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Did NASA’s SLS punch a hole in the atmosphere? What the Artemis II study measured

Original GNSS research distinguishes launch waves from stronger orbital-burn disturbances; it does not document a navigation accident.

Published Nov 5, 2026 · 5 min read

NASA Artemis II launch image

NASA Scientific Visualization Studio launch-video frame, April1, 2026. Credit: NASA. SLS on the launch pad; this image does not show the later measured ionospheric disturbance. NASA media-use guidance permits informational reporting with credit; no endorsement implied.

Short answer

The SLS “hole in the atmosphere” story concerns measurements of the electrically charged upper atmosphere during Artemis II, not an opening through which Earth’s air escaped. The original study identifies disturbances during launch and two later orbital maneuvers. The striking result is that where an engine released energy mattered as well as how powerful the engine was. That is a useful space-weather finding, without turning it into proof of a navigation accident.

What is the SLS upper-atmosphere story?

The research manuscript by Jong-Min Choi and colleagues examines variations in total electron content, abbreviated TEC. Researchers used signals from navigation-satellite systems received at ground stations to study the ionosphere. Measuring a variation in that signal path is different from demonstrating that an operational navigation service failed for users.

NASA’s launch material dates the Artemis II launch to April1, 2026. The observations discussed here therefore concern an earlier mission, even though the study is attracting attention now. A fresh headline about the analysis should not be mistaken for a new rocket launch on November5.

Why is it trending now?

Coverage has renewed interest in a research account that was already discussed by Spaceweather on October27. The manuscript’s plain-language summary distinguishes the initial launch from an apogee-raising maneuver roughly two hours later and a trans-lunar injection more than a day after liftoff. That sequence gives readers something more informative than a dramatic description of one enormous launch event.

The authors used ground-based navigation-satellite observations and reconstructed parts of the early trajectory where complete official state-vector coverage was unavailable. That is a stated method and limitation, rather than a direct photograph of an atmospheric hole. The manuscript also distinguishes the wave-like disturbances being analyzed from depletions it says will be examined separately.

Original study figure mapping ARM and TLI ionospheric disturbances

Figure3 excerpt from Choi and colleagues’ research manuscript, available by October27, 2026. Credit: Choi et al. Maps and derived measurements, not an image of a physical opening or an observed GPS accident.

The larger point is about energy coupling. The launch’s powerful engines released much of their energy at lower altitudes; later, less powerful burns deposited energy directly at ionospheric heights. The study compares the resulting perturbations and argues that the altitude and duration of the energy release help explain the difference. It does not imply that lower liftoff thrust automatically means a weaker effect everywhere.

What people are looking for

The word “hole” needs care. The scientific subject is plasma density and its changing structure. The figures show derived measurements and modeled trajectories, not a physical tear in a solid surface. Readers should not connect this wording to the ozone hole, a permanent atmospheric breach or a newly photographed gap in the sky.

The GPS question also has two levels. Navigation signals are useful scientific probes precisely because the medium along their path affects them. But a measured disturbance does not tell us, by itself, how a particular receiver, correction service or application performed. A claim about a vehicle changing lanes would require evidence about that operational system, not simply a conversion from electron-content variation to a hypothetical position error.

The manuscript does not document a specific crash, widespread GPS outage or failure of a named consumer device. It calls for monitoring and modeling to assess implications for navigation and radio applications. That is a reason to investigate future effects, not a reason to report hypothetical consequences as events that already occurred.

For readers following rockets, this is also a reminder to distinguish stages and maneuvers. A launch vehicle’s departure, an upper-stage burn and a spacecraft maneuver can occur at different times and locations. Combining all of them under one rocket headline hides the comparison that makes this study interesting.

What happens next?

A final journal version, corrected trajectory data or a dedicated assessment of operational navigation effects would be meaningful updates. We will check those rather than infer continuing disruption months after the observations. The article’s explanation should develop with the research, while retaining the original event date and the difference between measured plasma changes and demonstrated consequences for users.

Snapshot note: the captured US Trending now record at 2026-11-05T09:00:02.501617+00:00 lists a 10000+ traffic bucket and 1000% growth versus a predicted baseline over a 24-hour collection window. These are bucketed estimates, not exact searches, unique people or a live counter. Started trending (2026-11-05T03:30:00+00:00) is not the event date. Explore’s normalized 0–100 index is separate. Collector values have not been independently verified.

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