A Starlink pass can turn an ordinary evening into a live orbital event – but only if you know exactly when to step outside. Starlink pass times are location-specific predictions for when one or more Starlink satellites will cross your sky, and a difference of 10 miles can change the peak elevation, direction, and brightness you see.
| Pass detail | What it means | Useful benchmark |
|---|---|---|
| Typical orbit altitude | How high most operational satellites orbit above Earth | About 530-570 km |
| Orbital speed | Why a satellite can cross the sky quickly | About 27,000 km/h |
| Pass duration | Time from first likely appearance to disappearance | Usually 2-6 minutes |
| Best peak elevation | Maximum angle above your horizon | 40°-90° |
A pass forecast is not a generic schedule for an entire state or even a whole metro area. It is a calculated intersection of a satellite’s orbit, your coordinates, Earth’s rotation, and the Sun’s position. That is why the definitive move is to use a live tracker with your precise city or ZIP code, then check again close to viewing time.
What Starlink pass times actually show
A typical prediction gives you three moments: when the satellite rises above a chosen minimum altitude, when it reaches its highest point, and when it sets below that altitude. It should also show the direction of travel, usually with compass labels such as WNW, S, or ENE, plus the maximum elevation in degrees.
Elevation is the number that decides how hard the pass will be to catch. A 10° pass sits just one fist-width above the horizon when you hold your fist at arm’s length. It may be blocked by trees, homes, haze, or city glow. A pass peaking at 70° is dramatically better: it moves through a darker, clearer part of the sky and can be watched from a smaller open area.
The listed time is usually the beginning of the visible opportunity, not the moment to start looking for your phone. Be ready 2 minutes early. For a pass starting at 9:14 PM local time, be outside by 9:12 PM, facing the predicted rise direction, with the brightest part of the route in mind.
Starlink satellites complete an orbit in roughly 95 minutes, but that does not mean they pass over your location every 95 minutes. Earth rotates beneath the orbital path, and the satellites must also be illuminated by the Sun while your sky is dark enough. The useful visible passes therefore cluster around evening twilight and pre-dawn twilight, with major seasonal changes in frequency.
Why a pass can be visible, faint, or missing
The satellite does not produce its own visible light. You see reflected sunlight. The strongest setup is simple: you are in darkness or deep twilight, while the Starlink satellite hundreds of kilometers overhead is still sunlit.
Civil twilight ends when the Sun reaches 6° below the horizon. Nautical twilight ends at 12° below, and astronomical twilight ends at 18° below. Many Starlink sightings occur around civil and nautical twilight, when the observer’s sky is darkening but satellites remain illuminated. Once the Sun is far below the horizon, satellites often enter Earth’s shadow before they reach a useful part of your sky.
Brightness is less predictable than timing. A forecast may estimate a visual magnitude, where smaller or negative numbers are brighter. A magnitude 2 object can be obvious from many suburbs. Magnitude 4 can be visible to the unaided eye under darker skies but may disappear against urban light pollution. A magnitude 5 pass is a challenge from a bright city and may be better suited to binoculars only after you have located it with your eyes.
Satellite orientation matters too. Starlink spacecraft can change how efficiently they reflect sunlight toward you. Atmospheric haze near the horizon can soften or erase a predicted sighting, and thin clouds can hide a bright pass completely. Treat a prediction as an excellent observing window, not a promise of a visible point of light.
How to read a Starlink pass forecast
Start with local time and confirm the time zone. This is a surprisingly common source of missed passes. In 2026, daylight saving time began in most of the United States on March 8 and ends on November 1. If a tracker uses UTC, convert carefully: Eastern Daylight Time is UTC-4, while Eastern Standard Time is UTC-5.
Next, look at the rise and set directions. If the prediction says the satellite rises in the northwest, peaks at 55°, and sets in the southeast, do not stare straight up from the start. Face northwest and scan from about 15° above the horizon. Once you acquire the moving point, follow it across the sky.
Then check peak elevation and magnitude together. A magnitude 3.5 pass reaching 75° can be easier to see than a magnitude 2.5 pass that never rises higher than 12°. The high pass spends less time in the thickest, brightest layer of atmosphere and is less likely to vanish behind local obstacles.
Finally, notice whether the forecast is for one satellite or several. A single operational satellite normally looks like a steady moving star. A recently launched group can appear as a sequence, often called a Starlink train, when the satellites are still close together after deployment. The first 60 Starlink satellites launched on May 23, 2019, made those early trains famous, but tightly packed groups are not the normal long-term appearance of the constellation.
A fast pre-pass checklist
For any predicted pass, confirm four things before heading out: your exact location, the local start time, the rise direction, and the maximum elevation. Then give yourself an unobstructed view of at least 20° above the horizon in the direction where the pass begins.
Avoid relying on a compass app at the last second if it needs calibration. Pick a landmark earlier – a rooftop, a gap between trees, or a clear section of street. Keep your screen dimmed, because bright white light can reduce dark adaptation in seconds.
Choose the passes worth your time
Not every prediction deserves the same effort. For a first-time observer, prioritize evening passes that begin 20° or higher, peak above 40°, and have a predicted magnitude of 3 or brighter. They offer the best balance of visibility, comfortable timing, and a route that is easier to follow.
Morning passes can be excellent, especially in winter, but they require a darker sky and an earlier alarm. Low passes can still be fun when the route is clear, yet they are more sensitive to buildings, weather, and local terrain. If you live near hills or a dense urban skyline, raise your personal minimum elevation from 10° to 20° or even 30°.
A live Starlink tracker on SpaceInformer is most useful when treated like mission control: check the forecast, verify the sky, and launch your viewing session a few minutes early. The satellite will not wait, but the payoff is immediate – a human-made object racing silently overhead at orbital speed, visible from your own backyard.