NASA to Cover Progress 95 Spacecraft Launch, Docking

NASA to Cover Progress 95 Spacecraft Launch, Docking

The Progress 94 cargo spacecraft, loaded with nearly three tons of food, fuel, and supplies, nears the International Space Station ahead of its docking on March 24, 2026. Credit: NASA
The Progress 94 cargo spacecraft, loaded with nearly three tons of food, fuel, and supplies, nears the International Space Station ahead of its docking on March 24, 2026.
Credit: NASA

NASA will provide live coverage of the launch and docking of a Roscosmos cargo spacecraft carrying about three tons of food, fuel, and supplies for the crew aboard the International Space Station.

The unpiloted Progress 95 resupply spacecraft is scheduled to launch at 6:21 p.m. EDT on Saturday, April 25 (3:21 a.m. Baikonur time on Sunday, April 26), on a Soyuz rocket from the Baikonur Cosmodrome in Kazakhstan.

Watch NASA’s live coverage beginning at 6 p.m., on NASA+, Amazon Prime, and the agency’s YouTube channel. Learn how to watch NASA content through a variety of online platforms, including social media.

After a two-day trip to the space station, Progress will dock autonomously to the aft port of the Zvezda module at 8 p.m., Monday, April 27. NASA’s live rendezvous and docking coverage will begin at 7:15 p.m., on NASA+, Amazon Prime, and the agency’s YouTube channel.

The Progress 95 spacecraft will remain docked to the orbiting laboratory for about seven months before departing for a re-entry into Earth’s atmosphere to dispose of trash loaded by the crew. Prior to this spacecraft’s arrival, Progress 93 undocked from the space station on April 20, re-entered the Earth’s atmosphere and harmlessly burned up over the Pacific Ocean.

For more than 25 years, people have lived and worked continuously aboard the International Space Station, advancing scientific knowledge and making research breakthroughs that aren’t possible on Earth. The space station helps NASA understand and overcome the challenges of human spaceflight, expand commercial opportunities in low Earth orbit, and build on the foundation for long-duration missions to the Moon, as part of the Artemis program, and to Mars.

Learn more about the International Space Station, its research, and crew, at:

https://www.nasa.gov/station

-end-

Joshua Finch
Headquarters, Washington
202-358-1100
joshua.a.finch@nasa.gov

Sandra Jones
Johnson Space Center, Houston
281-483-5111
sandra.p.jones@nasa.gov

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Apr 21, 2026

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Jessica Taveau

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A School of Mud Volcano Islands in Azerbaijan

A School of Mud Volcano Islands in Azerbaijan

Satellite view of a tadpole-shaped brown land area encircled by blue-green water.
Long spits of muddy sediment are visible behind islands created by mud volcanoes in an image captured on August 30, 2025, by the OLI (Operational Land Imager) on Landsat 8.
NASA Earth Observatory/Lauren Dauphin

Today’s story is the answer to the April 2026 puzzler.  

With its abundance of naturally occurring gas seeps and fires, Azerbaijan has long been called “the land of fire.” Yet burning mountains are just one of the geologic wonders found in the small Eurasian country on the Caspian Sea.

Azerbaijan is also home to at least 220 mud volcanoes, according to data from the Azerbaijani government, though some researchers put the total number closer to 350. That is thought to be one of the highest concentrations of mud volcanoes on Earth.

Mud volcanoes—as well as gas seeps—are found within sedimentary basins where geologic conditions have allowed hydrocarbons to accumulate. Such basins typically have fluids and gases, such as oil and methane, trapped beneath sedimentary rocks and under high pressure. Instead of erupting molten lava, mud volcanoes typically eject cold slurries of mud, water, methane, and other gases. Oil and gas form from the remains of marine organisms, such as phytoplankton and algae, which settle on the ocean floor and are later transformed by pressure and heat.

Many of Azerbaijan’s mud volcanoes are clustered near the cities of Baku and Qobustan on the Absheron Peninsula, an area where structural folds and faults in the landscape have created cracks that allow methane-rich mud to move up toward the surface. On land, mud volcanoes typically form conical structures anywhere from 20 to 400 meters (70 to 1,300 feet) tall and 100 to 4,500 meters in diameter.

