Where is Saturn tonight?
Saturn is the sixth planet from the Sun and the second largest, a gas giant known for its bright rings of ice and rock. The rings are very wide but thin, and its largest moon, Titan, is bigger than the planet Mercury.
Right now
| Direction | NNW (336°) |
|---|---|
| Height above horizon | -44.6° (below the horizon) |
| Distance from Earth | 8.45 au |
| Distance from the Sun | 9.43 au |
| Apparent size | 19.7″ |
| Illuminated | 100% |
| Brightness (magnitude) | 0.2 |
| Constellation | Cetus |
See it on the sky
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Saturn in 3D
Saturn lit by the Sun at this moment and seen from Earth’s direction, so its phase matches what a telescope shows. Drag to turn it. The time slider moves the light and the rotation.
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Saturn’s rings and moons How far the rings are tilted towards Earth and where Titan and the other major moons are.
Where to find Saturn among the stars
Two finder charts for today: a wide field to find the right part of the sky and a closer field with fainter stars. North is up and east on the left, as the sky looks to the naked eye. The dotted line marks its path over the coming weeks, one dot per week.
Stars: HYG Database. Constellation figures: Stellarium. Deep-sky objects: OpenNGC (Messier objects marked M).
Visibility over the next 12 months
Angle between Saturn and the Sun on the 15th of each month. The further from the Sun, the darker the sky around it. Colour shows whether it is in the evening or the morning sky.
Evening sky Morning sky
Ephemeris for the next 15 days
Position at 0:00 UTC each day as seen from the centre of the Earth (apparent coordinates of date), calculated with Astronomy Engine.
| Date (UTC) | Right ascension | Declination | Magnitude | Apparent size | Distance | From the Sun | Constellation |
|---|---|---|---|---|---|---|---|
| Oct 13, 2026 | 00h 43m 21s | +01° 42′ 53″ | 0.24 | 19.7″ | 8.4450 au | 170.6° | Cetus |
| Oct 14, 2026 | 00h 43m 04s | +01° 41′ 07″ | 0.25 | 19.7″ | 8.4478 au | 169.5° | Cetus |
| Oct 15, 2026 | 00h 42m 47s | +01° 39′ 22″ | 0.26 | 19.7″ | 8.4508 au | 168.5° | Cetus |
| Oct 16, 2026 | 00h 42m 31s | +01° 37′ 37″ | 0.26 | 19.7″ | 8.4541 au | 167.5° | Cetus |
| Oct 17, 2026 | 00h 42m 14s | +01° 35′ 54″ | 0.27 | 19.6″ | 8.4578 au | 166.4° | Cetus |
| Oct 18, 2026 | 00h 41m 57s | +01° 34′ 12″ | 0.28 | 19.6″ | 8.4617 au | 165.4° | Cetus |
| Oct 19, 2026 | 00h 41m 41s | +01° 32′ 31″ | 0.29 | 19.6″ | 8.4660 au | 164.3° | Cetus |
| Oct 20, 2026 | 00h 41m 24s | +01° 30′ 51″ | 0.29 | 19.6″ | 8.4705 au | 163.3° | Cetus |
| Oct 21, 2026 | 00h 41m 08s | +01° 29′ 12″ | 0.30 | 19.6″ | 8.4754 au | 162.2° | Cetus |
| Oct 22, 2026 | 00h 40m 52s | +01° 27′ 34″ | 0.31 | 19.6″ | 8.4805 au | 161.2° | Cetus |
| Oct 23, 2026 | 00h 40m 36s | +01° 25′ 58″ | 0.31 | 19.6″ | 8.4859 au | 160.1° | Cetus |
| Oct 24, 2026 | 00h 40m 20s | +01° 24′ 23″ | 0.32 | 19.6″ | 8.4916 au | 159.1° | Cetus |
| Oct 25, 2026 | 00h 40m 04s | +01° 22′ 49″ | 0.33 | 19.6″ | 8.4976 au | 158.0° | Cetus |
| Oct 26, 2026 | 00h 39m 49s | +01° 21′ 17″ | 0.34 | 19.5″ | 8.5039 au | 156.9° | Cetus |
| Oct 27, 2026 | 00h 39m 34s | +01° 19′ 47″ | 0.34 | 19.5″ | 8.5105 au | 155.9° | Cetus |
Distance from Earth
Distance from Earth over the past and the coming year. The closest approach in this period: October 14, 2027, 1,246 million km.
