CLPS

Blue Origin New Glenn NG-2 launches on November 13. 2025

2025 was an incredibly busy year in spaceflight, both here at the Cape and also globally. By Christmas, providers broke previous orbital launch records, with over 300 successful flights globally, largely driven by SpaceX’s Falcon 9 for Starlink satellite deployments.

The Cape’s numbers for 2025:

For a complete list of 2025 launches from Florida, you can click here.

Commercial Spaceflight

SpaceX: Launch Cadence at an Unmatched Scale

SpaceX further extended its dominance in 2025 with over 130 orbital launches across the year, the vast majority using its Falcon 9 rocket. The company continued flying at a pace unmatched by any other launch provider, supporting satellite deployments, ISS crew and cargo missions, and national security payloads in addition to continuing building out its wildly popular Starlink offering.

SpaceX IMAP Launch on September 24, 2025. Photo: Charles Boyer
SpaceX launching IMAP on September 24, 2025. At this point in the flight, the rocket was passing through the speed of sound. Photo: Charles Boyer

Starlink

On October 25, 2025, SpaceX launched its 10,000th Starlink satellite. Space.com quoted noted satellite tracker Dr. Jonathan McDowell of the Harvard–Smithsonian Center for Astrophysics, saying that there are currently 9,357 Starlink satellites in orbit, with 9,347 in operational positions. The constellation serves over 9 million customers across 100 countries and territories. It is estimated that the company adds around 20,000 new customers daily.

Reusable boosters remain central to that success. Several Falcon 9 first stages flew 20 or more times, reinforcing the idea that rapid reuse is no longer experimental but routine. One of its boosters, B1067, has now flown 32 times and is currently at SpaceX’s facilities at the Kennedy Space Center, being refurbished for another flight. The company has publicly stated that it seeks to certify Falcon 9 boosters for up to 40 flights, and in 2025, several of the company’s boosters have fewer than ten missions remaining to meet that goal.

Starship test flights also continued launching from Texas, focusing on vehicle upgrades, heat-shield performance, and recovery techniques aimed at future missions beyond Earth orbit. The company is also continuing to build out its Boca Chica infrastructure, with a new launch pad nearing completion at the end of this year. Flights from the new facility should take place in the first part of 2026.

SpaceX also received approval to begin converting Space Launch Complex 37 (SLC-37) at Cape Canaveral for Starship operations. The site, previously used by United Launch Alliance’s Delta IV, gives SpaceX a second major East Coast launch location and points to long-term plans for higher-energy missions beyond Falcon 9.

Meanwhile, NASA, the FAA and other relevant authorities are finishing an Environmental Impact Statement for another Florida-based Starship launch pad at LC-39A at Kennedy Space Center. The tower there has long been under construction, with work continuing apace at that facility in addition to the new pad a few miles south at SLC-37.

SpaceX has stated that its goal is to launch from the Cape in 2026.

SpaceX has also begun construction of a new “Gigabay” facility for Starship at its Roberts Road site at Kennedy Space Center. That facility is large — not quite the size of the venerable VAB, but large nonetheless — and should be completed in 2026.

Blue Origin: New Glenn Finally Flies

After years of development, Blue Origin reached orbit for the first time with the debut launch of its New Glenn rocket in 2025. Flying from LC-36 at Cape Canaveral Space Force Station, the successful flight validated the vehicle’s core systems and marked the company’s entry into the heavy-lift orbital launch market.

Blue Origin NG-1
Blue Origin NG-1 launch. Photo: Charles Boyer / Talk of Titusville

NG-1, Blue’s mission designation for the debut flight, also had a tertiary goal of landing the New Glenn first stage, but that effort was unsuccessful. The payload reached its target orbit, however, making the flight a rousing success for a company long discounted by many in the space community.

Momentum continued on New Glenn’s second launch, when Blue Origin successfully landed its reusable first-stage booster on its recovery ship ‘Jacklyn’. The recovery showed that the company’s emphasis on reusability was now operational and not theoretical, and it positioned New Glenn as a serious competitor in the heavy-lift category.

Notably, Blue’s second New Glenn flight was much smoother than the debut. This was an expected improvement, but it clearly showed that Blue had taken the lessons learned from NG-1 to heart, made operational improvements, and applied them to the NG-2 flight.

2025 also saw Blue Origin significantly advancing its Blue Origin Blue Moon lunar lander program, as it continued preparing its Blue Moon Mark 1 (MK1) lunar lander for its first demo mission to deliver payloads to the lunar South Pole, presumably on the New Glenn NG-3 flight in early 2026.

Plans to reuse ‘Never Tell Me the Odds’, the booster used for the NG-2 flight, on NG-3. If successful, Blue Origin will achieve landing and then reusing a booster in relatively quick succession.

Blue is continuing development of its second lunar lander, Blue Moon Mark 2 (MK2). While they have made few public statements on the status and progress of the project, it is believed that they are building a flight-capable cabin for testing and crew training for the larger MK2, one of two of NASA’s selected crewed landers. Additionally, Blue is said to be working on life support, thermal control, and docking systems for MK2. Undoubtedly, the results from the MK1 mission will greatly inform the future designs of MK2.

Finally, Blue Origin created a new internal group focusing on national security missions for the US Government, and to run it they hired ULA’s CEO, Tory Bruno.

Tory Bruno
Tory Bruno

United Launch Alliance: A Year Full Of Change

2026 was a transitional year for United Launch Alliance, and one that has many observers wondering about the company’s long-term prospects, especially now that their former leader, Tory Bruno, has left to work for the competition.

One one hand, the company has an estimated 70 launches backlogged, with the majority being LEO satellites for Amazon’s Leo telecommunications constellation. On the other, Vulcan has been slow to build any cadence, with August 2025 being the last launch and NET March 2026 for its next flight. That’s not going to trim the backlog appreciably.

The reasons go back to last year: October of 2024, Vulcan’s second flight, CERT-2 saw one of its solid rocket boosters (SRB) nozzles detach due to a manufacturing defect in the nozzle’s internal insulator, causing an off-nominal burn. However, the main engines compensated, kept the rocket on course, and the mission still achieved its orbital goals. The company and Northrop Grumman conducted an investigation to identify the issue and prevent any recurrence.

That took several months and most of ULA’s inertia but the company continued to soldier on with other missions while it waited for the results and corrections to Vulcan.

