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petm1
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What would be the expected characteristic properties of the two magnetic monopoles?
petm1 said:What would be the expected characteristic properties of the two magnetic monopoles?
...without their presence in realitymarlon said:It explains how monopoles arise from topology in a very introductory manner.
petm1 said:Can we think of Bosons as being a measure of one dimensional motion after all we can only detect either speed or direction with a photon? Fermions on the other hand have movement that we detect in all three dimensions. With this type of thinking would not a magnetic field fill the gap and appear to be movement in two dimensions.
petm1 said:Why couldn't we think of the two monopoles of a magnetic field as being the two different spins states displayed by Fermions, and Bosons.
Fermions which could be thought of as having a out to in spin, and Bosons which have an into out spin?
The theory behind magnetic monopoles is written in four dimensions because :petm1 said:Would it make more sense to call time, our tool for measuring motion, as the first dimension and the second through fourth dimensions are the other three?
petm1 said:Would each one dimension particle or for the people who like to think small, field, have two possible directions of movement?
Nerble said:No one has been able to create a magnetic monopole in a lab yet, but magnetic quadrupoles do exist, and I even found a video of a permanent magnetic quadrupole on YouTube.
The video looks impossible, but they are found inside of every particle accelerator. Take a look if you are interested in this topic.
Would each one dimension particle or for the people who like to think small, field, have two possible directions of movement?
What's a "one dimension particle" ?
How is it connected to "a small field" ?
Why would you suspect the suggested "two possible movement directions" behaviour ?
Magnetic monopoles are hypothetical particles that have only one magnetic pole (either north or south). In contrast, traditional magnets have both a north and south pole. These particles are important because they could potentially explain certain phenomena in physics, such as the quantization of electric charge and the origin of magnetic fields.
While magnetic monopoles have not been observed in nature so far, they are predicted to exist based on certain theories in physics. Some scientists believe that they may have been created in the early universe during the Big Bang, but they have not been directly detected yet.
Magnetic monopoles are expected to have a magnetic charge, similar to how particles have an electric charge. They are also predicted to have a mass and a spin, and they may interact with other particles through the electromagnetic force.
Scientists have proposed various methods for detecting magnetic monopoles, such as using high-energy particle accelerators or searching for their signatures in cosmic rays. However, these particles are extremely rare and difficult to detect, making the search for them challenging.
If magnetic monopoles are observed and their properties are confirmed, it could lead to a major breakthrough in physics. It could help explain some unanswered questions in the Standard Model of particle physics and provide insights into the fundamental forces of the universe, such as electromagnetism and gravity.