September 2026 Satellite Puzzler

The image features a mixture of browns, greens, oranges, and yellows in both rectilinear and organic, curved shapes. A curving gray line runs diagonally through it.

Every month, NASA Earth Observatory features a puzzling satellite image. The September 2026 puzzler appears above. 

Your Challenge
I
dentify the location shown in this satellite image. Share what clues you see, where you think it is, and what makes this place interesting or unique to you.

How to Answer
Submit your response using this form and select “Puzzler Answer” as the topic. Please include your preferred name or alias.

You can keep it simple and just guess the location. Want to impress us? Tell us which satellite and instrument captured the image, which spectral bands were used, or point out a subtle detail about the geology or history of the area. If something catches your eye, or if this is your home or means something to you, we’d love to hear about it.

The Prize
We can’t offer prize money or a trip to space to see Earth like satellites and astronauts do. But we can offer something almost as rewarding: puzzler bragging rights.

About a week after the challenge, we’ll post the answer at the top of this page, along with a link to an Earth Observatory Image of the Day story that explains the image in more detail. We’ll recognize the first person who correctly guesses the location, and we may also highlight readers who share especially thoughtful or interesting answers. By submitting a response, you acknowledge that your comments may be edited, excerpted, and published on this page.

Until then, zoom in, look closely, and enjoy the challenge. See you at the reveal!

Source: science.nasa.gov

NASA Hosts Virtual Artemis Webinar for Blind, Low-Vision Community

Two technicians at NASA’s Michoud Assembly Facility in New Orleans stand around one of the four RS-25 engines for the agency’s SLS (Space Launch System) rocket on Sept. 8, 2023. The RS-25 engine looks like a bell-shaped nozzle attached to a network of pipes. The engine is being lifted by the horizontal engine installer so it appears to be lying on its side. The RS-25 engine is about the size of a large pickup truck. The technicians are wearing hard hats and safety harnesses.
Two technicians at NASA’s Michoud Assembly Facility in New Orleans stand around one of the four RS-25 engines for the agency’s SLS (Space Launch System) rocket on Sept. 8, 2023. The RS-25 engine looks like a bell-shaped nozzle attached to a network of pipes. The engine is being lifted by the horizontal engine installer so it appears to be lying on its side. The RS-25 engine is about the size of a large pickup truck. The technicians are wearing hard hats and safety harnesses.
Credit: NASA/Michael Democker

NASA will host a virtual webinar at 2 p.m. EDT on Friday, Oct. 2, titled “The RS-25 Engine and the Future of Artemis Missions: An Accessible Webinar for the Blind and Low-Vision Community.” This webinar is open to the public, however it is tailored specifically for a blind and low-vision audience.

The webinar will last about two hours and include an audio-described video of an RS-25 engine test, a Q&A session with an Artemis engineer, and a panel about accessibility in space and science. The event will be hosted on the Zoom platform. 

Participants in the session include:

  • Dr. Kimberly Arcand, visualization scientist, NASA’s Chandra X-ray Observatory
  • Josh Greiner, test director, NASA’s Stennis Space Center in Bay St. Louis, Mississippi
  • Dr. Craig Moore, materials engineer, NASA’s Marshall Space Flight Center in Huntsville, Alabama
  • Dr. Robert Shelton, lead simulation engineer, NASA’s Johnson Space Center in Houston
  • Christine Malec, freelance writer and consultant

Those interested in attending the webinar must RSVP using this form by Friday, Sept. 25. Any questions can be directed to [email protected]. The details of the webinar will be emailed to registrants in the days leading up to the event.

NASA’s Artemis program will send astronauts on increasingly difficult missions to explore the Moon and establish a Moon Base on the lunar surface. For additional information on the Artemis missions, visit:

https://www.nasa.gov/artemis

Details

Last Updated

Sep 04, 2026

Related Terms

Source: www.nasa.gov

The Forested Floodplains of Congaree National Park

A brown, meandering river cuts through a band of dark green forest in Congaree National Park. Labels point out an oxbow lake and meander in the river. Former river channels called paleochannels appear lighter green than other forested areas.
The OLI on Landsat 9 captured this image of the Congaree River winding through floodplain forests in Congaree National Park on August 18, 2025.
NASA Earth Observatory/Michala Garrison

Among the 63 U.S. national parks, few are as defined by a single river’s floodplain as Congaree National Park in South Carolina. While the features are also prominent in other parks, a full 80 percent of Congaree National Park lies within the Congaree River floodplain.

