Latitude & Longitude Map — Plot Coordinates on a Map
Enter latitude and longitude coordinates to instantly plot them on an interactive map. Paste decimal degrees, DMS, or a Google Maps URL. Plot multiple points, reverse geocode to address, measure distances, and export to CSV. Free, worldwide, no sign-up.
Enter any latitude and longitude pair — in decimal, DMS, or pasted from a Google Maps URL — and this tool plots it on an interactive map. You get the reverse-geocoded address, structured address components, and the coordinates in three formats.
Coordinates are plotted to 5 decimal places (≈1.1 meter). Reverse geocoding uses OpenStreetMap/Nominatim. GPS lookups inherit your device accuracy (5–10 m outdoors).
Paste "48.8584, 2.2945" (decimal), "48°51'30.2"N, 2°17'40.2"E" (DMS), or a Google Maps URL containing coordinates. All three are detected automatically.
Works for any location on Earth. Plot multiple points at once with numbered markers, connecting lines, inter-point distances, and CSV export. No sign-up, no limits.
How to plot coordinates on a map
What is a latitude & longitude map?
A latitude and longitude map is a tool that takes numeric coordinates and plots them as markers on an interactive map. The concept is simple: every point on Earth has a unique address in the coordinate system — latitude for north-south position, longitude for east-west — and this tool translates those numbers into a visual location you can see, explore, and share.
This is the reverse of what most people do in Google Maps, where you search for a place name and the system converts it to coordinates behind the scenes. Here, coordinates are the input. You already have the numbers — from a GPS device, a spreadsheet, a research paper, a geocache listing, or a shared Google Maps URL — and you need to see where they point.
Supported coordinate formats
The tool auto-detects the format you paste. You don't need to select a dropdown or check a box — just paste and plot. Here are the formats recognized:
| Format | Example | When used |
|---|---|---|
| Decimal Degrees (DD) | 48.85840, 2.29450 | GPS, Google Maps, web APIs, GIS software, databases |
| Degrees Minutes Seconds (DMS) | 48°51'30.2"N, 2°17'40.2"E | Nautical charts, traditional surveying, military maps |
| Decimal Minutes (DMM) | 48°51.5034'N, 2°17.6700'E | Aviation charts, marine GPS, geocaching |
| Google Maps URL | https://maps.google.com/...@48.8584,2.2945... | Sharing locations via Google Maps links |
| Space-separated | 48.85840 2.29450 | Quick copy-paste when commas cause parsing issues |
Negative values work for south latitudes and west longitudes. The DMS parser accepts both standard quote marks and Unicode degree/minute/second symbols.
Popular coordinates to try
Copy any coordinate pair from this table and paste it into the tool above. Useful as test inputs and as a reference for recognizing coordinates at a glance.
| Landmark | Latitude | Longitude |
|---|---|---|
| Eiffel Tower, Paris | 48.85840 | 2.29450 |
| Statue of Liberty, NYC | 40.68920 | -74.04450 |
| Big Ben, London | 51.50070 | -0.12460 |
| Sydney Opera House | -33.85680 | 151.21530 |
| Machu Picchu, Peru | -13.16310 | -72.54500 |
| Great Wall, Badaling | 40.43200 | 116.56380 |
| Taj Mahal, India | 27.17510 | 78.04210 |
| Colosseum, Rome | 41.89020 | 12.49220 |
| Christ the Redeemer, Rio | -22.95190 | -43.21050 |
| Golden Gate Bridge, SF | 37.81990 | -122.47830 |
| Mount Everest summit | 27.98810 | 86.92500 |
| Pyramids of Giza, Egypt | 29.97920 | 31.13420 |
What people use a latitude & longitude map for
1. Navigation and trip planning
Travelers, hikers, and road-trippers often receive coordinates for remote trailheads, campsites, or off-grid destinations that don't have a street address. Plot those coordinates here to see the exact location, then use the distance calculator to measure how far it is from your starting point.
2. Geocaching and outdoor activities
Geocache listings, orienteering waypoints, and fishing spots are almost always shared as coordinates. This tool lets you visualize all your waypoints on one map with numbered markers, see the distances between them, and export the list as CSV for loading into a GPS unit.
3. Real estate and property identification
Property deeds, surveys, and zoning documents reference lat/lng to anchor a parcel. Plot the coordinates to see exactly which lot is being described, then use the address-to-county lookup to confirm the jurisdiction and tax authority.
4. Drone and aviation compliance
FAA regulations require drone operators to log the precise latitude and longitude of every takeoff and landing. Plotting these coordinates verifies you are outside restricted airspace and gives you a visual record for compliance documentation.
