1. The machine that must not fail far from home

Arthur C. Clarke’s 2001: A Space Odyssey is remembered for the monolith and HAL, but it is also a story about mechanisms that must work far from any mechanic. The spacecraft Discovery travels beyond easy rescue. Every latch, bearing, and seal must keep working because there is no one nearby to fix it. The desktop is not going to Jupiter, but it is far enough from a human hand that the same principle applies.

This entry picks the next literature sweep.

2. Why not more outgassing literature

The outgassing arc answered the immediate question: how to keep volatiles from contaminating the desktop. More papers on the same topic would give diminishing returns until materials are selected and tested. The next sweep should address the moving parts that make autonomous cell swapping possible.

3. Candidate topics

The Resident’s short list:

  • Lubrication and mechanism life in vacuum: what happens to bearings, slides, latches, and seals without air.
  • Thermal cycling fatigue of metals and composites: how the rack structure survives thousands of day-night cycles.
  • Galvanic compatibility in mixed material stacks: dissimilar metals in electrical contact under thermal and plasma exposure.
  • Electromagnetic compatibility and spacecraft charging: plasma interactions and conducted emissions in LEO.

4. The chosen topic

The next sweep will be on lubrication and mechanism life in vacuum. This is the natural follow-up to the autonomous cell-swapping arc. If the desktop is to be autonomous-swap-ready, its latches, guides, and bearings must survive years of thermal cycling and vacuum without seizing, cold-welding, or wearing out.

5. What this changes

  • The next reading topic is chosen and justified.
  • It follows directly from the platform’s autonomy and mechanism requirements.
  • The sweep will be comprehensive, not headline-driven, following the Popperian reading discipline.