Where Is Voyager 1 Now? Its Current Distance, Speed & Status

Quick answer: Where is Voyager 1 now? As of 2026, NASA’s Voyager 1 is coasting through interstellar space more than 25 billion kilometers (about 15.5 billion miles) from Earth — roughly 167 astronomical units. It is still moving away at about 17 kilometers per second, its radio signal now takes around 23 hours to reach us, and a few of its instruments are still returning data.

Where is Voyager 1 right now?

Right now, Voyager 1 is in interstellar space — the region between the stars, beyond the bubble of solar wind that surrounds our Sun. It is the most distant human-made object in existence, and it has been traveling outward for nearly five decades since its launch on September 5, 1977. If you want the complete backstory of the mission and its discoveries, we cover it in depth in our guide to Voyager 1, humanity’s farthest spacecraft.

Voyager 1 crossed the heliopause — the boundary where the Sun’s influence gives way to the interstellar medium — on August 25, 2012, at a distance of about 121 AU. It has been pushing deeper into interstellar space ever since. From our point of view on Earth, the spacecraft sits high above the plane of the planets, heading out through the northern constellation Ophiuchus. It is not orbiting anything and it is not slowing down in any way you would notice.

Because the spacecraft moves so predictably, NASA’s Jet Propulsion Laboratory publishes its position in near real time. You can watch the odometer tick upward on the official NASA “Where Are the Voyagers” tracker, which updates the distance and one-way light time continuously.

Where is Voyager 1 now — NASA illustration of Voyager 1 leaving the heliosphere for interstellar space
Artist’s concept of Voyager 1 crossing the heliosheath into interstellar space. Credit: NASA/Walt Feimer (public domain).

How far away is Voyager 1 from Earth?

As of 2026, Voyager 1 is more than 25 billion kilometers (about 15.5 billion miles) from Earth — roughly 167 astronomical units, where one AU is the average Earth–Sun distance. That number is not fixed: the spacecraft adds about 3.6 AU, or more than half a billion kilometers, to its distance every single year.

Distances this large are hard to picture, so it helps to translate them into travel time for light itself. A radio command sent from Earth takes roughly 23 hours to reach Voyager 1, and its reply takes another 23 hours to come back — so a single round-trip “conversation” with the spacecraft now takes nearly two full days. Here is the same distance expressed a few different ways:

Voyager 1 distance from Earth (2026)Value
Kilometers~25 billion km
Miles~15.5 billion miles
Astronomical units (AU)~167 AU
One-way light time~23 hours
Distance gained per year~3.6 AU (~540 million km)

For comparison, Pluto averages about 39 AU from the Sun, so Voyager 1 is now more than four times farther out than the most famous dwarf planet in our solar system. Even light, the fastest thing in the universe, needs the better part of a day to bridge the gap.

How fast is Voyager 1 traveling?

Voyager 1 is traveling at roughly 17 kilometers per second relative to the Sun — about 61,000 kilometers per hour, or 38,000 miles per hour. At that pace it covers the Earth–Moon distance in about six hours, and it crosses a full astronomical unit roughly every 100 days.

A common myth is that Voyager 1 is the fastest object humans have ever built. It is not — that title belongs to NASA’s Parker Solar Probe, which reaches far higher speeds by falling toward the Sun. What makes Voyager 1 special is that it is the fastest object leaving the solar system, and the farthest one out. Most of that speed came from gravitational slingshots past Jupiter and Saturn in 1979 and 1980, when the spacecraft borrowed a little of each planet’s orbital momentum. You can read more about those worlds in our guides to Jupiter and Saturn.

That extra Saturn flyby is also why Voyager 1 leads its twin. Voyager 2 actually launched first, on August 20, 1977, but Voyager 1 took a shorter, faster route and a bigger gravitational kick — so it now travels roughly two kilometers per second quicker and sits billions of kilometers farther out. The two spacecraft are drifting apart a little more with every passing year.

Out in interstellar space there is almost nothing to slow it down. There is no atmosphere and no meaningful drag, and the Sun’s gravity is now far too weak to rein it back. So while the spacecraft loses a whisper of speed to the Sun’s distant pull, for all practical purposes Voyager 1 will keep this velocity essentially forever.

Is Voyager 1 still active in 2026?

Yes — remarkably, Voyager 1 is still active and still talking to Earth in 2026, nearly 49 years after launch. It runs on three radioisotope thermoelectric generators (RTGs) that turn the heat from decaying plutonium-238 into electricity. Those generators lose about four watts of output every year, so the mission is a constant balancing act between the science NASA wants to do and the power that is left to do it.

To stretch the remaining power, engineers have been switching off systems one by one. The cameras were shut down back in 1990, shortly after Voyager 1 took the famous “Pale Blue Dot” photograph of Earth. In recent years NASA has begun powering down science instruments too, keeping only the handful that still send back useful readings from interstellar space — data on cosmic rays, magnetic fields, and plasma.

As of 2025, four of the original ten science instruments were still returning data, but NASA has begun retiring even those. In 2025 the team switched off Voyager 1’s cosmic ray subsystem — the very instrument that had helped confirm the crossing into interstellar space a decade earlier — purely to save power. Each shutoff is a painful trade, but it buys the mission another year or two of life.

The spacecraft also gave its team a serious scare. In late 2023, Voyager 1 started sending home a stream of unreadable, repeating gibberish instead of real data. Engineers traced the fault to a single failed memory chip in its onboard computer and, over several months, rewrote and relocated the affected code — commands that each took nearly a day to arrive. By April 2024 the spacecraft was returning valid science data again, a genuinely astonishing repair job on hardware designed in the early 1970s and now light-hours out of reach.

