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Quarker
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Also assuming the two universes were made of the antimatter versions of themselves
Assuming otherwise identical but mirror image, antimatter universes. If you could only observe the properties of one of the black holes, could you tell which universe you were in?Ibix said:If you just mean "a universe in which the proportions of matter and antimatter are reversed with respect to this universe but the laws of physics are otherwise the same" then black holes would be no different.
Note that this answer is conditional on the assumption that you can just reverse the proportions of matter and antimatter. We don't know why they are what they are, so we don't know if you can have a universe with different proportions or not.
Assume a two sided quantum field, so that every action in one universe has an equal but antimatter equivalent in the other, but they are divided by a quantum wall, so to speak. If you were observing a black hole in only one of the universes, is there a property it would have that would tell you which universe you were in?Ibix said:You still haven't said what you mean by "mirror". Do you just mean a universe with swapped amounts of matter and antimatter? Or something else?
No, it’s hypothetical. That’s why I started the post with the word assuming.Ibix said:Can you provide a reference where I can read about a "two sided quantum field"?
hypothetical garbageQuarker said:it’s hypothetical
So you've asked me to imagine something you made up, that doesn't have any mathematical model backing it.Quarker said:No, it’s hypothetical. That’s why I started the post with the word assuming.
So what. It’s the properties of the black holes I’m wondering about. If you don’t know, feel free to say so.ergospherical said:hypothetical garbage
Antimatter is a type of matter that has the same mass and opposite charge as regular matter. This means that it is made up of particles called antiparticles, such as antiprotons and antielectrons (also known as positrons). When matter and antimatter come into contact, they annihilate each other, releasing a large amount of energy.
Antimatter can be created through various natural processes, such as cosmic rays colliding with particles in the atmosphere. It can also be produced in laboratories using particle accelerators. Small amounts of antimatter can be found in the universe, such as in the Van Allen radiation belts around Earth, but it is generally very rare and difficult to find in large quantities.
Exploring antimatter universes could potentially provide us with a better understanding of the laws of physics and the origins of the universe. It could also lead to advancements in energy production and space travel, as antimatter has the potential to produce a much larger amount of energy compared to regular matter.
Scientists study antimatter universes by creating and manipulating small amounts of antimatter in laboratories. They also use telescopes and other instruments to observe and study natural sources of antimatter in the universe. Theoretical models and simulations are also used to study the behavior of antimatter in different environments.
One of the main challenges of exploring antimatter universes is the difficulty in producing and containing large amounts of antimatter. There is also a risk of accidental annihilation, which could release a large amount of energy and cause damage. Additionally, the cost and technological limitations of conducting experiments and observations in space could also be a challenge.