": 0, "max": 3000}, name="SRTM")
Round-trip the project:
m.save_project("my-map.geolibre.json")
m2 = Map()
m2.load_project("my-map.geolibre.json")
# Read state edited in the UI (e.g. after panning/zooming):
m.to_project()["mapView"]["center"]
API
| Method | Description |
|---|---|
Map(center, zoom, basemap=, height=, layout=, theme=) |
Create a map. layout is "embed", "full", or "maponly". |
add_geojson(data, name=, **style) |
Add GeoJSON (dict, path, URL, JSON, or GeoDataFrame). |
add_gdf(gdf, name=, column=None, **style) |
Add a GeoDataFrame, optionally as a choropleth. |
add_csv / add_xy_data (data, x=, y=, name=, **style) |
Add points from CSV, a DataFrame, or row mappings. |
add_heatmap(points, name=, radius=, intensity=, **style) |
Add a point density heatmap. |
add_vector(data, name=, render_mode=, data_format=, source_layer=, **style) |
Add a vector dataset from a URL (GeoParquet, FlatGeobuf, zipped Shapefile, GeoJSON) or a local file (read via GeoPandas, inlined). |
add_geoparquet / add_flatgeobuf / add_shp / add_kml / add_gpkg |
Format-specific wrappers over add_vector. |
add_vector_tiles(url, name=, source_layers=, source_layer=, **style) |
Add vector tiles from a TileJSON endpoint. |
add_pmtiles(url, name=, tile_type=, source_layers=, **style) |
Add a PMTiles archive (vector or raster). |
add_tile_layer(url, name=, tile_size=, attribution=) |
Add a raster XYZ tile layer. |
add_ee_layer(ee_object, vis_params=, name=, shown=, opacity=) |
Add an authenticated Google Earth Engine object as raster tiles. |
add_wms(endpoint, layers, name=, styles=, image_format=, transparent=, tile_size=, **style) |
Add a WMS (GetMap) tiled raster layer. |
add_wmts(url, name=, tile_size=, **style) |
Add a WMTS tile URL template. |
add_wfs(endpoint, type_name, name=, version=, output_format=, srs_name=, max_features=, **style) |
Add a WFS layer (GeoJSON, fetched and inlined). |
add_cog(url, name=, bands=, colormap=, rescale=) |
Add a Cloud Optimized GeoTIFF. |
add_raster(source, name=, bands=, colormap=, rescale=, array_args=) |
Add a COG/GeoTIFF or an xarray DataArray/Dataset (xarray needs geolibre[raster]). |
add_3d_tiles(url, name=, altitude_offset=, request_headers=, **style) |
Add a 3D Tiles tileset.json. |
add_video(urls, coordinates, name=, **style) |
Add a georeferenced video (four [lng, lat] corners). |
add_basemap(basemap) |
Set the background basemap. |
set_center(lng, lat, zoom=None) |
Center (and optionally zoom) the map. |
set_center_zoom(lng, lat, zoom=None) |
Alias of set_center (leafmap compatibility). |
zoom_to_bounds(bounds) / zoom_to_layer(layer) |
Fit the view to bounds or a layer id/name/handle. |
layer_names / find_layer(name) / set_layer_visibility / set_layer_opacity |
Inspect and update layers conveniently. |
rename_layer / move_layer / duplicate_layer / show_layer / hide_layer |
Manage layers by id, name, or Layer handle. |
layer_properties(layer) / column_values(layer, column) / describe() |
Inspect inlined data and summarize a project without a browser round trip. |
remove_layer(layer_id) / clear_layers() |
Remove one layer by id, name, or handle, or remove all layers. |
center / zoom / bearing / pitch / basemap / name |
Read persisted project and camera state; name is writable. |
set_zoom / set_bearing / set_pitch / fit_project_bounds |
Persist camera changes without requiring the widget to be displayed. |
list_whitebox_tools() / run_whitebox_tool(id, parameters) |
Discover and run bundled Whitebox tools locally via browser WASM. |
to_project() / load_project(src) / save_project(path) |
Project I/O. |
Layer handles provide the same operations in an object-oriented form:
m.add_geojson("https://example.com/roads.geojson", name="Roads")
roads = m.find_layer("Roads") # None when no layer has that name
roads.opacity = 0.6
roads.set_style(lineColor="#e63946", lineWidth=3)
roads.move(0)
print(roads.properties()) # sampled values for every property
print(roads.column("highway")) # one value per feature
roads_copy = roads.duplicate(name="Roads (proposed)")
Run a Whitebox tool against a map layer (the map must be displayed first):
dem = m.get_layer(m.add_raster("https://example.com/dem.tif", name="DEM"))
result = m.run_whitebox_tool("slope", {"input": dem, "units": "degrees"})
slope = m.get_layer(result["resultLayerIds"][0])
For headless authoring and scripts that do not need a widget, commonly used project utilities are available directly from the top-level package:
from geolibre import (
basemap_catalog,
builtin_legend_names,
color_ramp_names,
describe_project,
load_project,
save_project,
)
project = load_project("my-map.geolibre.json")
print(describe_project(project))
save_project("copy.geolibre.json", project)
These are the lossless file primitives: unlike Map.save_project, the top-level
save_project writes the project verbatim, credentials included, so that
editing a project in place cannot strip your own API keys out of it. Pass a
project through geolibre.project.redact_credentials first if the file is going
anywhere untrusted, or use Map.save_project, which redacts by default.
