Spacecraft continuing to operate.
How Many Satellites Are Orbiting in Space?
About 19,440 artificial satellites remain in Earth orbit. Roughly 15,800 are still functioning, according to ESA.
ESA figures ·Working spacecraft and retired satellites.
Rocket bodies and fragments are counted separately.
Total Number of Satellites in Space
The ESA snapshot used here estimates about 19,440 artificial satellites still in space. That includes both functioning and retired spacecraft.
The difference between ESA's two satellite estimates.
A wider catalogue that also includes orbital debris.
All three cards use ESA's release. The first two relate to satellites; the third covers a broader population of tracked space objects. Definitions & sources ↗
What is actually being tracked?
Tap an object type to inspect its share. The global ESA estimates above and this public tracking-file breakdown describe different populations.
Our public orbit file covers 18,895 classified satellite payloads, plus other objects. This is a view of our tracking coverage. Operational status is assessed separately from orbital position.
Satellites Orbiting Earth
There is no single satellite highway. Different orbits suit different jobs. Choose a group to explore its role and see how many payloads from our current file fall within the tracker's filters.
Low Earth orbit
Most familiar low-flying satellites live here. Shorter paths to the ground suit broadband networks, imaging missions and crewed space stations.
Counts use the same orbit-group rules as our tracker. “GEO” covers near-geosynchronous objects; the MEO filter focuses on navigation-like periods. Full criteria are in the methodology below.
Keeping us connected
Communications satellites carry internet, television and other signals across large distances.
Helping us find our way
Navigation constellations provide the timing and position signals behind everyday satellite navigation.
Looking at Earth and beyond
Weather, Earth-observation and astronomy missions turn an orbital vantage point into useful science.
Meet a few of them: the ISS, Hubble and Landsat 9. Mission background: NASA ↗
Which Countries and Constellations Have the Most Satellites?
Two useful ways to read the same payload population: its registered country or organization, and recognizable satellite families. Both views include working and retired spacecraft in our file.
Countries & organizations
| Catalogue source | Payloads | Share |
|---|---|---|
| 01United States | 13,310 | 70.4% |
| 02CIS (catalogue code) | 1,558 | 8.2% |
| 03China | 1,310 | 6.9% |
| 04United Kingdom | 724 | 3.8% |
| 05Japan | 209 | 1.1% |
| 06France | 125 | 0.7% |
| 07India | 109 | 0.6% |
| Other registered sources | 1,549 | 8.2% |
| Unassigned / unavailable | 1 | 0.0% |
Registered codes include organizations and historical groupings such as CIS. They describe catalogue attribution, rather than a live audit of ownership or a launch-site ranking.
Selected satellite families
These are name-matched payload counts, including retired spacecraft. They cover selected families and do not represent complete operator fleets. Amazon's count here matches KUIPER and AMAZON LEO names.
Why the Number of Satellites Keeps Growing
Large communications constellations place many spacecraft into orbit to provide wide coverage. Earth-observation, navigation and research add other missions. Launches increase the population, while re-entry and disposal remove spacecraft over time.
For scale, ESA's 2025 environment report, based on data through the end of 2024, described about 11,000 active payloads. Its October 23, 2026 figures put functioning satellites at roughly 15,800. These are dated reference points, rather than a continuous historical series.
Read ESA's environment report ↗The first artificial satellite
Sputnik 1 launched on 4 October and opened the Space Age.
About 11,000 active payloads
The population described in ESA's 2025 report.
About 15,800 functioning satellites
The current dated ESA benchmark used on this page.
A small fragment can still be a serious problem.
Fragmentation creates additional objects, and busy orbital regions require careful collision-risk management. End-of-mission disposal, preventing breakups and debris removal all matter to long-term use of space.
larger than 1 cm, up to 10 cmESA's MASTER-8 model
Reference population: February 2026
The small-debris estimate comes from a statistical model with its own reference date. It describes a different size range and population from the catalogued objects in the charts.
How We Count Satellites and Other Objects
Satellite payloads
The spacecraft placed in orbit to carry out missions. A retired satellite can remain a payload long after it stops working.
Functioning satellites
An assessment of operational spacecraft. Fresh orbital elements tell us about a path; they do not certify a mission's health.
All tracked objects
A wider collection including spacecraft, spent stages and debris. Its size depends on the catalogue's coverage and the objects it can follow.
Two sources, clearly separated
ESA supplies the dated global estimates. Our charts summarize the same public orbital file used by Satellite Tracker 3D, matched to basic catalogue classifications. Each NORAD ID contributes once. The file selects non-decayed objects with orbital measurements from the preceding 30 days; it is a coverage-limited snapshot.
Fresh data without a ticking counter
This page checks for updated source data approximately daily when visited. Global statistics change when ESA publishes a new release. Our orbit file refreshes separately. The dates below stay attached to the figures, and a failed refresh can retain a saved snapshot instead of inventing a new count.
Orbit rules and catalogue coverage
Group rules match the tracker: GEO uses 0.99–1.01 revolutions per day and eccentricity below 0.01; MEO uses periods of 600–800 minutes and eccentricity below 0.25; LEO uses more than 11.25 revolutions per day and eccentricity below 0.25; highly elliptical uses eccentricity above 0.25. All remaining records are Other. These filters are convenient groups, rather than exact geometric altitude boundaries.
Catalogue classifications are maintained separately from orbital measurements and can lag newer source records. The sample time marks when these stored fields were read.
32,844 of 32,844 orbital records matched public metadata. Unrecognized types remain Unclassified. Country and family tables include recognized payloads only. Family labels match selected name prefixes; the catalogue's older descriptive mission-status fields are not used to count functioning satellites.
2,920 orbital records have measurement epochs more than three days older than the aggregate sample time. A file's update time and each object's element epoch describe different things; these counts do not validate propagation or promise that every record is currently displayed on the globe.
Questions behind the count
How many satellites are in space right now?
Use the dated global estimate at the top of this page for artificial satellites around Earth. The live-globe file has a narrower coverage total, which is broken down separately.
How many of those are active?
The headline functioning count comes from ESA. Our tracker classifies payloads separately from rocket bodies and debris, but an orbital record alone does not establish whether a satellite is working.
How many Starlink satellites does this tracker include?
11,161 Starlink-named payloads appear in this tracking snapshot. That includes spacecraft with different mission statuses, so it describes tracked payloads rather than an active-fleet assessment.
Does this include the Moon or spacecraft at other planets?
This page focuses on artificial satellites and objects in Earth orbit. The Moon is a natural satellite; probes at other planets and spacecraft orbiting the Sun belong to different populations.
Why does another website give a different answer?
Check the date and the definition. A total may cover functioning satellites, all payloads, one public orbital file, a wider surveillance catalogue or a statistical estimate of untracked debris. Those sets have different boundaries.
Can I see all these satellites from my garden?
Only some passes are suitable for visual observing. Your location, the spacecraft's illumination, the darkness of your sky and local conditions all matter. Use the ISS viewing planner for a location-specific starting point.
What makes the totals go up or down?
Launches add spacecraft; re-entry removes them. Catalogue additions, reclassification, coverage changes and the age limit of a tracking file can also change a published total. A one-day difference is not automatically a launch count.
See the world above your world.
Explore the globe, follow a mission or find your next ISS viewing opportunity.