What is the expected energy range for Higgs boson? I didn't really understand how "supersymmetry is a symmetry of nature" is falsifiable. Sorry, I must sounds pretty dumb. But these are new stuff for me.Kevin_Axion said:Yes, if we don't find the Higgs Boson in it's expected energy range also with Supersymmetry. But one can always extend the energy levels on Supersymmetry.
If supersymmetry is false, how can we actually falsify it?Kevin_Axion said:Supersymmetry is a symmetry of nature because it states that each fermion has a corresponding boson that differs by half a unit of spin and since it is a broken symmetry they are much more massive.
Oh yes, I know that. I just wanted to know that just in case it is false, what experiment would prove it wrong.Kevin_Axion said:It isn't false, falsifiable means it can be proven wrong through experiment.
What exactly did you mean by "extend the mass"?Kevin_Axion said:The LHC but you can always extend the mass of supersymmetric particles as to save them from falsification.
Can the same thing be said about Higgs boson? Why or why not?Kevin_Axion said:I mean the theorists can say "Well, the Supersymmetric Particles can be much more massive than what the energies can probe at the LHC."
Subatomic particles are particles that are smaller than atoms and make up the building blocks of matter. They include protons, neutrons, and electrons.
We know about subatomic particles through scientific experiments and observations. These experiments involve colliding particles, using particle accelerators, and studying their behavior in various environments.
Empirical evidence is evidence that is based on observation and experimentation, rather than theory or speculation. It is considered to be the most reliable form of evidence in science.
The subatomic particles for which we have empirical evidence include protons, neutrons, and electrons. These particles have been observed and studied through various experiments and are considered to be the fundamental building blocks of matter.
Empirical evidence allows us to have a better understanding of the behavior and properties of subatomic particles. It also helps us to develop and refine scientific theories and models, which in turn can lead to advancements in technology and our understanding of the universe.