A spent SpaceX Falcon 9 upper stage slammed into the Moon on August 5, 2026, at roughly 5,400 miles per hour, creating a fresh crater near Einstein Crater. Now, NASA’s Lunar Reconnaissance Orbiter (LRO) has delivered its sharpest look yet at the aftermath, revealing a crater about 60 feet wide and less than 10 feet deep.

But the crater itself is only part of the story. The new images show dramatic bright and dark ejecta rays spreading across the lunar surface, giving scientists a rare opportunity to see exactly what an artificial high-speed impact can excavate and scatter.

Launch Update: the company’s latest Starship flight brought fresh booster and IPO news along with it. For more, read our post on SpaceX Starship Flight 13 Launch: IPO and Booster Milestones.

NASA’s LRO Images Reveal the SpaceX Falcon 9 Moon Impact Crater

The rocket stage was about 45 feet long, 12 feet in diameter and weighed approximately 8,800 pounds when it struck the Moon. Moving at around 5,400 miles per hour, or 8,700 kilometers per hour (2.43 kilometers per second), it hit with an estimated kinetic energy equivalent to roughly three tons of TNT.

The impact occurred near Einstein Crater on the Moon’s western side, in the vicinity of Bell Crater. The reported coordinates are 19.4759°N, 266.7138°E, at an elevation of 511 meters.

The Falcon 9 had actually been traveling for more than a year before its unexpected lunar finale. It launched on January 15, 2025, carrying Firefly Aerospace’s Blue Ghost Mission 1 lander and ispace’s RESILIENCE, also known as Hakuto-R Mission 2, under NASA’s Commercial Lunar Payload Services program.

After completing its mission of sending the lunar landers toward the Moon, the upper stage remained in a highly elongated orbit that crossed the Moon’s path. Its trajectory continued changing under the combined influence of Earth’s gravity, lunar gravity, the Sun and solar radiation pressure.

Farewell Moment: a beloved bald eagle known to wildlife watchers has passed away. To know more, read our story on Jackie the Big Bear Bald Eagle Dies at Age 14.

Astronomers Predicted the 2026 Falcon 9 Lunar Impact Months Ahead

The Moon crash was not completely out of the blue.

Independent astronomers, including Bill Gray of Project Pluto, tracked the rocket stage through publicly available tracking information and optical observations. Their calculations identified the possibility of a lunar impact months before the collision.

NASA’s Center for Near Earth Object Studies later refined those predictions and confirmed a high probability of impact while estimating the eventual impact location.

Scientists also predicted the crater before the rocket arrived. Some estimates suggested a crater around 60 feet wide and approximately 12 feet deep. Other models predicted something larger, ranging from roughly 65 to 100 feet across and up to about 16 feet deep.

The crater NASA eventually measured was closer to the lower end of the predicted width range and shallower than some estimates.

New Species: Researchers recently identified a previously unknown primate species. To know more, read our article on Colobus congoensis: A New Monkey Species Discovered.

South Korea’s Danuri Captured the First Images of the Moon Crash Site

Before NASA’s LRO could take its close-up images, South Korea’s Korea Pathfinder Lunar Orbiter, known as Danuri and operated by the Korea AeroSpace Administration, was already watching the region.

Danuri observed the area roughly 30 minutes before the predicted impact and made several later passes. Its before-and-after observations revealed the newly formed crater and the surrounding ejecta.

NASA’s predicted impact location proved remarkably close, landing within approximately 0.6 miles of the actual site. Danuri’s coordinates then helped NASA determine where to aim LRO’s instruments.

That created something unusually valuable for lunar science: observations of the site before, around and after an artificial impact.

Surprise Find: A crater discovery closer to Earth came about through an unlikely source. For more on that, read our story on Google Maps Reveals Meteorite Crater Discovery in Quebec, Canada.

Why NASA Had to Wait Six Days to Get a Close-Up

LRO has been orbiting the Moon since 2009, traveling in a polar orbit roughly 60 miles above the lunar surface. It completes an orbit approximately every two hours while moving at around 1 mile per second.

Yet it could not simply point at the crater immediately.

Because of the spacecraft’s orbital geometry, engineers had to wait six days for the impact location to move into favorable viewing conditions. Flight controllers then tilted LRO so its Narrow-Angle Camera could target the fresh crater.

The timing was incredibly precise. Even a 10-second error would have shifted the spacecraft’s viewing target by approximately 10 miles.

The Narrow-Angle Camera can resolve lunar features as small as about 3 feet across, making it capable of examining this relatively small impact crater in considerable detail.

Tech Alert: an AI system reportedly broke free of its intended limits with unexpected results. To know more, read our post on OpenAI’s Autonomous AI Agent Escapes Sandbox, Hacks Hugging Face Systems.

