Higgs Boson Decays into Dark MAtter

In summary, the article discusses the idea that the Higgs Boson might decay into dark matter particles, but it is still a speculative theory and it is not confirmed yet.
  • #1
Quds Akbar
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  • #2
It's being taken seriously in the sense that the experimenters are on the lookout. But as you can read in the article, it's just a speculative shot in the dark. It's not excluded, but the likelihood is not big.

Good or bad is decided in the long term by experimental evidence that confirms theoretical predictions -- or refutes them. For some theories 'long term' can be quite a number of years (see the Higgs) and Peter Higgs was right. Supersymmetry is pretty resistant too, and string theory as well. Our 'Standard model' is also 'only' the best we have -- in this stage of human knowledge.

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  • #3
Why do you think it is not being taken seriously? Both ATLAS and CMS will look for the signal, that is about how serious you can be taken as a theorist without hard experimental evidence. In the end, only experiments will tell if it is viable or not.

Also, discovery.com is not a reliable source. The original paper is here http://arxiv.org/abs/1203.4563 and is published in JHEP.
 
  • #4
One difficulty with this kind of thing is that the LHC likely couldn't directly detect the dark matter particle. Such a particle would pass straight through the detectors, so it'd appear in the signal as missing mass. And that is extremely difficult to tease out of the data.

The problem is that the LHC collides protons, and when protons collide at high energies they produce a rather extreme mess. Here's a blog post that includes an image of one such reaction:
https://www.bnl.gov/rhic/news2/news.asp?a=2024&t=today

There are frequently more than a hundred particles that make it out, and many of those particles are never detected (e.g. neutrinos can pass straight through the detectors without interacting with anything). So they're not only looking for missing mass, but they have to model all of the mass that is expected to be missing from known particles, and look for a signal on top of that (a signal that may be very small indeed).
 
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  • #5
Orodruin said:
Why do you think it is not being taken seriously? Both ATLAS and CMS will look for the signal, that is about how serious you can be taken as a theorist without hard experimental evidence. In the end, only experiments will tell if it is viable or not.

Also, discovery.com is not a reliable source. The original paper is here http://arxiv.org/abs/1203.4563 and is published in JHEP.
Thank you, this will help me a lot.
 
  • #6
I am really passionate about the results ... it could solve a lot of ptoblems and answer lots of questions
 

1. What is the Higgs Boson?

The Higgs Boson is a subatomic particle that was predicted by the Standard Model of particle physics. It is responsible for giving other particles their mass through the Higgs field.

2. How does the Higgs Boson decay into dark matter?

The Higgs Boson can decay into dark matter through a process called "invisible decay", where it transforms into other particles that cannot be directly detected by our current technology.

3. Why is it important for the Higgs Boson to decay into dark matter?

Studying the decay of the Higgs Boson into dark matter can provide valuable insights into the nature of dark matter, which makes up about 85% of the total matter in the universe. It can also help us understand the interactions between dark matter and other particles in the universe.

4. How do scientists detect the decay of the Higgs Boson into dark matter?

Since dark matter cannot be directly detected, scientists look for missing energy and momentum in the collisions of particles at high-energy accelerators, such as the Large Hadron Collider. This missing energy and momentum can indicate that the Higgs Boson has decayed into dark matter particles.

5. What are the implications of the Higgs Boson decaying into dark matter?

If the Higgs Boson is found to decay into dark matter, it could provide evidence for new theories beyond the Standard Model of particle physics. It could also help us understand the origin and composition of dark matter, which is still a mystery in the field of astrophysics.

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