In written testimony to Congress in May 2025, Major General Stephen G. Purdy stated the Vulcan program had performed unsatisfactorily over the past year. He noted that “major issues with the Vulcan have overshadowed its successful certification,” directly resulting in the grounding of four national security missions.

Due to Vulcan’s delays, the original 60/40 mission split favoring ULA under the NSSL Phase 2 contract shifted closer to 54/46 (or nearly 50/50) in 2025, as more missions were awarded or reassigned to SpaceX. Now, Blue Origin is also in the competition future NSSL launches, with Blue expected to complete NSSL Certification next year. SpaceX isn’t going anywhere either, leaving ULA walking a tightwire in the coming year.

On August 13, 2025, ULA successfully launched its first national security mission for the U.S. Space Force using a Vulcan VC4S. The mission deployed NTS-3, an experimental navigation satellite designed to enhance GPS resilience and was a complete success.

With its Delta family retired, ULA successfully conducted four major launches for Amazon’s broadband constellation (Project Kuiper, now Amazon Leo) using Atlas V rockets. All of those missions were textbook perfect, as has been customary for the rocket.

ULA is planning to increase its launch cadence in 2026, and has all but completed a second launch tower and vertical integration facility for Vulcan.

Finally, close to the Christmas holiday, ULA announced that CEO Tory Bruno had resigned “to pursue another opportunity.” For Bruno, that opportunity turned out to be leading Blue Origin’s new National Security Group, where he will ostensibly be competing with his old company for lucrative USSL launches. At Blue Origin, Bruno will have a reusable rocket system in hand, while ULA will compete with its Vulcan rocket and the vast depth of experience the company has on its resume.

John Elbon. Credit: ULA

ULA COO John Elbon was named as the Interim CEO in a press release issued today. John Elbon is the chief operating officer for United Launch Alliance (ULA). Before his new role, Elbon was responsible for the operations of the Atlas, Delta, and Vulcan Centaur launch vehicle programs, including design, engineering, integration, production, quality assurance, and program management.

Previously, Elbon served as vice president and program manager for Boeing’s Commercial Programs. In that position, Elbon managed Boeing’s efforts on NASA’s Commercial Crew Space Act Agreements, including the first two phases of the Commercial Crew Development, which for Boeing was the Starliner CST program.

Rocket Lab

In 2025, Rocket Lab completed 21 Electron launches, maintaining one of the highest success rates in the small-satellite market and continuing to serve commercial, civil, and national security customers. Electron missions flew from both New Zealand and Virginia, reinforcing Rocket Lab’s value as a responsive, geographically flexible company.

At the same time, much of Rocket Lab’s strategic focus shifted toward the future with continued development of Neutron, its upcoming medium-lift, partially reusable rocket. Throughout 2025, the company advanced engine testing, structural manufacturing, and launch infrastructure work at Wallops Island, Virginia.

A Rocket Lab Electron launching from Wallops Island in Virginia.
A Rocket Lab Electron launching from Wallops Island in Virginia.

While Neutron did not fly during the year as the company had expected, visible progress signaled Rocket Lab’s intent to move beyond small payloads and compete for larger commercial constellations and U.S. government missions later in the decade.

Beyond launch vehicles, Rocket Lab also expanded its space systems business, delivering spacecraft components, solar panels, and complete satellites to a growing customer base.

Rocket Lab’s share price rose sharply in 2025, with investors seeing significant gains in their positions.

RKLB$ stock graph
Via Google

Taken together, 2025 was not a year of dramatic firsts for Rocket Lab, but one of consolidation and preparation — proving it could sustain a high launch tempo today while methodically building the capability to play a much bigger role in the launch market of the future.

NASA

The year was marked by layoffs, with uncertainty and dread a prevalent mood for many at the agency as the new presidential budget called for drastic cuts in NASA’s science programs.

The year also saw a great deal of preparation for a return to the Moon under Artemis, a major anniversary for the International Space Station, and visible progress in science, aviation, and artificial intelligence. It was also a year of leadership change, with private-space veteran Jared Isaacman nominated and later confirmed to a senior NASA leadership role, signaling closer alignment between the agency and the commercial space sector.

The year set the tone for a decade defined by sustained activity rather than isolated milestones.

Lunar exploration remained a central focus. NASA continued methodical preparations for Artemis II, the first crewed mission to orbit the Moon since Apollo, completing the stacking of the Space Launch System rocket and Orion spacecraft and running dozens of mission simulations to stress-test procedures and crew timelines. At the same time, the Commercial Lunar Payload Services program delivered tangible results.

Firefly Aerospace’s Blue Ghost Mission One achieved a successful lunar landing in early March, while Intuitive Machines’ second Nova-C lander reached the surface days later, gathering data despite landing on its side. Together, the missions reinforced NASA’s strategy of using commercial partners to deliver science and technology to the Moon more frequently and at lower cost.

Beyond the Moon, NASA continued expanding its deep-space science portfolio. In November, the twin ESCAPADE spacecraft were launched toward Mars to investigate how the planet’s weak magnetic environment interacts with the solar wind, a key factor in understanding how Mars lost much of its atmosphere. Planning for future lunar surface science also advanced when Blue Origin was selected to deliver the VIPER rover to the Moon’s south pole later in the decade, keeping the agency’s search for water ice on track.

Space science and Earth observation saw several high-profile missions reach orbit in 2025. In March, NASA launched the SPHEREx space telescope to conduct an all-sky infrared survey while also deploying the PUNCH mission to study the Sun’s outer atmosphere and the origins of the solar wind.

Over the summer, the NISAR satellite, a joint mission with India’s ISRO, lifted off to provide unprecedented radar mapping of Earth’s ice sheets, forests, and changing landscapes. Astronomers also turned their attention outward as NASA coordinated global observations of 3I/ATLAS, only the third confirmed interstellar object ever detected passing through our solar system.

Closer to home, the Lucy spacecraft added another successful asteroid flyby to its mission, passing 52246 Donaldjohanson and returning detailed images that will help refine models of early solar system formation.

Human spaceflight milestones were just as prominent aboard the International Space Station. In November, the ISS marked 25 consecutive years of continuous human presence in orbit, a milestone that underscored its role as a testbed for long-duration missions beyond Earth.

