SUMMARY
In beta decay, a neutron decays into a proton, an electron, and an antineutrino, illustrating charge conservation. The process involves the conversion of a down quark (charge -1/3) into an up quark (charge +2/3) through the emission of a W- boson. The total charge remains balanced at -1/3 before and after the decay, with the W- boson mediating the interaction. This two-step process can be visualized through a Feynman diagram, which details the quark interactions involved.
PREREQUISITES
- Understanding of beta decay processes
- Familiarity with quark charge properties
- Knowledge of particle physics terminology, including W bosons
- Ability to interpret Feynman diagrams
NEXT STEPS
- Research the role of W bosons in particle interactions
- Study Feynman diagrams related to beta decay
- Explore the conservation laws in particle physics
- Learn about the differences between beta minus and beta plus decay
USEFUL FOR
Students and professionals in physics, particularly those focused on particle physics, nuclear physics, and anyone interested in understanding the mechanisms of beta decay and charge conservation.