An Australian scientist has stated in an interesting article that the soil, rocks, and rocks on the moon's surface contain enough oxygen to sustain eight billion people on earth for 100,000 years. If we develop any such technology, If you can effectively separate oxygen from the moon's dust and rocks, it will be much easier to realize the dream of establishing human settlements on the moon. This article by John Grant, a civil science expert at the University of Southern Kerr in New South Wales, was recently published on The Conversation website, in which he discusses various global and regional projects for the moon. In addition, the amount of oxygen on the moon is also estimated. The wind on the moon is so small that it can be considered non-existent. It also contains large amounts of neon, helium, and hydrogen gas. Oxygen is, of course, but it contains oxygen as a mineral. He wrote in NASA's various oxygen compounds (referring to oxygen in the form of daily compounds per human being). Grant says that 800 grams of oxygen are required for breathing in 45% of the lunar shell, meaning 630 kilograms of oxygen, but that compound-free oxygen is enough for a human being for two years to remain a pure case. Will Grant has calculated that if a "recollection" was dug up to a depth of only 10 meters on a full moon sage and a large amount of energy was needed to make it into oxygen, the amount would be needed. However, if somehow the moon would be so large that this energy could be arranged for eight billion human beings, or it would be enough for one hundred thousand years. A method could be devised that would mean that human settlements on the moon could be depleted of minerals by expending energy and that the oxygen gas of the humans living there could be separated so that all the oxygen needed for human life on the moon would be on the surface of the moon. But there will be no problem with oxygen for accommodation. According to the grant received from the present small amount of Kikoloth, every Rikolth will go to the moon. However, for this, we need much more advanced technology than today's 1400 kg of minerals per cubic meter, which will require an average of 630 kg.