Earlier in the year, astronaut Suni Williams set a new record for cumulative spacewalk time by a woman, reflecting both the station’s ongoing maintenance demands and the growing experience of its crews. Williams had the opportunity to mark that achievement because she and Butch Wilmore were part of the ill-fated Boeing CFT mission that launched in 2024 and led to an unexpected nine-month stay on station. The Boeing CFT astronauts joined Crew 9, which launched in September 2024 and landed in the Pacific Ocean on March 18, 2025.

Logistics capabilities also expanded with the arrival of Northrop Grumman’s first Cygnus XL cargo spacecraft, which delivered larger payloads and increased flexibility for station resupply. SpaceX provided the lift for Cygnus, as Northrop Grumman has yet to complete development of a new Antares 300-series replacement.

NASA also made visible progress in aviation and emerging technologies. The X-59 quiet supersonic aircraft completed its long-awaited first flight in October, validating a design meant to dramatically reduce sonic booms and potentially reopen the door to commercial supersonic travel over land.

In materials science, the agency’s heat-resistant superalloy GRX-810 earned recognition as NASA’s 2025 Commercial Invention of the Year, highlighting work aimed at improving engines and structures for extreme environments.

Taken together, 2025 was less about a single headline mission and more about steady progress across many fronts. NASA strengthened its lunar pipeline, celebrated a quarter-century of continuous human spaceflight, launched major new science missions, and laid the groundwork for how future exploration will be managed and analyzed. They also got a new administrator after a tumultuous nomination process. Jared Isaacman will bring many new ideas and changes to the agency, changes that will hopefully rejuvenate and reinvigorate the US space program.

Others

Sierra Space

In 2025, Sierra Space moved its Dream Chaser program through a series of important ground milestones while also reworking its near-term flight plans. The spaceplane, named Tenacity, completed extensive pre-flight testing, including electromagnetic compatibility checks and runway tow trials, clearing several technical hurdles ahead of flight. That flight, planned for 2024, will now take place in 2026. Maybe.

The program’s first mission was significantly reshaped. What was initially planned as a cargo run to the International Space Station was revised into a standalone orbital demonstration, now targeted for late 2026. NASA amended its contract with Sierra Space, removing guaranteed ISS delivery missions as the company redirected more attention toward defense and national security work.

As a result, Tenacity’s debut will focus on proving core flight and reentry capabilities rather than docking operations. The change reflects both development challenges and the additional certification steps required for ISS missions. While near-term station flights are no longer assured, Dream Chaser could still play a role in future logistics, including potential cargo deliveries to commercial space stations such as Orbital Reef, once the vehicle completes its initial orbital testing.

Relativity

Eric Schmidt

In 2025, Relativity Space entered a new phase after a major leadership shakeup. In March, Eric Schmidt stepped in as chief executive following a substantial investment in the company. Under his leadership, Relativity moved away from its earlier goal of fully 3D-printed rockets, adopting a more pragmatic hybrid manufacturing strategy while accelerating development of its larger, reusable Terran R launch vehicle.

Schmidt is a former Google

Stoke Space

Stoke Space, the Kent, Washington, company founded by former Blue Origin and SpaceX employees, had a good 2025, making major progress toward the first launch of its Nova rocket.

Rockets need launch pads, and Stoke has rebuilt SLC-14 at Cape Canaveral Space Force Station to modern standards for Nova. This is no small accomplishment, and on top of that, Stoke was respectful of the history of 14: this is where John Glenn launched in Mercury-Atlas 6, becoming the first American to orbit the Earth.

As for Nova itself, work is focused on final hardware qualification as the company simultaneously activates SLC-14. Stoke had previously planned for a 2025 debut of Nova, but mid-year, the company shifted to the right on the launch calendar in order to complete SLC-14 and to iron out any remaining issues with Nova.

The 40.2-meter (132-foot) tall rocket is expected to fly in the early part of next year. Stoke is also planning to slowly introduce reusability, so expect the first launch to be expendable.

Boeing

In 2025 Boeing welcomed a new CEO, Kelly Ortberg, previously the president and CEO of Rockwell Collins. Ortberg promised major changes throughout the company, including its spaceflight division.

In November 2025, NASA reduced Boeing’s Commercial Crew contract from six planned missions to the International Space Station (ISS) down to four. This followed technical issues during the 2024 crewed flight test that necessitated the astronauts’ return on a SpaceX vehicle in early 2025. The next mission for Starliner will be uncrewed and carrying cargo, but no date for that mission has been announced.

The news was not all bad for Boeing: their autonomous X-37B spaceplane continued its eighth mission, conducting long-duration orbital experiments as well as novel orbital maneuvers that can quickly place the spacecraft in a new orbit very quickly. In the quickly militarizing orbital environment, this is a tactical advantage yet to be demonstrated by any other nation.

The X-37B. Credit: Boeing
The X-37B. Credit: Boeing

Boeing also continued working on the SLS core stage. It’s Artemis II hardware is in the VAB awaiting rollout and at the time of this writing, the core stage for Artemis III is in an advanced state of manufacturing. After that, it is difficult to tell if the SLS rocket will be canceled by NASA and the Trump administration or if Boeing and others will continue manufacturing the rocket.

Taken overall, the year was an incredibly exciting one, but also one that sets the stage for the future: in 2026 humans will return to cislunar space and further development for landing on the lunar surface will continue apace. Vast Space is planning to launch Vast-1, the first privately owned and operated space station in LEO. We’ll also see SpaceX passing 10,000 Starlink satellites on orbit at some point in 2026, along with Amazon’s nascent Leo constellation starting to take form. There will be new rockets making their debut, and in between, lot of launches, especially Falcon 9 launches.

Stay tuned.

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‘If at first you don’t succeed’, the old saying goes, ‘try, try again.’

That’s what Blue Origin did last night at Launch Complex 36 at Cape Canaveral. After an apparently aborted static fire earlier in the evening, the company was able to successfully complete the vital test shortly before 10 pm ET.

The first attempt saw the water-based sound suppression system activate before a brief ignition and quick shutdown. Nonplussed, Blue’s engineers recycled their systems and around 9:59 pm, all seven BE-4 engines were started, with Blue Origin later saying that they “performed nominally with a 38 second duration test including all seven engines operating at 100% thrust for 22 seconds.”

Dave Limp, Blue Origin’s CEO, said later on social media that, “We extended the hotfire duration this time to simulate the landing burn sequence by shutting down the non-gimballed engines after ramping down to 50 percent thrust, then shutting down the outboard gimballed engines while ramping the center engine to 80 percent thrust. This helps us understand fluid interactions between active and inactive engine feedlines during landing.”

