"silly" question - Neutrino observation

In summary, the conversation discusses the possibility of creating an above ground neutrino observatory encased within an intense magnetic field in order to deflect background signals and improve neutrino detection experiments. However, it is stated that this would not work as it would also sweep in more particles, making it difficult to distinguish neutrino signals. The NOvA project is mentioned as an example of an above ground neutrino detector, but it is also noted that the source of the neutrinos plays a role in the need for an underground detector.
  • #1
droog57
5
0
Hello.
Probably a stupid question, but hey why not.
Since Neutrino's do not interact with electromagnetic fields, but cosmic rays and other particles (that would overwhelm a neutrino signal if observed in an environment not at least partially shielded from their signals as at SNO etc) DO..

Would it not be possible (with a few million $) to create an above ground neutrino observatory encased within an intense magnetic field that would deflect the background signals from the particles that interact with EM fields, thereby allowing neutrino detection experiments to rise above ground and become larger and more effective?

The LHC has shown that we know how to generate and maintain huge magnetic fields using superconducting materials could this technique not be used to screen the neutrino signals from the overwhelming background signals above ground?

As I said, forgive my ignorance, but I had a thought..
 
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  • #2
This won't work. In fact, for every particle you sweep out of the detector, there will be (on average) one more that you sweep in.
 
  • #3
droog57 said:
Hello.
Probably a stupid question, but hey why not.
Since Neutrino's do not interact with electromagnetic fields, but cosmic rays and other particles (that would overwhelm a neutrino signal if observed in an environment not at least partially shielded from their signals as at SNO etc) DO..

Would it not be possible (with a few million $) to create an above ground neutrino observatory encased within an intense magnetic field that would deflect the background signals from the particles that interact with EM fields, thereby allowing neutrino detection experiments to rise above ground and become larger and more effective?

The LHC has shown that we know how to generate and maintain huge magnetic fields using superconducting materials could this technique not be used to screen the neutrino signals from the overwhelming background signals above ground?

As I said, forgive my ignorance, but I had a thought..

Look at the NOvA project. The detector is not underground.

But this is because they are detecting neutrinos coming from Fermilab, and these neutrinos have their own time-signatures (among other things). So no, depending on the experiment and the source, one does not always need to have an underground detector.

Zz.
 

1. What is a neutrino?

A neutrino is a subatomic particle that is electrically neutral and has a very small mass, traveling at almost the speed of light. It is one of the fundamental particles that make up the universe.

2. How do we observe neutrinos?

Neutrinos are observed using large detectors located deep underground or in bodies of water. The detectors are designed to detect the rare interactions between neutrinos and other particles, which produce tiny flashes of light or other signals that can be detected.

3. Why is it important to observe neutrinos?

Neutrinos are important because they can help us understand the structure and evolution of the universe. They are also key to understanding the fundamental forces of nature and the behavior of matter at the smallest scales.

4. What has recent research shown about neutrinos?

Recent research has shown that neutrinos have mass, which was previously thought to be zero. This has opened up new avenues for studying the properties of neutrinos and their role in the universe.

5. How might the observation of neutrinos impact our daily lives?

The observation of neutrinos may not have a direct impact on our daily lives, but it can lead to advancements in technology and our understanding of the universe. For example, the technology used to detect neutrinos could be applied to other fields such as medical imaging or environmental monitoring.

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