There are also at least 140 underwater mud volcanoes in the South Caspian Sea along Azerbaijan’s coast, including eight islands in the Baku archipelago. The satellite image above shows one of them, the tadpole-shaped Xərə Zirə Adası (also known in Russian as Ostrov Bulla), which had violent eruptions in 1961 and 1995 and still has two “weakly active” mud volcano vents, said Adelaide University geologist Mark Tingay. The neighboring island to the northwest, Duvannı (Ostrov Duvannyy), is visible in the wide view below. It erupted in 2006 and still has active vents on its northern side.

“The islands’ ‘tails’ are most likely caused by currents eroding their weak mud deposits,” Tingay said. “They look like spits of eroded and redeposited sediment that formed on the lee of the island, where current and wave action have the least effect.”

Satellite view of a tadpole-shaped brown land area encircled by blue-green water.
Four tadpole-shaped mud volcano islands are visible along the Caspian Sea in this image captured on August 30, 2025, by the OLI (Operational Land Imager) on Landsat 8.
NASA Earth Observatory/Lauren Dauphin

There are two more tadpole-shaped islands to the south, with sediment “tails” also oriented to the southwest. One of these—Səngi Muğan Adası (Ostrov Svinoy)—is known for producing particularly violent eruptions, most recently in 2002 and 2008, Tingay said. One of its most notorious events occurred in 1932 when, without warning, it released a 150-meter-tall fireball in an eruption that caused 13 injuries and almost destroyed the island’s lighthouse, he added. 

Though mud volcanoes are interesting to geologists and often indicators of underground fossil fuels, they can be unpredictable and pose risks. “They have the potential for ‘paroxysmal eruptions’—short but extremely violent eruptions,” Tingay said. “They sometimes fuel huge fireballs and have created whole new islands in the space of a few minutes.”

NASA Earth Observatory images by Lauren Dauphin, using Landsat data from the U.S. Geological Survey. Story by Adam Voiland.

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Roscosmos Progress 93 Cargo Spacecraft Departs Station

Roscosmos Progress 93 Cargo Spacecraft Departs Station

April 20, 2026: International Space Station Configuration. Four spaceships are parked at the space station including the SpaceX Crew-12 Dragon, Northrop Grumman's Cygnus XL, the Soyuz MS-28 crew ship, and the Progress 94 resupply ship.
April 20, 2026: International Space Station Configuration. Four spaceships are parked at the space station including the SpaceX Crew-12 Dragon, Northrop Grumman’s Cygnus XL, the Soyuz MS-28 crew ship, and the Progress 94 resupply ship.
NASA

The unpiloted Roscosmos Progress 93 spacecraft undocked from the International Space Station at 6:08 p.m. EDT Monday, backing away for a deorbit maneuver and a planned destructive re-entry into Earth’s atmosphere to dispose of trash loaded by the crew.

The spacecraft launched in September 2025 on a Soyuz rocket from the Baikonur Cosmodrome in Kazakhstan, carrying about three tons of food, fuel, and supplies for the space station’s crew. After a two-day journey, it arrived at the orbiting laboratory and automatically docked to the aft port of the station’s Zvezda service module.

Learn more about station activities by following @NASASpaceOps and @space_station on X, as well as the International Space Station’s Facebook and Instagram accounts.   

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Mark A. Garcia

NASA on Track for Future Missions with Initial Artemis II Assessments

NASA on Track for Future Missions with Initial Artemis II Assessments

Four astronauts aboard NASA’s Orion spacecraft on top of the SLS (Space Launch System) rocket launch on the agency’s Artemis II test flight, at 6:35 p.m. ET on Wednesday, April 1 from Launch Complex 39B at NASA’s Kennedy Space Center in Florida.
Credit: NASA/Michael DeMocker

Following NASA’s Artemis II mission successfully splashing down on Earth, engineers started diving into detailed analysis of data to assess how key systems and subsystems on the Orion spacecraft, SLS (Space Launch System) rocket, and systems at the launch pad at the agency’s Kennedy Space Center in Florida performed. The Artemis II test flight successfully began a new era of exploration, laying the groundwork for the third Artemis mission next year, lunar surface missions, a Moon base, and future missions to Mars.

Orion spacecraft

After its 694,481-mile journey around the Moon and back, the agency’s Orion spacecraft successfully reentered Earth’s atmosphere and splashed down off the coast of San Diego on April 10. The crew and spacecraft were safeguarded by Orion’s thermal protection system as they traveled nearly 35 times the speed of sound during reentry. Initial inspections of the system found it performed as expected, with no unusual conditions identified. Diver imagery of the spacecraft’s heat shield initially taken after splashdown and further inspections on the recovery ship found the char loss behavior observed on Artemis I was significantly reduced, both in terms of quantity and size. Performance also was consistent with arc jet facility ground testing performed after Artemis I.

