Or via other process that involve real or virtual W bosons. In the Standard Model, those are the only interactions that convert elementary particles into other particles.TDanskin said:Is the association of electrons, muons and tau particles with their 'corresponding' neutrinos purely based on this decay of W bosons?
I could have sworn Peskin-Schröder had an early example of electromagnetic ##e^+e^-\rightarrow\mu^+\mu^-## scattering ...mfb said:The other option is quark plus antiquark.Or via other process that involve real or virtual W bosons. In the Standard Model, those are the only interactions that convert elementary particles into other particles.
The W boson is a subatomic particle that is responsible for carrying the weak nuclear force. It decays through either an electron or electron neutrino, or a muon or muon neutrino, and a corresponding antineutrino.
The W boson decay is directly related to leptons, as it decays into a lepton and its corresponding antineutrino. This process allows scientists to study the properties of leptons and their interactions with other particles.
Studying the association between W boson decay and leptons allows scientists to better understand the fundamental forces and particles that make up our universe. It also helps to validate the Standard Model of particle physics, which predicts the interactions between particles.
Scientists study the association between W boson decay and leptons by colliding particles at high energies, such as at the Large Hadron Collider. They then observe the particles produced from these collisions and analyze their properties and interactions.
The association between W boson decay and leptons has potential implications for understanding the origin of mass, the possibility of new particles beyond the Standard Model, and the search for a unifying theory of all fundamental forces. It also has practical applications in fields such as medicine and technology.