OBSERVER SKY VIEW
Awaiting observer dataWhere to look
Compass projection of the current sky direction. The chart shows direction, not brightness or a photograph of the sky.
NASA/JPL HORIZONS EPHEMERIS
Where Is New Horizons Now? Live Position & Distance
NASA · Kuiper Belt · Launched 2006-01-19
Where is New Horizons now?
New Horizons is travelling outward through the outer Solar System, beyond its Pluto and Arrokoth encounters. It flew past Pluto; it did not stay in orbit around it.
Distance from Earth66.019 AUCached sample: 20 Oct 2026 15:55 UTC
Distance from Sun65.866 AUCached sample: 20 Oct 2026 15:55 UTC
Distance from PlutoAwaiting positionSpacecraft-to-Pluto separation
Mission elapsedSince 19 January 2006Launch date: 19 January 2006
Timestamped calculated positions, not spacecraft telemetry. This panel stays on current data when you explore historical dates in the map.
EXPLORE THE JOURNEY
From Earth to the Kuiper Belt
Today: explore the spacecraft's current outward journey. Milestone views use dated JPL samples when available.
Historical map views show a date snapshot and a sampled trajectory, not an exact encounter replay. The displayed map timestamp identifies the loaded epoch.
Drag to rotate · Scroll/pinch to zoom · Tap a planet to focus
Solar System ViewPlanet sizes are enlarged for visibility; orbital positions use JPL ephemerides.
Loading mission ephemeris…UTC --:--:--
If a radio signal left Earth now…
Explore the travel time using the latest available Earth-distance sample.
One-way travel timeAwaiting distance
Minimum round tripAwaiting distance
An educational simulation; this does not transmit a signal.
Estimate = sampled Earth distance ÷ 299,792.458 km/s. The round trip is approximately twice that value. Motion during transit, processing time and ground-station scheduling are excluded. Older samples are labelled and cannot start a new simulation.
How far beyond Pluto?
Pluto continues moving around the Sun while New Horizons follows a different trajectory. Distance from Pluto is the direct separation between them at the stated time; subtracting their distances from the Sun would not give that separation.
The mission timeline connects three different investigations: Jupiter's gravity assist, Pluto and its moons, and the small Kuiper Belt world Arrokoth. Use the buttons above to examine those dates, then choose Today to return to the current map.
New Horizons · FROM YOUR LOCATION
Find the spacecraft in the sky
See where the spacecraft appears in the sky for the location selected above. The chart shows direction and does not guarantee naked-eye or telescope visibility.
Waiting for your selected location…
Right ascension · ICRF—
Declination · ICRF—
Sky direction—
Above horizon—
Rise, highest point and set
Rise above horizon—
Highest altitude—
Set below horizon—
Rise, highest point and set are estimates. Atmospheric refraction and terrain are excluded.
A calculated direction does not imply optical visibility.
Distance from your location
Observer range in astronomical units. Close flybys and maneuvers can change the distance quickly.
About New Horizons
The Pluto and Kuiper Belt mission continuing through the outer solar system.
DestinationKuiper Belt
Launched2006-01-19
AgencyNASA
DAILY SKY POSITION
12:00 UTC sample · dates and times labeled UTCThe next 15 days
| Date (UTC) | RA (°) | Dec (°) | Azimuth (°) | Altitude (°) | Range (AU) |
|---|---|---|---|---|---|
| Select your observing location above to load the position table. | |||||
These are observer-based line-of-sight calculations, independent of the compressed scale used in the 3D voyage map. No brightness prediction is made.
TRACKER GUIDE & MISSION EXPLAINER
New Horizons Tracker: Pluto, Arrokoth and the Kuiper Belt Journey
New Horizons transformed Pluto from a distant point of light into a complex world and later completed the first close exploration of a Kuiper Belt object. The tracker above uses JPL Horizons ephemerides to show the spacecraft's continuing outward journey, current distances and Sun-centred vector.
NASA launched New Horizons on January 19, 2006. It flew past Jupiter for a gravity assist in 2007, reached Pluto on July 14, 2015 and passed the Kuiper Belt object Arrokoth on January 1, 2019.
Mission discoveries and route
The Pluto encounter mapped diverse terrain including mountains, glaciers and the bright heart-shaped region dominated by Sputnik Planitia. The spacecraft also studied Pluto's moons and atmosphere. Arrokoth revealed a contact-binary world that preserves information about early Solar System formation.
New Horizons is now travelling through the Kuiper Belt and outer Solar System. Its path differs from both Voyagers, so distance alone should not be used to imagine the spacecraft lined up in one direction.