Notes
-
marimo can render the anywidget, but its browser may not be able to reach GeoLibre's random localhost port. If the iframe reports
127.0.0.1 refused to connect, select the hosted app before displaying the map:from geolibre import Map m = Map(center=(-100, 40), zoom=4) m._app_url = "https://web.geolibre.app/" m.add_basemap("dark") m.add_vector( "https://data.source.coop/giswqs/opengeos/world_cities.geojson", name="World cities", ) m
Set
_app_urlbefore returningmfrom the cell. With the hosted app, use hosted URLs for rasters and other browser-loaded sources; it cannot access files served from the kernel's temporary localhost server. Local GeoJSON, CSV, and vector files that are read in Python and inlined still work. The example usesadd_vector()so the browser, rather than Python, fetches the remote GeoJSON URL.Privacy: The widget sends its synchronized project, including any inlined local data, to the origin in
_app_urlthroughwindow.postMessage. Use only a trusted app URL, or host the GeoLibre app yourself, when working with sensitive data. -
The bundled app is served from a localhost HTTP server, so the interactive widget works in local Jupyter and VS Code directly. Google Colab routes through its built-in port proxy automatically. On JupyterHub (including managed/shared hubs) the front-end tries two same-origin routes and uses whichever is live, so a host needs only one of them: the Jupyter Server extension bundled with
geolibreat{base_url}geolibre/app/(enabled automatically onpip install geolibre, but registered only after the Jupyter server restarts), andjupyter-server-proxyat{base_url}proxy/{port}/(works in the running server with no restart where it is installed). On other remote servers (Binder, remote JupyterLab), passMap(server_proxy=True)to use that same remote path;Map(server_proxy=False)forces the direct path. -
add_ee_layerneeds the Earth Engine Python API, which is not a dependency of this package:pip install earthengine-api. Authenticate once withee.Authenticate()and initialize withee.Initialize(project=...)before adding a layer. The generated tile URL is tied to an Earth Engine map id that expires, so a saved project may need the layer regenerated later. -
Optional extras:
pip install "geolibre[all]"adds GeoPandas/Shapely support foradd_geojson(geodataframe)and for reading local vector files (add_vector/add_geoparquet/add_flatgeobuf/add_shp/add_kml/add_gpkg), plus xarray/rioxarray/rasterio/rio-tiler support for in-memory rasters. Colab uses rio-tiler to serve these as PNG XYZ tiles because its proxy does not preserve browser COG byte ranges.[vector]and[raster]install just one half each --[all]pulls in rasterio (and GDAL). The kernel reads local vectors and inlines them as GeoJSON; remote URLs for those formats stream through the in-browser vector control and need no extras. -
add_geojsoninlines file/URL data into the project (up to 50 MB), so a large dataset is held in memory and re-synced on every project update. For very large layers, prefer a tile or COG source (add_tile_layer/add_cog) the app fetches directly.
MCP server
The package also ships a headless MCP server
that authors .geolibre.json projects from an AI client:
pip install "geolibre[mcp]"
geolibre-mcp --root ~/maps
It confines every read and write to the roots you pass (--root, repeatable, or
GEOLIBRE_MCP_ROOTS) and builds projects through the same builders this package
uses, so anything it writes opens in the widget unchanged. See
docs/mcp.md for the tool list and client
configuration.
Release files for geolibre 2.8.0
For a detailed explanation of source distributions (sdists) and built distributions (wheels), please see the package formats documentation.
Source distribution (sdist)
| File | Size | Uploaded | |
|---|---|---|---|
| geolibre-2.8.0.tar.gz | 53.9 MB | Details |
Built distribution (wheel)
| File | Interpreter | ABI | Platform | Reset |
|---|---|---|---|---|
| geolibre-2.8.0-py3-none-any.whl | Python 3 | none | any | Details |
Total release size: 108.4 MB
Release files / geolibre-2.8.0.tar.gz
| Download URL | geolibre-2.8.0.tar.gz |
|---|---|
| Size | 53.9 MB |
| Tags | Source |
|
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| Uploaded via |
twine/7.0.0 CPython/3.13.14
|
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