It’s a place home to one of the largest intact tracts of old-growth bottomland hardwood forests in the United States. In this image captured by the OLI (Operational Land Imager) on Landsat 9, the river winds through the forested plain, along with curving bands of green that trace old channels, ridges, and swales left behind as the river gradually migrated across it. Slight differences in elevation in these paleochannels and other landforms affect how frequently they flood, producing distinct ecosystems that appear in contrasting shades of green.

The river flows through flat, soft terrain, which encourages the formation of bends and meanders. Water typically flows faster on the outside of bends, leading to more rapid erosion as the channel carves into the outer riverbank. It moves more slowly on the inside of bends, resulting in the deposition of sediment and the growth of sandy features called point bars. Over time, this process can cut off a bend from the main river channel, forming U-shaped oxbow lakes.

The National Park Service lists Weston Lake, 1.2 miles (1.9 kilometers) from the visitor center, as one of the park’s most permanent oxbow lakes, noting that it is relatively deep and lacks the shallow clay and silt layer found in most of the park’s other oxbow lakes, such as Devil’s Elbow. On the right side of the image is Bates Old River, a roughly 4-mile-long abandoned channel of the Congaree River and one of the longest oxbow lakes in South Carolina. Over time, abandoned channels and oxbow lakes can fill with sediment and become shallow wetlands. Some of these low-lying, water-filled features are known as sloughs, where flood-tolerant cypress-tupelo forests tend to grow.

While loggers targeted forests along the Congaree in the 1880s, challenges such as frequent flooding, interminably muddy roads, and mosquito-plagued conditions meant that most of the floodplain forests escaped the widespread logging that transformed other parts of the Southeast. By the 1950s, conservationists had begun to recognize how rare old-growth forests of this type had become in the region. Congress designated the area a national monument in 1976, and it became a national park in 2003.

As the river snakes its way through the park’s mostly flat terrain, it overflows its banks several times per year, usually in the winter and early spring but also in the summer and fall after hurricanes and major rainstorms. These floods distribute broad layers of nutrient-rich silt throughout the floodplain, nourishing the forests and contributing to the high concentration of unusually large trees in the park.

Over the decades, Congaree National Park has harbored a remarkable array of giant “champion” trees that have held national and state size records for their species. Though individual trees have gained and lost champion status as they have been damaged, have died, or been surpassed by newly measured trees elsewhere, Congaree trees such as the possumhaw (Ilex decidua), water hickory (Carya aquatica), loblolly pine (Pinus taeda), laurel oak (Quercus laurifolia), swamp tupelo (Nyssa biflora), and sweetgum (Liquidambar styraciflua) have held records at times.

During this National Park Week, celebrate by exploring Earth Observatory’s U.S. National Parks from Space collection. You can also check out the offerings of Earth to Sky, a collaborative program that connects NASA science with park service rangers across the nation.   

NASA Earth Observatory image by Michala Garrison, using Landsat data from the U.S. Geological Survey. Story by Adam Voiland.

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Lunar Occultation of Venus

Venus is seen as it disappears behind the Moon at the start of the occultation on June 17, 2026, from the Mary W. Jackson NASA Headquarters building in Washington
NASA/Joel Kowsky

On Wednesday, June 17, skywatchers across the United States—and parts of Canada—enjoyed a rare event: a daytime lunar occultation of Venus. A lunar occultation occurs when the Moon moves directly in front of another celestial object from our viewpoint on Earth, briefly hiding it from sight.