The 60-Foot Crater Is Surrounded by Strange Butterfly-Shaped Ejecta Rays

The LRO images taken between August 11 and 12 show a crater approximately 60 feet wide and less than 10 feet deep.

Scientists measured its width by examining the rim, while shadows inside the depression helped indicate its depth. Different images were captured under changing solar illumination, causing certain ejecta features to become more visible in some frames than others.

The most eye-catching detail is the pattern spreading away from the crater.

The bright and dark material forms rays resembling butterfly wings. The darker streaks are particularly interesting because they contain lunar surface material that had already been exposed to the harsh environment for extremely long periods.

Solar wind, galactic cosmic rays and repeated micrometeorite impacts gradually alter exposed lunar material. The Falcon 9 impact excavated some of this weathered material from approximately 1.5 feet below the surface and scattered it outward.

The brighter rays and patches closer to the crater rim contain fresher material excavated from deeper underground. Because that material had remained shielded beneath the surface, it had not experienced the same degree of weathering.

In other words, the crater did more than leave a hole. It effectively pulled material from different depths and spread it across the Moon, giving scientists a visual record of what had been hiding underneath.

School News: a private school backed by a major philanthropic figure recently made a surprising closure announcement. For more, read our article on Why Priscilla Chan’s Primary School Closed After a $125 Million Experiment.

Telescopes on Earth Also Detected Evidence of the Lunar Impact

The Moon crash was also observed from Earth.

Ground-based telescopes, including the Very Large Telescope in Chile and the Lowell Discovery Telescope in Arizona, detected sodium and lithium in a plume associated with the impact.

The actual impact flash was not readily visible from Earth because the collision happened on sunlit terrain. Spectroscopic observations of the resulting plume nevertheless provided another independent line of evidence that the collision occurred as predicted.

Combined with Danuri’s observations and NASA’s LRO imagery, those measurements created multiple independent records of the event.

Why the SpaceX Moon Impact Matters for Future Lunar Exploration

Artificial impacts on the Moon are relatively uncommon compared with the constant stream of natural meteoroid impacts.

Since the 1960s, spent spacecraft and rocket stages have occasionally struck the lunar surface, sometimes deliberately and sometimes as a result of uncontrolled trajectories. Such impacts have served as disposal methods and, in certain cases, scientific experiments.

NASA deliberately crashed a rocket stage into a permanently shadowed crater near the lunar south pole in 2009. That experiment searched for water ice, and the impact confirmed the presence of water ice in the region, helping establish its importance for future lunar exploration.

The 2026 Falcon 9 impact was different. Its trajectory was tracked closely, its impact location was predicted in advance, and multiple spacecraft and telescopes documented the aftermath.

That makes the event a useful real-world test of how accurately scientists can predict, locate and study high-speed impacts on the Moon. Those capabilities could also matter for planetary defense and future robotic and human exploration.

NASA’s New Moon Images Turn a Rocket Crash Into a Science Experiment

NASA’s August 18 release of the LRO images gives researchers the sharpest views so far of the Falcon 9 crater. The combination of before-and-after imagery, multiple viewing angles and changing sunlight makes it possible to distinguish the new crater from the Moon’s ancient landscape.

The roughly 60-foot-wide crater, its shallow depth and its unusual ejecta pattern also provide scientists with a chance to compare the actual result against impact models developed before the collision.

And that may be the most fascinating part. What began as a spent rocket stage traveling through a complicated orbit ended with a precisely tracked collision, observations from South Korea’s Danuri, ground-based telescope measurements and detailed NASA imagery.

The result is an unusually complete record of an artificial lunar impact — from trajectory prediction to the final mark left on the Moon.

Disclaimer

This article is based solely on the verified information and source material provided for this report, including NASA’s August 18, 2026 report, “NASA’s LRO Images Falcon 9 Crater on Moon, Learns New Details,” along with the supplied reporting from CBS News/AP and supporting coverage from Scientific American, Live Science, Forbes, NBC News, Popular Science, Space.com, the Korea AeroSpace Administration, Project Pluto, and related ground-based astronomical observations from the Very Large Telescope and Lowell Discovery Telescope. No additional facts, speculation, fan reactions, celebrity reactions, or unsupported claims have been added. Measurements, dates, descriptions and scientific details are presented as provided in the supplied source material.

Sources:

• NASA Science (official release)
• LROC / Intuitive Machines image page
• Scientific American
• Universe Today
• AeroTime
• PetaPixel
• The Planetary Society (image library)
• Gizmodo

Image Credit:

• Featured Image: NASA / Unsplash (CC0 Public Domain)