Limp went on to add that the NG-2 launch campaign can move on to payload integration and final preparation of the 322-foot tall rocket for flight. That flight is currently slated for NET November 9th, where it will carry two Rocket Lab-built satellites destined for Mars.’

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Since its first flight in 2018, Falcon Heavy has demonstrated exceptional lift capacity and mission flexibility. After the retirement of the venerable Delta IV Heavy, Falcon Heavy is the only three-liquid booster-core combination in operation at the Cape. SLS uses solid rockets as its side cores.

So far this year, Falcon Heavy has not been on SpaceX’s launch schedule. The last Heavy launch was on October 14, 2024, but at least one is tentatively set for late 2025, and as of now, there are no confirmed Falcon Heavy launches with a fixed date before 2027.

Astrobotic’s Griffin-1 Set For NET December

Astrobotic’s Griffin Mission One is a lunar lander contracted by NASA as part of the Commercial Lunar Payload Services (CLPS) program, and it is slated to head for the Moon aboard a Falcon Heavy. It is reportedly on schedule for a December launch from Kennedy Space Center, assuming that payload preparation and rocket availability remain on track.

Two Potential Flights For Falcon Heavy In 2026

For other Falcon Heavy missions, the schedule is far more nebulous. There are two potential Falcon Heavy missions scheduled for next year, but no specific target dates for launch have been announced.

That said, it is possible that after the Griffin launch late this year that SpaceX might launch Starship from LC-39A before a Falcon Heavy. Possible, sure, but launch schedules have a funny way of changing without notice, so as always, keep an eye on the schedule trackers for the latest information.

First, the USSF launches recently granted (plus Griffin). After that, it gets interesting.

Expected Falcon Heavy Launches — Now through January 1, 2027
Mission / Payload Launch Vendor Rocket Estimated / NET Date Remarks / Notes
Griffin Mission 1 SpaceX Falcon Heavy Late 2025 Listed on multiple tracking sites as the next Falcon Heavy launch from LC-39A.
USSF-75 SpaceX Falcon Heavy 2027 Appears in SpaceX manifest as a future Falcon Heavy mission.
USSF-70 (ROOSTER-5 & TETRA) SpaceX Falcon Heavy 2027 Listed in 2027 manifest; details subject to change.
NROL-97 SpaceX Falcon Heavy 2027 Manifest sources list as planned Falcon Heavy mission.
USSF-186 SpaceX Falcon Heavy 2027 Manifest shows “planned” status for late-decade launch.

As of October 6, 2025. Launch dates are subject to change or cancellation.

Others:

There is no current launch schedule for launching the ViaSat-3 F3 (Asia-Pacific) satellite; the satellite’s launch is planned for late in 2026, after its sister satellite, ViaSat-3 F2, is in service. It will be carried to orbit aboard Falcon Heavy.

Astrobotic’s third lunar mission is targeted for launch in 2026 aboard Falcon Heavy. No date for liftoff has been given as of yet.

Nancy Roman Grace Telescope: presumed to be in 2027.

Artemis Gateway PPE & HALO: presumed to be in 2027 if program not canceled.

That tells me that if I want to witness the raw power and fury of a Falcon Heavy any time soon that I should make plans for the Astrobotic launch later this year. It might be a while after that before the heavy lifter flies from The Cape.

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RESILIENCE lander
HAKUTO-R rendering.
via iSpace

A lunar lander that launched from KSC in January will attempt to land on the surface of the moon this afternoon.

On January 15, 2025, at 1:11 a.m. EST, Japanese space company ispace launched its RESILIENCE lunar lander aboard a SpaceX Falcon 9 rocket from Kennedy Space Center in Florida. This mission, known as Hakuto-R Mission 2, marks ispace’s second attempt to achieve a soft landing on the Moon, following the unsuccessful Hakuto-R Mission 1 in April 2023. RESILIENCE is scheduled to attempt its lunar landing later today, at 3:17 p.m. EDT, targeting the Mare Frigoris region near the Moon’s north pole.

Launch of Hakuto-R RESILIENCE on January 15, 2025 aboard a SpaceX Falcon 9
Photo: Charles Boyer / Talk of Titusville

Mission Objectives

First of all, a successful soft landing with the spacecraft in its intended orientation on the lunar surface. Many commercial companies have attempted this, with only one – Firefly Aerospace’s Blue Ghost – being fully successful this far.

iSpace’s own Hakuto-R Mission 1 is among the failed landers, as the lander plummeted uncontrollably when its propellant was exhausted. This near-fatal anomaly was due to the spacecraft’s onboard computer wrongly assuming its radar altimeter was faulty. The spacecraft’s computer ignored this data, and as a result misjudged the actual altitude of the spacecraft and kept hovering 5 km above the surface of the Moon.

iSpace founder and CEO Takeshi Hakamada recently spoke about the RESILIENCE mission, saying yesterday, “I am very proud to announce that once again, on June 6, 2025, JST, ispace will attempt a historic landing on the Moon as part of Mission 2, ‘SMBC x HAKUTO-R VENTURE MOON.’”

“Just over two years ago, on April 26, 2023, ispace, operating HAKUTO-R Mission 1, became the first private company in the world to attempt a lunar landing. While the mission achieved significant results, we lost communication with the lander just before touchdown,” Hakamada said.

“Since that time, we have drawn on the experience, using it as motivation to move forward with resolve. We are now at the dawn of our next attempt to make history,” he concluded.

Today, the company will find out if its remediations and improvements from the first HAKUTO-R mission have been fruitful.

Live Stream

Today’s landing attempt will be streamed live on ispace’s YouTube channel. Tune in about an hour before the scheduled touchdown when coverage is set to begin.

Post-Landing

Once RESILIENCE lands, it will deploy and/or utilize several payloads aimed at advancing lunar exploration:

  • TENACIOUS Micro Rover: Developed by ispace’s European subsidiary, this 5-kilogram rover is equipped with a high-definition camera and a shovel to collect lunar soil samples. The rover will conduct in-situ resource utilization demonstrations, including regolith extraction, and relay data back to the lander.
  • Moonhouse Art Installation: A miniature Swedish-style red house created by artist Mikael Genberg, symbolizing human aspiration and creativity, will be deployed on the lunar surface.
  • UNESCO Memory Disk: RESILIENCE carries a disk containing 275 human languages and cultural artifacts, aiming to preserve human heritage in the event of a global catastrophe.