This time, the Moon slipped in front of Venus for the first of three occultations happening this year, creating a striking daylight moment for those who caught it. If you missed it, there will be two more opportunities to see Venus disappear behind the Moon in 2026: Sept. 14, visible from parts of Asia, Africa, Europe, and western Russia; and Nov. 7, visible from southern South America.

Source: www.nasa.gov

APOD: 2026 September 4 – Na Uhane Mahoe Huki Pu i ke Ola

APOD

Astronomy Picture of the Day

Discover the cosmos! Each day a different image or photograph of our fascinating universe is featured, along with a brief explanation written by a professional astronomer.

Two spiral galaxies colliding.

Nā ʻUhane Māhoe Huki Pū i ke Ola

Explanation: Nā ʻUhane Māhoe Huki Pū i ke Ola, is the Hawaiian name given to this image of a pair of spiral galaxies locked in a mutual gravitational embrace. Some 200 million light-years distant toward the high flying constellation Pegasus their spectacular, galactic scale merger is captured in sharp detail in the image from the 8.1 meter Gemini North telescope on Maunakea, Hawai‘i. The galaxy pair, known as NGC 7253 and Arp 278, was chosen as a target, researched, and given an Hawaiian name by high school students in the joint Gemini Observatory and University of Hawaiʻi Project Hōkūlani internship program. The name translates to “The Twin Spirits Pulling Together Creating Life”. That’s both culturally and astronomically appropriate for galaxy collisions that trigger a cosmic maelstrom of star formation from galactic reservoirs of elemental building blocks of life. These merging galaxies are found within a region of Pegasus identified as the Hawaiian navigational constellation Ka Lupe o Kawelo.

APOD’s main NASA site is moving: From apod.nasa.gov to science.nasa.gov/apod
Tomorrow’s picture: chasing shadows

Date September 4, 2026
Credit: Image Credit: International Gemini Observatory / NOIRLab/NSF/AURA
Image Processing: J. Miller & M. Rodriguez (International Gemini Observatory/NSF NOIRLab),
T.A. Rector (University of Alaska Anchorage/NSF NOIRLab), D. de Martin & M. Zamani (NSF NOIRLab)
Authors & editors: Jerry Bonnell, Cecilia Chirenti, Robert Nemiroff, Keighley Rockcliffe
A service of: ASD at NASA / GSFC,
NASA Science Activation & Michigan Tech. U.

Source: science.nasa.gov

Rare, Widespread Snow in the Atacama Desert



August 6, 2026
August 14, 2026

A plateau in the Chilean Andes is surrounded by stratovolcanoes and lava domes. The dry, mostly brown landscape has a lighter brown patch near the center, marking the radio telescope array.
A plateau in the Chilean Andes is surrounded by stratovolcanoes and lava domes. The dry, mostly brown landscape has a lighter brown patch near the center, marking the radio telescope array.
NASA Earth Observatory / Lauren Dauphin

The same plateau is now blanketed in white snow. The location of the radio telescope array is nearly indistinguishable from the surrounding terrain.
The same plateau is now blanketed in white snow. The location of the radio telescope array is nearly indistinguishable from the surrounding terrain.
NASA Earth Observatory / Lauren Dauphin

A plateau in the Chilean Andes is surrounded by stratovolcanoes and lava domes. The dry, mostly brown landscape has a lighter brown patch near the center, marking the radio telescope array.
A plateau in the Chilean Andes is surrounded by stratovolcanoes and lava domes. The dry, mostly brown landscape has a lighter brown patch near the center, marking the radio telescope array.
NASA Earth Observatory / Lauren Dauphin

The same plateau is now blanketed in white snow. The location of the radio telescope array is nearly indistinguishable from the surrounding terrain.
The same plateau is now blanketed in white snow. The location of the radio telescope array is nearly indistinguishable from the surrounding terrain.
NASA Earth Observatory / Lauren Dauphin


August 6, 2026

August 14, 2026


Part of northern Chile transforms from bare to snow-covered in these images captured before and after winter storms in August 2026 by the NASA-USGS Landsat 8 and Landsat 9 satellites. NASA Earth Observatory images by Lauren Dauphin.

