On Tuesday, May 26, 2026, NASA detailed its updated roadmap for establishing a sustained lunar presence through its newly defined Moon Base program, emphasizing an iterative, commercial-heavy approach over single-architecture megaprojects. The agency’s Phase 1 plan, running through 2029, will rely heavily on private partners to deliver hardware to the lunar south pole, with the ultimate goal of mastering the skills necessary for future human missions to Mars.
For the Canadian space sector, the announcement highlighted some domestic involvement in the Lunar Terrain Vehicle (LTV) program. NASA awarded two $220 million contracts to develop crewed and autonomous rovers. The first was awarded to Astrolab for its CLV-1 FlexRover architecture. The second contract was awarded to Lunar Outpost for its “Pegasus” rover, a pared-down version of its Eagle LTV. Lunar Outpost, which recently raised a $30 million Series B, serves as the prime contractor for the Lunar Dawn consortium. This group includes Canada’s MDA Space, which is supplying robotics and infrastructure expertise, alongside other partners Leidos, General Motors, and Goodyear.
It is important for industry watchers to distinguish this NASA LTV procurement from the Canadian Space Agency’s (CSA) own sovereign Lunar Utility Vehicle (LUV) program. While MDA Space is a consortium partner on Lunar Outpost’s LTV for NASA, the company is also independently engaged with the CSA’s LUV initiative.
The lighter-weight NASA LTV rovers announced today are designed to be deployed quickly and can travel up to 200 kilometres, reaching speeds of 10 kilometres per hour. They will be delivered to the lunar surface using Blue Origin’s Mark 1 Endurance lander. This competitive LTV delivery procurement was executed specifically under the Commercial Lunar Payload Services (CLPS) 1.0 framework.
During the Q&A, officials also confirmed NASA is still moving forward with both SpaceX and Blue Origin on their crewed lander concepts for the upcoming Artemis III mission, with trade studies ongoing. Recognizing the massive scale of these future vehicles—such as SpaceX’s Starship and Blue Origin’s Blue Moon Mark 2—reporters questioned the safe operating distance for the newly awarded LTVs to avoid damage from kicked-up regolith. NASA officials noted that to protect from landing ejecta, the LTVs will be kept approximately two kilometres away from the landing sites.
Payload, procurement specifics, and upcoming milestones
Further detailing early Phase 1 deliveries, NASA outlined exact payloads for the newly named “Moon Base 1,” “Moon Base 2,” and “Moon Base 3” missions.
The Moon Base 1 mission will see Blue Origin’s Mark 1 lander deliver equipment to the Shackleton Connecting Ridge, including the Stereo Cameras for Lunar Plume-Surface Studies (SCALPS) to study how thrusters interact with the Moon’s surface, as well as a Laser Retroreflective Array to assist orbiting spacecraft in determining precise locations.
The Moon Base 2 mission will utilize an Astrobotic Griffin lander to carry more than 500 kilograms of cargo to the surface. This includes Astrolab’s FLIP rover, marking the largest commercial payload delivered to the Moon to date.
Meanwhile, the Moon Base 3 anchor investigation, Lunar Vertex, will study lunar swirls to improve our understanding of surface evolution under extreme conditions. This specific mission underscores the agency’s collaborative approach by carrying additional payloads from the European Space Agency (ESA) and the Korean Space Agency.
Looking ahead to future contracting, NASA noted it is actively seeking new concepts. Program Manager Carlos Garcia Galan confirmed that there are currently two Broad Agency Announcements (BAAs) open across NASA explicitly soliciting ideas from industry to build hardware for lunar surface testing. Furthermore, additional CLPS 1.0 mission awards are expected to be announced in June, and the next-generation CLPS 2.0 cargo lander proposals are due June 30, 2026. NASA also noted the timeline for its next crewed mission, confirming that hardware stacking for Artemis III will begin this summer to meet a mid-2027 target launch.
Funding the lunar push
When pressed on how NASA plans to finance this accelerated commercial cadence, Administrator Jared Isaacman pointed to a combination of legislative funding and budget requests. He highlighted a $10 billion funding injection from the Working Family Tax Cut Act, noting that a large portion of those funds is dedicated to exploration.
Combined with FY26 appropriations and the 2027 President’s Budget Request, Isaacman stated the agency’s funding is considered adequate to meet its exploration goals. He also noted that the necessary congressional notifications for organizational funding mechanisms have already been provided, backed by strong bipartisan support.
NASA officials confirmed the specific dollar values of the newly announced Phase 1 hardware contracts. In addition to the $220 million awarded to both Lunar Outpost and Astrolab for their respective LTVs, NASA confirmed it is paying Blue Origin $234 million per mission to deliver those rovers.
The “science of survival” and cargo logistics
NASA’s immediate focus is on Phase 1, which aims to make lunar surface delivery a high-reliability endeavour. The agency plans a highly aggressive cadence of 25 launches and 21 landings between now and 2029—a dramatic acceleration in operational tempo.
Isaacman framed this period as a critical learning phase. “We are leveraging the NASA playbook from the 1960s, figuring out what works and what doesn’t in this epic cycle,” Isaacman said. “Science of survival, because the Moon Base is as beautiful as it is hostile.” The environment presents severe challenges, with surface temperatures ranging from over 120°C (250°F) in sunlight to below -130°C (-200°F) in darkness, and dropping past -240°C (-400°F) in permanently shaded craters.
Importantly, NASA laid out the logistics scaling required to support a permanent human presence. Phase 1 aims to deliver approximately 4 metric tons of cargo to the surface. As infrastructure expands in Phase 2, NASA intends to scale that up to 60 metric tons. By Phase 3, which targets permanent habitation and long-duration crew stays, the logistics train must support a massive 150 metric tons of cargo capacity.
A distributed “city” layout
Rather than constructing a centralized habitat, NASA envisions the Moon Base spanning hundreds of square kilometres with distributed assets. This layout is driven by terrain requirements and safety constraints.
Chief Architect Najood Miranzi explained that habitats will likely be placed on hilltops to maximize sunlight exposure, while nuclear power systems will be positioned a kilometre or more away to ensure radiation protection for the crew.
To support and connect this sprawling infrastructure, NASA announced the “Moonfall” program, a network of 3 to 4 lunar drones that will scout landing sites, map the surface at centimeter-scale resolution, and prospect for water ice. Firefly Aerospace was selected to build the Elytra orbital vehicle that will carry and deploy these drones. Additionally, Garcia Galan confirmed NASA already has one constellation contract in place to provide initial communications from the Moon, with plans to solicit a second network soon to handle high bandwidth requirements across the distributed base.
This distributed approach might eventually go underground. Following a reporter’s question regarding China’s recent move to put taikonauts through cave training to study lava tubes for potential lunar bases, Dr. Lori Glaze confirmed that NASA has also conducted extensive research into using lunar caves. These geological features could provide vital natural protection for human crews against the harsh radiation environment as the base expands.