Blue Origin Delays Blue Moon Mk.1 to 2027 After New Glenn Pad Explosion
Updated
Updated · Spaceflight Now · Jun 26
Blue Origin Delays Blue Moon Mk.1 to 2027 After New Glenn Pad Explosion
3 articles · Updated · Spaceflight Now · Jun 26
Summary
Blue Origin pushed the first Blue Moon Mk.1 cargo lander launch from later this summer to early 2027 after the May 28 New Glenn explosion destroyed its only operational launch pad.
That slip matters because NASA chose Blue Origin to launch and land lunar terrain vehicles for Artemis, replacing an earlier model in which rover teams procured their own rides.
Astrolab and Lunar Outpost are still targeting NASA delivery in November 2027 for rovers meant to support the first crewed Artemis south-pole landing, now scheduled for early 2028.
New Glenn is central to the plan because Blue Moon needs its 7-meter payload fairing and pad fueling capability, leaving few immediate alternatives.
NASA said the failure underscored its push to make Moon Base cargo missions less dependent on any single launch vehicle as it weighs backup options to avoid major delays.
After its delivery rocket exploded, can NASA's crucial Moon rover still arrive in time for the 2028 lunar landing?
How will the new lunar rovers survive the Moon's brutal negative 400-degree night without freezing solid?
Blue Origin’s New Glenn Explosion on May 28, 2026: Artemis Program Delays and Strategic Shifts in Lunar Exploration
Overview
On May 28, 2026, Blue Origin's New Glenn rocket exploded during a static fire test, creating a major setback for both the company and the broader space community. The magnitude of the event was a shock and raised immediate concerns about the future of NASA's Artemis lunar program, since Blue Origin is a key supplier. The explosion presented serious challenges for Blue Origin, with potential ramifications for upcoming Artemis missions. Despite the incident, Space Launch Delta 45 confirmed that the range remained fully mission capable, ensuring that other scheduled launches could continue without disruption.