Million kilometres, sampled every three days.
Brightness
Visual magnitude over the same two years. Higher on the chart is brighter.
Coming up
Facts
| Diameter | 120,536 km |
|---|---|
| Equatorial radius | 60,268 km |
| Polar radius | 54,364 km |
| Mass | 568 × 10²⁴ kg |
| Density | 687 kg/m³ |
| Surface gravity | 9 m/s² |
| Escape velocity | 35.5 km/s |
| Length of a day | 10.7 hours |
| Rotation period | 10.7 hours |
| Orbital period | 10,747 days |
| Closest to the Sun | 1,358 million km |
| Farthest from the Sun | 1,507 million km |
| Orbital speed | 9.7 km/s |
| Orbital inclination | 2.5° |
| Orbital eccentricity | 0.052 |
| Axial tilt | 26.7° |
| Mean temperature | -140 °C |
| Geometric albedo | 0.499 |
| Known moons | 293 |
| Rings | Yes |
| Global magnetic field | Yes |
Moon count: NASA, page updated August 202
Source: NASA planetary fact sheet (Oct 12, 2026). Calculated with Astronomy Engine, an open-source library verified against the US Naval Observatory and NASA JPL. Data sources
Gravity compared: Saturn and Earth
Drop, jump and throw side by side: Saturn on one side, Earth or any other world on the other. Pick a world to compare, or open the full tool. Open the gravity tool
Earth: gravity of 9.8 m/s², 1.09 times that of Saturn.
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| Saturn | Earth | |
|---|---|---|
| Surface gravity | 9.0 m/s² | 9.8 m/s² (1.09 ×) |
| Time to fall | 1.49 s | 1.43 s |
Earth: with a mass of 70 kg you would weigh what 70.0 kg weighs on Earth, a force of 686 newtons.
Gravity values are NASA’s, measured at the equator and including the effect of the world’s rotation. The motion is shown without air: on Earth a real ball would be slowed down a little, and in the much denser air of Venus a lot.
Latest NASA images of Saturn
The newest images about it in NASA’s Photojournal, updated daily. Open one for NASA’s full caption and the original file.

Texture in the Outer Cassini Division · Jun 13, 2019 · PIA23171 · Photo: NASA/JPL-Caltech/Space Science Institute 
Infrared Eye Yields New Spectral Map · Jun 13, 2019 · PIA23170 · Photo: NASA/JPL-Caltech/Space Science Institute/G. Ugarkovic (ISS), NASA/JPL-Caltech/University of Arizona/CNRS/LPG-Nantes (VIMS) 
Texture Belts · Jun 13, 2019 · PIA23168 · Photo: NASA/JPL-Caltech/Space Science Institute 
Embedded Moons Sculpt Saturn’s Rings · Jun 13, 2019 · PIA23167 · Photo: NASA/JPL-Caltech/Space Science Institute 
Translucent Arcs · Aug 13, 2018 · PIA14943 · Photo: NASA/JPL-Caltech/Space Science Institute 
Group Portrait · Jul 30, 2018 · PIA12797 · Photo: NASA/JPL-Caltech/Space Science Institute
NASA news about Saturn
- Webb Captures Saturn in Infrared
- Listen to This Month’s ‘Planetary Parade’ With NASA’s Chandra
- Flight Engineers Give NASA’s Dragonfly Lift
- NASA Study Suggests Saturn’s Moon Titan May Not Have Global Ocean
- Newly Found Organics in Enceladus’ Plumes
Headlines from NASA’s news feeds (in English), updated daily. Last checked October 13, 2026.
