3. What particle in a decay signals the electromagnetic interaction?4. Why is it that the neutron decays via the weak interaction even though the neutronand one of it's decay products (the proton) are strongly interacting?

The creation of an electromotive force across an electrical conductor in a changing magnetic field is known as electromagnetic or magnetic induction. Induction was discovered in 1831 by Michael Faraday, and it was mathematically characterized as Faraday's law of induction by James Clerk Maxwell. Changing the magnetic flux associated with a circuit to induce an electromotive force in it. The strong interaction is one of the four known basic interactions in nuclear and particle physics, along with electromagnetic, weak interaction, and gravity. Furthermore, the strong force joins these neutrons and protons to form atomic nuclei, which is referred to as the nuclear force.3) Photons are the particles in decay signals of electromagnetic induction. A type of elementary particle is the photon. It is the force carrier for the electromagnetic force and the quantum of the electromagnetic field, which includes electromagnetic radiation such as light and radio waves. Because photons have no mass, they always travel at the speed of light in a vacuum. 4) The generation of an electron and anti-neutrino is accompanied by neutron decay, and the anti-neutrino is only present in weak interactions. As a result, although being highly interacted, the neutron decays via weak contact.

Answered: 3. What particle in a decay signals the…

3. What particle in a decay signals the electromagnetic interaction? 4. Why is it that the neutron decays via the weak interaction even though the neutron and one of it's decay products (the proton) are strongly interacting?