In August 2026, back-to-back winter storms left parts of the Atacama Desert in northern Chile covered in a rare blanket of snow. The typically arid region has seen snowfall before, notably in 2025 and before that in 2011. But one of the 2026 events was unusually widespread, stretching from the Andes to near the Pacific coast.

The OLI (Operational Land Imager) on the NASA-USGS Landsat 8 and Landsat 9 satellites captured these images (above) on August 6 and August 14, before and after a period of severe weather, respectively. They show a detailed view of the Chajnantor plateau within the Altiplano-Puna volcanic complex, home to the Atacama Large Millimeter/submillimeter Array (ALMA)—one of the planet’s most powerful radio telescopes. As snow and high winds set in, ALMA suspended operations, moving its antennas into a protective survival mode.

A wide view of northern Chile, Argentina, and southern Bolivia and Peru shows snow cover after a storm, stretching from the Andes into the core of the Atacama Desert. In one spot, a patch of snow reaches nearly to Chile's Pacific coast.
A blanket of snow spans a vast area of northern Chile, from the Andes to near the Pacific coast, captured in this image on August 19, 2026, by the MODIS (Moderate Resolution Imaging Spectroradiometer) on NASA’s Terra satellite.
NASA Earth Observatory/Lauren Dauphin

Another storm in the second half of the month blanketed an even wider area with fresh snowfall. This image, captured by the MODIS (Moderate Resolution Imaging Spectroradiometer) on NASA’s Terra satellite on August 19, shows snow extending westward from the Andes, across the desert’s hyper-arid core, and close to the Pacific coast south of the Chilean port city of Antofagasta. This coastal area is home to several other major astronomical observatories, some of which also suspended operations during the event.

Most of the region’s winter precipitation comes from cutoff lows—low-pressure systems that become cut off from the jet stream and can occasionally reach northern Chile. That’s what happened in 2025, said René Garreaud, an atmospheric scientist at the University of Chile. The late-August 2026 storm also came from a cutoff low, but this one spun off from an unusually large trough—an elongated area of relatively low atmospheric pressure—that spanned an enormous stretch of the hemisphere, from the tip of South America up into the subtropics.

The atmospheric disruption, combined with ample coastal moisture, produced precipitation that spanned an unusually wide swath of the region—offshore, along the coast, across the core of the Atacama, and over the Andes. Totals reached a magnitude “rarely seen in the otherwise extremely arid region,” Garreaud said.

In some areas it fell as rain, not snow. Taltal, for instance, on Chile’s northern coast, accumulated nearly 40 millimeters (1.6 inches) of rain in three days—about 10 times its annual mean, Garreaud said. “We see these kinds of events only a few times, if any, per decade.”

The abundant precipitation spurred destructive mudflows and flash flooding in parts of northern Chile. The National Disaster Prevention and Response Service (SENAPRED) reported thousands were affected and hundreds of homes had major damage. 

Garreaud noted that the strengthening El Niño is the backdrop for the anomalously wet winter in north-central Chile. In addition to the August storms, a major event in July brought significant impacts to the country’s Norte Chico region. During El Niño, the subtropical Pacific high—which normally keeps the region dry—weakens, while a blocking high tends to form in the South Pacific near the tip of the continent. Together, these shifts push the Southern Hemisphere storm track equatorward.

NASA Earth Observatory images by Lauren Dauphin, using Landsat data from the U.S. Geological Survey and MODIS data from NASA EOSDIS LANCE and GIBS/Worldview. Story by Kathryn Hansen.

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Building Foresight for Earth Science, featuring Lindsey Jacobson

NASA’s Earth-observing satellite missions track dozens of features of a changing planet — aerosols, sea levels, land cover, cloud cover — over years and decades. Sustaining that record for the scientific and operational communities who depend on it requires more than engineering talent. It requires planning for an uncertain future: anticipating where a mission delay or on-orbit event might create a gap in the data those communities rely on.