Additionally, ispace plans to transfer ownership of collected lunar regolith to NASA, marking the first commercial transaction of lunar resources to date.

This photo of the moon was taken by the RESILIENCE spacecraft.
Photo: iSpace

About iSpace

Founded in 2010 by Takeshi Hakamada, ispace is a Tokyo-based private space exploration company with a stated vision of expanding human presence into space. The company aims to develop a sustainable lunar economy by providing low-cost, high-frequency transportation services to the Moon. With offices in Japan, Luxembourg, and the United States, ispace employs over 300 people worldwide.

ispace’s long-term goal includes establishing a lunar colony of 1,000 inhabitants by the 2040s, utilizing the Moon’s water resources for fuel production and supporting a space-based economy.

iSpace graphic of the overall mission plan for Mission 2
iSpace graphic of the overall mission plan for Mission 2
courtesy iSpace

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First Full Successful NASA CLPS Lunar Lander Set To End Mission

A solar eclipse as seen from the lunar surface by Firefly Aerospace's Blue Ghost Mission 1 lander on March 14, 2025
A solar eclipse as seen from the lunar surface by Firefly Aerospace’s Blue Ghost Mission 1 lander on March 14, 2025
Photo: Firefly Aerospace

The first fully successful lunar lander mission in the NASA CLPS program is nearly complete. Lunar sunset at Mare Crisium is expected on March 16, 2025, and without sunlight to power the vehicle’s solar panels, the operations of Firefly Aerospace’s Blue Ghost Mission 1 will end.

This morning on X.com, Firefly Aerospace said

Notably, the last major act of the lander will be to “capture the sunset glow and dust levitation seen by the Apollo 17 astronauts as they were leaving the Moon.” If Firefly engineers are able to capture that rare and only once-seen phenomena, it will be a fitting finale for a thoroughly successful mission.

Do not go gentle into that good night,
Old age should burn and rave at close of day;
Rage, rage against the dying of the light.
Dylan Thomas

Sunset On The Moon Is A Very Strange Time There

During the Apollo 17 mission, astronauts observed a faint light near the Moon’s horizon during sunrise and sunset, known as lunar horizon glow. This phenomenon is attributed to the electrostatic levitation of lunar dust particles.

On the Moon’s daylit side, solar ultraviolet and X-ray radiation can cause dust particles to become positively charged, leading them to repel from the surface and rise to altitudes ranging from meters to kilometers.

Conversely, on the night side, dust particles acquire a negative charge due to interactions with the solar wind. At the lunar terminator—the dividing line between day and night—intense electric fields may develop, resulting in horizontal dust transport, sometimes referred to as “Moon storms.”

Blue Ghost will attempt to further measure this phenomenon, as it has only been witnessed once, and that some fifty-three years ago.

This Just After A Solar Eclipse

Two days ago, Blue Ghost captured a solar eclipse, albeit the the first one recorded from the lunar surface — on Earth, a lunar eclipse was underway, and the Earth’s shadow was darkening the face of the moon for observers on the ground.

Firefly Aerospace’s Blue Ghost Mission 1 successfully landed on the Moon on March 2, 2025, at 3:34 a.m. EST, near Mons Latreille within the Mare Crisium basin. This mission, part of NASA’s Commercial Lunar Payload Services (CLPS) initiative, delivered ten NASA science and technology instruments to the lunar surface.

irefly's Blue Ghost 1 lander in lunar orbit in February, 2025.
Firefly’s Blue Ghost 1 lander in lunar orbit in February, 2025.
Photo: Firefly Aerospace

Among the payloads, the Lunar PlanetVac (LPV) successfully collected, transferred, and sorted lunar soil using pressurized nitrogen gas. The Electrodynamic Dust Shield (EDS) operated effectively, demonstrating potential applications in mitigating lunar dust accumulation on various surfaces.

The Next Generation Lunar Retroreflectors (NGLR) provided precise measurements of the Earth-Moon distance, contributing to our understanding of the lunar interior and fundamental physics. The Reconfigurable, Radiation-Tolerant Computer System (RadPC) demonstrated resilience to the Moon’s radiation environment, marking a significant step in developing robust computing technologies for space missions.


Blue Ghost Mission 1 cast its shadow on the lunar surface in March 2025
Blue Ghost Mission 1 cast its shadow on the lunar surface in March 2025
Photo: Firefly Aerospace

The Lunar GNSS Receiver Experiment (LuGRE) successfully received GPS and Galileo signals at lunar distances, proving the viability of using these systems for lunar navigation. The Lunar Instrumentation for Subsurface Thermal Exploration with Rapidity (LISTER) measured heat flow from the Moon’s interior, providing insights into its thermal properties.

The Lunar Environment Heliospheric X-ray Imager (LEXI) captured images of Earth’s magnetosphere interacting with the solar wind, enhancing our understanding of space weather phenomena. Additionally, the mission serendipitously captured images of a total lunar eclipse from the Moon’s surface, offering a unique perspective on this celestial event.

NASA awarded Blue Ghost Mission 1 to Firefly Aerospace in February 2021 as part of the NASA CLPS program. The contract was valued at approximately $93.3 million, making Blue Ghost 1 a bargain providing far more scientific returns than it cost.

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Intuitive Machines IM-2 post-landing
Intuitive Machines Nova-C class IM-2 lunar lander "Athena" on its side on the lunar surface. 
Photo: Intuitive Machines.
Intuitive Machines Nova-C class IM-2 lunar lander “Athena” on its side on the lunar surface.
Photo: Intuitive Machines.

Yesterday, Intuitive Machines Nova-C class IM-2 lunar lander “Athena” touched down on the lunar surface safely, but in a position feared to be suboptimal.

Yesterday, Intuitive’s CEO Steve Altemus said in his remarks at a Post-Landing press conference, “We don’t believe we’re in the correct attitude on the surface of the moon.” In other words, not fully upright. Intuitive added that they were working to gather additional data last night and that they would provide an update when the company’s engineers reached solid conclusions.

That update came this morning with Intuitive Machines saying:

Images downlinked from Athena on the lunar surface confirmed that Athena was on her side. After landing, mission controllers were able to accelerate several program and payload milestones, including NASA’s PRIME-1 suite, before the lander’s batteries depleted.

