‘Shots on goal and win the game’: NASA’s effort to accelerate lunar landings
NASA announced at its “Ignition” event on March 24 that it will launch a seven‑year, $20 billion effort to increase the cadence of robotic lunar lander missions and lay the groundwork for a permanent moon base. The agency outlined a phased schedule that aims for monthly landings, with an initial target of two NASA‑backed landings in 2026 rising to nine in 2027 and ten in 2028. At the same event NASA issued a draft request for proposals for CLPS 2.0 and awarded Intuitive Machines a $180.4 million contract for a 2030 south‑polar mission, designated IM‑5, using the larger Nova‑D lander and carrying seven NASA payloads, two rovers from Honeybee Robotics and the Australian Space Agency, and a suite of instruments that have flown on earlier missions.
Phase 1 (2026‑2028) will conduct 21 landings delivering a total of 4 000 kg of payload, with each mission intended to validate high‑frequency operations and identify bottlenecks in manufacturing, testing and technology. Phase 2 (2029‑2032) expands to 24 landings and 60 000 kg of cargo, employing Commercial Lunar Payload Services (CLPS) landers capable of up to 5 000 kg per flight and averaging six missions per year. Phase 3 (starting 2033) plans 28 landings over four years, using CLPS vehicles that can carry up to eight metric tons and supporting regular logistics, including cargo return and lunar‑night survivability. The CLPS 2.0 solicitation seeks landers with radioisotope power sources and enhanced reliability, moving away from the earlier “shots on goal” model that tolerated mission failures. NASA’s acting associate administrator for exploration systems development, Lori Glaze, indicated that both SpaceX and Blue Origin are simplifying their Human Landing System (HLS) architectures and exploring alternative orbits to reduce performance demands while preserving crew‑landing capabilities for Artemis 3 in 2027 and a potential crewed landing as early as 2028.
The accelerated schedule aligns with Artemis program timelines and reflects a shift toward more dependable commercial partnerships. By increasing robotic landing frequency, NASA expects to resolve supply‑chain constraints and mature technologies that will feed directly into crewed missions, while the CLPS 2.0 framework offers providers greater access to agency expertise. The emphasis on reliability and logistics support signals a broader industry move to transition from low‑cost, risk‑tolerant demonstrations to sustained lunar operations, setting the stage for future habitat construction and long‑term presence on the moon.