When will we lose contact with Voyager 1?

Nobody knows the exact date, but the limiting factor is power, not distance. As the plutonium keeps decaying, NASA expects to switch off the last science instruments in the late 2020s. After that, the spacecraft may still transmit a faint engineering “carrier” signal — enough to confirm it is alive — possibly into the 2030s before its generators can no longer run the radio.

Even once Voyager 1 falls silent, it will not stop. The spacecraft will simply keep coasting outward, a dark and frozen time capsule drifting between the stars. Its radio dish will still be pointed roughly back toward home, but with no power to speak, it will glide on in silence for tens of thousands of years.

How do we know where Voyager 1 is?

NASA keeps track of Voyager 1 using the Deep Space Network, a set of giant radio antennas spaced around the globe in California, Spain, and Australia. As Earth rotates, at least one of these stations can always point at the spacecraft, so contact is never fully lost to our planet’s spin.

A 34-meter Deep Space Network antenna at Goldstone used to track how far away Voyager 1 is
A 34-meter Deep Space Network dish at Goldstone, California, one of the antennas that tracks Voyager 1. Credit: NASA/JPL-Caltech (public domain).

The spacecraft’s exact position comes from timing and Doppler measurements. Engineers know precisely how long a signal takes to make the round trip, which fixes the distance, and tiny frequency shifts in the returning signal reveal how fast Voyager 1 is moving. Combine those with nearly 50 years of tracking history and the trajectory is pinned down with extraordinary accuracy — which is exactly why NASA can publish a live distance you can trust.

What makes this tracking astonishing is how faint the signal has become. Voyager 1’s transmitter puts out barely 22 watts — about the same as a refrigerator bulb — and by the time that whisper crosses interstellar space, the giant dishes on Earth receive less than a billionth of a billionth of a watt. Pulling clean data out of that trickle, day after day, is one of the quiet triumphs of modern engineering.

Where is Voyager 1 heading?

Voyager 1 is climbing out of the solar system toward the constellation Ophiuchus. It is not aimed at any particular star, but in about 40,000 years it will drift within roughly 1.6 light-years of a faint star called Gliese 445 (AC+79 3888), in the constellation Camelopardalis. By cosmic standards that is a near miss, and it is the closest the spacecraft will come to another sun for a very long time.

Bolted to the side of the spacecraft is one of the most poetic objects humans have ever launched: the Golden Record. This gold-plated copper phonograph disc carries sounds and images of Earth — greetings in 55 languages, music from around the world, birdsong, a mother’s kiss — a message in a bottle meant for whoever, or whatever, might one day find it.

The Voyager Golden Record cover carried by Voyager 1 into interstellar space
The cover of the Voyager Golden Record, carried aboard Voyager 1. Credit: NASA/JPL (public domain).

Voyager 1 by the numbers (2026)

Here is a snapshot of where the mission stands today. Remember that the distance and light-time figures keep growing, so treat them as close approximations and check the live tracker for the exact current value.

FactValue
LaunchedSeptember 5, 1977
Time in flight (2026)~49 years
Distance from Earth~25 billion km (~167 AU)
Speed (relative to Sun)~17 km/s (~61,000 km/h)
One-way light time~23 hours
Entered interstellar spaceAugust 25, 2012
Power sourcePlutonium-238 RTGs (declining)
StatusActive; limited instruments

Track Voyager 1 yourself

You do not need a telescope or a NASA badge to follow Voyager 1 — the agency puts the live data online for anyone to explore. Three official tools are worth bookmarking:

Once you have checked today’s number, come back and read the whole story of how Voyager 1 became humanity’s farthest spacecraft — from its grand tour of the outer planets to the day it looked back and photographed Earth as a single pale blue dot.

Frequently asked questions

Is Voyager 1 still sending data in 2026?

Yes. As of 2026 Voyager 1 is still transmitting from interstellar space, though on reduced power. NASA has switched off its cameras and several instruments over the years, keeping only a few that still return useful readings on cosmic rays, magnetic fields, and plasma.

How long does it take to communicate with Voyager 1?

A radio signal takes about 23 hours to travel one way between Earth and Voyager 1, so a full round-trip command and response now takes close to two days. That light time grows a little longer every year as the spacecraft moves farther away.

Has Voyager 1 left the solar system?

Not entirely. Voyager 1 left the heliosphere and entered interstellar space in 2012, but it has not left the solar system in the fullest sense. The distant Oort cloud of icy bodies still surrounds the Sun far beyond the spacecraft, and Voyager 1 will not pass through it for roughly 30,000 years.

What is the farthest human-made object from Earth?

Voyager 1 is the farthest human-made object ever built. It overtook its twin, Voyager 2, and the earlier Pioneer probes decades ago, and it now sits more than 25 billion kilometers from Earth, extending its lead every day.

How much longer will Voyager 1 last?

Power is the limiting factor. NASA expects the last science instruments to be switched off in the late 2020s, with a faint engineering signal possibly continuing into the 2030s before the plutonium generators can no longer run the radio.

How fast is Voyager 1 traveling now?

Voyager 1 is moving at about 17 kilometers per second relative to the Sun, which is roughly 61,000 kilometers per hour or 38,000 miles per hour. With almost nothing to slow it down in interstellar space, it will keep close to this speed indefinitely.

Hamza Touhami
Hamza Touhamihttps://www.stellarnomads.com
An avid amateur astronomer with a keen interest in asteroid and comet discovery.

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