With the direction of the sun, the orientation of the solar panels, and extreme cold temperatures in the crater, Intuitive Machines does not expect Athena to recharge. The mission has concluded and teams are continuing to assess the data collected throughout the mission.

This southern pole region is lit by harsh sun angles and limited direct communication with the Earth. This area has been avoided due to its rugged terrain and Intuitive Machines believes the insights and achievements from IM-2 will open this region for further space exploration.

Intuitive Machines IM-2 Mission Updates, Retrieved March 7, 2025

At this time, it is unclear which, if any, of the instruments other than the PRIME-1 suite the lander carried were able to provide data before the mission’s conclusion. Prime-1, or the Polar Resources Ice Mining Experiment-1 (PRIME-1) was one of the primary activities planned the the IM-2 mission.

Other Experiments Aboard IM-2

Micro-Nova Hopper “Grace”: A drone equipped with a neutron spectrometer, Grace is designed to explore permanently shadowed regions (PSRs) within the nearby Marston crater. Its mission is to provide the first surface measurements of hydrogen in these PSRs, an essential indicator of water presence on the moon.

Lunar Outpost’s MAPP Rover: This commercial rover will autonomously map the lunar surface, capture stereo images, and collect thermal data. It is equipped to inspect samples of lunar regolith, contributing to the assessment of in-situ resource utilization (ISRU) potential.

Nokia’s Lunar Cellular Network: In collaboration with Nokia, the mission will deploy the first cellular network on the Moon, utilizing LTE technology to facilitate efficient data transmission between lunar assets and Earth.

Given that they were not mentioned in the Intuitive Machines update, it is reasonable to assume that those experiments could not be deployed.

This is the second attempt Intuitive has made to land on the moon with their Nova-C lander, with both attempts resulting in successful soft touchdowns but with the lander on its side and unable to complete its experiments fully.

IM-2 Improvements Over IM-1

Dr. Tim Crain
Dr. Tim Crain of Intuitive Machines in yesterday’s press conference after the IM-2 lunar landing. Photo: NASA livestream

In his remarks at yesterday’s joint press conference with NASA, Intuitive Machines’ Chief Growth Officer Dr. Tim Crain pointed out several major improvements to the company’s Nova-C spacecraft:

“They’ve always pointed the old offensive lineman about heavy lifting That’s kind of the way it works sometimes,” Tim Crain began. Crain is a former University of Texas Longhorn football player.

“I’d like to paint a little bit of a picture going back to Valentine’s day of last year when we launched Odysseus. Every day that we went in on that mission, it seemed like that vehicle was just trying to escape our grasp and we had to put out brush fires and understand how the systems we’d built were really working in space. And so every day was a challenge on that mission.”

“And then finally,” Dr. Crain continued, “We ended up on the surface and successfully communicating and operated for many, many days. After the mission, the team got together and we made a list of all the things we had. [We asked outselves] what do we need to change for the next mission? And we had 65 items. 10 were critical, the others were, well, if we can get these in for IM- 2, we will. But if not, they can wait on IM- 3 and it’s probably enough. We got all 65 of those in on this mission. “

“We took a couple of days off after the previous mission,” he said. “Then we got together, we do what we call a hot wash. And the first hot wash I did was on Project Morpheus when I was at NASA when we lost a And then we did a hot wash of all the things we wanted to And eight months later, we’re up and flying better than ever,” Crain said.

“So that was the experience kind of leading into spring of last year, April timeframe. These are all of the improvements that we wanna make. Our orbit determination needed improvement. We had people flying around the world to improve our ground sites to give us better measurements,” Dr. Crain continued.

“We partnered with NASA to have validation and cross- check data to make sure that our systems would work the way they’re supposed to. We had issues that we learned on the way we controlled our engines that we wanted to. Our thermodynamic venting system, could we make that better? Could we make it work the way we want it to work? We ran into problems on the first mission with helium management. Helium is very important to our system for pressurizing our cryogenic methane system, also for RCS.”

“And then we had measurements we wanted to make of craters that we weren’t able to get in place on the first mission. So we had a lot of new technology that we brought forward in this mission. And I’ll be honest, I had a little bit of trepidation when we launched about what some of these new things and improvements might do in the system. It was a night and day operational difference.”

“On day one, we gathered some data about our propulsion system. And then on day two, we fired the better than we’d ever fired it before. The comm systems on our Omni antennas, which aren’t even designed to bring high gain data home, worked better than our high gain antenna had worked on the first mission.”

“We get to the moon, our orbit determination was so precise that we were within a couple ofkilometers in our 100 kilometer orbit. And we didn’t even have to do a lunar correction maneuver that we had put in place, because we had to do one in an emergency on the first mission.”

IM-2 in lunar orbit
IM-2 in lunar orbit.
Courtesy Intuitive Machines

“So it really had moved from come in on the day of operations and save the vehicle to grab your lunch pail, go in, do spacecraft operations, as this magnificent machine called Athena moved her way to the all the way into lunar orbit. And then really the last couple of days in lunar orbit, we were expecting a fully successful landing. We did see some noise on our landing sensors towards the end, our crater recognition system. It’s machine learning on board.”

“How do you tell a computer to look for the craters but identify which craters those are on the moon. [It] worked almost an order of magnitude better than we’d anticipated. So we had every reason to believe that we were gonna come down and land with all systems the way we wanted to.”

“We’re trying to evaluate exactly what happened that very last bit. But I would tell you the improvement from the last mission to the next mission, really in less than a when you consider the fact that you have to be at the Cape early, you have to be done with testing before that.”

“And I’m incredibly proud of the team. I’m incredibly proud of how well this vehicle performed. And I will tell you, the future is bright for intuitive machines to land lots and lots of cargo on the moon.”

Conclusions

Dr. Crain and all of Intutive should be proud of his team and the job that they all did in preparing for and operating this mission. While it may seem on the surface that it was a failure, in fact, it was far from it. Many lessons were learned from IM-1, applied to IM-2 and major improvements were seen. It was also the second flight of a spacecraft fueled with cryogenic propellants, both by Intuitive and both successful. The landing, up to the very last, went well.

Now, Intuitive will assess what happened, devise and test improvements and will apply them to IM-3. The date for that mission is unknown at this time.

