Hewlett Packard Enterprise (HPE) is expanding its computing footprint beyond Earth orbit, with plans to send its upcoming Spaceborne Computer-4 directly to the lunar surface. The new edge-computing module is scheduled to launch in late 2026 as part of NASA’s Commercial Lunar Payload Services (CLPS) initiative, marking a significant step toward establishing high-performance computing capabilities for the emerging lunar economy.
Mission Architecture and Lunar Transport
The journey to the Moon involves a collaborative transport chain utilizing commercial aerospace and robotics partners.
- The Lander: Voyager Technologies’ Griffin-1 lander will transport the payload following a launch targeted for late 2026.
- The Destination: The spacecraft is scheduled to touch down near the challenging environment of the lunar South Pole region.
- The Rover: Once landed, the payload will be deployed on Astrolab’s FLIP rover, an unmanned, solar-powered vehicle designed to accommodate various payloads and test technologies on the surface.
Hardware Design for Extreme Environments
Engineering a compute module capable of surviving the lunar South Pole required specialized modifications. HPE designed Spaceborne Computer-4 as a lightweight, self-contained, and fanless system built to withstand harsh space environments.
The module incorporates a low-power central processing unit (CPU) and graphics processing unit (GPU), paired with flash memory storage via solid-state drives supplied by KIOXIA. On the lunar surface, the system will execute core artificial intelligence applications, manage large language models, process LiDAR data, and run the first high-performance computing benchmarks on the Moon. Furthermore, HPE will support Astrolab’s mission control operations in Hawthorne, California, by providing a private cloud environment.
Building on Spaceborne Heritage
This lunar deployment continues a lineage of space-tested computing hardware initiated by HPE. The very first Spaceborne system—conceived as a proof of concept to determine whether commercial off-the-shelf hardware could survive space conditions—was launched to the International Space Station in August 2017 and returned to Earth in June 2019. It was later followed by the more powerful Spaceborne-2 system in 2024.
By transitioning from low Earth orbit to the lunar surface, the upcoming mission aims to validate how advanced computing and AI can turn data into immediate insights at the point of discovery, laying foundational infrastructure for future space exploration.

