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shakeel
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i am writting a thesis in supersymmetry if someone help me please
shakeel said:i am writting a thesis in supersymmetry if someone help me please
Norman said:Shakeel,
The best way to get a question answered is to ask one. No one here knows what you need to know about or don't understand. The more specific the question the more likely you will be to get an answer. I hope you don't think I am being mean, I just want you to understand that most likely you will not see a lot of people rushing to answer your un-asked questions. I don't know much about supersymmetry, or why we need it, but simply asking for "help" (with what?) will not get you anywhere.
good luck,
Norm[/QUOTE
actualy i want some helping material like papers on net because in pakistan there is not much books on this topic espacially and i can not aford to by books do to poor financial conditions.Iam a pakistani student keep in mind please thank you
"I have proven that special relativity/quantum mechanics is wrong."
You mean you did an experiment whose results disagree with the predictions of that theory? I didn't think so. You mean you proved it is self-contradictory? Not possible: Mathematically it's an elementary system, whose consistency is easy to check. You might as well claim that you can prove 2+2=5. (If you think you can do that, I'm willing to give you $2+$2 change for a $5 bill.) If you think you have found an inconsistency, you have probably made an assumption that is not implied by the theory. The fact is that these theories are not only well confirmed by experiment, but practical use is made of them every single day.
Supersymmetry is a theoretical framework in particle physics that suggests the existence of a symmetry between particles with integer spin (known as bosons) and particles with half-integer spin (known as fermions). This symmetry could help explain certain unresolved problems in the Standard Model of particle physics, such as the hierarchy problem and the nature of dark matter.
Supersymmetry is considered to be an extension of the Standard Model, as it introduces new particles that could potentially solve some of the issues with the existing model. These new particles are known as superpartners, and they have the same properties as their corresponding particles in the Standard Model, but with different spin. For example, the superpartner of an electron (a fermion) would be a selectron (a boson).
If supersymmetry is confirmed through experimental evidence, it would have significant implications for our understanding of the universe and the fundamental laws of nature. It could provide a better understanding of the hierarchy of particle masses, help explain the origin of dark matter, and potentially lead to the unification of the four fundamental forces of nature.
Scientists search for evidence of supersymmetry through high-energy particle colliders, such as the Large Hadron Collider (LHC) at CERN. These colliders accelerate particles to extremely high speeds and collide them, allowing researchers to observe the resulting particles and their properties. The existence of superpartners would be indicated by the detection of new particles and their properties.
One of the main challenges in studying supersymmetry is that the superpartners are expected to be much more massive than their corresponding particles in the Standard Model. This means that they require a lot of energy to be produced and observed, making it difficult to confirm their existence. Additionally, the exact nature of supersymmetry and how it manifests in the universe is still not fully understood, making it a complex and ongoing area of research.