About NASA CLPS

Both of the Intuitive Machines missions were part of the NASA’s Commercial Lunar Payload Services (CLPS) program, which is aimed at accelerating lunar exploration by partnering with private companies to deliver science and technology payloads to the Moon. Through CLPS, NASA has awarded contracts to multiple U.S. commercial space firms to develop and operate robotic landers designed to study lunar geology, search for water ice, and test new technologies that could support future crewed missions under the Artemis program. This approach leverages the agility and cost-effectiveness of the commercial sector while advancing NASA’s long-term goals of establishing a sustainable human presence on the Moon.

the moon
A harsh mistress, the Moon.
Photo: Charles Boyer / Talk of Titusville

CLPS is inherently a high-risk endeavor, as NASA is relying on unproven commercial landers to execute complex lunar landings—an area historically dominated by government space agencies with decades of experience. Many of the selected providers are developing their landers for the first time, making each mission an experimental test with no guarantee of success.

Previous attempts by private entities and even national space agencies to land on the Moon have demonstrated how technically challenging it is, with several high-profile failures in recent years and one clear commercial success: Firefly Aerospace’s Blue Ghost, which had a fully successful touchdown earlier this week.

While NASA accepts this risk as part of its strategy to foster innovation, the program’s success is far from certain, and early missions may encounter setbacks before commercial lunar deliveries become routine.

Intuitive Machines IM-2 lunar lander
Intuitive Machines IM-2 lunar lander in a publicity shot. Photo: Intuitive Machines
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Intuitive Machines IM-2 in lunar orbit
IM-2 during its descent.

Intuitive Machines’ confirmed the lunar lander IM-2 Athena, touched down on the Moon at approximately 11:30 a.m. CST on Thursday. That’s the good news.

The bad news, according to Intuitive’s Steve Altemus, “We don’t believe we’re in the correct attitude on the surface of the moon.” In other words, not upright.

Athena becomes the third commercial mission to safely touch down on the lunar surface, albeit with two less than optimal landings. “Any time humanity puts a lander on the moon, it’s a good day,” said Tim Crain, the Intuitive Machines Chief Growth Officer. Crain is right, but undoubtedly he is somewhat disappointed at less than a full success landing of IM-2 Athena.

The scene in Intuitive Machines’ Mission Control
Screen capture of NASA livestream

“[The] IMU data is a piece of data that says that we’re oriented somewhat on our side,” Crain explained later, immediately adding, “I want to get all the measurements to really be able to explain to you the configuration of the [vehicle.] I don’t have a good sense of that today.”

Several hours after the 15-foot-tall robotic lander reached the moon, uncertainty has loomed over its condition. It was unclear whether the spacecraft had executed a stable landing, allowing it to fully carry out its mission as planned, or if it had toppled or partially toppled upon touchdown—an outcome that could hinder its ability to fully deploy it scientific instruments.

Tim Crain of Intuitive Machines
Screen capture from NASA stream.
Tim Crain of Intuitive Machines
Screen capture from NASA stream.

At precisely 12:31 PM EST, Athena successfully touched down near the moon’s south pole. The descent and landing sequence unfolded as planned, with the spacecraft executing an 11-minute engine burn to slow its velocity for a controlled touchdown.

However, in the final moments before landing, flight controllers briefly lost communication with the lander—a disruption expected due to the dynamics of the descent. When contact was re-established, initial data confirmed that Athena had landed and was generating power through its solar panels, albeit not as much as was expected, and an indication that Athena was in less than an optimal state.

Tim Crain summed up his feelings by saying, “I’m incredibly proud of the team. I’m incredibly proud of how well this vehicle performed. And I will tell you, the future is bright for intuitive machines to land lots and lots of cargo on the moon.”

Intuitive has promised more information when it becomes available. This will an interesting mission to watch unfold.

Stay tuned.

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NASA Trailblazer
Rendering of NASA Trailblazer near the Moon.
Courtesy NASA
Rendering of NASA Trailblazer near the Moon.
Courtesy NASA

NASA’s Lunar Trailblazer is experiencing issues after its launch earlier this week. Trailblazer launched on February 26 aboard Falcon 9 from LC-39A at KSC.

The spacecraft successfully established initial communications with mission operators at Caltech’s IPAC in Pasadena, California, at 8:13 PM EST, but telemetry data soon revealed intermittent power problems with Lunar Trailblazer.

Fueled and attached to an adaptor used for secondary payloads, NASA’s Lunar Trailblazer is seen at SpaceX’s payload processing facility within NASA’s Kennedy Space Center in Florida in early February 2025. The small satellite is riding along on Intuitive Machines’ IM-2 launch. Credit: SpaceX
Fueled and attached to an adaptor used for secondary payloads, NASA’s Lunar Trailblazer is seen at SpaceX’s payload processing facility within NASA’s Kennedy Space Center in Florida in early February 2025. The small satellite is riding along on Intuitive Machines’ IM-2 launch.
 Credit: SpaceX

By early Thursday morning, around 4:30 AM EST, the team lost contact with the satellite. However, several hours later, Lunar Trailblazer’s transmitter powered back on, and engineers are now working with NASA ground stations to restore full communication. Efforts are focused on assessing the spacecraft’s power issues and identifying potential solutions.

Lunar Trailblazer was developed as part of NASA’s SIMPLEx (Small Innovative Missions for Planetary Exploration) program, which funds low-cost, high-risk science missions. The initiative allows small spacecraft to hitch a ride alongside larger primary missions, enabling innovative research while accepting a higher level of operational risk.

NASA’S Trailblazer, launching aboard the SpaceX IM-2 mission on February 26, 2025
Photo: Chris Leymarie / Florida Media Now

Weighing a mere 440 pounds and measuring 11.5 feet wide with its solar panels fully deployed, Lunar Trailblazer is about the size of a dishwasher and relies on a relatively small propulsion system to travel cislunar space to lunar orbit. It is employing a low-energy transfer to save weight and to simplify the propulsion system aboard the spacecraft.

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SpaceX Falcon 9 IM-2 liftoff
SpaceX Falcon 9 IM-2 lifts off from LC-39A at 7:16 PM
SpaceX Falcon 9 IM-2 lifts off from LC-39A at 7:16 PM in the first of two evening launches.
Photo: Charles Boyer / Talk of Titusville

SpaceX launched twice from the Cape Wednesday night, as a Falcon 9 carrying Intuitive Machines second lunar lander lifted off at 7:16 PM from LC-39A at Kennedy Space Center, and three hours and eight minutes later, the company launched another Falcon 9 on the Starlink 12-13 mission.

