3.1 – How does your Moon Camp protect and provide shelter to your astronauts against the Moon’s harsh environment.
To protect astronauts from the Moon’s harsh environment, our Helios Camp must be designed to withstand extreme temperatures, radiation, meteorite impacts, and the vacuum of space.
Using the Moon’s natural resources would be crucial to building a sustainable and cost-effective Moon Camp. The Moon’s regolith, or loose rock and dust, can be compacted and sintered to create strong building materials for structures, roads, and landing pads. Water ice located in the permanently shadowed craters near the Moon’s poles could be mined and processed to provide further protection in our underground base.
Lava tubes near the poles, underground tunnels created by ancient volcanic activity, could provide natural shelter and protection from the harsh environment on the Moon’s surface.
However, equipment and machinery for construction and mining, supplies for the crew, and parts for maintaining and repairing equipment and structures would still need to be transported from Earth. Therefore, careful planning and resource management would be crucial to building a sustainable and efficient Moon Camp.
3.2 – On the Moon, resources are very scarce, but during long Moon missions, astronauts cannot rely on resupply missions from the Earth. Explain how your Moon Camp will provide astronauts with sustainable access to basic needs like water, food, air and power.
Helios Camp must be self-sustaining to provide astronauts with basic necessities during long Moon missions.
Resources like water, food, air, and power are scarce on the Moon, and relying on Earth for resupply is not feasible. To address this challenge, Moon Camps can use in-situ resource utilization (ISRU) to extract resources from the Moon.
Water, for instance, can be obtained by extracting it from the lunar regolith or by mining lunar ice in the polar regions.
Water electrolysis can separate the water into hydrogen and oxygen, which can be used for fuel and breathing, respectively. Sustainable agriculture methods like hydroponics or aeroponics can provide food for astronauts. Renewable energy sources like solar panels can generate electricity to power life support systems, scientific experiments, and communication systems.
A reliable source of power is essential for maintaining a comfortable temperature and air purification systems. Nuclear power is an alternative, but safety concerns must be taken into account.