5. Academic research and fieldwork
Scientists log specimen collection sites, archaeological finds, and sensor placements by coordinate. Plotting them on a map catches data-entry errors (transposed digits are obvious) and gives spatial context. For batch geocoding of addresses to coordinates, see the address-to-coordinates tool.
6. Emergency and search-and-rescue
SAR teams, first responders, and 911 dispatchers work with coordinates from GPS-enabled devices. Quickly plotting those coordinates on a map gives rescuers terrain context, access route options, and distance estimates. In emergencies, speed matters — this tool plots instantly with no sign-up.
How coordinates work
Latitudemeasures how far north or south a point is from the equator. It ranges from –90° (South Pole) to +90° (North Pole). Every degree of latitude corresponds to roughly 111 km (69 miles) on the surface. Lines of constant latitude are called parallels because they run parallel to the equator.
Longitudemeasures how far east or west a point is from the prime meridian in Greenwich, England. It ranges from –180° to +180°. At the equator, one degree of longitude is also about 111 km, but this distance shrinks toward the poles — at 60° latitude, one degree of longitude is only about 55 km. Lines of constant longitude are called meridians.
All modern coordinates use the WGS84datum (World Geodetic System 1984), a mathematical model of Earth's shape defined by the US Department of Defense. GPS satellites, Google Maps, OpenStreetMap, Apple Maps, and this tool all use WGS84 — so coordinates from any of these sources are directly compatible.
Decimal precision reference
Each additional decimal place gives 10× more precision. How many you need depends entirely on what you are doing.
| Decimal places | Approx. precision | Typical use case |
|---|---|---|
| 1 decimal | ~11.1 km | City / large region |
| 2 decimals | ~1.1 km | Neighborhood / town |
| 3 decimals | ~111 m | Street block |
| 4 decimals | ~11.1 m | Individual building |
| 5 decimals | ~1.1 m | Tree, bench, survey marker |
| 6 decimals | ~0.11 m | Surveying-grade detail |
This tool reports 5 decimal places (~1.1 m) by default. Consumer GPS typically delivers 5–10 meter accuracy outdoors, so 5 decimals is the practical limit for most users.
How this tool compares
| Feature | SimpleMapLab (this tool) | Google Maps | GPS Visualizer |
|---|---|---|---|
| Free | Yes | Yes | Yes |
| No sign-up | No | No | No |
| Multi-point | Yes | No | Yes |
| Reverse geocode | Yes | Partial | No |
| Coord formats | DD, DMS, DMM | DD only | DD, DMS |
| CSV export | Yes | No | Yes |
| Map click | Yes | Right-click | No |
| Address lookup | Yes | Yes | No |
Glossary
- Latitude
- The angle north or south of the equator, from –90° (South Pole) to +90° (North Pole). Lines of constant latitude are called parallels.
- Longitude
- The angle east or west of the prime meridian (Greenwich, England), from –180° to +180°. Lines of constant longitude are called meridians and converge at the poles.
- WGS84
- World Geodetic System 1984 — the global standard datum for GPS and modern mapping. All coordinates in this tool use WGS84.
- Decimal degrees (DD)
- Coordinates as a single decimal number per axis: 48.8584, 2.2945. The dominant format in digital mapping and web APIs.
- DMS
- Degrees-Minutes-Seconds: 48°51'30.2"N, 2°17'40.2"E. Traditional format used in nautical charts, surveying, and military maps.
- DMM
- Decimal Minutes: 48°51.5034'N, 2°17.6700'E. A hybrid used in aviation, marine charts, and geocaching.
- Reverse geocoding
- Converting a latitude/longitude coordinate into a human-readable address. This tool uses Nominatim (OpenStreetMap) for reverse geocoding.
- Geoid
- The shape of the ocean surface extended under the continents by gravity. WGS84 uses an ellipsoid that closely approximates the geoid.
- Datum
- A reference model of Earth’s shape and size used to compute coordinates. Different datums give slightly different coordinates for the same physical point.
- Map projection
- A method of flattening the curved Earth onto a 2D surface. The web map here uses Web Mercator (EPSG:3857) for display, but all data is stored in WGS84 (EPSG:4326).
Data sources & methodology
- Basemap tiles: OpenFreeMap (free, open-source, no API key), rendered with MapLibre GL JS.
- Reverse geocoding: Nominatim (OpenStreetMap), returning structured address data worldwide.
- Coordinate datum: WGS84 (EPSG:4326), the global standard for GPS and web mapping.
- Map projection (display): Web Mercator (EPSG:3857), used by all major web maps. Data stored as WGS84.
- Distance calculations: Haversine formula on the WGS84 ellipsoid (<0.5% error for distances under 500 km).