Lindsey Jacobson’s work helps NASA anticipate those disruptions before they happen and gives senior leaders options for managing them.
A Pathways intern in engineering, Jacobson supports NASA’s Earth Science Division through the NASA Earth Science Strategic Integration Environment (NESSIE) team within the Systems Analysis and Concepts Directorate (SACD) at NASA’s Langley Research Center in Hampton, Virginia.

NASA’s Pathways program connects undergraduate and graduate students with NASA centers through internships that, with satisfactory performance, can lead to full-time civil service positions. Jacobson has returned to NASA Langley every summer since 2022, splitting her time between the center and finishing her mechanical engineering dissertation at North Carolina State University.

Lindsey Jacobson, NASA Pathways intern, at NASA Langley Research Center
Lindsey Jacobson, Pathways Intern
Credit: NASA


“The way we do Earth science is changing.“


The Problem Space

Jacobson and the NESSIE team support the Earth science satellite portfolio — dozens of missions, each measuring specific features of the planet, from clouds to sea surface temperature to land use. The goal is providing end user communities with the data products they depend on. The challenge is the unknown.

Full-disk image of Earth captured by NOAA's GOES-8 satellite, which operated from 1994 to 2004
This image depicts a full view of the Earth, taken by the Geostationary Operational Environment Satellite (GOES-8), a satellite that was in service from 1994-2004. It was owned and operated by the National Oceanic and Atmospheric Administration (NOAA) and provided the kind of continuous monitoring necessary for intensive data analysis.
Credit: NASA

“There’s uncertainty about mission lifetimes and what could happen on orbit, and about schedules,” Jacobson explains. The team’s work gives NASA’s senior leadership a way to navigate that uncertainty: understanding where a gap in coverage might emerge and identifying options to mitigate or hedge against it. By providing alternative pathways for meeting end-user needs, this work supports senior leaders in managing a complex, interdependent portfolio.

Writing the Code

Within that effort, Jacobson’s focus is building analysis tools that give the team what she calls a “foresight ability.”

“It’s the ability to anticipate different things that might happen — changes that might occur across the portfolio of Earth-observing missions — and to have strategies in mind for how to respond, so we can keep delivering data to end users,” she says.

Not every change is bad news. Missions sometimes operate well beyond their planned lifespan, creating room to extend their value. But whether an adjustment is welcome or not, the principle is the same: know the options before anything happens.

Jacobson compares it to preparing for hurricane season. “You get the storm shutters, you buy the sandbags, and you have them pre-positioned,” she says. “Then when the warning comes, you’re not scrambling, and you’re not at risk of the store selling out. You already have what you need in place.” NESSIE’s work follows the same logic for the Earth-observing portfolio by understanding ahead of time what a disruption might mean and having a set of responses ready before anything happens.

“We proactively suggest the strategies and alternatives that could be enacted if there’s a change,” Jacobson says. “We do that ahead of time, so people understand what options might exist.”

Her approach carries echoes of her graduate research, which examines how complex systems — infrastructure that can’t simply be torn down and rebuilt, like the electric grid — must evolve deliberately instead. “We designed a grid, and now we live with that grid forever,” she says. “We can’t tear it down and build a new one. What we can do is modify, expand, and improve upon what we have.” It’s the same instinct for working with what exists, rather than starting from scratch, that shapes how she approaches her work at NASA.

Keeping Pace

Engineers arriving at NASA for the first time might expect the hardest part of the job to be technical. Jacobson found something else: the landscape itself is what demands the most adaptability.

“The way we do Earth science is changing,” she says. Commercial companies are increasingly contributing data alongside government agencies. New space agencies are entering the field. Innovative technologies and architectures are emerging all the time. Keeping pace with that shift — understanding how NASA’s own capabilities are evolving and how to best serve the communities that depend on the data — is as much a part of the job as any calculation.

