Last updated 14 September 2026.
Countries and boundaries
Country outlines come from Natural Earth's 1:50m admin-0 countries dataset (public domain), pulled fresh from Natural Earth's own repository each time the map is rebuilt, not frozen to one dated release.
Boundary policy is Natural Earth's own de facto lines, not an editorial judgement made here. A handful of limited-recognition or contested territories, Western Sahara, Kosovo, Palestine, Northern Cyprus and Somaliland, are drawn with a dashed outline instead of a solid one and labelled as such. Flags are shown for the first three; Northern Cyprus and Somaliland deliberately aren't given one, since a flag itself would be the contested part.
States and provinces
Where you can compare below the country level, Texas against France, say, that's Natural Earth's 1:50m admin-1 states and provinces dataset, also public domain. Natural Earth only maps this level of detail for nine larger countries; that's their coverage limit, not a choice made here. 294 units in total:
Cities and population
4,235 populated places, from Natural Earth's 1:10m populated places dataset (public domain), power search results and city cards.
Country populations come from that same Natural Earth countries dataset, its own population estimate field, not a separate census pull. They're estimates, current only as of Natural Earth's own data, not a live feed.
How area is calculated
Every country’s area on this map, Greenland’s fourteen times smaller than it looks among them, is computed on the sphere: the real geodesic area of each outline, not pixels measured off a flat projection. That order matters. The numbers never depended on the drawing, which is the whole reason an equal-area map can be trusted here rather than just asserted.
There are two exceptions, where a published figure is the better answer. Africa as a whole is given everywhere as 30.37 million km², the figure atlases and encyclopedias use; its countries’ outlines on this map add up to 29.99 million, a little less, as simplified 1:50m coastlines measured on a sphere tend to. And the oceans: where one ocean ends and the next begins, and which seas count toward which, is a convention rather than a coastline, so their areas are the published figures (Encyclopedia of Earth, International Hydrographic Organization, Encyclopædia Britannica, as tabulated on Wikipedia's Ocean article), adding up to about 361.9 million km².
Street-level maps
Zoom in past country level and real street data comes up under the globe: OpenStreetMap (ODbL, © OpenStreetMap contributors), as OpenMapTiles vector tiles served by OpenFreeMap at no charge, credited in the corner of the map while it shows. No Google Maps, no Mapbox, no metered API of any kind, a deliberate choice covered on the Roadmap.
Satellite texture
The optional satellite skin (Scene menu) is NASA's Blue Marble: Land Surface, Ocean Color and Sea Ice, a true-colour composite built from MODIS observations aboard the Terra satellite, public domain. It's a photograph of the planet, not a live feed: nothing about where you are or when you're looking changes what it shows.
The other worlds
Each world’s globe and flat map is a photo wrapped on the same sphere maths as the Earth’s, from the sources below. The measures on each card (size, day, year, tilt, gravity, moons, distance, temperature) are NASA’s published planetary fact sheets. Where a photo is an illustration rather than a mosaic of real images, the card says so.
- MercuryUSGS Astrogeology, MESSENGER MDIS colour basemap, public domain
- VenusNASA/JPL Magellan radar mosaic, public domain
- The MoonNASA Scientific Visualization Studio, CGI Moon Kit (LRO LROC), public domain
- MarsUSGS Astrogeology, Viking MDIM 2.1 colour mosaic, public domain
- JupiterNASA/JPL/Space Science Institute, Cassini, December 2000, public domain
- SaturnSolar System Scope, CC BY 4.0
- UranusSolar System Scope, CC BY 4.0
- NeptuneSolar System Scope, CC BY 4.0
- Mercury: MESSENGER colour basemap, the real surface. USGS Astrogeology, MESSENGER MDIS colour basemap, public domain.
- Venus: Magellan radar map in false colour; the clouds never part, so the surface was mapped by radar. NASA/JPL Magellan radar mosaic, public domain. Clouds view: a map of the cloud tops: Solar System Scope, CC BY 4.0.
- The Moon: a mosaic from Lunar Reconnaissance Orbiter images. NASA Scientific Visualization Studio, CGI Moon Kit (LRO LROC), public domain.