Airborne imagery of Orion’s crew module also was obtained during re-entry and will be reviewed in the coming weeks. This imagery will provide insight into the timing of when minimal char loss occurred as well as other heat shield data.

Luis Saucedo, NASA’s acting Orion vehicle integration manager, left, inspects the Orion spacecraft with Richard Scheuring, NASA Flight Surgeon, and NASA astronaut Reid Wiseman, CSA (Canadian Space Agency) astronaut Jeremy Hansen, and NASA astronauts Christina Koch and Victor Glover in the well deck of USS John P. Murtha, on Saturday, April 11, 2026, in the Pacific Ocean off the coast of California.
Credit: NASA/Bill Ingalls

The crew module is expected to return to NASA Kennedy this month for additional examination of the heat shield during Orion de-servicing in the Multi-Payload Processing Facility. Teams will conduct detailed inspections, retrieve post-flight data, remove reusable components such as avionics, and eliminate remaining hazards such as excess fuel and coolant.

Over the summer, the heat shield will be transported to NASA’s Marshall Space Flight Center in Huntsville, Alabama, for sample extraction and internal x-ray scans to provide further insight into the system and material behavior.

The ceramic tiles on the upper conical backshell of the crew module also performed as expected. Reflective thermal tape, which is expected to burn off upon re-entry, is still present in numerous locations. This reflective tape is used to help control vehicle temperatures while in space and serves no function for thermal protection upon re-entry.

Orion splashed down with precision, just 2.9 miles from the targeted landing site. Initial assessments showed entry interface velocity was within one mile-per-hour of predictions.

Shortly after Artemis II splashdown on Friday, April 10, 2026, U.S. Navy divers captured underwater imagery of the Orion spacecraft’s heat shield.
Credit: U.S. Navy

After splashdown, several Orion components were removed in San Diego for post flight analysis and future reuse prior to the spacecraft’s return to Kennedy. These items included seats, video processing units, crew module camera controllers, stowage containers and bags, and Orion Crew Survival System suit umbilicals.

The team currently is assessing the hardware and gathering data to support the post flight investigation of the urine vent line issue during the Artemis II mission. Teams will work to identify root cause and initiate corrective action for Artemis III.

America’s Moon rocket

The SLS rocket that launched the Artemis II mission also performed well, meeting its mission objectives for the test flight. While engineers continue studying the data, an early assessment indicates the rocket accurately placed Orion where it needed to be in space. At main engine cutoff, when the core stage’s RS-25 liquid engines shutdown, the spacecraft was traveling at over 18,000 miles per hour, achieving its insertion velocity for orbit, and executing a precise bullseye for its intended location.

A side view shows one of the twin SLS (Space Launch System) solid rocket boosters, core stage, Orion spacecraft, and launch abort system of NASA’s Artemis II rocket at Launch Complex 39B at NASA’s Kennedy Space Center in Florida on Tuesday, Feb. 10, 2026.
Credit: NASA/Ben Smegelsky

Exploration Ground Systems

Engineers conducted a detailed post-launch pad and mobile launcher assessment, following the launch of the Artemis II crew and rocket. Application of lessons learned from Artemis I to harden and reinforce ground support equipment at the pad proved successful as the mobile launcher and launch pad sustained minimal damage in the wake of the powerful booster ignition. 

In addition to performing washdowns of the mobile launcher and pad ground systems immediately following launch, some components were made more rigid, like elevator doors, while others were made more compliant, such as gaseous distribution panels in the base of the mobile launcher, modified to flex with the blast effects. Other components were protected with blast-resistant walls or covers. These allowed the pneumatics system, which involves air and gas, to remain operational postlaunch and the critical cooling and washdown water flows to proceed.

Teams returned NASA’s mobile launcher that supported the integration and launch of the Artemis II rocket to NASA Kennedy’s Vehicle Assembly Building to undergo repairs and prepare for support of future Artemis missions.

The agency’s recovery teams, alongside their military partners, successfully conducted recovery operations after the safe splashdown of the crew inside their spacecraft. Navy divers retrieved each crew member and brought them aboard USS John P. Murtha before helping to recover the Orion spacecraft and return to Naval Base San Diego.