Both launches were successful.

IM-2 Launch

The Nova-C lunar lander “Athena”, developed by Intuitive Machines, is embarking on its second mission. This mission includes NASA’s PRIME-1 (Polar Resources Ice Mining Experiment-1), marking the first demonstration of in-situ resource utilization on the Moon. PRIME-1 comprises two key instruments: the TRIDENT drill, designed to extract lunar ice, and the MSolo mass spectrometer, which will analyze the extracted material.

Intuitive Machines' IM-2 mission lunar lander, Athena, in the company's Lunar Production and Operations Center. Photo courtesy Intuitive Machines
Intuitive Machines’ IM-2 mission lunar lander, Athena, in the company’s Lunar Production and Operations Center. Photo courtesy Intuitive Machines

Additionally, several other spacecraft are on board:

  • Lunar Trailblazer, a small-class (D) lunar orbiter under NASA’s SIMPLEx program, is tasked with detecting and mapping water on the Moon’s surface. By analyzing the form, abundance, and distribution of lunar water in relation to geological features, it aims to enhance our understanding of the Moon’s water cycle.
  • Odin, a spacecraft developed by AstroForge, a company focused on asteroid mining, is set to venture into deep space. Its mission is to observe near-Earth asteroid 2022 OB5 from a distance of approximately one kilometer, providing critical data for AstroForge’s first asteroid retrieval mission. The flyby is expected to take place 11 months after launch.
  • CHIMERA GEO 1, a transfer spacecraft by Epic Aerospace, is designed to transport payloads into geostationary orbit. On this mission, it carries an unidentified 16U cubesat, manifested by Exolaunch, with the objective of securing an orbital position.

This mission represents a another step in lunar exploration and resource utilization, advancing scientific and commercial ambitions. The Artemis program will be a major beneficiary of IM-2, and if Astroforge is successful on the Odin mission, a new frontier for raw materials and resources may be kicked off. As for Chimera GEO 1, a successful mission will position Epic Aerospace as a viable vendor for satellite delivery to high orbits.

Liftoff of Space Falcon 9 and IM-2 on February 26, 2025.
Photo: Charles Boyer / Talk of Titusville

Starlink 12-13

Timelapse of Starlink 12-13.
Photo: Chris Leymarie, Florida Media Now

At 10:34 PM EST and 7.5 miles away on Space Launch Complex 40, SpaceX launched for the second time of the day when Falcon 9 launched another batch of 21 satellites for its Starlink mega-constellation.

With over 7,000 satellites in orbit and customers in over one hundred countries, Starlink has been growing rapidly as it provides broadband Internet access to early five million users.

Launch Replay

IM-2

Starlink 12-13

Next Launch

On Saturday, March 1st, SpaceX plans to launch Falcon 9 and Starlink 12-20 mission from SLC-40 down the Bimini Highway — southeastwards towards The Bahamas. This mission will be a near carbon copy of tonight’s Starlink launch.

  • Organization: SpaceX
  • Location: Cape Canaveral SFS, FL, USA
  • Rocket: Falcon 9
  • Pad: Space Launch Complex 40
  • Window Opens: Saturday, 03/01/2025 8:57:00 PM EST
  • Window Closes: Sunday, 03/02/2025 1:28:00 AM EST
  • Destination: Low Earth Orbit
  • Mission Description: Another batch of satellites for the Starlink mega-constellation – SpaceX’s project for space-based Internet communication system.
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Blue Ghost image of the lunar surface
Blue Ghost captured this shot of the lunar surface February 21st.
Credit: Firefly Aerospace

In preparation for landing, Firely Aerospace’s Blue Ghost will complete its final lunar orbit maneuver, which is scheduled for today. If that is successful, on March 2nd, Firefly Aerospace will reach its destination and attempt a lunar landing.

The attempt will be the first for the company and if successful, they will be only the second American company (after Intuitive Machines) to safely reach the lunar surface. The lander has been traveling cislunar space since shortly after its January 15th launch from Kennedy Space Center.

Early Monday morning, during the final lunar orbit maneuver, Firefly will execute a 16-second burn to insert Blue Ghost into a near-circular, low lunar orbit with a perilune of about 100 km—the point closest to the Moon’s surface. This maneuver strategically positions Blue Ghost for the planned Descent Orbit Insertion on March 2.

Mission progress, as detailed by Firefly Aerospace
courtesy: Firefly

NASA Instruments OK, Are Active


Blue Ghost 1, during Launch Vehicle Integration prior to liftoff last month.
Blue Ghost 1, during Launch Vehicle Integration prior to liftoff last month.
Photo: Firefly Aerospace.

According to NASA, “All 10 NASA instruments on this flight are currently healthy and ready to operate on the lunar surface. The payloads that are able to power on and operate have also collected some noteworthy data during lunar transit.”

Illustrating that point, NASA said

The Lunar GNSS Receiver Experiment (LuGRE) acquired and tracked Global Navigation Satellite System (GNSS) signals for the first time in lunar orbit – a new record! This achievement, peaking at 246,000 miles, suggests that Earth-based GNSS constellations can be used for navigation in transit to, around, and potentially on the Moon. It also demonstrates the power of using multiple GNSS constellations together, such as GPS and Galileo, to perform navigation. After lunar landing, LuGRE will operate for 14 days and attempt to break another record – first reception of GNSS signals on the lunar surface.

The Lunar Environment Heliospheric X-ray Imager, or LEXI, telescope was turned on successfully shortly after launch on Jan. 15. The instrument has operated for several hours every day conducting checkouts and initial commissioning, operating for a total of more than 50 hours so far in preparation for collecting images from the lunar surface.

NASA Artemis Blog, February 21, 2025

All other instruments aboard Blue Ghost are also functioning well and are apparently ready for the landing attempt the coming Sunday.

How To Watch

Live coverage of the landing, jointly hosted by NASA and Firefly, will air on NASA+ starting at 2:30 a.m. EST, approximately 75 minutes before Blue Ghost touches down on the Moon’s surface.

Firefly’s Blue Ghost lander captures image of Earth reflecting off the solar panel with the Moon on the horizon above Earth. Firefly’s X-band antenna and NASA’s LEXI payload are also shown on the top deck of the lander. Credit: Firefly Aerospace

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