- Mars: Viking colour mosaic, the real surface. USGS Astrogeology, Viking MDIM 2.1 colour mosaic, public domain.
- Jupiter: Cassini cloud map, December 2000: there is no ground under it. NASA/JPL/Space Science Institute, Cassini, December 2000, public domain.
- Saturn: cloud bands; there is no ground under them. Solar System Scope, CC BY 4.0.
- Uranus: an illustration from Voyager 2’s view: it saw an almost featureless globe. Solar System Scope, CC BY 4.0.
- Neptune: an illustration from Voyager 2’s view. Solar System Scope, CC BY 4.0.
- The Sun: no photo. The Sun has no fixed surface, so its picture is drawn in the browser the way it behaves: its surface boiling in cells, and sunspots that form in the two bands either side of its equator, grow and fade over weeks, and drift faster near the equator, as the Sun turns faster there (Snodgrass and Ulrich’s rates). Its numbers are NASA’s Sun fact sheet. Its page’s “The Sun today” is the newest real picture from NASA’s Solar Dynamics Observatory (NASA/SDO and the AIA and HMI science teams, public domain), fetched only when asked for.
Named places and their positions come from the IAU’s Gazetteer of Planetary Nomenclature, kept by USGS Astrogeology (public domain), checked by pinning each one on the map the app draws; Venus’s radar map arrived 60° out of that frame and was turned into it. Landing and impact sites are from NASA’s mission records. On the giants nothing is fixed: a storm’s longitude is where it sits on that map, and only its latitude is the planet’s own.
Relief on the rocky worlds is shaded from their height maps, all public domain and drawn five times steeper than it is so it shows on a whole-planet globe: MESSENGER’s DEM for Mercury and Magellan’s topography for Venus (USGS Astrogeology), LOLA for the Moon (NASA’s CGI Moon Kit), and MOLA for Mars (NASA’s Planetary Data System). Each was checked by finding its known highest or lowest point where it should be.
NASA JPL’s approximate orbital elements (E. M. Standish, valid 1800 to 2050) place the planets in the solar system scene, to a fraction of a degree; the IAU’s rotation elements (2015) turn each one on its axis. The Moon goes round the Earth at its mean longitude. The planets are drawn bigger than life, by a factor the scene states, except when True size is on.
The four other dwarf planets (Ceres, Haumea, Makemake and Eris) come from JPL’s Small-Body Database, and the moons bigger than Pluto (Jupiter’s four, Saturn’s Titan, Neptune’s Triton) from JPL’s Horizons system, each on a steady orbit from one recent position: near enough for a dot beside its world, not for navigation. With Jupiter, Saturn or Neptune in view, the planets are drawn nearer their true size, so those moons show on their real orbits.
The stars behind every view are real: the 9,096 of the Yale Bright Star Catalogue (Hoffleit and Warren, 5th revised edition, 1991, from NASA’s HEASARC), every star the eye can see on a dark night, each where it really is, as bright and as coloured as it is. The fainter stars behind them are drawn to gather toward the Milky Way as the faint stars really do, and the Milky Way is painted along the galaxy’s real plane, with the Great Rift and the two Magellanic Clouds.
The constellations, when they’re switched on, are the stick figures of the 88 the International Astronomical Union recognises, with their Latin names, from Olaf Frohn’s d3-celestial (BSD licence).
Open data
Every country’s true area and how much Mercator enlarges it, as worked out for this map, free to use for anything (public domain, CC0):
Areas are in km², computed on a sphere of the Earth’s authalic radius from Natural Earth’s 1:50m outlines. The Mercator figure is how many times its true size Mercator draws an area at the country’s middle latitude.
Citing this map
Any suggested form works, but a stable one:
EqualGlobe. The world at its true size [Equal Earth map]. https://www.equalglobe.com
Citing a specific view (a comparison, a projection, a place) rather than the map in general? Copy the address bar, it's not a generic homepage link once you've moved from the resting view: everything you're looking at, the projection, the selected country, a comparison, lives in the URL itself.