Every story tagged Spacecraft Systems, curated for CIOs and IT leaders — ranked by source credibility, engagement, and freshness.
6 stories · open in the command center
Blue Origin is aggressively scaling New Glenn rocket production, targeting 60 units annually by 2028 and 100 by 2029, supported by significant infrastructure investments including a new 800,000-square-foot manufacturing facility in Florida. While these targets are ambitious relative to current performance (2 launches in 2025 vs. 8 planned), the company's sustained investment and engineering progress signal a major shift in commercial space launch capacity that will reshape satellite deployment, cloud infrastructure, and supply chain logistics. IT leaders should anticipate that dramatically increased launch cadence will enable new satellite-based services (connectivity, imaging, positioning) and distributed computing models that could fundamentally alter enterprise infrastructure strategies within 3-5 years.
NASA's Artemis III mission has been postponed to no earlier than late 2027, shifting from an ambitious lunar landing attempt to an Earth-orbit test mission similar to Apollo 9, where astronauts will rendezvous and dock with SpaceX or Blue Origin landers. This schedule slip reflects the technical complexity of preparing human-rated lunar landers and represents a strategic pivot that reduces risk while extending the overall timeline for returning humans to the Moon. For IT organizations, this signals prolonged investment cycles in aerospace technology infrastructure, extended vendor partnerships with commercial space providers, and the need for robust systems engineering practices to support multi-year, high-stakes government missions.
NASA has shut down an instrument on the 49-year-old Voyager 1 spacecraft to conserve dwindling nuclear power supplies, highlighting critical decisions around extending legacy system lifecycles when complete replacement is impossible. This decision underscores the strategic trade-offs organizations face when managing aging infrastructure—prioritizing core functionality over auxiliary capabilities to maximize operational longevity. The situation demonstrates that even mission-critical systems eventually require difficult choices about feature reduction versus continued operation.
NASA's Artemis program faces a critical technical and programmatic risk: the Orion capsule's reentry heat shield must perform flawlessly during Artemis II, as the spacecraft will reenter at twice the speed of ISS returns (11 km/s) with temperatures reaching 2,700°C. After the uncrewed Artemis I mission revealed unexpected heat shield erosion that forced a nearly two-year program delay and complete thermal model recalibration, this mission represents a go/no-go decision point that will determine whether the lunar landing program proceeds or faces further suspension—historically, reentry failures have halted entire space programs for years and cost lives. For IT and technology leaders, this underscores the critical importance of rigorous testing, validation, and risk management in complex mission-critical systems where there is zero tolerance for failure and the cost of rework extends far beyond immediate budget impacts.
NASA's Artemis II mission successfully completed a crewed lunar flyby in April 2026, demonstrating critical technologies and human-factors engineering that will enable sustained lunar operations and inform future deep-space missions. For IT organizations, this represents a validation of complex mission-critical systems integration, human-centered interface design at scale, and the importance of resilience planning—lessons applicable to enterprise digital transformation and business continuity strategies. The program's trajectory from development challenges to operational success underscores how advanced technology programs require adaptive management, cross-functional collaboration, and prioritization of system reliability over expedited timelines.