B How Does the Higgs Boson Mass Impact Multiverse and Supersymmetry Theories?

alejandromeira
What are the consequences of the experimental value of the Higgs boson mass for theories of multiverse and supersymmetry?
 
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The Higgs boson mass significantly constrains the available parameter space of many supersymmetry theories. But, there isn't a really good compact way of describing that impact because there are so many versions of SUSY and so many free parameters in the theory.

It really has no obvious impact on theories of multiverse which really don't deserve the title of "theories" anyway.
 
Ok. Thank you so much. I still have a lot to study.
 
The most interesting (for me, can't speak for others) consequence of measured Higgs boson mass value is a few unexplained correlations:

With measured top and Higgs masses, SM sits right on vacuum stability/metastability line.
Sum of squares of all SM bosons' masses is equal to half of square of Higgs VEV to within 0.35%.
 
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I'm trying to understand the relationship between the Higgs mechanism and the concept of inertia. The Higgs field gives fundamental particles their rest mass, but it doesn't seem to directly explain why a massive object resists acceleration (inertia). My question is: How does the Standard Model account for inertia? Is it simply taken as a given property of mass, or is there a deeper connection to the vacuum structure? Furthermore, how does the Higgs mechanism relate to broader concepts like...

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