NASA’s next crewed Moon landing now has two very different possible flight plans—and the agency is keeping both alive until hardware proves which one is ready.
In an Oct. 23 briefing, NASA said Artemis III will send four astronauts to low Earth orbit in 2027 to test systems needed for later lunar landings. Artemis IV remains the first planned surface mission, targeted for 2028. The new detail is how dramatically the competing landers from SpaceX and Blue Origin could reshape the trip.
This is not a rumor or a leaked schedule. NASA published the revised concepts of operation and confirmed that neither company has been assigned the first landing. The 2028 date is still a target, however, not a promise carved into Moon rock.
Full NASA briefing, October 23, 2026.
Artemis III is becoming a high-stakes orbital rehearsal
Artemis III will not fly to the Moon. Instead, Orion will meet test versions of both companies’ landers in Earth orbit and practice the rendezvous and docking work that a lunar mission will require. NASA describes the 2027 flight as a demonstration of critical systems, not a surface expedition.
That may sound like a demotion for a mission once associated with the return to the lunar surface. In practice, it turns Artemis III into an unusually important dress rehearsal. Orion, SpaceX’s Starship lander and Blue Origin’s Blue Moon system need to prove that their hardware and procedures can cooperate before astronauts attempt the same basic choreography much farther from home.
There is also a competitive edge. Under earlier assignments, Starship was attached to Artemis III and IV while Blue Moon was slated for Artemis V. NASA says the revised contracts put both providers into the Artemis III test and leave the first landing assignment open. Hardware readiness will decide which system carries the first pair of Artemis moonwalkers down to the surface.
SpaceX and Blue Origin are solving different puzzles
NASA’s technical outline makes clear that this is not a simple contest between two versions of the same lunar module.
SpaceX plans to launch multiple tanker versions of Starship into low Earth orbit, transfer cryogenic propellant into a depot vehicle, and then fuel the Starship lunar lander. Under the revised plan, the lander would wait for Orion in Earth orbit. After docking, Starship would perform the burn that sends the combined stack toward low lunar orbit. NASA says it is working on Orion modifications that would allow Starship to push the capsule toward the Moon.
Blue Origin’s accelerated architecture avoids in-space propellant transfer for the 2028 mission. Blue Moon Mark 2 would instead use three transfer stages launched into Earth orbit. Once assembled, that stack would head for an elliptical polar lunar orbit, shedding stages as their propellant is exhausted. Two crew members would descend near the lunar south pole while two remain aboard Orion.
Both concepts still require an uncrewed lunar demonstration before a crewed landing, and NASA must certify the selected system. That is the less glamorous but more important sentence in the plan. A gorgeous spacecraft render cannot substitute for a machine successfully completing the mission profile.
The first landing is deliberately modest
NASA currently targets two moonwalks of about two hours each for the initial surface missions. Astronauts would collect samples and test Axiom Space’s suits. Compared with the days-long stays many people picture when they hear “Moon base,” that first visit is closer to establishing a safe foothold than unpacking a lunar apartment.
The broader plan is explicitly about an enduring presence, not a one-off Apollo reenactment. The Associated Press reported that NASA intends to send robotic landers, experiments and rovers toward the south-polar region ahead of the astronauts. In the most delightfully science-fiction detail, officials said a lunar vehicle could already be waiting when the first Artemis moonwalkers arrive.
That sequencing changes what “returning to the Moon” means. Apollo brought almost everything with each crew. Artemis is being planned more like a campaign in which cargo, robots, communications and human missions gradually build a working system. It is less heroic single sortie, more very expensive co-op mode.
Why two paths may be smarter than one
Our analysis is that NASA is using redundancy as schedule pressure. Starship’s plan depends on repeated launches and cryogenic propellant transfer, while Blue Moon’s plan depends on a multistage stack and its own uncrewed demonstration. Each path has distinct engineering risks. Keeping both in contention gives NASA options if one architecture advances faster than the other.
It also makes Artemis III a genuine audition rather than a ceremonial checkpoint. Docking tests, crew interaction and development milestones can give engineers evidence that presentation slides cannot. SpaceX is adding crew-cabin demonstrations; Blue Origin is adding human-in-the-loop tests and hardware-readiness milestones.
The big unanswered question is schedule. NASA is targeting 2028 for Artemis IV and says a second crewed landing opportunity would follow, but both companies must complete major development work first. The responsible way to read the announcement is not “the landing is guaranteed.” It is that NASA has defined two concrete routes, preserved competition and made the next orbital mission part of the selection process.
That is nerdy mission architecture with real consequences. The first new human footsteps on the Moon since Apollo may depend on which company can turn its wildly different spacecraft plan into boring, repeatable engineering—and boring is exactly what you want when the nearest repair shop is 238,000 miles away.
Sources and image credit
Sources: NASA’s Artemis Acceleration briefing summary; NASA’s updated lander architecture; and The Associated Press. Featured photo: NASA officials at the Oct. 23, 2026 Artemis Acceleration briefing at Kennedy Space Center. Credit: NASA/Cory S Huston. NASA’s media usage guidelines permit factual editorial use with acknowledgement and without implied endorsement.