How to make a neutrino interact with a target particle?

In summary, the conversation discusses the combination of a neutrino and anti-neutrino, and how to experimentally distinguish between the two. It is mentioned that neutrinos are chargeless and almost massless, and their interaction with target particles is related to spin. The conversation also mentions the existence of a whole science dedicated to neutrinos, with processes and detectors involved. It is also mentioned that proton decay is not allowed by energy conservation, except in certain cases involving neutron-deficient nuclei. The conversation ends with a suggestion to research more about neutrino detectors.
  • #1
mkbh_10
222
0
p ----> n + 2v where v = neutrino , tell me why the combination of a neutrino and anti neutrino is observed and how to expreimentally distinguish b/w neutrino and anti neutrino ?

It is chargeless ,almost massless , is it related to the spin , how to make a neutrino interact with a target particle?
 
Physics news on Phys.org
  • #2
Proton does not decay this way: the charge and energy conservation laws forbid it.

There is a whole neutrino science (processes involved, detectors, etc.).
 
  • #3
Give me some idea, something on it ...
 
  • #4
For that I have to make a search for you. Maybe you will do it, or somebody else?
 
  • #6
proton "decay" [STRIKE]in[/STRIKE] is not allowed by energy conservation, except in neutron-deficient nuclei, when a proton can "decay" into a neutron, a positron, and an electron neutrino. The proton "decay" to a neutron can also go via electron capture from the 1s atomic level. The "decay" has to conserve energy, charge, and lepton number.
Bob S
 
Last edited:

Related to How to make a neutrino interact with a target particle?

1. What is a neutrino and how does it interact with other particles?

A neutrino is a subatomic particle that has no electric charge and very little mass. It interacts with other particles through the weak nuclear force, which is one of the four fundamental forces in nature.

2. Can we control or manipulate neutrinos to interact with a specific target particle?

Currently, there is no known way to directly control or manipulate neutrinos. They have a very weak interaction with matter, making it difficult to manipulate their behavior.

3. What are the factors that determine the likelihood of a neutrino interacting with a target particle?

The likelihood of a neutrino interacting with a target particle depends on several factors, including the energy and direction of the neutrino, the type of target particle, and the distance between the neutrino and the target particle.

4. How do scientists detect neutrino interactions with target particles?

Scientists use large detectors, such as underground tanks filled with water or ice, to detect neutrino interactions. When a neutrino interacts with a target particle, it produces secondary particles that can be detected by these detectors.

5. What are the potential applications of making neutrinos interact with target particles?

The ability to control neutrino interactions could have various applications, including in particle physics research, nuclear reactors, and medical imaging. It could also help us better understand the properties of neutrinos and their role in the universe.

Back
Top