tecton04
A place to stay. On a world that won’t make it easy.
3D is unavailable on this device. The mission calculations and design controls remain available.
Keep the outpost running for 72 hours.
Choose a habitat and its power supply. See when the battery runs low, then change the design or the crew’s response to a failure.
How to try the two missions
- Design mission: press Play the mission at the top. Follow five chapters from the first outpost to a tested alternative.
- Rescue mission: load the rescue challenge below. Compare doing nothing, pausing optional activity and repairing the panels.
- Read the lowest battery reserve and the time of any power shortfall. Click a mission event to inspect that moment, or export the full record.
The site, material values and failure conditions are illustrative. These missions help explain decisions; they do not establish flight safety.
The design is half the story.
A damaged array. A finite battery. Decide how the crew responds — then test that decision on the same 72-hour mission.
This operating case uses a 24-hour ridge shadow, H+18–42. The rescue challenge loads a fixed reference design.
Assumed fault: 32% of array capacity remains. Repair restores 85%; conservation pauses 0.22 kW of discretionary activity per crew member. These are editable-scenario assumptions, not flight procedures.
All three options use identical geometry, crew, shadow and incident timing. Only the response changes. The main chart and dossier follow your selected option.
Watch the margin disappear.
A design. Then 160 different realities.
Vary shadow duration, heat conduction, demand and panel output. Keep the same seed to compare designs on equal terms.
Seed 260908 · no campaign run yet
Each tile is a complete 72-hour simulation.
Something to bring to the room.
Save the design, its full trajectory and every assumption. A shared link restores the same configuration.
Read the model assumptions and sources
Research demonstrator. The regolith shell protects a separate pressure vessel; it is not itself modelled as pressure bearing. Geometry, thermal conduction, battery balance and scenario search are calculated. Terrain, recipes and mission conditions are synthetic.
The model uses a 15 m²·K/W insulation resistance, 9 kWh/K interior thermal capacitance, 29% panel efficiency, 78% array derating and 94% charge/discharge efficiency. These are illustrative assumptions, not measured properties. Validation requires material tests, validated thermal models and operational power budgets.
The optimizer minimizes a declared resource index: shell tonnes × 0.018 + storage kWh × 0.032 + panel m² × 0.014, while requiring 12% minimum reserve. It does not estimate money or certify structural or radiation safety. Campaign variation ranges are assumptions, not statistical confidence intervals.
NASA / Moon facts · Luxembourg Space Strategy · Three.js / MIT license