Discoveries and exploration
Key moments in the study of Saturn, each linked to its source.
- July 1610Galileo Galilei sees Saturn's rings through a telescope but mistakes them for a 'triple planet'. Source
- 1655Christiaan Huygens discovers Titan, Saturn's largest moon. Source
- 1675Jean-Dominique Cassini discovers a gap between what are now called the A and B rings. Source
- September 1, 1979Pioneer 11 becomes the first spacecraft to reach Saturn, discovering the F ring and a new moon. Source
- 1980Voyager 1 flies by Saturn and reveals a ring system made of thousands of ringlets. Source
- 1981Voyager 2 flies closer to Saturn, returning more detailed images and showing how thin some rings are. Source · Recent NASA photos
- July 1, 2004NASA's Cassini becomes the first spacecraft to orbit Saturn. Source
- January 14, 2005ESA's Huygens probe lands on Titan, the first soft landing on another planet's moon. Source
- 2005Cassini discovers icy water particles and gas gushing from the surface of the moon Enceladus. Source
- 2009NASA's Spitzer Space Telescope reveals a giant, low-density ring linked to the distant moon Phoebe. Source
- September 15, 2017Cassini ends its 13-year orbital mission with a planned plunge into Saturn's atmosphere. Source
Checked against the linked NASA, ESA and NOAA pages on October 10, 2026.
How to use this page
Choose your place and a night at the top: tonight by default, or one of the dates under it. The tiles show when Saturn rises, is highest and sets, and the numbers that matter for that night. Below them you find where it is right now, the sky in 3D with Saturn marked, finder charts, the year ahead and the facts.
What the numbers mean
- Rises and sets
- When the top edge of the disc meets a flat horizon, with the bending of light by the air included, as in almanacs. A time on another day carries its date.
- Highest
- When it crosses the meridian, due south or due north, and its height above the horizon then.
- Direction and height
- The compass point and azimuth to face, counted from north through east, and the angle above the horizon. A fist at arm’s length covers about 10°.
- Distance and apparent size
- How far away it is from Earth’s centre at that moment and how wide it looks in the sky, in arcminutes (′) or arcseconds (″).
- Magnitude
- Brightness: the smaller the number, the brighter. About 6 is the faintest the eye sees under a dark sky.
How accurate it is
Positions and times come from Astronomy Engine. In our tests positions agree with NASA JPL’s Horizons to within one arcminute, and rise and set times of the Sun and the Moon to within two minutes. Times assume a flat horizon at your place, so hills and buildings change when you actually see it rise or set. Methodology
Frequently asked questions
Why do the times change from night to night?
Earth turns once a day, and the body moves along its own path at the same time, so it rises and sets at a slightly different time each day. The Moon moves fastest and rises about 50 minutes later each day.
Why does a time show another date?
The page follows the night that starts on the evening of the chosen date. A rise, highest point or set after midnight belongs to the next date, so it carries that date.
Do the times include hills and buildings?
No. They are for a flat horizon. Hills, trees and buildings make a body rise later and set earlier than the page shows.
How do I find it in the sky?
Use the direction and height at its best time, then the finder charts further down to place it among the stars. The 3D sky shows it from your place at any time of the night.
Related guides
- How to find planets in the night skyFive planets are easy to see with the naked eye. Here is where to look, when, and how to recognise them.
- Opposition, conjunction and elongation explainedThree words from the planet calendar, and what they mean for when you can see each planet.
- Magnitude: how star brightness is measuredLower numbers mean brighter, and five magnitudes are a factor of 100 in brightness.
- Altitude and azimuth: finding things in the skyTwo angles tell you exactly where to look: which direction, and how high.
- Binoculars for stargazing: what to buy and what to look atA pair of 7x50 or 10x50 binoculars shows the craters of the Moon, the moons of Jupiter, dozens of star clusters and the Andromeda Galaxy, for a fraction of the cost of a telescope.