Lindsey Jacobson presents NESSIE's work on managing Earth-observing mission portfolios at the 2025 IEEE Aerospace Conference
Jacobson presenting NESSIE’s work on managing portfolios of Earth-observing missions to meet science needs despite uncertainties in mission scheduling and lifetimes, Institute of Electrical and Electronics Engineers (IEEE) Aerospace Conference, 2025.
Credit: NASA

Some of that adaptability shows up in smaller ways too, like the growing role of AI tools in her team’s own workflow. “Langley has done a lot of firsts,” Jacobson says, echoing something she heard recently from Trina Dyal, NASA Langley’s director, at an intern event. “And we want to continue to be the first. That means learning new things and figuring out how to bring them into how we work.”

On Jacobson’s Sci-Fi Shelf

The Sirens of Titan by Kurt Vonnegut

Jacobson received this novel in high school, let it sit on her shelf for years, and finally picked it up during the pandemic.

“It was very special. It touches a lot on the meaning of life, and that connects to some of the reasons I was motivated by space in the first place. The idea that space exploration can bring humanity together. That cosmic perspective.”



Part of the Systems Analysis and Concepts Directorate at NASA’s Langley Research Center.
Learn more about our work by visiting our website.

Source: www.nasa.gov

A Trio of Tropical Cyclones in the Pacific

In a full-disk satellite view of Earth, three tropical cyclones—named Lowell, Karina, and Marie—swirl above the blue waters of the Pacific Ocean and to the west of Central America.

When hurricane forecasters released their seasonal outlooks in spring 2026, the El Niño brewing in the Pacific contributed to predictions of below-normal activity in the Atlantic basin but above-normal activity in the northeastern and central Pacific basins. In early September, near the climatological peak of hurricane season, those spring outlooks were on target, with the eastern Pacific buzzing with activity and the Atlantic notably quiet.

As of September 3, the Northeast Pacific had produced 15 named storms and six hurricanes, well above the norm for that point in the season. The Atlantic basin, meanwhile, laboring under unfavorable wind shear conditions, had produced just five named storms and no hurricanes. El Niño typically enhances hurricane activity in the eastern and central Pacific basins because of the unusually warm water temperatures it brings to those parts of the ocean. It tends to suppress hurricane activity in the Atlantic basin by shifting large-scale circulation patterns in a way that makes it harder to sustain storms there.

At 1:14 p.m. Pacific Daylight Time (20:14 Universal Time) on September 1, NASA’s EPIC (Earth Polychromatic Imaging Camera) on the DSCOVR (Deep Space Climate Observatory) satellite captured an image of three tropical cyclones churning simultaneously in the Pacific, along with one in the Atlantic. A band of clouds and thunderstorms associated with the Intertropical Convergence Zone (ITCZ) is visible to the south of the storms. The spacecraft was nearly 1 million miles from Earth and just shy of 93 million miles from the Sun when the image was acquired.

The trio of storms in the Pacific were Lowell, Karina, and Marie. Of the three, Lowell became the strongest, with winds reaching category 5 strength for several hours on September 2. Around the same time, Karina, spinning a few thousand kilometers to the east, achieved category 4 strength, a rare case of category 4 and 5 hurricanes occurring simultaneously in the area. Marie, spinning southwest of Baja California, was still a tropical storm when the image was acquired but was strengthening as it moved northwest.

In the Atlantic, Tropical Storm Edouard was visible to EPIC over Louisiana and Texas, shortly after the short-lived storm made landfall. It brought torrential rains and strong winds that downed trees and power lines. Some areas received 15 to 24 inches (38 to 61 centimeters) of rain, according to National Weather Service meteorologists.

As of September 3, the Atlantic basin’s total accumulated cyclone energy (ACE) index was 4.4, about 9 percent of normal for that date, according to statistics compiled by Colorado State University meteorologists. Meanwhile, the Northeast Pacific basin’s ACE was 130, about 50 percent above normal. The ACE index incorporates both the intensity and longevity of storms, making it easier to compare individual storms and seasons.

Several NASA Earth-observing platforms provide data that can aid in emergency preparedness before landfall and damage assessment and response afterward. Use the “Events” tab on NASA’s Worldview browser to track current hurricanes and explore related NASA data products.

NASA Earth Observatory image by Lauren Dauphin, using data from DSCOVR EPIC. Story by Adam Voiland.

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