Using data from the first crewed mission under the Artemis program, NASA continues preparing the hardware and teams to launch and fly the Artemis III mission in 2027 ahead of subsequent missions to the Moon’s surface beginning in 2028.

To learn more about NASA’s exploration of the Moon, Mars, and beyond, visit:

https://www.nasa.gov/artemis

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Lauren E. Low

Space Health Research Fills Day Before Cargo Craft Departs

Space Health Research Fills Day Before Cargo Craft Departs

NASA astronaut and Expedition 74 flight engineer Chris Williams pedals on the exercise cycle inside the International Space Station’s Destiny laboratory module. Astronauts work out daily on the exercise cycle to maintain muscle, bone, and cardiovascular health in microgravity.
NASA astronaut Chris Williams pedals on the exercise cycle inside the Destiny laboratory module. Astronauts work out daily on the exercise cycle to maintain muscle, bone, and cardiovascular health in microgravity.
NASA/Jack Hathaway

The trash-packed Progress 93 cargo spacecraft from Roscosmos will depart the International Space Station later today completing a seven-month mission docked to the Zvezda service module’s aft port. Progress 93 will conduct an automated deorbit maneuver several hours later and reenter the Earth’s atmosphere above the South Pacific Ocean for a fiery, but safe disposal. The Roscosmos resupply ship arrived at the orbital outpost on September 13, 2025, delivering about three tons of food, fuel, and supplies two days after it launched from the Baikonur Cosmodrome in Kazakhstan.

Meanwhile, the seven-member Expedition 74 crew kicked off the work week with a full schedule of space research investigating blood stem cells, plant-microbe interactions, and more to benefit human health on and off the Earth. The orbital residents also serviced a variety of lab hardware to ensure ongoing science operations while maintaining space station life support systems.

NASA flight engineer Jack Hathaway had a busy day on Monday loading a microscope with blood stem cell samples and installing Earth observation and biology research equipment on an external platform. Hathway spent the first half of his shift swapping sample hardware containing blood stem cells inside the KERMIT fluorescent microscope. Scientists on the ground are using KERMIT’s remote imaging capabilities to view the samples with an eye toward enabling stem cell production in space and developing blood disease and cancer therapies.

Next, Hathaway installed three science payloads on the NanoRacks External Platform for placement outside the Kibo laboratory module in the vacuum of space. Two payloads will test Earth observation technologies including ultra-high resolution hyperspectral imagery and a device that measures radio signals passing through Earth’s ionosphere. A third investigation will observe how round worms adapt to weightlessness to identify space-sensitive proteins and evaluate therapies to protect mobility and neuromuscular health during a spaceflight.

NASA flight engineers Chris Williams and Jessica Meir each worked on a different botany investigation for two separate purposes on Monday. Williams checked on alfalfa plants growing inside the Columbus laboratory module’s Veggie facility and videotaped the operation of the botany research gear. The Veg-06 study is exploring beneficial plant-microbe interactions and whether organic carbon and nitrogen can be recycled to support plant growth for food production in space. Meir videotaped packs of Japanese rice samples that will be returned to Earth for cultivation promoting space education and space commercialization.

Flight engineer Sophie Adenot of ESA (European Space Agency) installed the AstroPi imaging computer inside the Destiny laboratory module’s Earth observation window for a pair of student challenges. The first challenge will see students using sensor data and Earth imagery collected from AstroPi to accurately calculate the space station’s orbital speed. During the second challenge students will write code creating pixel art imagery on AstroPi’s LED matrix to be shared back on Earth.

Station commander Sergey Kud-Sverchkov and flight engineer Sergei Mikaev, both Roscosmos cosmonauts, joined each other at the beginning of their shift and trained to use simulation software that prepares a crew for returning to Earth aboard a Soyuz spacecraft. Kud-Sverchkov then moved on to ventilation system maintenance inside Zvezda while Mikaev studied artificial intelligence tools to boost crew efficiency.

Roscosmos flight engineer Andrey Fedyaev strapped an acoustic sensor to his neck that recorded his breathing for a space respiration study early in his shift. Next, Fedyaev worked on a laptop computer that supports the European robotic arm then ensured flow valves inside the Nauka science module were safely configured and properly operating.

Learn more about station activities by following the space station blog, @space_station on X, as well as the ISS Facebook and ISS Instagram accounts.

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Mark A. Garcia