The new space race: building a sustainable economy on the moon

Skye Jacobs

Posts: 586   +13
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Something to look forward to: The concept of a lunar economy, once confined to science fiction, is rapidly becoming a tangible reality. Nations and private companies are racing to establish a foothold on Earth's celestial neighbor to harness the moon's natural resources to construct scientific infrastructure and develop capabilities for future deep space missions.

This modern-day lunar gold rush has attracted diverse participants, from established space agencies to innovative private firms. One such company in this space race is the Texas-based firm Firefly Aerospace. On January 15, Firefly launched its Blue Ghost 1 mission, marking a significant milestone in the development of an Earth-moon delivery system.

Currently en route to the lunar surface, the Blue Ghost lander faces a series of challenging tasks. These include entering lunar orbit, executing a controlled descent to Mare Crisium in the moon's northern hemisphere, surviving extreme conditions, deploying scientific equipment, conducting environmental readings, and autonomously drilling and extraction of dust particles suspended above the lunar surface.

Firefly's mission is part of NASA's Commercial Lunar Payload Services (CLPS) initiative, which aims to use private sector innovation to solve space exploration challenges. While NASA focuses on returning astronauts to the moon through the Artemis program, private companies are tasked with developing the infrastructure for supply delivery and sample return missions.

The Blue Ghost lander carries a payload of 10 experiments, including a computer designed to measure circuit resistance to space radiation and a specialized camera for studying the phenomenon of floating regolith – the loose, broken rock and dust that covers the solid rock. Additionally, the lander will capture images of a lunar eclipse, offering a unique perspective on this celestial event.

As the lunar economy takes shape, attention is turning to the potential exploitation of lunar materials. Of particular interest is helium-3, a rare isotope with applications in nuclear fusion, quantum computing, and medical imaging. Helium-3, which is scarce on Earth, is believed to have accumulated in the moon's regolith due to solar winds. Companies like Interlune are planning lunar mining missions that will be targeting helium-3 extraction specifically.

Beyond helium-3, researchers are exploring the use of lunar minerals and water to produce oxygen and hydrogen for rocket propellant. These initiatives could pave the way for sustained human presence on the moon, potentially leading to the development of lunar infrastructure such as roads, railroads, and even concrete structures.

As missions like Blue Ghost pave the way for future lunar exploration and resource utilization, the once-distant concept of a lunar economy is rapidly materializing. In the coming years, images of landers entering lunar orbit and establishing delivery systems in space are expected to become commonplace, heralding a new era of space exploration and economic activity beyond Earth's atmosphere.

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Don't worry, they'll think of something.
At least they won't have to subjugate the locals to exploit their resources.
 
To extract approximately 1 kg (~10 grams of Helium-3 per ton) from the moon's regolith, it is necessary to process an area of roughly 10 meters by 10 meters to a depth of 5 meters. This whole regolith must be heated to around 600°C, which can be done most efficiently using a solar furnace. The extracted Helium-3 gas should be compressed in a canister and sent back to Earth via a railgun with electromagnets powered by solar cells. The use of those two methods (solar furnace and railgun) theoretically allows for a positive net energy balance, making the process theoretically feasible. However, intelligent robots will be required to operate in the extreme environment of the moon, where temperatures range from -170°C to 130°C and there is no water or air. So these robots will need and dust shifters to keep the solar panels clean :)
The water on Earth contains hydrogen, which can be harnessed as a clean fuel source. By developing a smart way to unlock a more efficient electrolysis method, we could potentially solve the energy crisis in an environmentally friendly and accessible manner. Hydrogen fuel cells can produce electricity and hydrogen can be burned with oxygen to produce heat. And of course there is the matter antimatter reactions which is easy if you have antimatter. And antimatter exist in the quantum fluctuations, we just need a smart mechanism to extract it by prolonging the lifetime of the virtual positrons.
 
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Neither the moon or Mars make any sense to colonize. There's no oxygen, there's no soil, there's no bacteria, there's no plants, no water...

I think we're better off just building a launch facility on the moon and using that to further build spaceships that can land there. I don't foresee FTL travel any time soon either - not unless aliens bring it to us.
 
To extract approximately 1 kg (~10 grams of Helium-3 per ton) from the moon's regolith, it is necessary to process an area of roughly 10 meters by 10 meters to a depth of 5 meters. This whole regolith must be heated to around 600°C, which can be done most efficiently using a solar furnace. The extracted Helium-3 gas should be compressed in a canister and sent back to Earth via a railgun with electromagnets powered by solar cells. The use of those two methods (solar furnace and railgun) theoretically allows for a positive net energy balance, making the process theoretically feasible. However, intelligent robots will be required to operate in the extreme environment of the moon, where temperatures range from -170°C to 130°C and there is no water or air. So these robots will need and dust shifters to keep the solar panels clean :)
The water on Earth contains hydrogen, which can be harnessed as a clean fuel source. By developing a smart way to unlock a more efficient electrolysis method, we could potentially solve the energy crisis in an environmentally friendly and accessible manner. Hydrogen fuel cells can produce electricity and hydrogen can be burned with oxygen to produce heat. And of course there is the matter antimatter reactions which is easy if you have antimatter. And antimatter exist in the quantum fluctuations, we just need a smart mechanism to extract it by prolonging the lifetime of the virtual positrons.
taking something from google doesnt make it realistic bro. chill.
 
Main benefit to establish a moon base is the lower cost of transporting to an Earth-Moon Lagrange point. It takes 25kg of fuel to send 1 kg from Earth, but only 4kg if sent from the moon. So, if you want to supply spaceships to Mars in the future, anything you can mine from the Moon will be cheaper to to send to the Lagrange point. The first practical thing I know of is water, not just for drinking, but for splitting into hydrogen and oxygen and using it as rocket fuel. If manufacturing was to be placed on the moon, making for example parts for spaceships, it would also be cheaper to send than from Earth after the high initial cost of sending a factory over.
 
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