How the tracker obtains position
Horizons produces position and velocity vectors for the spacecraft at requested epochs. The site caches a short series and interpolates the display. Earth distance varies with annual geometry, while Sun distance shows the long-term outward trend more directly.
The graphic compresses scale so that the Sun, Earth and spacecraft can be seen. Numeric values and the stated reference frame matter more than apparent spacing in the illustration.
How to learn from the page
- Compare New Horizons' distance and speed with Voyager 1 and Voyager 2.
- Convert AU to kilometres to appreciate the scale of the Kuiper Belt.
- Use light time to estimate the minimum delay for a command and response.
- Trace how a Jupiter gravity assist changed the mission's solar orbit.
- Separate spacecraft location from official science and communication status.
Educational value
The mission is a clear example of reconnaissance: a fast flyby must collect data during a brief encounter and can take months to transmit the complete dataset home. It also demonstrates that the Kuiper Belt is a broad population of icy bodies, not a narrow ring at one distance.
NASA reported New Horizons awakening from a long hibernation in 2026 at billions of kilometres from Earth. Mission updates should be consulted for current operational details; the tracker concerns ephemeris position.
Limitations
The page does not receive spacecraft telemetry or indicate instrument activity. The vector and distance are calculated ephemeris values, and the scene is not a literal scale model.
Data return across the outer Solar System
New Horizons carried a compact suite of cameras and particle instruments, but the radio link from Pluto was slow compared with modern terrestrial networks. The spacecraft stored encounter data and transmitted it over many months. As distance increases, received signal strength falls and light time grows, making careful scheduling essential. The tracker's distance readout provides the physical reason for those constraints and shows why a successful flyby includes years of planning before encounter and long analysis afterward.
MISSION REFERENCE · RESEARCH & TRAJECTORY
New Horizons science, Kuiper Belt exploration and trajectory context
From Pluto to a second Kuiper Belt target
New Horizons flew past Pluto and its moons in July 2015 after a Jupiter gravity assist earlier in its cruise. The close encounter transformed Pluto from a small, distant point of light into a world with varied terrain and atmosphere-related phenomena. On January 1, 2019 the spacecraft flew past Arrokoth, a small Kuiper Belt object. These two encounters were different types of investigation: one examined a dwarf-planet system, the other a primitive body whose structure offers clues about how small objects assembled early in Solar System history.
Why flybys need precise timing
A spacecraft travelling at high relative speed cannot stop for a close look without an enormous change in momentum. New Horizons instead used preplanned observations on approach, at closest passage and while departing. Pointing, lighting and transmission opportunities mattered as much as the closest-distance number. A live trajectory plot today cannot reproduce the exact camera view of a past encounter. For historical images and discoveries, use NASA’s New Horizons mission archive alongside the position tracker.
How to interpret outer-system distance
The spacecraft’s distance from the Sun tracks its outward journey in broad terms, while distance from Earth also reflects Earth’s yearly orbit. One-way light time expresses the unavoidable signal delay. It is not the time a spacecraft needs to travel the remaining distance to another object. The 3D view uses compressed spatial scale so users can keep both the inner planets and a distant probe on screen; rely on numerical values for precise comparisons. Observer sky coordinates provide a calculated line of sight rather than a practical naked-eye target.
What science continues after the flybys
Beyond its primary encounters, New Horizons can investigate its distant environment and observe Kuiper Belt objects under favourable conditions. Its actual observing plan depends on mission operations, available power and communications windows. The word ‘live’ on this site refers to updated ephemeris calculations; it does not mean that every displayed spacecraft is streaming pictures or science data continuously. NASA publishes mission news when new data are returned and interpreted.
Frequently asked questions
Is New Horizons still at Pluto?
No. It flew past Pluto in 2015 and continues outward through the Kuiper Belt and outer Solar System.
What was Arrokoth?
Arrokoth is a Kuiper Belt object that New Horizons flew past on January 1, 2019.
Why did New Horizons not orbit Pluto?
The high-speed trajectory enabled a relatively rapid journey; entering Pluto orbit would have required a very large reduction in speed.
Is the tracker a live signal from the spacecraft?
No. It displays JPL Horizons ephemeris-derived position and interpolated values.
Sources and further reading
- NASA Science: New Horizons
- NASA: Kuiper Belt exploration
- NASA: New Horizons mission updates
- JPL Horizons
Educational-use note: SpaceTracker.live is an independent educational website and is not an official mission-control service. Positions, paths, distances and pass predictions are computed from third-party orbital elements or ephemerides. They may be delayed or approximate and must not be used for navigation, collision avoidance or safety-critical decisions.