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snorkack
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What are the lowest energy transmutation caused by a neutrino and an antineutrino respectively?
Not huge compared to typical neutrino energies. But you can do this in a nucleus like tritium, where it can be threshold-free.p+antinue->n+e+ should have a huge energy threshold
Right.while p+antinue+e->n should be improbable because 1) it takes 3 particles at the start and 2) because there is only 1 particle at the end, it should be hard to dispose of excess energy.
A neutrino transmutation is the process by which a neutrino, a subatomic particle with very little mass and no electric charge, changes from one type to another. This can occur when a neutrino interacts with other particles, such as in a nuclear reaction or in the presence of a strong magnetic field.
The lowest energy state for a neutrino is known as the "ground state," which is characterized by a specific amount of energy and a specific type of neutrino. This state is also known as the "electron neutrino" state, as it is the most common type of neutrino produced in the universe.
The energy of a neutrino transmutation can be affected by a few different factors, including the type of neutrino involved, the type of particle it interacts with, and the strength of any external forces, such as a magnetic field. Additionally, the energy of a neutrino can also be affected by its initial energy and direction of travel.
Studying lowest energy neutrino transmutations is important because it can provide insight into the fundamental properties of neutrinos, such as their mass and how they interact with other particles. This research can also help us better understand the role of neutrinos in the universe and their potential applications in areas such as energy production and particle physics.
Scientists use a variety of methods to study lowest energy neutrino transmutations, including particle accelerators, detectors, and simulations. These techniques allow researchers to observe and measure the behavior of neutrinos in controlled environments and make predictions about their properties and interactions. Additionally, data from natural sources, such as the Sun and supernovae, can also provide valuable information about neutrino transmutations.