On February 10, 2026, NASA Space Technology Mission Directorate principal technologist Jeremiah McNatt presented lunar surface power requirements to the Ohio Federal Research Network. NASA identified a specific technology gap: current state-of-the-art electronics lack sufficient durability for long-duration lunar and Martian missions and cannot be maintained in those environments. The affected architecture includes power generation, management, distribution, and storage needed for continuous operation through lunar day and night.[1]
For a permanent settlement, electronics failure is a cascading existential risk: loss of power management can disable generation, storage, communications, thermal control, life support, and data preservation even when energy resources remain available. Lunar dust, extreme thermal cycling, and radiation require radiation-hardened power electronics, while distributed habitats require high-power transmission over long distances through cables, connectors, or wireless power beaming. NASA proposes common, interchangeable building blocks to reduce spare-part diversity and maintenance burden, ultimately supporting a lunar power grid.[1]
The Ark team should make maintainability a primary system requirement: define modular, interchangeable power-management units; qualify components under combined lunar dust, thermal, and radiation exposure; establish extensive cold spares and nonvolatile design records; and test autonomous replacement by robotic or suited crews. Monitor NASA’s power-management, energy-storage, power-distribution, and lunar-grid technology efforts, with particular attention to radiation-hardened electronics and standardized interfaces for bi-directional power sharing.[1]